JP7802736B2 - Program, information processing system, and information processing method - Google Patents

Description

This disclosure relates to a program, an information processing system, and an information processing method.

Conventionally, games are known in which multiple objects not controlled by the player act in response to the actions of an object controlled by the player. For example, Patent Document 1 discloses that when a player character controlled by the player approaches an enemy character not controlled by the player within a predetermined distance, the enemy character is made to attack the player character.

Japanese Patent Application Laid-Open No. 2019-118687

The goal is to change the behavior of objects that are not controlled by the player depending on the situation.

A program according to one aspect of the present disclosure causes a computer to act on a first object that is the object of control by a player and a second object that is not the object of control by the player, and changes the timing of the action of the second object depending on the number of second objects located within a predetermined range from the first object.

This disclosure makes it possible to change the behavior of objects that are not controlled by the player depending on the situation.

FIG. 1 is a diagram showing an overview of an information processing system. FIG. 2 is a diagram illustrating an example of a module configuration of a terminal. FIG. 3 is a diagram illustrating an example of a module configuration of a server. FIG. 4 is a diagram showing an example of screen transitions on the terminal of FIG. FIG. 5 is a diagram illustrating an example of a process flow for executing an event. FIG. 6 is a diagram illustrating an example of the flow of the event control process. FIG. 7 is a diagram showing an example of a hostile range. FIG. 8 is a diagram showing an example of how the action timing of a non-player character changes. FIG. 9 is a diagram showing an example of the flow of the action control process for a non-player character. FIG. 10 is a diagram showing an example of a home screen displayed on the terminal of FIG. 2 . FIG. 11 is a diagram illustrating an example of a virtual space. FIG. 12 is a diagram showing an example of an event screen displayed on the terminal of FIG. FIG. 13 is a diagram showing the positions of the non-player characters in FIG.

An information processing system according to the present disclosure will be described with reference to the drawings.
(First embodiment)
[System Overview]
As shown in FIG. 1 , the information processing system 10 includes a network 20, one or more terminals 100, and one or more servers 200. The information processing system 10 is provided as a home system or a business system. The terminals 100 and the server 200 are computers. The terminals 100 are configured to be able to communicate with the server 200 via the network 20. As an example, the information processing system 10 is configured as a game system that provides a game to a user 11 of the terminal 100. In the following description, when simply referring to a "game," it refers to a game provided by the information processing system 10. The terminal 100 can be used as a game terminal. As a game terminal, the terminal 100 provides the user 11 with a function for playing a game (hereinafter referred to as a game function). The user 11 of the terminal 100 can be a player who plays the game.

[network]
For example, the network 20 includes the Internet and a mobile communication system including a wireless base station. For example, the mobile communication system may be realized as a 3G, 4G, or 5G mobile communication system, a Long Term Evolution (LTE), or a wireless network connectable to the Internet via an access point.

[Device hardware configuration]
As an example, the terminal 100 is a smartphone. The terminal 100 may be a mobile terminal device such as a feature phone, a personal digital assistant (PDA), or a tablet computer. The terminal 100 may be a fixed terminal device such as a personal computer (PC) or a workstation.

As an example, the terminal 100 includes a processor 110, memory 120, and storage 130. The terminal 100 may also include a communication interface 140 and an input/output interface 150. The terminal 100 may also include a microphone 160, a speaker 170, and a touchscreen 180. Each component included in the terminal 100 is connected to a communication bus 190.

The processor 110 executes a series of instructions contained in a program stored in the memory 120 or storage 130 in response to a signal provided to the terminal 100 or in response to a predetermined condition being met. For example, the processor 110 can be implemented as a CPU (Central Processing Unit), a GPU (Graphics Processing Unit), an MPU (Micro Processor Unit), an FPGA (Field-Programmable Gate Array), or other computing device.

Memory 120 temporarily stores programs and data. As an example, programs are read from storage 130. Data includes data transmitted to terminal 100 and data generated by processor 110. For example, memory 120 can be implemented as RAM (Random Access Memory) or other volatile memory. Storage 130 permanently stores programs and data. For example, storage 130 can be implemented as ROM (Read-Only Memory), a hard disk drive, flash memory, or other non-volatile storage device. Storage 130 may also be implemented as a removable storage device, such as a memory card.

As an example, storage 130 stores a game program and a communication program. As an example, the game program realizes game functions. The game program provides an environment for user 11 to play the game. The communication program realizes the function of communicating with another computer. As an example, the other computer is server 200. Storage 130 may also store a distribution program, a viewing program, an operating system, a simulation program, a user authentication program, and other programs.

For example, data stored in storage 130 may include data defining various objects and user information. The various objects may include characters, equipment, and objects that make up various game screens. As an example, user information may include a user ID, user name, gender, age, address, etc. As described in more detail below, user information may include information about the character used by user 11 as an avatar and information about the character's equipment. User information may include in-game currency, in-game items, and various rewards held by user 11.

The communication interface 140 is connected to the network 20. The communication interface 140 communicates with other computers connected to the network 20. For example, the communication interface 140 can be implemented as a LAN (Local Area Network) or other wired communication interface. For example, the communication interface 140 can be implemented as Wi-Fi (registered trademark), Bluetooth (registered trademark), NFC (Near Field Communication), or other wireless communication interface. The communication interface 140 is not limited to the above.

The input/output interface 150 communicates with an external input device 300. For example, the input/output interface 150 can be implemented as a Universal Serial Bus (USB), a Digital Visual Interface (DVI), a High-Definition Multimedia Interface (HDMI (registered trademark)), or other wired communication interface. For example, the input/output interface 150 can be implemented as Bluetooth or other wireless communication interface.

As an example, the input device 300 is a controller. The controller has one or more operating components. For example, the one or more operating components may include a button, a key, a switch, a handle, a bar, a touchpad, or a stick. The controller transmits an output value to the terminal 100 based on the operation of the user 11 on the operating component. As an example, the controller may include motion sensors such as an acceleration sensor and an angular velocity sensor. The controller may be configured to transmit the output value of the motion sensor to the terminal 100. The controller may be attachable to and detachable from the terminal 100.

The input device 300 is not limited to the above. For example, the input device 300 may be a camera. The camera may be configured to transmit a captured image of the user 11 to the terminal 100. For example, the input device 300 may be a distance measurement sensor. The distance measurement sensor may be configured to transmit an output value based on the detection of the user 11's hand, a marker, or the like to the terminal 100.

The microphone 160 converts the speech of the user 11 into an audio signal (electrical signal) and transmits it to the processor 110. The speaker 170 converts the audio signal into sound and outputs it to the user 11. In addition to or instead of the speaker 170, the terminal 100 may be provided with an earphone or an earphone jack to which an earphone can be connected.

The touch screen 180 may include a monitor 181 and a touch sensor 182. The monitor 181 may be realized as a transmissive or non-transmissive display device. For example, the monitor 181 may be realized as an LCD monitor, an organic EL (Electro Luminescence) monitor, or another display device. The monitor 181 displays various images. The images displayed on the monitor 181 include various objects such as backgrounds, characters, windows, buttons, menus, lists, and icons. The monitor 181 is not limited to the above. For example, the monitor 181 may be a 3D monitor including a sub-monitor that displays an image for the left eye and a sub-monitor that displays an image for the right eye.

The touch sensor 182 transmits an output value based on the operation of the user 11 on the monitor 181 to the processor 110. As an example, the touch sensor 182 can be implemented as a capacitive touch sensor, a resistive touch sensor, an ultrasonic touch sensor, or another type of touch sensor. The input surface of the touch sensor 182 is part or all of the display surface of the monitor 181. The touch sensor 182 can be used as an operation device configured to accept an input operation from the user 11. For example, if the operation device is the touch sensor 182, the processor 110 accepts the user 11's physical contact operation on the input surface of the touch sensor 182 as the input operation from the user 11. For example, the input operation from the user 11 on the touch sensor 182 includes a touch operation, a slide operation, a swipe operation, a tap operation, a drag operation, and operations in other modes.

The operating device is not limited to the configuration described above. For example, if the operating device is a communication interface 140, the processor 110 accepts a signal transmitted from an operating device (not shown) connected via the network 20 as an input operation by the user 11. For example, if the operating device is an input/output interface 150, the processor 110 accepts a signal transmitted from an external input device 300 as an input operation by the user 11. For example, if the input device 300 is a camera and a distance sensor, when the processor 110 detects the hand of the user 11 from a received captured image, the processor 110 accepts a gesture detected based on the captured image and output value as an input operation by the user 11. For example, if the input device 300 is a controller, the processor 110 accepts the output value transmitted from the controller as an input operation by the user 11.

[Server hardware configuration]
The server 200 may be a workstation or a general-purpose computer such as a PC. The server 200 includes a processor 210, a memory 220, a storage 230, a communication interface 240, and an input/output interface 250. The components of the server 200 are connected to a communication bus 290.

Processor 210 executes a series of instructions contained in a program stored in memory 220 or storage 230 in response to a signal provided to server 200 or in response to a predetermined condition being met. For example, processor 210 can be implemented as a CPU, GPU, MPU, FPGA, or other computing device.

Memory 220 temporarily stores programs and data. As an example, programs are read from storage 230. Data may include data sent to server 200 and data generated by processor 210. For example, memory 220 may be implemented as RAM or other volatile memory.

Storage 230 permanently stores programs and data. For example, storage 230 can be realized as ROM, a hard disk drive, flash memory, or other non-volatile storage device. Storage 230 may also be realized as a removable storage device, such as a memory card. Server 200 may use programs stored in an external storage device instead of storage 230. For example, in situations where multiple information processing systems 10 are used, such as in an amusement facility, programs and data can be updated all at once.

Storage 230 stores game programs and communication programs. As an example, the game programs implement game functions. The communication programs implement functions for communicating with other computers. As an example, the other computers are one or more terminals 100. Storage 230 may also store distribution programs, operating systems, simulation programs, user authentication programs, and other programs. For example, storage 230 stores data defining objects and user information.

The communication interface 240 is connected to the network 20. The communication interface 240 communicates with other computers connected to the network 20. For example, the communication interface 240 can be implemented as a LAN or other wired communication interface. For example, the communication interface 240 can be implemented as Wi-Fi, Bluetooth, NFC, or other wireless communication interface. The communication interface 240 is not limited to those described above.

The input/output interface 250 communicates with external input/output devices (not shown). For example, the input/output interface 250 can be implemented as a USB, DVI, HDMI, or other wired communication interface. For example, the input/output interface 250 can be implemented as a Bluetooth or other wireless communication interface.

[Device Features]
As shown in FIG. 2 , one or more of the components of the terminal 100 are combined to form a functional unit (module) that is functionally cohesive. As an example, the terminal 100 may include a game control unit 101, a display control unit 104, a memory unit 105, a communication unit 106, and an input/output unit 107. As an example, the game control unit 101 and the display control unit 104 can be realized by a processor 110. As an example, the memory unit 105 can be realized by a memory 120 and a storage 130. As an example, the communication unit 106 can be realized by a communication interface 140. As an example, the input/output unit 107 can be realized by the processor 110, a touch sensor 182, and an input/output interface 150.

The input/output unit 107 detects input operations by the user 11 on the touch sensor 182, and input operations by the user 11 on an external operating device via the input/output interface 150. As an example, when the input/output unit 107 receives an input operation by the user 11 on the touch sensor 182, it detects the coordinates of the input position and identifies the type of input operation. For example, types of input operations that the input/output unit 107 can identify may include touch operations, slide operations, swipe operations, tap operations, drag operations, and operations in other modes. When a series of input operations that have been detected ceases, the input/output unit 107 detects that the contact input has been released from the touch sensor 182. As an example, the input/output unit 107 may function as a means for receiving input operations by the user 11.

The communication unit 106 receives various types of information from one or more servers 200. As an example, the information that the communication unit 106 receives from the server 200 may include game progress information and user information. The game progress information is information for controlling the progress of the game. The game progress information may include various requests. The user information may include information about objects owned by the user 11.

The communication unit 106 transmits various types of information to one or more servers 200. As an example, the information transmitted by the communication unit 106 to the server 200 may include game play information and user information. The game play information is information for reflecting input operations by the user 11 in the progress of the game. The game play information is output in response to input operations received by the input/output unit 107. The game play information may include various requests.

The game control unit 101 identifies the user's 11 instructions based on the coordinates of the input position received by the input/output unit 107, the type of input operation, and the game progress information received by the communication unit 106 from the server 200. The game control unit 101 can make various determinations related to the progress of the game. The game control unit 101 can perform various lottery draws related to the progress of the game. The game control unit 101 generates game play information based on the game progress information, the user's 11 instructions, various determination results, and various lottery draw results. The game play information generated by the game control unit 101 is transmitted to the server 200 by the communication unit 106. As an example, the processor 110, as the game control unit 101, can perform a function corresponding to the step by executing a step for receiving various information. As an example, the processor 110, as the game control unit 101, can perform a function corresponding to the step by executing a step for transmitting various information. As an example, the processor 110, as the game control unit 101, can perform a function corresponding to the step by executing a step for progressing the game.

The display control unit 104 creates an image to be displayed on the monitor 181. The display control unit 104 creates an image of the game screen according to game progress information received via the communication unit 106. The display control unit 104 creates an image of the game screen according to game play information generated by the game control unit 101. The display control unit 104 displays the image of the game screen on the monitor 181. The display control unit 104 may be configured to display the image of the game screen on an external display device via the input/output interface 150. The display control unit 104 may be configured to display the image of the game screen on an external display device via the communication interface 140. The game screen is an image in which 2D or 3D objects are controlled and drawn.

The display control unit 104 may control and draw objects (hereinafter referred to as UI objects) for constructing a user interface (hereinafter referred to as UI) required for input operations by the user 11. UI objects are information that assists the user 11 in input operations required to progress through the game. For example, UI objects are icons, buttons, lists, windows, and menus. The various UI objects shown in this disclosure are merely examples and are not limited to these forms. As an example, the processor 110, as the display control unit 104, may execute steps for controlling the display content of the monitor 181, thereby performing functions corresponding to those steps.

The steps in terminal 100 can be realized by hardware and software (programs) executed by processor 110. The software may be pre-stored in storage 130. The software may be stored on a computer-readable non-volatile data storage medium, such as a CD-ROM, and distributed as a program product. The software may also be provided as a downloadable program product by an information provider connected to a network such as the Internet. The software is read from the data storage medium by a data reading device or downloaded from another computer, such as server 200, via communication interface 140, and then stored in storage 130. The software is read from storage 130 by processor 110 and stored in memory 120 in the form of an executable program. Processor 110 executes the program.

[Server Functions]
As shown in Figure 3, the components of the server 200 are configured as functionally cohesive functional units (modules) by combining one or more of them. As an example, the server 200 may include a game control unit 201, a memory unit 205, a communication unit 206, and an input/output unit 207. As an example, the game control unit 201 may be realized by a processor 210. As an example, the memory unit 205 may be realized by a memory 220 and a storage 230. As an example, the communication unit 206 may be realized by a communication interface 240. As an example, the input/output unit 207 may be realized by the processor 210 and an input/output interface 250.

The communication unit 206 receives various types of information from the terminal 100. For example, the information received by the communication unit 206 from the terminal 100 includes event information and user information. The communication unit 206 transmits various types of information to the terminal 100. For example, the information transmitted by the communication unit 206 to the terminal 100 includes update information and user information. The input/output unit 207 may detect and accept input operations by the user 11 on an external input device via the input/output interface 250.

The game control unit 201 progresses the game in accordance with the game play information received by the communication unit 206 from the terminal 100. The game control unit 201 may make various judgments regarding the progress of the game. The game control unit 201 may perform various lotteries regarding the progress of the game. The game control unit 201 generates game progress information in accordance with the results of these processes. The game progress information is transmitted to the terminal 100 by the communication unit 206. As an example, the processor 210, as the game control unit 201, may perform a function corresponding to the step by executing a step for receiving various information. As an example, the processor 210, as the game control unit 201, may perform a function corresponding to the step by executing a step for transmitting various information. As an example, the processor 210, as the game control unit 201, may perform a function corresponding to the step by executing a step for progressing the game.

The steps in server 200 can be implemented by hardware and software (programs) executed by processor 210. The software may be pre-stored in storage 230. The software may be stored on a computer-readable non-volatile data storage medium, such as a CD-ROM, and distributed as a program product. The software may also be provided as a downloadable program product by an information provider connected to a network such as the Internet. The software is read from the data storage medium by a data reading device or downloaded from another computer, such as an external storage device, via communication interface 240, and then stored in storage 230. The software is read from storage 230 by processor 210 and stored in memory 220 in the form of an executable program. Processor 210 executes the program.

[Game Overview]
As an example, a game according to the present disclosure may include multiple parts. For example, the game may include an event part in which a player can participate in an event and a preparation part in which a player can prepare for the event. However, the game may be composed of three or more parts, or may be composed of a single part.

[Event part]
An example of a specific specification of the event part will be described.
As one example, the event may include the user 11 as a player controlling a player character, which is the user's own avatar. The player character may be a character selected in advance by the user 11 from among a plurality of characters. As one example, the event may include the user 11 accomplishing a predetermined task by controlling the player character. As one example, the task may be for the player character to defeat a non-player character. As one example, the non-player character is a monster that is hostile to the player character. The player character is an example of a first object that is the object of operation by the user 11. The non-player character is an example of a second object that is not the object of operation by the user 11.

As an example, an event may be executed with the content of a battle between a single player character and multiple non-player characters. As an example, in an event, the non-player characters act in accordance with the actions of the player character. As an example, actions may include movement and attacks. As an example, attacks may include attacks using weapons, attacks using magic, and attacks using skills. A player character's hit points (hereinafter referred to as HP) decrease when an attack by a non-player character hits. HP is one of the ability values of a player character. A non-player character's HP decreases when an attack by a player character hits. An event is not achieved if the player character's HP reaches 0 before the HP of all non-player characters reach 0. An event is achieved if the HP of all non-player characters reach 0 before the player character's HP reaches 0. The targets to be defeated in an event are any multiple non-player characters from multiple types of non-player characters. As an example, the multiple non-player characters to be defeated in an event may all be of the same type, or some or all may be of different types. As an example, some non-player characters can attack using swords, and others can attack using bows and arrows.

As one example, an event may involve a battle between a single player character and a single non-player character. As another example, an event may involve a battle between multiple player characters and multiple non-player characters. As another example, an event may involve a battle between multiple player characters and a single non-player character. When multiple player characters participate in an event, each player character may be controlled by a single user 11, or may be controlled by a different user 11. In other words, an event may involve content in which multiple users 11 can participate.

Events are not limited to the above. For example, an event may be a sport such as soccer, tennis, table tennis, boxing, or basketball. For example, an event may be a race such as a car race, a yacht race, a ski race, or an airplane race. An event may be an event that involves an object controlled by a player and an object not controlled by the player, and is not limited to being a competitive event. As an example, an event may be a cooperative event in which an object controlled by a player and an object not controlled by the player cooperate to complete a task. In this case, the task may involve a player character raising a non-player character, or a player character and a non-player character building a city or building.

[Preparation part]
An example of specific specifications for the preparation part will be described.
In the preparation part, user 11 may prepare for the event. As an example, preparation for the event may include selecting a player character, which will be the user's avatar, from among the characters owned by user 11. Preparation for the event may include adding, exchanging, or deleting equipment, skills, and items owned by the player character. Preparation for the event may also include changing the appearance of the player character. For example, the appearance of the player character may include the race, gender, body shape, hairstyle, and facial expression. In other words, preparation for the event may involve changing the settings of the player character.

[Overview of screen transitions on devices]
An overview of screen transitions on the terminal 100 will be described.
4, various screens may be displayed on the monitor 181 of the terminal 100 depending on the game part, the progress of the game, and instructions from the user 11. As an example, the game screen may include a home screen 40 and an event screen 50. The home screen 40 is displayed in the preparation part. The event screen 50 is displayed in the event part.

[Example of the process flow for executing an event]
As shown in FIG. 5 , in step S100, the processor 110 of the terminal 100 displays the home screen 40 on the monitor 166 when the terminal 100 is in the preparation part. In step S102, when the processor 110 of the terminal 100 receives a start operation instructing the start of an event, the processor 110 starts the event and transmits an event start notification to the server 200, the event start notification including information that can identify the start of the event. As an example, the event start notification may include user information. When starting the event, the processor 110 defines a virtual space and places a virtual camera in the virtual space, thereby displaying an event screen 50 on the monitor 166 that includes an area captured by the virtual camera. As an example, a player character and a non-player character are placed in the virtual space. In step S103, the processor 210 of the server 200 receives the event start notification. As an example, the processor 210 of the server 200 determines whether the event is valid based on the user information in the event start notification and the user information stored in the storage 230. For example, the processor 210 of the server 200 determines that the event is valid if the user information in the event start notification matches the user information stored in the storage 230 .

In step S104, the processor 110 of the terminal 100 executes an event control process to control the event. In the event control process, the processor 110 of the terminal 100 controls the actions of the player character, the actions of the non-player character, the HP of the player character, and the HP of the non-player character. In step S105, when the event end condition is met, the processor 110 of the terminal 100 ends the event and sends an event end notification to the server 200 including information that can identify the end of the event. As an example, the event end condition is met when the HP of the player character reaches 0, or when the HP of all non-player characters reaches 0. As an example, the event end notification may include event information. The event information may include result information that can identify the result of the event.

In step S106, the processor 210 of the server 200 receives an event end notification. In step S107, if the event is valid, the processor 210 of the server 200 updates the user information stored in the storage 230 based on the result information of the event end notification. As an example, if the event is valid, the processor 210 updates the user information stored in the storage 230 so as to grant rewards such as in-game currency and in-game items to the user 11 based on the degree of achievement of the event. As an example, if the event is not valid, the processor 210 does not grant rewards to the user 11. In step S108, the processor 210 of the server 200 transmits update information capable of identifying the updated user information to the terminal 100.

In step S109, the processor 110 of the terminal 100 receives the update information. The processor 110 updates the user information stored in the storage 130 based on the update information. In step S110, the processor 110 of the terminal 100 displays an object indicating the event result on the monitor 166. As an example, the event result may include information that allows the user to recognize the degree of achievement of the event. As an example, the event result may include information that allows the user to recognize the reward. In step S111, the processor 110 of the terminal 100 displays the home screen 40 on the monitor 166.

[Example of event control process flow]
The flow of the event control process will be described. The event control process is executed at a predetermined cycle from the start of the event in step S102 to the end of the event in step S105. As an example, the predetermined cycle is 1/60 seconds.

As shown in FIG. 6 , in step S201, processor 110 of terminal 100 determines whether or not it has received an action operation instructing the player character to act. If an action operation has been received (step S201: YES), in step S202, processor 110 of terminal 100 controls the action of the player character in accordance with the action operation. That is, processor 110 causes the player character to act in accordance with the action operation. As an example, if it has received an action operation instructing the player character to move, processor 110 causes the player character to move in accordance with the action operation. If it has received an action operation instructing the player character to attack, processor 110 causes the player character to attack in accordance with the action operation.

If no action operation has been received (step S201: NO) or if step S202 has ended, processor 110 of terminal 100 executes a non-player character action control process. In the non-player character action control process, processor 110 controls the action of the non-player character. That is, processor 110 causes the non-player character to act. As an example, processor 110 causes the non-player character to move and attack depending on the distance from the player character. In step S204, processor 110 of terminal 100 executes an action result determination process. In the action result determination process, processor 110 controls the HP of the player character and the HP of the non-player character. As an example, in the action result determination process, processor 110 determines, as a result of step S202, whether the player character's attack hit the non-player character. If it is determined that the player character's attack hit the non-player character, processor 110 reduces the HP of the non-player character. As an example, in the action result determination process, processor 110 determines whether the non-player character's attack hit the player character as a result of step S203. If it is determined that the non-player character's attack hit the player character, processor 110 reduces the player character's HP.

[Outline of non-player character behavior control processing]
The action control process for non-player characters will now be described. In the action control process for non-player characters, the processor 110 of the terminal 100 determines the action timing for non-player characters, and causes the non-player characters to act when the action timing arrives.

As shown in Figures 7 and 8, the timing of a non-player character's actions changes depending on the position of the non-player character and the number of non-player characters located in the hostile range. As an example, the hostile range is a cylindrical range with a circle at its base centered on the player character. Non-player characters located in the hostile range will take hostile actions against the player character. In other words, the number of non-player characters located in the hostile range can be said to be the number of non-player characters that can take hostile actions against the player character. The hostile range is an example of a predetermined range.

The timing of a non-player character's actions changes depending on the number of non-player characters located in the hostile range. For example, the timing of a non-player character's actions becomes slower the more non-player characters there are located in the hostile range. For example, the timing of a non-player character's actions is proportional to the number of non-player characters located in the hostile range.

As an example, the action timing of a non-player character changes depending on the distance between the player character and the non-player character (hereinafter referred to as the inter-character distance). As an example, the action timing of a non-player character located in an enemy range changes depending on the range of the non-player character. As an example, the enemy range includes a first range, a second range, and a third range in which the action timing of a non-player character differs. In other words, the action timing of a non-player character located in the enemy range differs when the non-player character is located in the first range, the second range, or the third range within the enemy range. As an example, the first range is a cylindrical range whose base is a circle centered on the player character and whose distance from the player character is less than the first distance. As an example, the second range is a cylindrical range whose base is a circle centered on the player character and whose distance from the player character is less than a second distance longer than the first distance, excluding the first range. As an example, the third range is a cylindrical range that is the distance from the player character equal to or less than the third distance, which is longer than the second distance, and has a base that is a circle centered on the player character, excluding the first and second ranges. A non-player character may take hostile actions toward a player character when the distance between characters is equal to or less than the third distance. The third distance is the distance at which a non-player character may take hostile actions toward a player character (hereinafter referred to as the hostile distance).

As an example, the timing of a non-player character's action will be slower when the non-player character is located in the second range than when the non-player character is located in the first range. As an example, the timing of a non-player character's action will be slower when the non-player character is located in the third range than when the non-player character is located in the second range. In other words, the farther the non-player character is located from the player character, the slower the timing of a non-player character's action will be.

As one example, the timing of a non-player character's actions changes depending on whether a specific condition is met. As one example, the specific condition may be met regardless of the number of non-player characters located in the hostile range. As one example, the specific condition may be met regardless of the distance between characters. As one example, the fulfillment of the specific condition may change depending on the player's operations. As one example, the specific condition is met when part or the entire non-player character is not within the shooting range of the virtual camera placed above and behind the player character. In other words, the specific condition is met when the non-player character is not displayed on monitor 166.

[Example of a flow of a non-player character's behavior control process]
As described above, an example of the flow of the non-player character action control process for causing non-player characters to act at different action timing depending on the position of the non-player characters and the number of non-player characters located in the hostile range will be described.

As shown in FIG. 9 , in step S301, the processor 110 of the terminal 100 determines the number of non-player characters located within the hostile range from the player character. In step S302, the processor 110 of the terminal 100 determines a first delay coefficient. The first delay coefficient is used to change the action timing of the non-player characters. The action timing of the non-player characters is determined based on the first delay coefficient and a second delay coefficient, which will be described later. The first delay coefficient is determined based on the number of non-player characters located within the hostile range. For example, the first delay coefficient increases as the number of non-player characters located within the hostile range increases. For example, the first delay coefficient is proportional to the number of non-player characters located within the hostile range. For example, the first delay coefficient is the product of the quotient obtained by dividing the number of non-player characters located within the hostile range by a specific number and multiplying it by a delay constant. In other words, the first delay coefficient increases by the delay constant as the number of non-player characters located within the hostile range increases by a specific number. The specific number is any positive number. For example, the specific number is any natural number. In one example, the specific number is 2. The delay constant is any positive number. In one example, the delay constant is a positive number less than 1. In one example, the delay constant is 0.1.

In step S303, the processor 110 of the terminal 100 determines whether the first delay coefficient determined in step S302 is greater than the first maximum delay number. If the first delay coefficient is greater than the first maximum delay number (step S303: YES), in step S304, the processor 110 of the terminal 100 changes the first delay coefficient to the first maximum delay number. For example, the first maximum delay number is any positive number. For example, the first maximum delay number is a positive number less than 1. For example, the first maximum delay number is 0.3. If the first delay coefficient is less than or equal to the first maximum delay number (step S303: NO), or if step S304 is terminated, in step S305, a second delay coefficient is determined. The second delay coefficient is used to change the action timing of non-player characters. The second delay coefficient is determined based on the distance between characters. That is, the second delay coefficient is determined for each non-player character. For example, the second delay coefficient increases as the distance between characters increases. As an example, the second delay coefficient is determined depending on whether the distance between the characters reaches a specific distance. The specific distance is the first distance and the second distance described above.

As an example, when the inter-character distance is less than the first distance, the second delay coefficient is 0. When the inter-character distance is equal to or greater than the first distance and less than the second distance, the second delay coefficient is any positive number. As an example, when the inter-character distance is equal to or greater than the first distance and less than the second distance, the second delay coefficient is a positive number less than 1. As an example, when the inter-character distance is equal to or greater than the first distance and less than the second distance, the second delay coefficient is 0.1. When the inter-character distance is equal to or greater than the second distance, the second delay coefficient is any positive number greater than the second delay coefficient when the inter-character distance is equal to or greater than the first distance and less than the second distance. As an example, when the inter-character distance is equal to or greater than the second distance, the second delay coefficient is a positive number less than 1. As an example, when the inter-character distance is equal to or greater than the second distance, the second delay coefficient is 0.4.

In step S306, the processor 110 of the terminal 100 determines whether the non-player character satisfies a specific condition. As an example, the processor 110 of the terminal 100 determines whether the position of the non-player character is outside the shooting range of the virtual camera. If the non-player character satisfies the specific condition (step S306: YES), in step S307, the processor 110 of the terminal 100 changes the second delay coefficient to a second maximum delay number. As an example, the second maximum delay number is an arbitrary positive number greater than the second delay coefficient when the inter-character distance is equal to or greater than the second distance. As an example, the second maximum delay number is a positive number less than 1. As an example, the second maximum delay number is 0.7.

If the non-player character does not satisfy the specific condition (step S306: NO), or if step S307 is terminated, in step S308, the processor 110 of the terminal 100 determines the provisional action timing of the non-player character. The processor 110 determines the provisional action timing of the non-player character based on the first delay coefficient and the second delay coefficient. As an example, the processor 110 determines the provisional action timing of the non-player character based on the sum of the first delay coefficient and the second delay coefficient. As an example, the processor 110 calculates the delay time based on the sum of the first delay coefficient and the second delay coefficient. As an example, the processor 110 times the delay time. As an example, the provisional action timing of the non-player character arrives when the delay time has elapsed. In other words, the processor 110 determines the provisional action timing by calculating the delay time. As an example, the delay time is the product of the sum of the first delay coefficient and the second delay coefficient multiplied by the reference delay time. As an example, the reference delay time is an arbitrary positive number. As an example, the reference delay time is 4 seconds.

In step S309, the processor 110 of the terminal 100 determines whether the tentative action timing determined in step S308 is earlier than the action timing of the non-player character being set. As an example, the processor 110 determines whether the delay time determined in step S308 is less than the delay time being measured. The delay time being measured is stored in the storage 130. In step S308, the processor 110 determines that the tentative action timing is earlier than the action timing of the non-player character being set even when the delay time being measured is 0, that is, when the delay time is not being measured. If the tentative action timing is earlier than the action timing of the non-player character being set (step S309: YES), the processor 110 of the terminal 100 sets the tentative action timing as the action timing of the non-player character. As an example, the processor 110 measures the delay time determined in step S308.

In step S310, processor 110 of terminal 100 determines whether the timing for a non-player character to act has arrived. As an example, processor 110 subtracts a delay time and determines that the timing for a non-player character to act has arrived when the delay time after subtraction becomes zero. If the timing for a non-player character to act has arrived (step S310: YES), processor 110 of terminal 100 controls the action of the non-player character. As an example, processor 110 controls the action of the non-player character according to the distance between the characters. As an example, processor 110 controls the action of the non-player character according to the type of non-player character. As an example, processor 110 determines whether the non-player character can attack the player character based on the distance between the characters and the type of non-player character. If the non-player character can attack the player character, processor 110 controls the non-player character to attack the player character. If the non-player character cannot attack the player character, processor 110 controls the movement of the non-player character to move closer to the player character. Processor 110 controls the actions of multiple non-player characters by executing steps S305 to S312 for each non-player character located within the hostile range. By executing steps S301 to S304 and steps S308 to S312, processor 110 causes device 100 to perform a function of changing the action timing of non-player characters depending on the number of non-player characters located within the hostile range from the player character. More specifically, by executing these steps, processor 110 causes device 100 to perform a function of delaying the action timing of non-player characters the greater the number of non-player characters located within the hostile range. Furthermore, by executing step S305 and steps S308 to S312, processor 110 causes device 100 to perform a function of changing the action timing of non-player characters depending on the distance between the characters.

[Example of display screen and display processing flow]
[Home screen]
10 , in the preparation part, a home screen 40 is displayed on the monitor 166 of the terminal 100. The home screen 40 may include various objects. As an example, the home screen 40 may include a character window 401, an event icon 404, and a character icon 406.

As an example, the character window 401 displays a player character 81. The appearance of the player character 81 changes as the player character's settings are changed. As an example, a start operation to instruct the start of an event can be performed by tapping on the area where the event icon 404 is displayed. The event icon 404 is a UI object that assists in the start operation. As an example, an operation to instruct the display of a preparation window (not shown) for preparing for the event can be performed by tapping on the area where the character icon 406 is displayed. The character icon 406 is a UI object that assists in the operation to instruct the display of the preparation window.

[Outline of virtual space]
As shown in FIG. 11 , in the event part, a virtual space 80 is defined by the terminal 100. Various objects may be placed in the virtual space 80. The various objects that may be placed in the virtual space 80 include a player character 81. The various objects that may be placed in the virtual space 80 include a non-player character 82. The various objects that may be placed in the virtual space 80 include a terrain object 92 that constitutes a field 92A. As an example, the terrain object 92 may include an object that affects the movement of the player character 81 and the non-player characters 82. For example, the terrain object 92 may include objects that limit the movement of the player character 81 and the non-player characters 82, such as trees, rocks, rivers, oceans, and mountains. For example, the terrain object 92 may include an object, such as a swamp, that reduces the movement speed of the player character 81 and the non-player characters 82. For example, the terrain object 92 may include an object, such as an ice sheet, that increases the movement speed of the player character 81 and the non-player characters 82. As an example, the terrain object 92 may include an object that affects the ability scores of the player character 81 and the non-player characters 82. For example, the terrain object 92 may include an object, such as a poisonous swamp, that reduces the HP of the player character 81 and the non-player characters 82. For example, the terrain object 92 may include an object, such as a recovery fountain, that increases the HP of the player character 81 and the non-player characters 82.

As shown in Figures 11 and 12, during the event part, an event screen 50 is displayed on the monitor 166 of the terminal 100. The event screen 50 includes various objects. As an example, the event screen 50 may include a player character 81. As an example, the event screen 50 may include an HP bar 61 indicating the HP of the player character 81. As an example, the event screen 50 includes a terrain object 92. As an example, by tapping on a portion where the terrain object 92 is displayed, an operation can be performed to instruct the player character 81 to move to that position. The terrain object 92 is a UI object that assists in the operation to instruct the player character 81 to move. As an example, the event screen 50 may include a non-player character 82. As an example, by tapping on a portion where the non-player character 82 is displayed, an operation can be performed to instruct an attack on the non-player character 82. The non-player character 82 is a UI object that assists in the operation to instruct an attack on the non-player character 82. As one example, the event screen 50 may include a HP bar 62 that indicates the HP of a non-player character 82. As one example, on the event screen 50, the player character 81 is displayed in the center of the monitor 166. As one example, on the event screen 50, the range that is within the field of view of a virtual camera 98 that is positioned above and behind the player character 81 is displayed on the monitor 166. In other words, on the event screen 50, the objects displayed on the monitor 166 may change as the player character acts in response to the player's operations. In this way, during the event part, the state of the event is displayed on the monitor 166 of the terminal 100.

As shown in Figures 11, 12, and 13, it is assumed that eight non-player characters 82 are located in the hostile range. In this case, it is assumed that two non-player characters 82 are located in the first range. It is assumed that three non-player characters 82 are located in the second range. It is assumed that three non-player characters 82 are located in the third range. Of the three non-player characters 82 located in the second range, two non-player characters 82 satisfy a specific condition. Of the three non-player characters 82 located in the third range, it is assumed that two non-player characters 82 satisfy a specific condition.

In step S302, the processor 110 of the terminal 100 determines 0.4 as the first delay coefficient because eight non-player characters 82 are located in the hostile range. In steps S303 and S304, the processor 110 of the terminal 100 determines 0.3, which is the first maximum delay number, as the first delay coefficient because the first delay coefficient is greater than the first maximum delay number. In step S305, the processor 110 of the terminal 100 determines 0 as the second delay coefficient for non-player characters 82 located in the first range. In step S305, the processor 110 of the terminal 100 determines 0.1 as the second delay coefficient for non-player characters 82 located in the second range. In step S305, the processor 110 of the terminal 100 determines 0.4 as the second delay coefficient for non-player characters 82 located in the third range. In steps S306 and S307, the processor 110 of the terminal 100 determines the second delay coefficient for the non-player character 82 that satisfies the specific condition as 0.7, which is the second maximum delay number. In step S308, the processor 110 of the terminal 100 determines the delay time for the non-player character 82 based on the first delay coefficient and the second delay coefficient.

Specifically, processor 110 determines 1.2 seconds as the delay time for non-player characters 82 located in the first range. Processor 110 determines 1.6 seconds as the delay time for non-player characters 82 located in the second range that do not satisfy a specific condition. Processor 110 determines 4 seconds as the delay time for non-player characters 82 located in the second range that satisfy a specific condition. Processor 110 determines 2.8 seconds as the delay time for non-player characters 82 located in the third range that do not satisfy a specific condition. Processor 110 determines 4 seconds as the delay time for non-player characters 82 located in the second range that satisfy a specific condition.

In steps S309 and S310, if the tentative action timing determined in step S308 is earlier than the currently set action timing, the processor 110 of the terminal 100 sets the tentative action timing as the action timing. In other words, the processor 110 can advance the action timing of the non-player character 82. As an example, the action timing of the non-player character 82 can be advanced by one or both of a decrease in the number of non-player characters located within the hostile range and a decrease in the distance between characters. In steps S311 and S312, the processor 110 of the terminal 100 controls the action of the non-player character 82 when the action timing of the non-player character 82 arrives.

In this way, in the non-player character action control process, the processor 110 of the terminal 100 controls the actions of the non-player characters 82 so that the action timing corresponds to the number of non-player characters 82 located within the hostile range. Similarly, in the non-player character action control process, the processor 110 of the terminal 100 controls the actions of the non-player characters 82 so that the action timing corresponds to the distance between the characters. Similarly, in the non-player character action control process, the processor 110 of the terminal 100 controls the actions of the non-player characters 82 so that the action timing corresponds to whether or not a specific condition is met. When either or both of the number of non-player characters located within the hostile range decreases and the distance between the characters decreases, the processor 110 of the terminal 100 controls the actions of the non-player characters 82 so that the action timing corresponds to the situation after the decrease.

The effects of the present disclosure will be described.
(1-1) The timing of actions of non-player characters changes depending on the number of non-player characters located within the hostile range of the player character. Therefore, the timing of actions of non-player characters can be changed depending on the situation.

(1-2) By delaying the action timing of non-player characters within hostile range of the player character the more numerous they are, the player can have more time to control the player character.

(1-3) The timing of actions of non-player characters located within the hostile range changes depending on the number of non-player characters located within the hostile range as well as the distance between the characters. This allows the timing of actions of non-player characters to be adjusted to better suit the situation.

(1-4) Even if the distance between non-player characters is the same, the timing of their actions will change depending on whether certain conditions are met. This allows the timing of non-player characters' actions to be adjusted to better suit the situation.

(1-5) The specific condition is met when a non-player character is not displayed on the monitor 166. In other words, the timing of a non-player character's actions changes depending on whether or not the player is aware of the non-player character. Therefore, the timing of a non-player character's actions can be changed to better suit the situation.

(1-6) In particular, the timing of non-player characters' actions is delayed when they are not displayed on the monitor 166. This reduces the frequency with which player characters are attacked by non-player characters outside the player's awareness. This prevents a decline in interest.

(1-7) The first delay coefficient will not be greater than the first maximum delay. Therefore, even if the number of non-player characters in the hostile range becomes enormous, the non-player characters can act at a frequency that corresponds to the first maximum delay. This prevents a decline in interest.

(1-8) In the action control process for non-player characters, the action timing may be accelerated by either or both of the following: a decrease in the number of non-player characters within the hostile range, a decrease in the distance between characters, etc. In other words, the action timing of non-player characters can be updated in response to changes in the situation. This makes it possible to change the action timing of non-player characters more in line with the situation.

Second Embodiment
A second embodiment will be described. In the following description, the same components and controls as those in the already described embodiments will be denoted by the same reference numerals, and redundant description will be omitted or simplified.

In the second embodiment, the action timing of non-player characters located in each of the first, second, and third ranges is determined depending on the number of non-player characters located in each range. Specifically, in the second embodiment, in the non-player character action control process, a first delay coefficient corresponding to each range is determined depending on the number of non-player characters located in each range. In other words, the first delay coefficient corresponding to the first range is determined depending on the number of non-player characters located in the first range. The first delay coefficient corresponding to the second range is determined depending on the number of non-player characters located in the second range. The first delay coefficient corresponding to the third range is determined depending on the number of non-player characters located in the third range.

Below, an example of the flow of the non-player character behavior control process in the second embodiment will be described, focusing on the differences from the first embodiment.
In step S301, the processor 110 of the terminal 100 determines the number of non-player characters located in each range. In step S302, the processor 110 of the terminal 100 determines a first delay coefficient corresponding to each range based on the number of non-player characters located in each range. As an example, each first delay coefficient is the product of the quotient obtained by dividing the number of non-player characters located in the corresponding range by a specific number and multiplying it by a delay constant. In steps S303 and S304, the processor 110 of the terminal 100 determines whether each first delay coefficient is greater than a first maximum delay number, and changes any first delay coefficients greater than the first maximum delay number to the first maximum delay number. In step S308, the processor 110 of the terminal 100 determines tentative action timings for the non-player characters based on the first delay coefficients and second delay coefficients corresponding to the ranges in which the non-player characters are located. By processor 110 executing steps S301 to S304 and steps S308 to S312 of the non-player character action control processing in the second embodiment, terminal 100 exhibits a function of changing the action timing of non-player characters located in a first range in accordance with the number of non-player characters located in the first range. Similarly, by processor 110 executing steps S301 to S304 and steps S308 to S312 of the non-player character action control processing in the second embodiment, terminal 100 exhibits a function of changing the action timing of non-player characters located in a second range in accordance with the number of non-player characters located in the second range.

The effects of the present disclosure will be described.
(2-1) Within the hostile range, the action timing of non-player characters located in a first range changes depending on the number of non-player characters located in the first range. Meanwhile, the action timing of non-player characters located in a second range changes depending on the number of non-player characters located in the second range. Thus, the action timing of non-player characters can be changed depending on the situation in the first range and the second range.

(2-2) Similarly, the action timing of non-player characters located in the third range changes depending on the number of non-player characters located in the third range. Therefore, the action timing of non-player characters can be changed depending on the situation in the first, second, and third ranges.

(Third embodiment)
A third embodiment will be described.
In the third embodiment, the action timing of the non-player characters is determined in accordance with the action of the player character. Specifically, in the third embodiment, in the action control process for the non-player characters, the second delay coefficient is determined in accordance with the action of the player character.

Below, an example of the flow of the non-player character behavior control process in the third embodiment will be described, focusing on the differences from the first embodiment.
In step S305, the processor 110 of the terminal 100 determines a second delay coefficient in accordance with the action of the player character. As an example, in step S305, the processor 110 of the terminal 100 determines the second delay coefficient in accordance with the immediately preceding action of the player character. As an example, in step S305, the processor 110 of the terminal 100 determines the second delay coefficient so that the second delay coefficient is larger when the immediately preceding action of the player character is a movement than when the immediately preceding action is an attack. By the processor 110 executing step S305 and steps S308 to S312 of the action control processing for non-player characters in the third embodiment, the terminal 100 exhibits the function of changing the action timing of non-player characters in accordance with the action of the player character.

The effects of the present disclosure will be described.
(3-1) The timing of actions of non-player characters located in the hostile range changes depending on the number of non-player characters located in the hostile range as well as the actions of the player character. Therefore, the timing of actions of non-player characters can be changed to better suit the situation.

(3-2) If the player character's most recent action is a movement, the timing of non-player characters' actions will be slower than if the most recent action is an attack. This makes it easier for players to flee from battles with non-player characters.

(Fourth embodiment)
A fourth embodiment will be described.
In the fourth embodiment, the action timing of the non-player characters is determined according to the state of the player character. Specifically, in the fourth embodiment, in the action control process for the non-player characters, a second delay coefficient is determined according to the state of the player character.

Below, an example of the flow of the non-player character behavior control process in the fourth embodiment will be described, focusing on the differences from the first embodiment.
In step S305, the processor 110 of the terminal 100 determines a second delay coefficient according to the state of the player character. As an example, in step S305, the processor 110 of the terminal 100 determines the second delay coefficient according to a predetermined ability value of the player character. As an example, in step S305, the processor 110 of the terminal 100 determines the second delay coefficient according to the HP of the player character. As an example, in step S305, the processor 110 of the terminal 100 determines the second delay coefficient such that the lower the HP of the player character, the larger the second delay coefficient. When the HP of the player character is equal to or less than a specified value, the processor 110 of the terminal 100 determines the second delay coefficient such that the second delay coefficient is larger than when the HP of the player character is not equal to or less than the specified value. By the processor 110 executing step S305 and steps S308 to S312 of the non-player character behavior control processing in the fourth embodiment, the terminal 100 exhibits the function of changing the behavior timing of the non-player character according to the state of the player character.

The effects of the present disclosure will be described.
(4-1) The timing of actions of non-player characters located in the hostile range changes depending on the state of the player character as well as the number of non-player characters located in the hostile range. Therefore, the timing of actions of non-player characters can be changed to better suit the situation.

(4-2) In particular, the lower the player character's HP, the later the timing of non-player characters' actions. When a player character's HP is low, it is conceivable that the player will not have enough time to control the player character. In such a situation, delaying the timing of non-player characters' actions gives the player more time to control the player character.

Fifth Embodiment
A fifth embodiment will be described.
In the fifth embodiment, the timing of the action of a non-player character is determined according to the type of the non-player character. Specifically, in the fifth embodiment, in the action control process of a non-player character, a second delay coefficient is determined according to the type of the non-player character. As an example, different types of non-player characters may include different designs of the non-player characters. As an example, different types of non-player characters may include different ability values of the non-player characters at the start of an event.

Below, an example of the flow of the non-player character behavior control process in the fifth embodiment will be described, focusing on the differences from the first embodiment.
In step S305, the processor 110 of the terminal 100 determines a second delay coefficient according to the type of non-player character. For example, in step S305, the processor 110 of the terminal 100 determines a second delay coefficient according to the ability score of the non-player character at the start of the event. For example, in step S305, the processor 110 of the terminal 100 determines a second delay coefficient according to the weapon of the non-player character. For example, in step S305, the processor 110 of the terminal 100 determines a second delay coefficient according to the attack distance of the non-player character. For example, in step S305, the processor 110 of the terminal 100 determines a second delay coefficient such that the longer the attack distance of the non-player character, the larger the second delay coefficient. In other words, the processor 110 of the terminal 100 determines a second delay coefficient such that the second delay coefficient is larger for a non-player character capable of attacking with a bow and arrow than for a non-player character capable of attacking with a sword. By the processor 110 executing step S305 and steps S308 to S312 of the non-player character behavior control processing in the fifth embodiment, the terminal 100 exhibits the function of changing the behavior timing of the non-player character depending on the type of non-player character.

The effects of the present disclosure will be described.
(5-1) Even non-player characters located in the same hostile range have different action timings depending on their type. This allows the action timings of non-player characters to be changed more appropriately depending on the situation.

(5-2) In particular, the longer the attack distance of non-player characters, the later their timing for action. This gives players more leeway to control their player characters.

The above embodiment can be modified as follows: The above embodiment and the following modifications can be combined with each other within the scope of technical compatibility.
(Modification 1) In the first embodiment, the action timing of the non-player characters does not have to change according to the distance between the characters, and may become earlier the greater the distance between the characters.

(Modification 2) In the first embodiment, the timing of the actions of the non-player characters may be proportional to the distance between the characters, or may be inversely proportional to the distance between the characters.
(Modification 3) In the second embodiment, the action timing of a non-player character located in the first range may change depending on the number of non-player characters located in any one or more of the first to third ranges. As an example, the action timing of a non-player character located in the first range may become earlier as the number of non-player characters located in any one or more of the first to third ranges increases. As an example, the action timing of a non-player character located in the first range may become later as the number of non-player characters located in any one or more of the first to third ranges increases. As an example, the action timing of a non-player character located in the first range may change depending on the number of non-player characters located in any one or more of the first to third ranges. As an example, the action timing of a non-player character located in the first range may change depending on the number of non-player characters located in any one or more of the first to third ranges. As an example, the action timing of a non-player character located in the first range may change depending on the number of non-player characters located in any one or more of the first to third ranges.

(Modification 4) In the second embodiment, the action timing of non-player characters located in the second range may change depending on the number of non-player characters located in any one or more of the first to third ranges. As an example, the action timing of non-player characters located in the second range may become earlier the greater the number of non-player characters located in any one or more of the first to third ranges. As an example, the action timing of non-player characters located in the second range may become later the greater the number of non-player characters located in any one or more of the first to third ranges. As an example, the action timing of non-player characters located in the second range may change depending on the number of non-player characters located in any one of the second ranges. As an example, the action timing of non-player characters located in the second range may change depending on the number of non-player characters located in any one of the ranges excluding the second range. As an example, the any one of the ranges may include one or more ranges closer to the player character than the second range. As an example, the any one of the ranges may include one or more ranges farther from the player character than the second range.

(Modification 5) In the second embodiment, the action timing of a non-player character located in the third range may change depending on the number of non-player characters located in any one or more of the first to third ranges. As an example, the action timing of a non-player character located in the third range may become earlier the greater the number of non-player characters located in any one or more of the first to third ranges. As an example, the action timing of a non-player character located in the third range may become later the greater the number of non-player characters located in any one or more of the first to third ranges. As an example, the action timing of a non-player character located in the third range may change depending on the number of non-player characters located in any one or more of the first to third ranges. As an example, the action timing of a non-player character located in the third range may change depending on the number of non-player characters located in any one or more of the third ranges. As an example, the any one of the ranges may include one or more ranges closer to the player character than the third range.

(Modification 6) In the third embodiment, the timing of a non-player character's action may vary depending on the number of non-player characters located in the hostile range, the player character's action, and the inter-character distance. As an example, in step S305, the processor 110 of the terminal 100 may determine the second delay coefficient depending on the inter-character distance and the player character's action.

(Modification 7) In the third embodiment, the timing of a non-player character's action may be earlier when the player character's previous action is a movement than when the previous action is an attack.

(Modification 8) In the third embodiment, the action timing of a non-player character may change depending on the action of the player character during a specific period. As an example, the specific period is the period from the start of an event until a predetermined amount of time has elapsed. For example, it is possible to infer the player's proficiency level from the player character's actions during the specific period. As an example, the player's proficiency level can be inferred from the number of non-player characters defeated by the player character during the specific period. As an example, the player's proficiency level can be inferred from the HP of non-player characters reduced by the player character during the specific period. As an example, the player's proficiency level can be inferred from the distance traveled by the player character during the specific period. In this way, by inferring the player's proficiency level from the player character's actions during the specific period, it is possible to change the action timing of a non-player character depending on the player's proficiency level. As an example, the action timing of a non-player character may be made earlier if the player's proficiency level is relatively low, or may be made later if the player's proficiency level is relatively low.

(Modification 9) In the fourth embodiment, the action timing of a non-player character may vary depending on the number of non-player characters located in the hostile range, the state of the player character, and the distance between the characters. As an example, in step S305, the processor 110 of the terminal 100 may determine the second delay coefficient depending on the distance between the characters and the state of the player character.

(Modification 10) In the fourth embodiment, the timing of a non-player character's action may be earlier the higher the ability value, or may be later the higher the ability value.
(Modification 11) In the fourth embodiment, the action timing of a non-player character may be changed in accordance with one or more ability values different from HP, in addition to or instead of the player character's HP. As an example, the one or more ability values different from HP may be the level, player rank, attack power, attack range, attack area, defensive power, evasion ability, intelligence, mental strength, movement speed, attack speed, and jumping power. In this way, the action timing of a non-player character can be changed depending on the strength of the player character.

(Modification 12) In the fourth embodiment, the action timing of a non-player character may change depending on whether or not the player character is in an abnormal state, in addition to or instead of the player character's ability value. As an example, an abnormal state is a state in which a character's ability value decreases by a specified value over a certain period of time, or a state in which it gradually decreases at predetermined intervals. As an example, abnormal states include a paralysis state that reduces movement speed and attack speed, and a poison state that reduces HP. As an example, the action timing of a non-player character may be faster when the player character is in an abnormal state than when the player character is not in an abnormal state. As an example, the action timing of a non-player character may be slower when the player character is in an abnormal state than when the player character is not in an abnormal state. Furthermore, when this modification example is applied, the action timing of a non-player character may change depending on the type of abnormal state.

(Modification 13) In the fourth embodiment, the timing of a non-player character's action may change depending on the ability value of the player character at the start of the event. As an example, the timing of a non-player character's action may be earlier the higher the ability value of the player character at the start of the event, or may be later the higher the ability value of the player character at the start of the event.

(Modification 14) In the fifth embodiment, the action timing of a non-player character may vary depending on the number of non-player characters located in the hostile range, the type of non-player character, and the distance between the characters. As an example, in step S305, the processor 110 of the terminal 100 may determine the second delay coefficient depending on the distance between the characters and the type of non-player character.

(Modification 15) In the fifth embodiment, the action timing of a non-player character may change depending on the state of the non-player character. As an example, the action timing of a non-player character may change depending on the ability value of the non-player character at that time. As an example, the action timing of a non-player character may be earlier the higher the ability value of the non-player character at that time, or may be later the higher the ability value of the non-player character at that time. As an example, the action timing of a non-player character may change depending on whether or not the non-player character is in an abnormal state. As an example, the action timing of a non-player character may be earlier when the player character is in an abnormal state than when the player character is not in an abnormal state. As an example, the action timing of a non-player character may be later when the player character is in an abnormal state than when the player character is not in an abnormal state.

(Modification 16) In the fifth embodiment, the timing of a non-player character's action may be earlier the higher the ability value of the non-player character at the start of the event, or may be later the higher the ability value of the non-player character at the start of the event.

(Modification 17) In the fifth embodiment, the timing of a non-player character's action may be made earlier as the attackable distance of the non-player character becomes longer.
(Modification 18) In the fifth embodiment, the action timing of a non-player character may change depending on the combination of types of non-player characters located in the hostile range. As an example, the action timing of a non-player character may change depending on whether there are multiple types of non-player characters located in the hostile range. As an example, the action timing of a non-player character may change depending on whether there is a specific combination of types of non-player characters located in the hostile range.

(Modification 19) The object as the first object to be operated by the player is not limited to the player character, and may be changed arbitrarily.
(Modification 20) The plurality of objects serving as second objects that are not controlled by the player are not limited to non-player characters, and may be changed as desired.

(Modification 21) The timing of the actions of non-player characters may be made earlier as the number of non-player characters located in the hostile range increases.
(Modification 22) The timing of actions of non-player characters may be inversely proportional to the number of non-player characters located within the hostile range.

(Modification 23) The timing of a non-player character's action may vary depending on whether the number of non-player characters located within the hostile range exceeds a predetermined number.

(Modification Example 24) The action timing of a non-player character may change depending on the type of event. As an example, the action timing of a non-player character may change depending on the difficulty level of the event. As an example, the action timing of a non-player character may be faster the higher the difficulty level of the event, or may be slower the higher the difficulty level of the event. As an example, the difficulty level of an event may be changeable by performing a specified operation on the home screen 40.

(Modification Example 25) The action timing of non-player characters may change according to setting information that can be changed by the player. In other words, the setting information that can be changed by the player may include setting information that makes the action timing of non-player characters relatively faster, and setting information that makes the action timing of non-player characters relatively slower. The setting information may include three or more pieces of setting information, each of which defines the action timing of a non-player character. As an example, the setting information may be changeable by performing a specified operation on the home screen 40. The setting information can be said to be information that can change the difficulty level of an event.

(Modification Example 26) While the hostile range is used as an example of the predetermined range, this is not limiting. The predetermined range may be set arbitrarily as long as it is within a predetermined range from the player character. As an example, the predetermined range may be different from the hostile range in which non-player characters may take hostile actions against the player character. As an example, the predetermined range may be smaller than the hostile range. In this case, the action timing of non-player characters that are outside the predetermined range but within the hostile range does not change depending on the number of non-player characters located within the predetermined range. As an example, the predetermined range may be larger than the hostile range. In this case, the action timing of non-player characters that are not taking hostile actions against the player character also changes depending on the number of non-player characters located within the predetermined range. As an example, the predetermined range does not need to include the player character. In other words, the predetermined range may be a range centered on a predetermined position from the player character. In this case, there may be multiple predetermined positions. As an example, the predetermined range may be a hemispherical range. In this case, whether a non-player character is within or outside the predetermined range can change depending on the height at which the non-player character is located.

(Modification Example 27) The action timing of non-player characters located in one or more of the first through third ranges may not change depending on the number of non-player characters located in the hostile range. In this case, when there are no non-player characters located in the arbitrary range, the action timing of non-player characters located in one or more ranges different from the arbitrary range may not change depending on the number of non-player characters located in the hostile range. In other words, when the first range is an arbitrary range, if there are no non-player characters located in the first range, the action timing of non-player characters located in the second range may not change depending on the number of non-player characters located in the hostile range. In this case, if there are no non-player characters located in the second range, the action timing of non-player characters located in the third range may not change depending on the number of non-player characters located in the hostile range.

(Modification 28) Non-player characters for which action timing has been set may be made to face the player character. This makes it possible to infer from the direction the non-player character is facing whether or not they are waiting for the timing to act.

(Modification 29) On the event screen 50, the virtual camera 98 may be able to be moved or rotated by performing a specified operation. This allows the player to adjust the type and number of non-player characters 82 displayed on the monitor 166 by changing the orientation of the virtual camera 98. In other words, the player can satisfy specific conditions for any non-player character 82 by moving or rotating the virtual camera 98. Therefore, the player can change the action timing of any non-player character 82 by moving or rotating the virtual camera 98.

(Modification Example 30) There may be an ally character who fights alongside the player character. As one example, the ally character may be a player character controlled by another player, or a non-player character. As one example, the action timing of the non-player character may change depending on the number of non-player characters located within the hostile range from the hostile character. As one example, the hostile range may or may not overlap between the player character and the ally character.

(Modification 31) The hostile distance may differ depending on the type of non-player character. In this case, the hostile range may be a range based on the maximum hostile distance, a range based on the minimum hostile distance, or a range based on the average hostile distance. As an example, the hostile range does not have to be a predetermined range, but may be a variable range that includes only non-player characters that can take hostile actions against a player character.

(Modification 32) Non-player characters that are not located in the hostile range may perform any action. As one example, the arbitrary action may include moving within a predetermined range. As one example, the arbitrary action may include turning toward the player character. As one example, the action timing of non-player characters that are not located in the hostile range may change depending on the number of non-player characters that are located in the hostile range.

(Modification Example 33) The action timing of a non-player character may change depending on the action of another non-player character. As an example, one action of a non-player character may change the action timing of another non-player character. As an example, one action of a non-player character may speed up the action timing of another non-player character. As an example, one action of a non-player character may slow down the action timing of another non-player character.

(Modification 34) The above-described processes and step execution order are merely examples and are not intended to be limiting. The processes and step execution order can be changed as desired without departing from the scope of the embodiment and modifications.

(Variation 35) One or more modules or functions provided by the terminal 100 and the server 200 may be realized by circuits such as an ASIC (Application Specific Integrated Circuit), a PLD (Programmable Logic Device), an FPGA (Field-Programmable Gate Array), or an MCU (Micro Control Unit).

(Modification Example 36) One or more modules or functions of the terminal 100 and the server 200 may be implemented by software using a processor. The computer includes a processor, memory, and storage. The above programs and various data are recorded in the storage so that they can be read by the processor. The programs are deployed in the memory. The processor then reads and executes the programs from the storage, thereby achieving the functions of the present disclosure. As already explained, the storage can be implemented as a non-volatile storage device.

(Modification 37) The program may be supplied to the computer via any transmission medium capable of transmitting the program (such as a communication network or broadcast waves).
(Modification Example 38) The program may be recorded on a storage medium such as a magnetic disk (floppy disk, hard disk, etc.), an optical disk (CD-ROM, DVD, MO, etc.), or a semiconductor memory (ROM, RAM, flash memory, etc.).

(Modification Example 39) The game program on the server 200 and the game program on the terminal 100 can be understood as a single program, or they can each be understood as separate programs. A configuration is also possible in which all processing is performed on the server 200, and the processing results are displayed as an image on the monitor 181 of the terminal 100.

(Modification 40) In the above-described embodiments and modifications, some or all of the processes and steps executed by the processor 210 of the server 200 as the game control unit 201 may be executed by the processor 110 of the terminal 100 as the game control unit 101. In the above-described embodiments and modifications, some or all of the processes and steps executed by the processor 110 of the terminal 100 as the game control unit 101 may be executed by the processor 210 of the server 200 as the game control unit 201. In other words, all of the processes and steps described in the embodiments and modifications may be executed by the processor 210 of the server 200 or by the processor 110 of the terminal 100.

Of the processes and steps described in the embodiments and modifications, certain optional processes and steps may be executed by the processor 210 of the server 200, and processes and steps other than the certain processes and steps described in the embodiments and modifications may be executed by the processor 110 of the terminal 100. In other words, in the information processing system 10, the computer may be composed of one or more terminals 100 and one or more servers 200. As an example, all of the various means and functions that can be implemented by the processor 210 of the server 200 may be implemented by the processor 110 of the terminal 100. As an example, of the various means and functions that can be implemented by the processor 210 of the server 200, an optional portion may be implemented by the processor 210 of the server 200, and the remaining portions may be implemented by the processor 110 of the terminal 100.

The various functions that can be realized by the game control unit 201 are not limited to being configured by a single processor 210, but may be configured by multiple processors included in one server 200 or multiple servers 200. The various functions that can be realized by the game control unit 101 and display control unit 104 are not limited to being configured by a single processor 110, but may be configured by multiple processors included in one terminal 100 or multiple terminals 100. Furthermore, the various functions may be configured by one or multiple processors included in one or multiple terminals 100 and one or multiple servers 200. In this way, a computer may be configured by one or more terminals 100, one or more servers 200, or may be configured to include one or more terminals 100 and one or more servers 200.

(Modification 41) When the terminal 100 executes all of the processes and steps described in the embodiment and modifications, the terminal 100 may be configured not to communicate with other devices when executing these processes and steps. Furthermore, the computer is not limited to being composed of one or both of the terminal 100 and the server 200. The computer may also be a device that does not communicate with other devices. As an example, the computer may be a stationary device for home or business use, or may be a portable device.

The present disclosure includes the following examples, in which reference numbers are provided to elements of the embodiments to aid understanding and not by way of limitation.
(Supplementary Note 1) A program that causes a computer (100, 200) to act on a first object (81) that is the object of operation by a player and a second object (82) that is not the object of operation by the player, and changes the timing of the action of the second object (82) depending on the number of second objects (82) located within a predetermined range from the first object (81).

(Appendix 2) The program described in Appendix (1) causes the computer (100, 200) to delay the action timing of the second objects (82) as the number of the second objects (82) located within the predetermined range increases.

(Appendix 3) The predetermined range includes a first range and a second range, and the program described in appendix (1) or (2) causes the computer (100, 200) to change the action timing of the second objects (82) located in the first range depending on the number of second objects (82) located in the first range, and change the action timing of the second objects (82) located in the second range depending on the number of second objects (82) located in the second range.

(Appendix 4) A program described in any of appendices (1) to (3), in which the computer (100, 200) changes the timing of the action of the second object (82) depending on the distance from the first object (81).

(Appendix 5) A program described in any of appendices (1) to (4), in which the computer (100, 200) changes the timing of the action of the second object (82) in accordance with the action of the first object (81).

(Appendix 6) A program described in any of appendices (1) to (5), in which a computer (100, 200) changes the timing of the action of the second object (82) depending on the state of the first object (81).

(Appendix 7) A program described in any one of appendices (1) to (6), in which the computer (100, 200) changes the timing of the action of the second object (82) depending on the type of the second object (82).

(Appendix 8) An information processing system in which a computer (100, 200) causes a first object (81) that is the object of operation by a player and a second object (82) that is not the object of operation by the player to act, and changes the timing of the action of the second object (82) depending on the number of second objects (82) located within a predetermined range from the first object (81).

(Appendix 9) An information processing method in which a computer (100, 200) causes a first object (81) that is the object of operation by a player and a second object (82) that is not the object of operation by the player to act, and changes the timing of the action of the second object (82) depending on the number of second objects (82) located within a predetermined range from the first object (81).

It will be apparent to those skilled in the art that the present invention may be embodied in other specific forms without departing from the spirit of the present invention. For example, some of the components described in the embodiment (or one or more aspects thereof) may be omitted, or several components may be combined. The same applies to procedures. The scope of the present invention should be determined with reference to the appended claims, along with the full scope of equivalents to which such claims are entitled.

10...Information processing system 11...User 20...Network 40...Home screen 50...Event screen 61...HP bar 62...HP bar 80...Virtual space 81...Player character 82...Non-player character 92...Terrain object 92A...Field 98...Virtual camera 100...Terminal 101...Game control unit 104...Display control unit 105...Memory unit 106...Communication unit 107...Input/output unit 110...Processor 120...Memory 130...Storage 140...Communication interface 150...Input/output interface 160...Microphone 166...Monitor 170...Speaker 180...Touch screen 181...Monitor 182...Touch sensor 190...Communication bus 200...Server 201...Game control unit 205...Memory unit 206...Communication unit 207...Input/output unit 210...Processor 220...Memory 230...Storage 240...Communication interface 250...Input/output interface 290...Communication bus 300...Input device 401...Character window 404...Event icon 406...Character icon

Claims (4)

On the computer,
a first object that is an object to be operated by a player and a second object that is not an object to be operated by the player are caused to act;
The program delays the action timing of the second object as the number of second objects located within a predetermined range from the first object increases . On the computer ,
a first object that is an object to be operated by a player and a second object that is not an object to be operated by the player are caused to act;
changing the action timing of the second objects located within a predetermined first range from the first object in accordance with the number of the second objects located within the first range;
a program that changes the action timing of the second object located within a predetermined second range from the first object in accordance with the number of the second objects located within the second range; On the computer,
a first object that is an object to be operated by a player and a second object that is not an object to be operated by the player are caused to act;
The information processing system further comprises: an information processing unit configured to delay the action timing of the second object as the number of the second objects located within a predetermined range from the first object increases ; On the computer,
a first object that is an object to be operated by a player and a second object that is not an object to be operated by the player are caused to act;
changing the action timing of the second objects located within a predetermined first range from the first object in accordance with the number of the second objects located within the first range;
an information processing system that changes the action timing of the second object located within a predetermined second range from the first object in accordance with the number of the second objects located within the second range;