JP7440401B2 - Game program, game method, and information terminal device - Google Patents

Description

The present invention relates to a game program, a game method, and an information terminal device.

Non-Patent Document 1 discloses a game in which a virtual pad is fixedly displayed on a screen and the attitude and movement direction of a fighter jet object flying in a virtual space is controlled by operating the virtual pad.

“Star Battalion”, [online], [searched on May 30, 2021], Internet <https://www.youtube.com/watch?v=PhGAIr6KN5o>

However, since the game processing that can be executed by operating the virtual pad is limited to the processing of changing the moving direction of the fighter plane object, there is room for improvement regarding the operation of the virtual pad.

The present invention was devised in view of such circumstances, and its purpose is to provide a game program, a game method, and an information terminal device that can improve operability.

According to certain aspects of one embodiment of the present disclosure, a game program is provided that executes on a computer that includes a processor, a memory, and a touch screen. The processor includes a step of displaying an operation target image at a predetermined first position of the touch screen, and displaying a range image that makes it possible to specify a predetermined first range including the first position; a step of accepting a drag operation on the image from a user and moving the display position of the operation target image to a position within a first range according to the current position of the drag operation; and displaying the first position and the operation target image. By performing the first game control according to the position and accepting a tap operation on the first range from the user, the second game control is executed depending on the position, regardless of whether the tap operation is on the operation target image or not. and a step of executing game control.

According to the present invention, operability can be improved.

FIG. 1 is a diagram illustrating an example of an overview of a system according to an embodiment. FIG. 2 is a block diagram illustrating an example of the hardware configuration of a user terminal according to an embodiment. FIG. 2 is a block diagram illustrating an example of the hardware configuration of a server according to an embodiment. 1 is a block diagram illustrating an example of a hardware configuration of a game play terminal according to an embodiment. FIG. FIG. 2 is a block diagram illustrating an example of the hardware configuration of a distribution terminal according to an embodiment. FIG. 2 is a block diagram illustrating an example of a functional configuration of a user terminal, a server, and an HMD set according to an embodiment. FIG. 2 is a block diagram illustrating an example of a functional configuration of a distribution terminal according to an embodiment. 3 is a flowchart illustrating a portion of processing performed at a user terminal and a game play terminal according to an embodiment. FIG. 2 is a diagram illustrating an example of a virtual space provided to a player and a visual field image visually recognized by the player, according to an embodiment. FIG. 2 is a diagram illustrating an example of a virtual space provided to a user of a user terminal and a visual field image viewed by the user, according to an embodiment. FIG. 7 is a diagram illustrating another example of a visual field image visually recognized by a user of a user terminal. FIG. 7 is a diagram illustrating yet another example of a visual field image visually recognized by a user of a user terminal. 3 is a flowchart illustrating a portion of processing performed at a game play terminal according to an embodiment. 3 is a flowchart illustrating a portion of processing executed in a user terminal according to an embodiment. 3 is a flowchart illustrating a portion of processing executed in a server according to an embodiment. FIG. 3 is a diagram illustrating a specific example of a list of users who have participated in a game, according to an embodiment. It is a flowchart showing a part of processing performed in a distribution terminal according to a certain embodiment. FIG. 3 is a diagram showing a specific example of a screen displayed on a distribution terminal according to an embodiment. FIG. 7 is a diagram showing another specific example of a screen displayed on a distribution terminal according to an embodiment. FIG. 3 is a diagram illustrating a specific example of audio input by a player, according to an embodiment. FIG. 7 is a diagram illustrating still another specific example of a screen displayed on a distribution terminal and an overview of distribution of operation instruction data according to an embodiment. FIG. 7 is a diagram illustrating another specific example of audio input by a player, according to an embodiment. FIG. 7 is a diagram illustrating still another specific example of a screen displayed on a distribution terminal and an overview of distribution of operation instruction data according to an embodiment. FIG. 3 is a diagram illustrating an overview of transmission of game progress information from a game play terminal to a user terminal according to an embodiment. 3 is a flowchart illustrating a portion of processing executed in a user terminal according to an embodiment. FIG. 3 is a diagram showing a specific example of video playback. FIG. 7 is a diagram showing another specific example of video playback. (A) is a diagram showing an example of a game video displayed on a user terminal, (B) is a diagram showing another example of a game video displayed on a user terminal, and (C) is a diagram showing an example of a game video displayed on a user terminal. (D) is a diagram showing still another example of the game video displayed on the user terminal, and (E) is a diagram showing still another example of the game video displayed on the user terminal. It is a figure which shows another example. (A) is a diagram showing an example of a game video displayed on a user terminal, (B) is a diagram showing another example of a game video displayed on a user terminal, and (C) is a diagram showing an example of a game video displayed on a user terminal. (D) is a diagram showing still another example of the game video displayed on the user terminal, and (E) is a diagram showing still another example of the game video displayed on the user terminal. It is a figure which shows another example. 3 is a flowchart illustrating an example of the flow of processing executed in a user terminal.

A system according to the present disclosure is a system for providing a game to multiple users. The system will be described below with reference to the drawings. It should be noted that the present invention is not limited to these examples, but is indicated by the scope of the claims, and it is intended that all changes within the meaning and range equivalent to the scope of the claims are included in the present invention. Ru. In the following description, the same elements are given the same reference numerals in the description of the drawings, and overlapping description will not be repeated.

<Operation overview of system 1>
FIG. 1 is a diagram showing an overview of a system 1 according to this embodiment. The system 1 includes a plurality of user terminals 100 (computers), a server 200, a game play terminal 300 (external device, second external device), and a distribution terminal 400 (external, first external device). Note that although FIG. 1 shows user terminals 100A to 100C, in other words, three user terminals 100, as an example of the plurality of user terminals 100, the number of user terminals 100 is not limited to the illustrated example. . Furthermore, in this embodiment, when there is no need to distinguish between the user terminals 100A to 100C, they are referred to as "user terminal 100." User terminal 100, game play terminal 300, and distribution terminal 400 are connected to server 200 via network 2. The network 2 includes the Internet and various mobile communication systems constructed by wireless base stations (not shown). Examples of this mobile communication system include so-called 3G, 4G mobile communication systems, LTE (Long Term Evolution), and wireless networks (for example, Wi-Fi (registered trademark)) that can be connected to the Internet through predetermined access points. It will be done.

(Game overview)
In this embodiment, a game mainly played by a user of the game play terminal 300 will be described as an example of a game provided by the system 1 (hereinafter referred to as the main game). Hereinafter, the user of the game play terminal 300 will be referred to as a "player". For example, the player (performer) advances the game by operating a character that appears in the game. Furthermore, in this game, the user of the user terminal 100 plays a role of supporting the player's progress in the game. Details of this game will be described later. Note that the game provided by the system 1 may be any game in which a plurality of users participate, and is not limited to this example.

(Game play terminal 300)
Game play terminal 300 advances the game in response to input operations by the player. Furthermore, the game play terminal 300 sequentially delivers information generated by the player's game play (hereinafter referred to as game progress information) to the server 200 in real time.

(Server 200)
The server 200 transmits game progress information (second data) received in real time from the game play terminal 300 to the user terminal 100. Further, the server 200 mediates transmission and reception of various information between the user terminal 100, the game play terminal 300, and the distribution terminal 400.

(Distribution terminal 400)
The distribution terminal 400 generates motion instruction data (first data) in response to an input operation by the user of the distribution terminal 400, and distributes the motion instruction data to the user terminal 100 via the server 200. The motion instruction data is data for playing a video on the user terminal 100, and specifically, it is data for causing a character appearing in the video to move.

In this embodiment, as an example, the user of the distribution terminal 400 is a player of the present game. Further, as an example, the video played on the user terminal 100 based on the motion instruction data is a video in which a character operated by a player in a game moves. "Action" refers to moving at least part of the character's body, and includes speech. Therefore, the motion instruction data according to the present embodiment includes, for example, audio data for making the character speak and motion data for moving the character's body.

As an example, the action instruction data is transmitted to the user terminal 100 after the game ends. Details of the motion instruction data and the moving image played based on the motion instruction data will be described later.

(User terminal 100)
The user terminal 100 receives game progress information in real time, and uses the information to generate and display a game screen. In other words, the user terminal 100 reproduces the game screen of the game being played by the player by real-time rendering. This allows the user of the user terminal 100 to view the same game screen that the player is viewing while playing the game, at approximately the same timing as the player.

Furthermore, the user terminal 100 generates information for supporting the player's progress in the game in response to input operations by the user, and transmits the information to the game play terminal 300 via the server 200. Details of this information will be described later.

Further, the user terminal 100 receives motion instruction data from the distribution terminal 400, uses the motion instruction data to generate and reproduce a moving image (video). In other words, the user terminal 100 renders and reproduces the motion instruction data.

<Hardware configuration of system 1>
FIG. 2 is a diagram showing the hardware configuration of the user terminal 100. FIG. 3 is a diagram showing the hardware configuration of the server 200. FIG. 4 is a diagram showing the hardware configuration of the game play terminal 300. FIG. 5 is a diagram showing the hardware configuration of distribution terminal 400.

(User terminal 100)
In this embodiment, an example in which the user terminal 100 is implemented as a smartphone will be described, but the user terminal 100 is not limited to a smartphone. For example, the user terminal 100 may be implemented as a feature phone, a tablet computer, a laptop computer (so-called notebook computer), a desktop computer, or the like. Further, the user terminal 100 may be a game device suitable for playing games.

As shown in FIG. 2, the user terminal 100 includes a processor 10, a memory 11, a storage 12, a communication interface (IF) 13, an input/output IF 14, a touch screen 15 (display section), a camera 17, and a measurement device. A distance sensor 18 is provided. These components included in the user terminal 100 are electrically connected to each other by a communication bus. Note that, instead of or in addition to the touch screen 15, the user terminal 100 may include an input/output IF 14 to which a display (display unit) configured separately from the user terminal 100 body can be connected.

Further, as shown in FIG. 2, the user terminal 100 may be configured to be able to communicate with one or more controllers 1020. The controller 1020 establishes communication with the user terminal 100, for example, according to a communication standard such as Bluetooth (registered trademark). The controller 1020 may have one or more buttons or the like, and transmits an output value to the user terminal 100 based on a user's input operation on the button or the like. Further, the controller 1020 may include various sensors such as an acceleration sensor and an angular velocity sensor, and transmits output values of the various sensors to the user terminal 100.

Note that instead of or in addition to the user terminal 100 including the camera 17 and the distance measurement sensor 18, the controller 1020 may include the camera 17 and the distance measurement sensor 18.

It is desirable that the user terminal 100 allows the user using the controller 1020 to input user identification information such as the user's name or login ID via the controller 1020, for example, when starting the game. This makes it possible for the user terminal 100 to link the controller 1020 and the user, and identify which user the received output value belongs to based on the source (controller 1020) of the received output value. be able to.

When the user terminal 100 communicates with a plurality of controllers 1020, by each user holding each controller 1020, the user terminal 100 can communicate with the one user terminal 100 without communicating with other devices such as the server 200 via the network 2. Multiplayer can be realized. In addition, each user terminal 100 communicates with each other using a wireless standard such as a wireless LAN (Local Area Network) standard (communicates without going through the server 200), thereby realizing local multiplayer with multiple user terminals 100. You can also. When the above-described multiplayer is locally implemented using one user terminal 100, the user terminal 100 may further include at least some of the various functions provided by the server 200, which will be described later. Moreover, when the above-mentioned multiplayer is realized locally by a plurality of user terminals 100, the plurality of user terminals 100 may have various functions provided in the server 200, which will be described later, in a distributed manner.

Note that even when the above-described multiplayer is implemented locally, the user terminal 100 may communicate with the server 200. For example, information indicating a play result such as a score or a win or loss in a certain game and user identification information may be associated with each other and transmitted to the server 200.

Further, the controller 1020 may be configured to be detachable from the user terminal 100. In this case, a coupling portion with the controller 1020 may be provided on at least one surface of the casing of the user terminal 100. When the user terminal 100 and the controller 1020 are connected via a wire via the coupling section, the user terminal 100 and the controller 1020 transmit and receive signals via the wire.

As shown in FIG. 2, the user terminal 100 may accept attachment of a storage medium 1030 such as an external memory card via the input/output IF 14. This allows the user terminal 100 to read programs and data recorded on the storage medium 1030. The program recorded on the storage medium 1030 is, for example, a game program.

The user terminal 100 may store a game program obtained by communicating with an external device such as the server 200 in the memory 11 of the user terminal 100, or may store a game program obtained by reading from the storage medium 1030 into the memory 11. It may be stored in

As explained above, the user terminal 100 includes the communication IF 13, the input/output IF 14, the touch screen 15, the camera 17, and the distance measurement sensor 18 as an example of a mechanism for inputting information to the user terminal 100. Each of the above-mentioned units serving as an input mechanism can be regarded as an operation unit configured to accept user input operations.

For example, when the operation unit is configured with at least one of the camera 17 and the distance measurement sensor 18, the operation unit detects an object 1010 near the user terminal 100 and performs an input operation based on the detection result of the object. Identify. As an example, a user's hand, a marker with a predetermined shape, or the like is detected as the object 1010, and an input operation is specified based on the color, shape, movement, type, etc. of the object 1010 obtained as a detection result. Ru. More specifically, when the user's hand is detected from the captured image of the camera 17, the user terminal 100 converts the gesture (a series of movements of the user's hand) detected based on the captured image into the user's input operation. be identified and accepted as such. Note that the photographed image may be a still image or a moving image.

Alternatively, when the operation unit is configured with the touch screen 15, the user terminal 100 identifies and accepts the user's operation performed on the input unit 151 of the touch screen 15 as the user's input operation. Alternatively, when the operation unit is configured with the communication IF 13, the user terminal 100 identifies and receives a signal (for example, an output value) transmitted from the controller 1020 as a user's input operation. Alternatively, when the operation unit is configured with the input/output IF 14, a signal output from an input device (not shown) connected to the input/output IF 14 and different from the controller 1020 is identified and accepted as the user's input operation.

(Server 200)
Server 200 may be, by way of example, a general purpose computer such as a workstation or a personal computer. The server 200 includes a processor 20, a memory 21, a storage 22, a communication IF 23, and an input/output IF 24. These components included in the server 200 are electrically connected to each other by a communication bus.

(Game play terminal 300)
Game play terminal 300 may be, for example, a general-purpose computer such as a personal computer. The game play terminal 300 includes a processor 30, a memory 31, a storage 32, a communication IF 33, and an input/output IF 34. These components included in the game play terminal 300 are electrically connected to each other by a communication bus.

As shown in FIG. 4, the game play terminal 300 according to the present embodiment is included in an HMD (Head Mounted Display) set 1000, as an example. That is, it can be expressed that the HMD set 1000 is included in the system 1, and it can also be expressed that the player plays a game using the HMD set 1000. Note that the device for the player to play the game is not limited to the HMD set 1000. As an example, the device may be any device that allows the player to experience the game virtually. Further, the device may be realized as a smartphone, a feature phone, a tablet computer, a laptop computer (so-called notebook computer), a desktop computer, or the like. Further, the device may be a game device suitable for playing games.

HMD set 1000 includes, in addition to game play terminal 300, HMD 500, HMD sensor 510, motion sensor 520, display 530, and controller 540. HMD 500 includes a monitor 51, a gaze sensor 52, a first camera 53, a second camera 54, a microphone 55, and a speaker 56. Controller 540 may include motion sensor 520.

The HMD 500 is attached to the player's head and can provide the player with a virtual space during operation. More specifically, HMD 500 displays a right eye image and a left eye image on monitor 51, respectively. When each of the player's eyes views each image, the player can recognize the image as a three-dimensional image based on the parallax between the eyes. The HMD 500 may include either a so-called head-mounted display including a monitor, or a head-mounted device to which a smartphone or other terminal having a monitor can be attached.

The monitor 51 is realized, for example, as a non-transmissive display device. In one aspect, the monitor 51 is arranged on the main body of the HMD 500 so as to be located in front of both eyes of the player. Therefore, when the player views the three-dimensional image displayed on the monitor 51, he or she can immerse himself in the virtual space. In one aspect, the virtual space includes, for example, a background, an object that can be operated by the player, and an image of a menu that can be selected by the player. In one aspect, the monitor 51 can be implemented as a liquid crystal monitor or an organic EL (Electro Luminescence) monitor included in a so-called smartphone or other information display terminal.

In another aspect, the monitor 51 can be realized as a transmissive display device. In this case, the HMD 500 is not a closed type that covers the player's eyes as shown in FIG. 1, but may be an open type like a pair of glasses. The transmissive monitor 51 may be temporarily configured as a non-transmissive display device by adjusting its transmittance. The monitor 51 may include a configuration that simultaneously displays a part of the image forming the virtual space and the real space. For example, the monitor 51 may display an image of the real space taken with a camera mounted on the HMD 500, or may make the real space visible by setting the transmittance of a part to be high.

In one aspect, monitor 51 may include a sub-monitor for displaying an image for the right eye and a sub-monitor for displaying an image for the left eye. In another aspect, the monitor 51 may be configured to display the right eye image and the left eye image as one unit. In this case, monitor 51 includes a high speed shutter. The high-speed shutter operates so that images for the right eye and images for the left eye can be alternately displayed so that the images are only perceived by one eye.

In one aspect, HMD 500 includes a plurality of light sources (not shown). Each light source is realized by, for example, an LED (Light Emitting Diode) that emits infrared rays. HMD sensor 510 has a position tracking function for detecting movement of HMD 500. More specifically, HMD sensor 510 reads a plurality of infrared rays emitted by HMD 500 and detects the position and tilt of HMD 500 in real space.

In another aspect, HMD sensor 510 may be realized by a camera. In this case, the HMD sensor 510 can detect the position and tilt of the HMD 500 by performing image analysis processing using image information of the HMD 500 output from the camera.

In another aspect, HMD 500 may include a sensor (not shown) as a position detector instead of or in addition to HMD sensor 510. HMD 500 can detect its own position and inclination using the sensor. For example, when the sensor is an angular velocity sensor, a geomagnetic sensor, or an acceleration sensor, HMD 500 can detect its own position and inclination using any of these sensors instead of HMD sensor 510. As an example, when the sensor provided in HMD 500 is an angular velocity sensor, the angular velocity sensor detects the angular velocity around three axes of HMD 500 in real space over time. The HMD 500 calculates temporal changes in angles around the three axes of the HMD 500 based on each angular velocity, and further calculates the inclination of the HMD 500 based on the temporal changes in angles.

The gaze sensor 52 detects the direction in which the player's right and left eyes are directed. In other words, the gaze sensor 52 detects the player's line of sight. Detection of the direction of the line of sight is realized, for example, by a known eye tracking function. The gaze sensor 52 is realized by a sensor having the eye tracking function. In one aspect, gaze sensor 52 preferably includes a right eye sensor and a left eye sensor. The gaze sensor 52 may be, for example, a sensor that irradiates the player's right and left eyes with infrared light and detects the rotation angle of each eyeball by receiving reflected light from the cornea and iris of the irradiated light. The gaze sensor 52 can detect the player's line of sight based on each detected rotation angle.

The first camera 53 photographs the lower part of the player's face. More specifically, the first camera 53 photographs the player's nose, mouth, and the like. The second camera 54 photographs the player's eyes, eyebrows, and the like. The player-side casing of the HMD 500 is defined as the inside of the HMD 500, and the casing of the HMD 500 on the opposite side from the player is defined as the outside of the HMD 500. In one aspect, the first camera 53 may be placed outside the HMD 500, and the second camera 54 may be placed inside the HMD 500. Images generated by the first camera 53 and the second camera 54 are input to the game play terminal 300. In another aspect, the first camera 53 and the second camera 54 may be implemented as one camera, and the player's face may be photographed with this one camera.

The microphone 55 converts the player's speech into an audio signal (electrical signal) and outputs it to the game play terminal 300. The speaker 56 converts the audio signal into audio and outputs it to the player. In another aspect, HMD 500 may include earphones instead of speaker 56.

Controller 540 is connected to game play terminal 300 by wire or wirelessly. Controller 540 accepts command input from the player to game play terminal 300 . In one aspect, controller 540 is configured to be graspable by the player. In another aspect, the controller 540 is configured to be attachable to the player's body or part of his clothing. In yet another aspect, controller 540 may be configured to output at least one of vibration, sound, and light based on a signal transmitted from game play terminal 300. In yet another aspect, the controller 540 receives operations from the player for controlling the position and movement of objects placed in the virtual space.

In some aspects, controller 540 includes multiple light sources. Each light source is realized by, for example, an LED that emits infrared rays. HMD sensor 510 has a position tracking function. In this case, the HMD sensor 510 reads a plurality of infrared rays emitted by the controller 540 and detects the position and tilt of the controller 540 in real space. In another aspect, HMD sensor 510 may be realized by a camera. In this case, the HMD sensor 510 can detect the position and tilt of the controller 540 by executing image analysis processing using image information of the controller 540 output from the camera.

In one aspect, the motion sensor 520 is attached to the player's hand and detects the movement of the player's hand. For example, the motion sensor 520 detects the rotation speed, number of rotations, etc. of the hand. The detected signal is sent to game play terminal 300. Motion sensor 520 is provided in controller 540, for example. In one aspect, the motion sensor 520 is provided, for example, in a controller 540 that is configured to be held by the player. In another aspect, for safety in real space, the controller 540 is attached to the player's hand, such as a glove, so that it cannot easily fly away. In yet another aspect, a sensor not attached to the player may detect the player's hand movements. For example, a signal from a camera that photographs the player may be input to the game play terminal 300 as a signal representing the player's actions. The motion sensor 520 and the game play terminal 300 are, for example, connected to each other wirelessly. In the case of wireless communication, the communication form is not particularly limited, and for example, Bluetooth or other known communication methods may be used.

Display 530 displays an image similar to the image displayed on monitor 51. This allows users other than the player wearing the HMD 500 to view the same images as the player. The image displayed on the display 530 does not need to be a three-dimensional image, and may be an image for the right eye or an image for the left eye. Examples of the display 530 include a liquid crystal display and an organic EL monitor.

The game play terminal 300 moves the character to be operated by the player based on various information acquired from each part of the HMD 500, the controller 540, and the motion sensor 520, and advances the game. "Actions" here include moving parts of the body, changing posture, changing facial expressions, moving, speaking, touching and moving objects placed in virtual space, and the character's movements. This includes the use of grasping weapons, tools, etc. That is, in this game, when the player moves each part of his body, the character also moves each part of his body in the same way as the player. Furthermore, in this game, the character speaks what the player has said. In other words, in this game, the character is an avatar object that acts as the player's alter ego. As an example, at least some of the character's actions may be performed by input to the controller 540 by the player.

In this embodiment, the motion sensors 520 are attached to, for example, both hands of the player, both feet of the player, the waist of the player, and the head of the player. The motion sensors 520 attached to both hands of the player may be provided on the controller 540, as described above. Moreover, the motion sensor 520 attached to the player's head may be provided in the HMD 500. Motion sensor 520 may also be attached to both elbows or knees of the user. By increasing the number of motion sensors 520 attached to the player, the player's movements can be more accurately reflected on the character. Further, instead of attaching the motion sensors 520 to various parts of the body, the player may wear a suit to which one or more motion sensors 520 are attached. In other words, the motion capture method is not limited to the example using the motion sensor 520.

(Distribution terminal 400)
Distribution terminal 400 may be a mobile terminal such as a smartphone, a PDA (Personal Digital Assistant), or a tablet computer. Furthermore, the distribution terminal 400 may be a so-called stationary terminal such as a desktop computer.

As shown in FIG. 5, the distribution terminal 400 includes a processor 40, a memory 41, a storage 42, a communication IF 43, an input/output IF 44, and a touch screen 45. Note that, instead of or in addition to the touch screen 45, the distribution terminal 400 may include an input/output IF 44 to which a display (display unit) configured separately from the distribution terminal 400 main body can be connected.

Controller 1021 may include physical input mechanisms such as one or more buttons, levers, sticks, wheels, etc. The controller 1021 transmits to the distribution terminal 400 an output value based on an input operation input to the input mechanism by the operator of the distribution terminal 400 (player in this embodiment). Further, the controller 1021 may include various sensors such as an acceleration sensor and an angular velocity sensor, and may transmit output values of the various sensors to the distribution terminal 400. The above output value is received by the distribution terminal 400 via the communication IF 43.

Distribution terminal 400 may include a camera and a distance measurement sensor (both not shown). In place of or in addition to the distribution terminal 400, the controller 1021 may include a camera and a distance measuring sensor.

As explained above, the distribution terminal 400 includes the communication IF 43, the input/output IF 44, and the touch screen 45 as an example of a mechanism for inputting information to the distribution terminal 400. Each of the above-mentioned units serving as an input mechanism can be regarded as an operation unit configured to receive input operations from a user.

When the operation unit is configured with the touch screen 45, the distribution terminal 400 identifies and accepts the user's operation performed on the input unit 451 of the touch screen 45 as the user's input operation. Alternatively, when the operation unit is configured with the communication IF 43, the distribution terminal 400 identifies and receives a signal (for example, an output value) transmitted from the controller 1021 as a user's input operation. Alternatively, when the operation unit is configured with the input/output IF 44, the distribution terminal 400 identifies and receives a signal output from an input device (not shown) connected to the input/output IF 44 as the user's input operation.

<Hardware components of each device>
Processors 10, 20, 30, and 40 control the overall operation of user terminal 100, server 200, game play terminal 300, and distribution terminal 400, respectively. The processors 10, 20, 30, and 40 include a CPU (Central Processing Unit), an MPU (Micro Processing Unit), and a GPU (Graphics Processing Unit). Processors 10, 20, 30, and 40 read programs from storages 12, 22, 32, and 42, respectively, which will be described later. Then, the processors 10, 20, 30, and 40 expand the read programs into memories 11, 21, 31, and 41, which will be described later. The processors 10, 20, and 30 execute the expanded program.

Memories 11, 21, 31, and 41 are main storage devices. The memories 11, 21, 31, and 41 are composed of storage devices such as ROM (Read Only Memory) and RAM (Random Access Memory). The memory 11 provides a work area for the processor 10 by temporarily storing programs and various data that the processor 10 reads from a storage 12, which will be described later. The memory 11 also temporarily stores various data generated while the processor 10 is operating according to a program. The memory 21 provides a work area for the processor 20 by temporarily storing various programs and data that the processor 20 reads from a storage 22, which will be described later. The memory 21 also temporarily stores various data generated while the processor 20 is operating according to a program. The memory 31 provides a work area for the processor 30 by temporarily storing various programs and data that the processor 30 reads from a storage 32, which will be described later. The memory 31 also temporarily stores various data generated while the processor 30 is operating according to a program. The memory 41 provides a work area for the processor 40 by temporarily storing programs and various data that the processor 40 reads from a storage 42, which will be described later. The memory 41 also temporarily stores various data generated while the processor 40 is operating according to a program.

In this embodiment, the program executed by the processors 10 and 30 may be a game program of the present game. In this embodiment, the program executed by the processor 40 may be a distribution program for realizing distribution of operation instruction data. Further, the processor 10 may further execute a viewing program for realizing playback of a moving image.

In this embodiment, the program executed by the processor 20 may be at least one of the above-described game program, distribution program, and viewing program. The processor 20 executes at least one of a game program, a distribution program, and a viewing program in response to a request from at least one of the user terminal 100, the game play terminal 300, and the distribution terminal 400. Note that the distribution program and the viewing program may be executed in parallel.

That is, the game program may be a program that realizes a game through cooperation between the user terminal 100, the server 200, and the game play terminal 300. The distribution program may be a program that realizes distribution of operation instruction data through cooperation between the server 200 and the distribution terminal 400. The viewing program may be a program that realizes video playback through cooperation between the user terminal 100 and the server 200.

The storages 12, 22, 32, and 42 are auxiliary storage devices. The storages 12, 22, 32, and 42 are composed of storage devices such as flash memory or HDD (Hard Disk Drive). The storages 12 and 32 store, for example, various data related to games. The storage 42 stores various data related to distribution of operation instruction data. Further, the storage 12 stores various data related to playback of moving images. The storage 22 may store at least a portion of various data related to games, distribution of motion instruction data, and playback of videos.

Communication IFs 13, 23, 33, and 43 control transmission and reception of various data in user terminal 100, server 200, game play terminal 300, and distribution terminal 400, respectively. The communication IFs 13, 23, 33, and 43 are capable of, for example, communication via a wireless LAN (Local Area Network), wired LAN, wireless LAN, Internet communication via a mobile phone network, and communication using short-range wireless communication. Control.

The input/output IFs 14, 24, 34, and 44 are interfaces through which the user terminal 100, server 200, game play terminal 300, and distribution terminal 400 receive data input and output data, respectively. The input/output IFs 14, 24, 34, and 44 may input/output data via a USB (Universal Serial Bus) or the like. The input/output IFs 14, 24, 34, 44 may include physical buttons, cameras, microphones, speakers, mice, keyboards, displays, sticks, levers, and the like. Furthermore, the input/output IFs 14, 24, 34, and 44 may include connections for transmitting and receiving data with peripheral devices.

The touch screen 15 is an electronic component that combines an input section 151 and a display section 152 (display). The touch screen 45 is an electronic component that combines an input section 451 and a display section 452. The input units 151 and 451 are, for example, touch-sensitive devices, and are configured by, for example, touch pads. The display units 152 and 452 are configured by, for example, a liquid crystal display or an organic EL (Electro-Luminescence) display.

The input units 151 and 451 detect the position where a user's operation (mainly physical contact operations such as touch operation, slide operation, swipe operation, and tap operation) is input on the input screen, and generate information indicating the position. It has a function to transmit as an input signal. The input units 151 and 451 may include a touch sensing unit (not shown). The touch sensing section may employ any method such as a capacitance method or a resistive film method.

Although not illustrated, the user terminal 100 and the distribution terminal 400 may each include one or more sensors for identifying the holding posture of the user terminal 100 and the distribution terminal 400. This sensor may be, for example, an acceleration sensor or an angular velocity sensor.

When the user terminal 100 and the distribution terminal 400 are equipped with sensors, the processors 10 and 40 respectively identify the holding postures of the user terminal 100 and the distribution terminal 400 from the outputs of the sensors, and perform processing according to the holding postures. It also becomes possible. For example, when the user terminal 100 and the distribution terminal 400 are held in portrait orientation, the processors 10 and 40 may display portrait images on the display units 152 and 452, respectively. On the other hand, when the user terminal 100 and the distribution terminal 400 are held horizontally, a horizontal screen display may be used in which a horizontally long image is displayed on the display unit. In this way, processors 10 and 40 may be able to switch between vertical screen display and horizontal screen display depending on the holding posture of user terminal 100 and distribution terminal 400, respectively.

<Functional configuration of system 1>
FIG. 6 is a block diagram showing the functional configuration of the user terminal 100, server 200, and HMD set 1000 included in the system 1. FIG. 7 is a block diagram showing the functional configuration of distribution terminal 400 shown in FIG. 6.

The user terminal 100 has a function as an input device that receives input operations from a user, and a function as an output device that outputs images and sounds of the game. The user terminal 100 functions as a control unit 110 and a storage unit 120 through cooperation of the processor 10, memory 11, storage 12, communication IF 13, input/output IF 14, touch screen 15, and the like.

The server 200 has a function of mediating the transmission and reception of various information between the user terminal 100, the HMD set 1000, and the distribution terminal 400. The server 200 functions as a control unit 210 and a storage unit 220 through cooperation of the processor 20, memory 21, storage 22, communication IF 23, input/output IF 24, and the like.

The HMD set 1000 (game play terminal 300) functions as an input device that receives input operations from the player, functions as an output device that outputs game images and sounds, and transmits game progress information to the user via the server 200. It has a function of transmitting to the terminal 100 in real time. The HMD set 1000 controls the control unit 310 by the cooperation of the processor 30, memory 31, storage 32, communication IF 33, input/output IF 34 of the game play terminal 300, as well as the HMD 500, HMD sensor 510, motion sensor 520, controller 540, etc. and functions as a storage unit 320.

The distribution terminal 400 has a function of generating action instruction data and transmitting the action instruction data to the user terminal 100 via the server 200. Distribution terminal 400 functions as control section 410 and storage section 420 through cooperation of processor 40, memory 41, storage 42, communication IF 43, input/output IF 44, touch screen 45, and the like.

(Data stored in the storage unit of each device)
The storage unit 120 stores a game program 131 (program), game information 132, and user information 133. Storage unit 220 stores game program 231, game information 232, user information 233, and user list 234. Storage unit 320 stores game program 331, game information 332, and user information 333. The storage unit 420 stores a user list 421, a motion list 422, and a distribution program 423 (program, second program).

Game programs 131, 231, and 331 are game programs executed by user terminal 100, server 200, and HMD set 1000, respectively. This game is realized by each device working together based on the game programs 131, 231, and 331. Note that the game programs 131 and 331 may be stored in the storage unit 220 and downloaded to the user terminal 100 and the HMD set 1000, respectively. In this embodiment, it is assumed that the user terminal 100 renders data received from the distribution terminal 400 based on the game program 131, and plays back a video. In other words, the game program 131 is also a program for reproducing a video using video instruction data distributed from the distribution terminal 400. A program for playing the video may be different from the game program 131. In this case, the storage unit 120 stores a program for playing the moving image separately from the game program 131.

The game information 132, 232, and 332 are data that the user terminal 100, the server 200, and the HMD set 1000 refer to when executing the game program, respectively. The user information 133, 233, and 333 is data related to the account of the user of the user terminal 100. The game information 232 is the game information 132 of each user terminal 100 and the game information 332 of the HMD set 1000. The user information 233 is the player's user information included in the user information 133 of each user terminal 100 and the user information 333. The user information 333 is the user information 133 of each user terminal 100 and the user information of the player.

The user list 234 and the user list 421 are lists of users who have participated in the game. The user list 234 and the user list 421 may include a list of users who participated in the most recent game play by the player, as well as a list of users who participated in each game play before the game play. The motion list 422 is a list of a plurality of motion data created in advance. The motion list 422 is, for example, a list in which motion data is associated with each piece of information that identifies each motion (eg, motion name). The distribution program 423 is a program for realizing distribution of operation instruction data for playing a moving image on the user terminal 100 to the user terminal 100.

(Functional configuration of server 200)
The control unit 210 centrally controls the server 200 by executing the game program 231 stored in the storage unit 220. For example, the control unit 210 mediates transmission and reception of various information between the user terminal 100, the HMD set 1000, and the distribution terminal 400.

The control unit 210 functions as a communication intermediary unit 211, a log generation unit 212, and a list generation unit 213 according to the description of the game program 231. The control unit 210 can also function as other functional blocks (not shown) in order to mediate the transmission and reception of various information related to game play and distribution of action instruction data, and to support the progress of the game.

The communication intermediary unit 211 mediates the transmission and reception of various information between the user terminal 100, the HMD set 1000, and the distribution terminal 400. For example, the communication intermediary unit 211 transmits game progress information received from the HMD set 1000 to the user terminal 100. The game progress information includes data indicating the movements of the character operated by the player, parameters of the character, information on items and weapons possessed by the character, enemy characters, and the like. The server 200 transmits game progress information to the user terminals 100 of all users participating in the game. In other words, the server 200 transmits common game progress information to the user terminals 100 of all users participating in the game. As a result, the game progresses in the same manner as in the HMD set 1000 on each of the user terminals 100 of all users participating in the game.

Further, for example, the communication intermediary unit 211 transmits information received from one of the user terminals 100 and used to support the progress of the game by the player to the other user terminals 100 and the HMD set 1000. The information may be, for example, item information indicating an item to be provided to the player (character), which is an item for the player to progress through the game advantageously. The item information includes information indicating the user who provided the item (user name, user ID, etc.). Further, the communication intermediary unit 211 may mediate the distribution of operation instruction data from the distribution terminal 400 to the user terminal 100.

The log generation unit 212 generates a game progress log based on the game progress information received from the HMD set 1000. The list generation unit 213 generates a user list 234 after the game play ends. Although details will be described later, each user in the user list 234 is associated with a tag indicating the content of the support provided to the player by that user. The list generation unit 213 generates a tag based on the game progress log generated by the log generation unit 212, and associates the tag with the corresponding user. Note that the list generation unit 213 may associate, as a tag, the content of support for the player provided by each user, which is input by a game operator or the like using a terminal device such as a personal computer, with the corresponding user. . This makes the details of the support provided by each user more detailed. Note that when the user participates in the game, the user terminal 100 transmits information indicating the user to the server 200 based on the user's operation. For example, the user terminal 100 transmits the user ID input by the user to the server 200. That is, the server 200 holds information indicating each user for all users participating in the game. The list generation unit 213 may generate the user list 234 using this information.

(Functional configuration of HMD set 1000)
The control unit 310 comprehensively controls the HMD set 1000 by executing the game program 331 stored in the storage unit 320. For example, the control unit 310 advances the game according to the game program 331 and the player's operations. Further, while the game is progressing, the control unit 310 communicates with the server 200 to send and receive information as necessary. The control unit 310 may directly transmit and receive information to and from the user terminal 100 without going through the server 200.

The control unit 310 includes an operation reception unit 311, a display control unit 312, a UI control unit 313, an animation generation unit 314, a game progression unit 315, a virtual space control unit 316, and a reaction processing unit 317 according to the description of the game program 331. functions as The control unit 310 can also function as other functional blocks (not shown) in order to control characters appearing in the game depending on the nature of the game being executed.

The operation reception unit 311 detects and receives input operations from the player. The operation reception unit 311 receives signals input from the HMD 500, motion sensor 520, controller 540, etc., determines what input operation has been performed, and outputs the results to each element of the control unit 310.

The UI control unit 313 controls a user interface (hereinafter referred to as UI) image displayed on the monitor 51, display 530, and the like. The UI image is a tool for the player to input information necessary for the progress of the game to the HMD set 1000, or a tool for obtaining information outputted from the HMD set 1000 during the progress of the game. UI images include, but are not limited to, icons, buttons, lists, menu screens, etc., for example.

The animation generation unit 314 generates animations showing motions of various objects based on control modes of the various objects. For example, the animation generation unit 314 may generate an animation that shows an object (for example, a player's avatar object) moving, moving its mouth, or changing its expression as if it were there. .

The game progression unit 315 advances the game based on the game program 331, input operations by the player, and actions of the avatar object in response to the input operations. For example, the game progression unit 315 performs predetermined game processing when the avatar object performs a predetermined action. Further, for example, the game progression unit 315 may receive information representing a user's operation on the user terminal 100, and perform game processing based on the user's operation. Further, the game progress unit 315 generates game progress information according to the progress of the game, and transmits it to the server 200. The game progress information is transmitted to the user terminal 100 via the server 200. Thereby, the progress of the game on the HMD set 1000 is shared on the user terminal 100. In other words, the progress of the game on HMD set 1000 and the progress of the game on user terminal 100 are synchronized.

The virtual space control unit 316 performs various controls regarding the virtual space provided to the player in accordance with the progress of the game. As an example, the virtual space control unit 316 generates various objects and places them in the virtual space. Further, the virtual space control unit 316 arranges a virtual camera in the virtual space. Further, the virtual space control unit 316 operates various objects arranged in the virtual space according to the progress of the game. Further, the virtual space control unit 316 controls the position and tilt of a virtual camera placed in the virtual space according to the progress of the game.

The display control unit 312 outputs, to the monitor 51 and display 530, a game screen that reflects the processing results executed by each of the above-mentioned elements. The display control unit 312 may display an image based on the field of view from a virtual camera arranged in the virtual space on the monitor 51 and the display 530 as a game screen. Furthermore, the display control unit 312 may include the animation generated by the animation generation unit 314 in the game screen. Further, the display control unit 312 may draw the above-mentioned UI image controlled by the UI control unit 313 in a superimposed manner on the game screen.

The reaction processing unit 317 receives feedback from the user of the user terminal 100 regarding reactions to the player's game play, and outputs the feedback to the player. In this embodiment, for example, the user terminal 100 can create a comment (message) addressed to the avatar object based on the user's input operation. The reaction processing unit 317 receives comment data of the comment and outputs it. The reaction processing unit 317 may display text data corresponding to the user's comment on the monitor 51 and display 530, or may output audio data corresponding to the user's comment from a speaker (not shown). In the former case, the reaction processing unit 317 may draw an image corresponding to the text data (that is, an image including the content of the comment) superimposed on the game screen.

(Functional configuration of user terminal 100)
The control unit 110 comprehensively controls the user terminal 100 by executing the game program 131 stored in the storage unit 120. For example, the control unit 110 advances the game according to the game program 131 and the user's operations. Further, while the game is progressing, the control unit 110 communicates with the server 200 to send and receive information as necessary. The control unit 110 may directly transmit and receive information to and from the HMD set 1000 without going through the server 200.

The control unit 110 includes an operation reception unit 111, a display control unit 112, a UI control unit 113, an animation generation unit 114, a game progression unit 115, a virtual space control unit 116, and a video playback unit 117 according to the description of the game program 131. functions as The control unit 110 can also function as other functional blocks (not shown) in order to advance the game depending on the nature of the game being executed.

The operation reception unit 111 detects and accepts a user's input operation on the input unit 151. The operation reception unit 111 determines what input operation has been performed from the user's actions on the console via the touch screen 15 and other input/output IF 14, and outputs the result to each element of the control unit 110. do.

For example, the operation reception unit 111 receives an input operation on the input unit 151, detects the coordinates of the input position of the input operation, and identifies the type of the input operation. The operation reception unit 111 specifies, for example, a touch operation, a slide operation, a swipe operation, a tap operation, etc. as the type of input operation. Further, when the continuously detected input is interrupted, the operation reception unit 111 detects that the contact input from the touch screen 15 is released.

The UI control unit 113 controls a UI image to be displayed on the display unit 152 in order to construct a UI, depending on at least one of the user's input operation and the received game progress information. The UI image is a tool for the user to input information necessary for the progress of the game to the user terminal 100, or a tool for obtaining information outputted from the user terminal 100 during the progress of the game. UI images include, but are not limited to, icons, buttons, lists, menu screens, etc., for example.

The animation generation unit 114 generates animations showing motions of various objects based on control modes of the various objects.

The game progression unit 115 advances the game based on the game program 131, received game progression information, input operations by the user, and the like. When the game progress unit 115 performs a predetermined game process based on an input operation by the user, the game progress unit 115 transmits information regarding the game process to the HMD set 1000 via the server 200 . Thereby, the predetermined game processing is shared among the HMD sets 1000. In other words, the progress of the game on HMD set 1000 and the progress of the game on user terminal 100 are synchronized. The predetermined game process is, for example, a process of providing an item to an avatar object, and in this example, the information regarding the game process is the item information described above.

The virtual space control unit 116 performs various controls regarding the virtual space provided to the user in accordance with the progress of the game. As an example, the virtual space control unit 116 generates various objects and places them in the virtual space. Further, the virtual space control unit 116 arranges a virtual camera in the virtual space. Further, the virtual space control unit 116 operates various objects arranged in the virtual space according to the progress of the game, specifically, the received game progress information. Further, the virtual space control unit 316 controls the position and tilt of the virtual camera placed in the virtual space according to the progress of the game, specifically, the received game progress information.

The display control unit 112 outputs, to the display unit 152, a game screen on which the results of processing performed by each of the above-mentioned elements are reflected. The display control unit 112 may display, as a game screen, an image based on the field of view from a virtual camera arranged in a virtual space provided to the user on the display unit 152. Furthermore, the display control unit 112 may include the animation generated by the animation generation unit 114 in the game screen. Further, the display control unit 112 may draw the above-mentioned UI image controlled by the UI control unit 113 in a superimposed manner on the game screen. In any case, the game screen displayed on display unit 152 is the same game screen as the game screen displayed on other user terminals 100 and HMD set 1000.

The video playback unit 117 analyzes (render) the motion instruction data received from the distribution terminal 400 and plays back the video.

(Functional configuration of distribution terminal 400)
The control unit 410 comprehensively controls the distribution terminal 400 by executing a program (not shown) stored in the storage unit 420. For example, the control unit 410 generates motion instruction data and distributes it to the user terminal 100 according to the program and the operation of the user (in this embodiment, the player) of the distribution terminal 400 . Further, the control unit 410 communicates with the server 200 to send and receive information as necessary. The control unit 410 may directly transmit and receive information to and from the user terminal 100 without going through the server 200.

The control unit 410 functions as a communication control unit 411, a display control unit 412, an operation reception unit 413, a voice reception unit 414, a motion identification unit 415, and a motion instruction data generation unit 416 according to the program description. The control unit 410 can also function as other functional blocks (not shown) in order to generate and distribute operation instruction data.

The communication control unit 411 controls transmission and reception of information with the server 200 or the user terminal 100 via the server 200. The communication control unit 411 receives the user list 421 from the server 200, for example. Furthermore, the communication control unit 411 transmits operation instruction data to the user terminal 100, as an example.

The display control unit 412 outputs various screens on which the results of processing executed by each element are reflected to the display unit 452. The display control unit 412 displays a screen including the received user list 234, as an example. Further, the display control unit 412 displays, for example, a screen including a motion list 422 for allowing the player to select motion data for making the avatar object move, which is included in the movement instruction data to be distributed.

The operation reception unit 413 detects and accepts a player's input operation on the input unit 151. The operation reception unit 111 determines what input operation has been performed based on the action exerted by the player on the console via the touch screen 45 and other input/output IF 44, and outputs the result to each element of the control unit 410. do.

For example, the operation reception unit 413 receives an input operation on the input unit 451, detects the coordinates of the input position of the input operation, and specifies the type of the input operation. The operation reception unit 413 specifies, for example, a touch operation, a slide operation, a swipe operation, a tap operation, etc. as the type of input operation. Further, when the continuously detected input is interrupted, the operation reception unit 413 detects that the contact input from the touch screen 45 is released.

The audio reception unit 414 receives audio generated around the distribution terminal 400, and generates audio data of the audio. For example, the audio reception unit 414 receives audio uttered by the player and generates audio data of the audio.

The motion specifying unit 415 specifies motion data selected by the player from the motion list 422 in response to the player's input operation.

The motion instruction data generation unit 416 generates motion instruction data. As an example, the motion instruction data generation unit 416 generates motion instruction data including generated audio data and specified motion data.

Note that the functions of HMD set 1000, server 200, and user terminal 100 shown in FIG. 6, and the functions of distribution terminal 400 shown in FIG. 7 are only examples. Each of the HMD set 1000, server 200, user terminal 100, and distribution terminal 400 may have at least some of the functions of other devices. Furthermore, another device other than the HMD set 1000, the server 200, the user terminal 100, and the distribution terminal 400 may be used as a component of the system 1, and a part of the processing in the system 1 may be executed by the other device. That is, the computer that executes the game program in this embodiment may be any of the HMD set 1000, the server 200, the user terminal 100, the distribution terminal 400, and other devices, or a plurality of these devices. It may be realized by a combination of devices.

<Virtual space control processing>
FIG. 8 is a flowchart illustrating an example of the flow of control processing for the virtual space provided to the player and the virtual space provided to the user of the user terminal 100. FIG. 9 is a diagram illustrating a virtual space 600A provided to the player and a visual field image visually recognized by the player, according to an embodiment. FIG. 10 is a diagram illustrating a virtual space 600B provided to the user of the user terminal 100 and a visual field image viewed by the user, according to an embodiment. Note that hereinafter, when there is no need to distinguish between the virtual spaces 600A and 600B, they will be referred to as "virtual space 600."

In step S1, the processor 30 defines a virtual space 600A shown in FIG. 9 as the virtual space control unit 316. Processor 30 defines virtual space 600A using virtual space data (not shown). The virtual space data may be stored in the game play terminal 300, may be generated by the processor 30 based on the game program 331, or may be obtained by the processor 30 from an external device such as the server 200. Good too.

For example, the virtual space 600 has a spherical structure that covers the entire 360 degrees of a point defined as the center. In FIGS. 9 and 10, the celestial sphere in the upper half of the virtual space 600 is illustrated in order not to complicate the explanation.

In step S2, the processor 30, as the virtual space control unit 316, places the avatar object 610 (character) in the virtual space 600A. The avatar object 610 is an avatar object associated with the player, and operates according to the player's input operation.

In step S3, the processor 30, as the virtual space control unit 316, places other objects in the virtual space 600A. In the example of FIG. 9, processor 30 places objects 631-634. Other objects include, for example, character objects (so-called non-player characters, NPCs) that operate according to the game program 331, operation objects such as virtual hands, animals, plants, artificial objects, natural objects, etc. that are arranged as the game progresses. May include objects, etc.

In step S4, the processor 30, as the virtual space control unit 316, arranges the virtual camera 620A in the virtual space 600A. For example, the processor 30 places the virtual camera 620A at the head position of the avatar object 610.

In step S5, processor 30 displays visual field image 650 on monitor 51 and display 530. Processor 30 defines viewing area 640A, which is the field of view from virtual camera 620A in virtual space 600A, according to the initial position and tilt of virtual camera 620A. The processor 30 then defines a view image 650 corresponding to the view area 640A. Processor 30 displays visual field image 650 on HMD 500 and display 530 by outputting visual field image 650 to monitor 51 and display 530.

In the example of FIG. 9, since a part of the object 634 is included in the viewing area 640A as shown in FIG. 9(A), the viewing image 650 is a part of the object 634 as shown in FIG. 9(B). Including.

In step S6, the processor 30 transmits the initial arrangement information to the user terminal 100 via the server 200. The initial placement information is information indicating the initial placement positions of various objects in the virtual space 600A. In the example of FIG. 9, the initial placement information includes information on the initial placement positions of the avatar object 610 and objects 631 to 634. The initial arrangement information can also be expressed as one type of game progress information.

In step S7, the processor 30, as the virtual space control unit 316, controls the virtual camera 620A according to the movement of the HMD 500. Specifically, processor 30 controls the direction and tilt of virtual camera 620A according to the movement of HMD 500, that is, the posture of the player's head. As will be described later, when the player moves his head (changes the posture of his head), processor 30 moves the head of avatar object 610 in accordance with this movement. For example, the processor 30 controls the direction and tilt of the virtual camera 620A so that the direction of the line of sight of the avatar object 610 and the direction of the line of sight of the virtual camera 620A match. In step S8, the processor 30 updates the view image 650 in response to the change in the orientation and inclination of the virtual camera 620A.

In step S9, the processor 30, as the virtual space control unit 316, moves the avatar object 610 according to the player's movement. As an example, the processor 30 moves the avatar object 610 in the virtual space 600A in response to the player's movement in the real space. Furthermore, the processor 30 moves the head of the avatar object 610 in the virtual space 600A in response to the player moving his head in the real space.

In step S10, the processor 30, as the virtual space control unit 316, moves the virtual camera 620A to follow the avatar object 610. In other words, virtual camera 620A is always located at the head of avatar object 610 even if avatar object 610 moves.

Processor 30 updates field of view image 650 in response to movement of virtual camera 620A. That is, the processor 30 updates the viewing area 640A according to the posture of the player's head and the position of the virtual camera 620A in the virtual space 600A. As a result, the field of view image 650 is updated.

In step S11, processor 30 transmits motion instruction data for avatar object 610 to user terminal 100 via server 200. The motion instruction data here includes motion data capturing the player's motions, audio data of the voice uttered by the player, and operation data indicating the content of input operations to the controller 540 during the virtual experience (for example, during game play). Contains at least one of them. When the player is playing the game, the action instruction data is transmitted to the user terminal 100 as, for example, game progress information.

The processes of steps S7 to S11 are continuously and repeatedly executed while the player is playing the game.

In step S21, the processor 10 of the user terminal 100 of the user 3 defines the virtual space 600B shown in FIG. 10 as the virtual space control unit 116. Processor 10 defines virtual space 600B using virtual space data (not shown). The virtual space data may be stored in the user terminal 100, may be generated by the processor 10 based on the game program 131, or may be obtained by the processor 10 from an external device such as the server 200. good.

In step S22, the processor 10 receives initial placement information. In step S23, the processor 10, as the virtual space control unit 116, arranges various objects in the virtual space 600B according to the initial arrangement information. In the example of FIG. 10, the various objects are an avatar object 610 and objects 631 to 634.

In step S24, the processor 10, as the virtual space control unit 116, arranges the virtual camera 620B in the virtual space 600B. As an example, the processor 10 places the virtual camera 620B at the position shown in FIG. 10(A).

In step S25, the processor 10 displays the visual field image 660 on the display unit 152. Processor 10 defines viewing area 640B, which is the viewing area from virtual camera 620B in virtual space 600B, according to the initial position and tilt of virtual camera 620B. The processor 10 then defines a view image 660 corresponding to the view area 640B. The processor 10 displays the visual field image 660 on the display unit 152 by outputting the visual field image 660 to the display unit 152.

In the example of FIG. 10, since the avatar object 610 and the object 631 are included in the viewing area 640B as shown in FIG. 10(A), the viewing image 660 is and object 631.

In step S26, processor 10 receives operation instruction data. In step S27, the processor 10, as the virtual space control unit 116, moves the avatar object 610 in the virtual space 600B according to the motion instruction data. In other words, the processor 10 reproduces the video of the avatar object 610 operating by real-time rendering.

In step S28, the processor 10, as the virtual space control unit 116, controls the virtual camera 620B according to the user's operation received by the operation reception unit 111. In step S29, the processor 10 updates the view image 660 in response to the change in the position of the virtual camera 620B in the virtual space 600B, and the orientation and tilt of the virtual camera 620B. Note that in step S28, the processor 10 may automatically control the virtual camera 620B according to the movement of the avatar object 610, for example, the movement of the avatar object 610 or a change in direction. For example, the processor 10 may automatically move the virtual camera 620B or change the orientation and inclination so as to always photograph the avatar object 610 from the front. Further, as an example, the processor 10 may automatically move the virtual camera 620B so as to always photograph the avatar object 610 from behind, or change the direction and tilt according to the movement of the avatar object 610. good.

In this way, in the virtual space 600A, the avatar object 610 moves according to the movement of the player. Operation instruction data indicating this operation is transmitted to the user terminal 100. In the virtual space 600B, the avatar object 610 operates according to the received motion instruction data. As a result, the avatar object 610 performs similar operations in the virtual space 600A and the virtual space 600B. In other words, the user 3 can use the user terminal 100 to visually recognize the actions of the avatar object 610 in accordance with the actions of the player.

<Game Overview>
FIG. 11 is a diagram showing another example of a view image displayed on the user terminal 100. Specifically, it is a diagram showing an example of a game screen of a game (main game) executed by the system 1, which is being played by a player.

As an example, in this game, an avatar object 610 that operates a weapon such as a gun or a knife, and a plurality of enemy objects 671 that are NPCs appear in a virtual space 600, and the avatar object 610 has a battle with the enemy objects 671. It is a game that allows you to Various game parameters such as the physical strength of the avatar object 610, the number of usable magazines, the number of bullets remaining in the gun, and the number of remaining enemy objects 671 are updated as the game progresses.

This game includes a plurality of stages, and the player can clear each stage by satisfying predetermined achievement conditions associated with each stage. The predetermined achievement conditions include, for example, defeating all the enemy objects 671 that appear, defeating a boss object among the enemy objects 671 that appear, acquiring a predetermined item, reaching a predetermined position, etc. It may also include conditions for The achievement conditions are defined within the game program 131. In addition, in accordance with the content of the game, the player clears the stage when the achievement condition is satisfied. In other words, the player clears the stage when the avatar object 610 defeats the enemy object 671 (the avatar object 610 and the enemy object 671 (win or loss) will be determined. On the other hand, for example, when the game executed by the system 1 is a racing game or the like, the ranking of the avatar object 610 is determined when the condition of reaching the goal is satisfied.

In this game, in order to share the virtual space between the HMD set 1000 and the plurality of user terminals 100, game progress information is live distributed to the plurality of user terminals 100 at predetermined time intervals. As a result, the view image of the view area defined by the virtual camera 620B corresponding to the user terminal 100 is displayed on the touch screen 15 of the user terminal 100 that is viewing the game. In addition, parameter images representing the physical strength of the avatar object 610, the number of usable magazines, the number of remaining bullets of the gun, the number of remaining enemy objects 671, etc. are displayed in a superimposed manner in the upper right and upper left rows of the field of view image. . This visual field image can also be expressed as a game screen.

As described above, the game progress information includes motion data capturing the player's actions, audio data of the voice uttered by the player, and operation data indicating the content of input operations on the controller 540. These data include information for specifying the position, posture, direction, etc. of the avatar object 610, information specifying the position, posture, direction, etc. of the enemy object 671, and other objects (for example, obstacle objects 672, 673). This is information that specifies the location, etc. The processor 10 specifies the position, posture, orientation, etc. of each object by analyzing (rendering) the game progress information.

The game information 132 includes data on various objects such as an avatar object 610, an enemy object 671, and obstacle objects 672 and 673. The processor 10 uses the data and the analysis result of the game progress information to update the position, posture, orientation, etc. of each object. As a result, the game progresses, and each object in the virtual space 600B moves in the same way as each object in the virtual space 600A. Specifically, in the virtual space 600B, each object including the avatar object 610 operates based on the game progress information regardless of whether or not the user operates the user terminal 100.

On the touch screen 15 of the user terminal 100, as an example, UI images 701 and 702 are displayed superimposed on the view image. The UI image 701 is a UI image that accepts an operation for displaying on the touch screen 15 a UI image 711 that accepts an item insertion operation from the user 3 to support the avatar object 610 . The UI image 702 accepts an operation for displaying on the touch screen 15 a UI image (described later) that accepts an operation for inputting and transmitting a comment for the avatar object 610 (in other words, the player 4) from the user 3. This is a UI image. The operation accepted by the UI images 701 and 702 may be, for example, an operation of tapping the UI images 701 and 702.

When the UI image 701 is tapped, the UI image 711 is displayed superimposed on the view image. The UI images 711 include, for example, a UI image 711A with a magazine icon drawn, a UI image 711B with a first aid kit icon, a UI image 711C with a triangular cone icon, and a UI with a barricade icon. Contains image 711D. The item insertion operation corresponds to, for example, an operation of tapping any UI image.

As an example, when the UI image 711A is tapped, the number of remaining bullets of the gun used by the avatar object 610 increases. When the UI image 711B is tapped, the physical strength of the avatar object 610 is restored. When the UI images 711C and 711D are tapped, obstacle objects 672 and 673 that obstruct the movement of the enemy object 671 are placed in the virtual space. One of the obstacle objects 672 and 673 may obstruct movement of the enemy object 671 more than the other.

The processor 10 transmits item insertion information indicating that an item insertion operation has been performed to the server 200. The item insertion information includes at least information for specifying the type of item specified by the item insertion operation. The item insertion information may include other information regarding the item, such as information indicating the position where the item is placed. The item insertion information is transmitted to other user terminals 100 and HMD set 1000 via server 200.

FIG. 12 is a diagram showing another example of the view image displayed on the user terminal 100. Specifically, it is a diagram showing an example of a game screen of the present game, and is a diagram for explaining communication between the player and the user terminal 100 during game play.

In the example of FIG. 12A, the user terminal 100 causes the avatar object 610 to make an utterance 691. Specifically, the user terminal 100 causes the avatar object 610 to perform the utterance 691 according to the audio data included in the game progress information. The content of the utterance 691 is ``I don't have any bullets!'' uttered by the player 4. That is, the content of the utterance 691 is to inform each user that the magazine is now 0 and the number of bullets loaded in the gun is 1, so that the user is likely to lose the means to attack the enemy object 671.

Although speech bubbles are used in FIG. 12A to visually indicate the speech of the avatar object 610, in reality, the speech is output from the speaker of the user terminal 100. In addition to the audio output, a speech bubble shown in FIG. 12(A) (that is, a speech bubble containing text of the audio content) may be displayed in the view image. This also applies to utterance 692, which will be described later.

Upon receiving a tap operation on the UI image 702, the user terminal 100 displays UI images 705 and 706 (message UI) superimposed on the view image, as shown in FIG. 12(B). The UI image 705 is a UI image that displays a comment for the avatar object 610 (in other words, the player). The UI image 706 is a UI image that accepts a comment sending operation from the user 3 in order to send the input comment.

For example, when the user terminal 100 receives a tap operation on the UI image 705, the user terminal 100 displays a UI image imitating a keyboard (not shown, hereinafter simply referred to as "keyboard") on the touch screen 15. The user terminal 100 causes the UI image 705 to display text according to the user's input operation on the keyboard. In the example of FIG. 12B, the text “I will send you a magazine” is displayed on the UI image 705.

For example, when the user terminal 100 receives a tap operation on the UI image 706 after inputting text, it sends comment information including information indicating the input content (text content) and information indicating the user to the server 200. do. Comment information is transmitted to other user terminals 100 and HMD set 1000 via server 200.

The UI image 703A is a UI image that shows the user name of the user who sent the comment, and the UI image 704A is a UI image that shows the content of the comment that the user sent. In the example of FIG. 12(B), the user whose user name is "BBBBB" uses his user terminal 100 to send comment information with the content "Dangerous!" is displayed. UI image 703A and UI image 704A are displayed on touch screens 15 of all user terminals 100 participating in this game and on monitor 51 of HMD 500. Note that the UI images 703A and 704A may be one UI image. That is, one UI image may include the user name and the content of the comment.

In the example of FIG. 12C, the user with the user name "AAAAAA" who is the user of the user terminal 100 shown in FIG. 703B and 704B are displayed. The UI image 703B includes the user name "AAAA", and the UI image 704B includes the comment "I'll send you a magazine!" that was input in the example of FIG. 12(B).

In the example of FIG. 12C, the user "AAAA" further inputs a tap operation on the UI image 701, displays the UI image 711 on the touch screen 15, and inputs a tap operation on the UI image 711A. This is a rear view image 611. In other words, as a result of the item insertion information indicating the magazine being sent from the user terminal 100 of the user "AAAAAA" to the other user terminals 100 and the HMD set 1000, the user terminal 100 and the HMD set 1000 receive the production object 674 (described later). are placed in the virtual space 600. As an example, the user terminal 100 and the HMD set 1000 perform processing related to the performance object 674 and activate the effect of the item object after the elapsed time indicated by the item insertion information has elapsed.

In the example of FIG. 12(D), the number of magazines increases from 0 to 1 by executing the process of activating the effect of the item object. As a result, the player utters "Thank you!" to the user "AAAA", and the audio data of the utterance is transmitted to each user terminal 100. As a result, each user terminal 100 outputs the voice "Thank you!" as the utterance 692 of the avatar object 610.

As described above, in this game, communication between the user and the avatar object 610 is realized by outputting the voice uttered by the avatar object 610 based on the player's utterance and inputting comments by each user.

(Game progress processing on game play terminal 300)
FIG. 13 is a flowchart illustrating an example of the flow of game progress processing executed by the game play terminal 300.

In step S31, the processor 30, as the game progression unit 315, advances the game based on the game program 331 and the player's movements. In step S32, the processor 30 generates game progress information and distributes it to the user terminal 100. Specifically, the processor 30 transmits the generated game progress information to each user terminal 100 via the server 200.

In step S33, when the processor 30 receives the item insertion information (YES in S33), in step S34, it arranges the item object in the virtual space 600A based on the item insertion information. As an example, the processor 30 places the rendering object 674 in the virtual space 600A before placing the item object (see FIG. 11C). The effect object 674 may be, for example, an object imitating a present box. For example, the processor 30 may execute the effect regarding the effect object 674 after the elapsed time indicated by the item input information has elapsed. The effect may be, for example, an animation in which the lid of a present box opens. After executing the animation, the processor 30 executes a process of activating the effect of the item object. For example, in the example of FIG. 11(D), an obstacle object 673 is placed.

After executing the animation, the processor 30 may place the item object corresponding to the tapped UI image in the virtual space 600A. For example, when a tap operation is performed on the UI image 711A, the processor 30 places a magazine object representing a magazine in the virtual space 600A after executing the animation. Further, when a tap operation is performed on the UI image 711B, the processor 30 executes the animation and then arranges a first aid kit object representing a first aid kit in the virtual space 600A. For example, when the avatar object 610 moves to the position of the magazine object or the first aid kit object, the processor 30 may perform a process of activating the effect of the magazine object or the first aid kit object.

The processor 30 continues and repeats the processing of steps S31 to S34 until the game ends. When the game ends, for example, when the player inputs a predetermined input operation to end the game (YES in step S35), the process shown in FIG. 13 ends.

(Game progress processing on user terminal 100)
FIG. 14 is a flowchart illustrating an example of the flow of game progress processing executed by the user terminal 100.

In step S41, the processor 10 receives game progress information. In step S42, the processor 10, as the game progress unit 115, advances the game based on the game progress information.

In step S43, when the processor 10 accepts the item insertion operation by the user 3 (YES in step S43), in step S44, the processor 10 consumes virtual currency and places the performance object 674 in the virtual space 600B. Here, the virtual currency is purchased (charged for the game) when the user 3 performs a predetermined operation on the processor 10 before or during participation in the game. Alternatively, it may be given to the user 3 when a predetermined condition is met. The predetermined condition may be something that requires participation in this game, such as clearing a quest in this game, or may be something that does not require participation in this game, such as answering a questionnaire. The amount of virtual currency (amount of virtual currency owned) is stored in the user terminal 100 as game information 132, for example.

In step S45, the processor 10 transmits item input information to the server 200. The item insertion information is transmitted to the game play terminal 300 via the server 200.

The processor 10 arranges the item object in the virtual space 600A after a predetermined period of time has elapsed after placing the presentation object 674. In the example of FIG. 11, an obstacle object 673 is placed. That is, when the user 3 inputs a tap operation on the UI image 711C, a predetermined amount of virtual currency is consumed and the obstacle object 673 is placed.

The processor 10 continues and repeats the processing of steps S41 to S45 until the game ends. When the game ends, for example, when the player performs a predetermined input operation to end the game, or when the user 3 performs a predetermined input operation to leave the game midway through (step S46: YES) ), the process shown in FIG. 14 ends.

(Game progress processing in server 200)
FIG. 15 is a flowchart showing an example of the flow of game progress processing executed by the server 200. As shown in FIG.

In step S51, the processor 20 receives game progress information from the game play terminal 300. In step S52, the processor 20, as the log generation unit 212, updates a game progress log (hereinafter referred to as a play log). Note that the play log is generated by the processor 20, for example, when initial arrangement information is received from the game play terminal 300.

In step S53, the processor 20 transmits the received game progress information to each user terminal 100.

In step S54, when item input information is received from any user terminal 100 (YES in step S54), the processor 20 updates the play log as the log generation unit 212 in step S55. In step S56, the processor 20 transmits the received item insertion information to the game play terminal 300.

The processor 20 continues and repeats the processing of steps S51 to S56 until the game ends. When the game ends, for example, when information indicating that the game ends is received from the game play terminal 300 (YES at step S57), in step S58, the processor 20, as the list generation unit 213, extracts the play log from the play log. A list of users who have participated in the game (user list 234) is generated. The processor 20 stores the generated user list 234 in the server 200.

FIG. 16 is a diagram showing a specific example of the user list 234. The "user" column stores information (for example, user name) indicating each user who participated in the game. The "tag" column stores information (tags) generated based on the support provided by each user to the player. In the example of FIG. 16, among the tags stored in the "tag" column, those without square brackets are information automatically generated by the processor 20, and those with square brackets are information generated by the game operator. The information was entered manually.

In the example of FIG. 16, the user "AAAAA" is associated with a magazine, 10F, a boss, and information "win against the boss by giving the magazine as a gift." This indicates that, for example, in the boss battle on the stage 10F, the user "AAAA" inserted a magazine, and the avatar object 610 defeated the boss with the bullets from the inserted magazine.

In addition, the user "BBBBB" is associated with the information "first aid kit, 3F, Zako, and "Recovery on the verge of game over." "BBBBB" threw in a first aid kit, and as a result, the avatar object 610's physical strength recovered just before it became 0 (game over).

Further, the user "CCCCC" is associated with information such as barricade, 5F, Zako, and "stopping two zombies with barricade." This means that, for example, in the battle with the most powerful enemies on the stage 5F, the user "CCCCC" threw a barricade (obstacle object 672 in FIG. 11), and as a result, succeeded in stopping the two most powerful enemies. Showing.

In the example of FIG. 16, one support provided is associated with the user name of each user 3, but the user name of user 3 who provided support multiple times has tags for each of the multiple times of support. Can be matched. In the user list 234, the respective tags are preferably distinguished. Thereby, after the game ends, the player who refers to the user list 421 using the distribution terminal 400 can accurately understand the contents of each support.

<Distribution of movement instruction data>
(Distribution processing at distribution terminal 400)
FIG. 17 is a flowchart illustrating an example of the flow of distribution processing executed by the distribution terminal 400. FIG. 18 is a diagram showing a specific example of a screen displayed on distribution terminal 400. FIG. 19 is a diagram showing another specific example of the screen displayed on the distribution terminal.

In step S61, the processor 40, as the operation receiving unit 413, receives a first operation for displaying a list of users who have participated in the game (user list 234). A download screen 721 shown in FIG. 18A is a screen for downloading the user list 234 from the server 200 and displaying it on the display unit 452. The download screen 721 is, for example, a screen that is displayed immediately after an operation to start an application that executes the distribution process shown in FIG. 17 is input to the distribution terminal 400.

Download screen 721 includes UI images 722 and 723, as an example. The UI image 722 accepts the operation for downloading the user list 234, that is, the first operation described above. The first operation may be, for example, an operation of tapping the UI image 722. The UI image 723 accepts an operation to terminate the application. The operation may be, for example, an operation of tapping the UI image 723.

Upon receiving the tap operation on the UI image 722, the processor 40, as the communication control unit 411, acquires (receives) the user list 234 from the server 200 in step S62. In step S63, the processor 40, as the display control unit 412, causes the display unit 452 to display the user list 234. Specifically, the processor 40 causes the display unit 452 to display a user list screen generated based on the user list 234. The user list screen may be, for example, a user list screen 731 shown in FIG. 18(B). The user list screen 731 consists of record images corresponding to each record in the user list 234. In the example of FIG. 18(B), record images 732A to 732C are described as record images, but the number of record images is not limited to three. In the example of FIG. 18(B), if the number of records in the user list 234 is greater than 3 (that is, the number of users who have participated in the game is greater than 3), the player may perform an operation such as scrolling the screen (for example, By inputting a drag operation or a flick operation on the touch screen 45, other record images can be displayed on the display section 452.

As an example, record images 732A-732C each include user names 733A-733C, tag information 734A-734C, and icons 735A-735C. Hereinafter, if there is no need to distinguish record images 732A to 732C, user names 733A to 733C, tag information 734A to 734C, and icons 735A to 735C, they will be referred to as "record image 732," "user name 733," and ", respectively. "tag information 734" and "icon 735".

The user name 733 is information stored in the "user" column in the user list 234 and indicating each user who participated in the game. The tag information 734 is information indicating a tag associated with each piece of information indicating each user who participated in the game in the user list 234. For example, the record image 732A includes "AAAAA" as the user name 733A. Therefore, the record image 732A includes, as tag information 734A, "Magazine, 10F, Boss, "Win the Boss by Presenting the Magazine", which is associated with "AAAAAA" in the user list 234. The icon 735 is, for example, an image set in advance by the user.

Note that the processor 40 may store the received user list in the distribution terminal 400 (user list 421 in FIG. 7). The download screen 721 may include a UI image (not shown) for displaying the user list 421 on the display unit 452. In this example, when the UI image is tapped, the processor 40 does not download the user list 234, reads the user list 421, generates a user list screen from the user list 421, and displays it on the display unit 452. .

In step S64, the processor 40, as the operation accepting unit 413, accepts a second operation for selecting any of the users included in the user list screen 731. The second operation may be, for example, an operation of tapping any of the record images 732 on the user list screen 731. In the example of FIG. 18(B), the player inputs a tap operation to the record image 732A. That is, the player has selected the user "AAAA" as the user to whom the action instruction data will be distributed.

Upon receiving the tap operation on the record image 732, the processor 40, as the display control unit 412, causes the display unit 452 to display the motion list 422 in step S65. Specifically, the processor 40 causes the display unit 452 to display a motion list screen generated based on the motion list 422. The motion list screen may be a motion list screen 741 shown in FIG. 19, for example. The motion list screen 741 consists of record images corresponding to each record in the motion list 422. In the example of FIG. 19, record images 742A to 742C are described as record images, but the number of record images is not limited to three. In the example of FIG. 19, if the number of records in the motion list 422 is greater than 4, the player can scroll other records by inputting an operation to scroll the screen (for example, a drag operation or a flick operation) on the touch screen 45. The image can be displayed on the display section 452.

As an example, record images 742A-742C each include motion names 743A-743C, motion images 744A-744C, and UI images 745A-745C. Hereinafter, when there is no need to distinguish record images 742A to 742C, motion names 743A to 743C, motion images 744A to 744C, and UI images 745A to 745C, they will be referred to as "record image 7432", "motion name 743", and "motion name 743", respectively. They are described as "motion image 744" and "UI image 745."

The motion name 743 is information that identifies a motion stored in the motion list 422. The motion image 744 is an image generated from motion data associated with each motion name in the motion list 422. For example, the processor 40 includes an image of the avatar object 610 taking the first posture in each motion data in the record image 742 as a motion image 744. The motion image 744 may be a UI image that accepts a predetermined operation by the player (for example, a tap operation on the motion image 744). When the processor 40 receives the predetermined operation, it may play a motion video in which the avatar object 610 moves based on the motion data. The processor 40 may automatically redisplay the motion list screen 741 when the motion video ends.

Note that, instead of the motion image 744, the record image 742 may include, for example, a UI image including the text "motion playback".

In step S66, the processor 40, as the operation receiving unit 413, receives a third operation for selecting a motion. The third operation may be, for example, a tap operation on the UI image 745. That is, the UI image 745 accepts an operation to select motion data corresponding to each record image 742. Upon receiving the third operation, the processor 40, as the motion specifying unit 415, specifies the motion data selected by the player.

In step S67, the processor 40, as the display control unit 412 and the audio reception unit 414, receives audio input from the player while playing back a motion video in which the avatar object 610 operates based on the selected motion data.

FIG. 20 is a diagram showing a specific example of voice input by the player 4. As shown in FIG. 20, player 4 is inputting speech sound 820A while playing motion video 810A. This uttered voice 820A is addressed to user 3 (hereinafter referred to as user 3A) whose user name is “AAAAAA”. That is, in the example of FIG. 20, the player 4 selects the user 3A (first user) and creates motion instruction data addressed to the user 3A in step S64. Note that it is assumed that the user terminal 100 used by the user 3A is the user terminal 100A.

Since the uttered voice 820A is addressed to the user 3A, the uttered voice is based on the content of the support provided by the user 3A to the avatar object 610 (in other words, the player 4). Specifically, the user 3A inserts a magazine into the boss battle on the stage 10F, and the avatar object 610 defeats the boss with the bullets from the inserted magazine. Therefore, the uttered voice 820A has the content, "Thank you for giving me the magazine during the boss battle! The timing was perfect! Thanks to Mr. AAAAAA, I was able to clear the game!" In this way, it is preferable that the uttered voice includes the content of the support provided by the user 3 in the game and gratitude to the user 3.

In one aspect, the player 4 creates speech content addressed to the user 3 before starting voice input, that is, before inputting the third operation to the distribution terminal 400. In another aspect, the content of the utterance addressed to the user 3 may be automatically generated by the processor 40. Further, the processor 40 may display the tag associated with the user 3 selected by the second operation in a superimposed manner on the motion video 810A.

Processor 40 converts the received audio into audio data. In step S68, the processor 40, as the motion instruction data generation unit 416, generates motion instruction data including the audio data and motion data of the selected motion.

In step S69, the processor 40, as the communication control unit 411, distributes the generated motion instruction data to the user terminal 100 (first computer) of the selected user 3 (user 3A in the example of FIG. 20). FIG. 21 is a diagram showing yet another specific example of the screen displayed on the distribution terminal 400. After executing step S68, the processor 40, as the display control unit 412, causes the display unit 452 to display the distribution screen. The distribution screen may be, for example, the distribution screen 751 shown in FIG. 21(A). Distribution screen 751 includes a UI image 752 and motion image 753A. Further, the distribution screen 751 may include information indicating the user to whom the operation instruction data is to be distributed, as shown in FIG. 21(A).

The UI image 752 accepts an operation for distributing motion instruction data to the selected user 3. The operation may be, for example, a tap operation on the UI image 752. The motion image 753A is a UI image that accepts an operation for reproducing a video based on the generated motion instruction data, that is, a video based on the motion instruction data generated for the user 3A. The operation may be, for example, a tap operation on the motion image 753A. Note that the UI image that accepts the operation for playing back the generated video is not limited to the motion image 753A. For example, it may be a UI image that includes the text "Play Video". The processor 40 may automatically redisplay the distribution screen 751 when the video ends.

It is preferable that the distribution screen 751 further includes a UI image that accepts an operation to return to accepting voice input. The operation may be, for example, a tap operation on the UI image. By including the UI image in the distribution screen 751, the player 4 can perform voice input again when voice input fails, for example, when the player 4 makes a mistake in what is being uttered. Note that the UI image may be a UI image that accepts an operation to return to selection of motion data.

Upon receiving the tap operation on the UI image 752, the processor 40 transmits operation instruction data to the server 200 along with information indicating the user 3A. The server 200 specifies the user terminal 100 to which the movement instruction data is to be transmitted based on the information indicating the user 3A, and transmits the movement instruction data to the specified user terminal 100 (namely, the user terminal 100A).

When the transmission of the operation instruction data is completed, the processor 40 may display, for example, a distribution completion screen 761 shown in FIG. 21(B) on the display unit 452. Distribution completion screen 761 includes UI images 762 and 763, as an example. Further, the distribution completion screen 761 may include text indicating that the transmission of the operation instruction data has been completed, as shown in FIG. 21(B).

The UI image 762 accepts an operation to start creating action instruction data addressed to another user 3. The operation may be, for example, an operation of tapping the UI image 762. When the processor 40 receives the tap operation, the processor 40 causes the display unit 452 to display the user list screen again. That is, if the tap operation is accepted, the distribution process returns to step S63. At this time, the processor 40 may generate a user list screen based on the user list 421 stored in the distribution terminal 400 and display it on the display unit 452. The UI image 763 accepts an operation to terminate the application. The operation may be, for example, an operation of tapping the UI image 763. When the operation is accepted, the distribution process ends.

In the example described with reference to FIG. 20 and FIG. 21, as shown in FIG. , is transmitted only to the user terminal 100A.

FIG. 22 is a diagram showing another specific example of voice input by the player 4. As shown in FIG. 22, player 4 is inputting speech sound 820B while playing motion video 810B. This uttered voice 820B is a uttered voice addressed to user 3 (hereinafter referred to as user 3B) whose user name is “BBBBB”. That is, in the example of FIG. 22, the player 4 inputs a tap operation on the record image 732B corresponding to the user 3B in step S64, and creates motion instruction data addressed to the user 3B. Note that it is assumed that the user terminal 100 used by the user 3B is the user terminal 100B.

Since the uttered voice 820B is addressed to the user 3B, the uttered voice is based on the content of the support provided by the user 3B to the avatar object 610 (in other words, the player 4). Specifically, user 3B is on the verge of losing the physical strength of avatar object 610 to 0 (game over) when user "BBBBB" throws in a first aid kit during the battle with the worst enemy on stage 3F. My physical strength is recovering. Therefore, the uttered voice 820B has the content, ``Thanks to the first aid kit BBBBB gave me, I didn't have to get game over on the third floor. Thank you so much!''

FIG. 23 is a diagram showing still another specific example of the screen displayed on the distribution terminal 400. The distribution screen 751 shown in FIG. 23(A) includes a UI image 752 and a motion image 753B. When the motion image 753B receives a tap operation, it plays a moving image based on the motion instruction data generated for the user 3B.

Upon receiving the tap operation on the UI image 752, the processor 40 transmits operation instruction data to the server 200 along with information indicating the user 3B. The server 200 identifies the user terminal 100 to which the motion instruction data is to be transmitted based on the information indicating the user 3B, and transmits the motion instruction data to the identified user terminal 100 (ie, the user terminal 100B).

In the example described with reference to FIG. 22 and FIG. 23, as shown in FIG. , is transmitted only to the user terminal 100B.

As described above, the content of the audio based on the audio data included in the action instruction data is based on the content of the support provided by the user 3 to the player 4 in participating in the most recent game. Since the content of the support is different for each user 3, the content of the voice is different for each user 3. That is, after the game ends, motion instruction data including voices with different contents is transmitted to at least some of the user terminals 100 of the users 3 who participated in the game.

Furthermore, the motion of the avatar object 610 in the example of FIG. 22 is different from the motion in the example of FIG. 20. That is, when generating the motion instruction data addressed to the user 3B, the player 4 selects different motion data from when generating the motion instruction data addressed to the user 3A. Specifically, in step S66, the player 4 inputs a tap operation on the UI image 745B to select motion data corresponding to the record image 742B. In this way, the player 4 can vary the motion data included in the action instruction data for each user 3.

Then, motion instruction data for each user 3, including audio data with different contents for each user 3 and motion data selected for each user 3, is transmitted only to the user terminal 100 of each user 3. In other words, unique operation instruction data for each user terminal 100 is transmitted to each of the user terminals 100 of the selected users 3.

FIG. 24 is a diagram showing an overview of transmission of game progress information from game play terminal 300 to user terminal 100. While the operation instruction data for video playback on the user terminal 100 is unique for each user terminal 100, as shown in FIG. The game progress information transmitted to the user terminals 100 is common to each user terminal 100. That is, the action instruction data included in the game progress information is also common among each user terminal 100. In this way, it can be said that the motion instruction data for playing a video and the motion instruction data for advancing the game are different data in terms of the sameness between user terminals 100 and the destination of transmission.

(Video playback processing in user terminal 100)
FIG. 25 is a flowchart illustrating an example of the flow of video playback processing executed by the user terminal 100.

In step S71, the processor 10, as the video playback unit 117, receives the motion instruction data. In step S72, the processor 10, as the video playback unit 117, notifies the user 3 of receiving the motion instruction data. For example, the processor 10 displays a notification image on the display section 152, plays a notification sound from a speaker (not shown), lights up a lighting section (not shown) including an LED (light-emitting diode), or the like. The reception of the operation instruction data is notified to the user 3 by at least one of blinking.

In step S73, the processor 10, as the operation receiving unit 111, receives a first playback operation for playing back the video. The first reproduction operation may be, for example, an operation of tapping a notification image. In step S74, the processor 10, as the video playback unit 117, renders the motion instruction data and plays the video. For example, the processor 10 may start an application for playing the present game and play the video, or may start an application for video playback that is separate from the application and play the video. good. Hereinafter, this video will be referred to as a "thank you video."

FIG. 26 is a diagram showing a specific example of playing a thank you video. Specifically, it is a diagram showing an example of reproduction of a thank you video on the user terminal 100 of the user 3A. In the thank you video 910A played on the user terminal 100, the avatar object 610 is uttering a voice 920A while performing a certain motion. In other words, the processor 10 outputs the audio 920A from a speaker (not shown) while reproducing the thank you video 910A including the avatar object 610 that performs a certain motion.

The motion in the thank you video 910A is based on the motion data selected by the player 4 in generating action instruction data addressed to the user 3A, and the audio 920A is based on the uttered audio input by the player 4 in generating the action instruction data. It is based on audio data generated from 820A. In other words, the voice 920A is a voice that includes the details of the support provided by the user 3A in the game and gratitude for the support. In this way, by inputting the first playback operation, the user 3A can view a thank you video in which the avatar object 610 speaks about the support provided by the user in the game and gratitude for the support.

As an example, the user terminal 100 may display at least one UI image on the touch screen 15 after the thank you video 910A finishes playing. The UI image may be, for example, a UI image that accepts an operation to play the thank you video 910A again, a UI image that accepts an operation to transition to another screen, or a UI image that accepts an operation to transition to another screen, or a UI image that accepts an operation to play the thank you video 910A again. It may also be a UI image that accepts an operation to end the process.

Further, as an example, the user terminal 100 may display at least one UI image on the touch screen 15 while the thank you video 910A is being played. The UI image may be a plurality of UI images that respectively accept operations such as temporarily stopping or ending the currently playing thank you video 910A, or changing the scene to be played.

Note that these UI images displayed while the thank you video 910A is being played and after the thank you video 910A is being played do not include a UI image for responding to the avatar object 610. That is, the thank you video 910A according to this embodiment is not provided with a means for responding to the avatar object 610.

FIG. 27 is a diagram showing another specific example of playing a thank you video. Specifically, it is a diagram showing an example of reproduction of a thank you video on the user terminal 100 of the user 3B. In the thank you video 910B played on the user terminal 100, the avatar object 610 is uttering a voice 920B while performing a certain motion. In other words, the processor 10 outputs the audio 920B from a speaker (not shown) while reproducing the thank you video 910B that includes the avatar object 610 that performs a certain motion.

The motion in the thank you video 910B is based on the motion data selected by the player 4 in generating the action instruction data addressed to the user 3B, and the audio 920B is based on the uttered audio input by the player 4 in generating the action instruction data. It is based on audio data generated from 820B. Therefore, the motion performed by avatar object 610 in the example of FIG. 27 is different from the motion in the example of FIG. 26. Furthermore, the voice 920B is a voice that includes the details of the support provided by the user 3B in the game and gratitude for the support. Therefore, in the example of FIG. 27, the content of audio 920B is different from the content of audio 920A in the example of FIG. 26.

In this way, the thank you video that is received by at least some of the user terminals 100 of the users 3 who participated in the game after the game ends is a video in which the utterance content of the avatar object 610 differs for each user 3.

Note that the processor 10 may display a UI image 930 that includes content encouraging participation in the next game, superimposed on the video 910. The UI image 930 may be distributed together with the action instruction data, or may be stored by the user terminal 100 as the game information 132.

<Game Overview>
Games that can be provided by the system 1 according to this embodiment include participatory live competitive games. An example of a participatory live competitive game will be described below with reference to FIGS. 28(A) to 28(D) and FIGS. 29(A) to 29(D). The live battle game is composed of a plurality of stages, and each stage includes a soldier object 720 operated by each of a plurality of users, and an enemy object 730 that operates as an NPC according to the game program of each of the plurality of user terminals 100. , a building object 740 such as a high-rise building appears in the virtual space 600B defined by each of the plurality of user terminals 100.

The soldier object 720 is, for example, an object that resembles a soldier carrying a bazooka on his back, and the enemy object 730 is, for example, an object that resembles a giant spider. The soldier object 720 attacks the enemy object 730 by firing a bullet from a bazooka. On the other hand, the enemy object 730 attacks the soldier object 720 by releasing string from its mouth.

The user terminal 100 of the user places the virtual camera 620B of the user in the virtual space 600B defined by the user terminal 100. At this time, the virtual camera 620B is arranged so as to capture the virtual space 600B from behind the soldier object 720 of the user. The user terminal 100 of the user displays the field of view image 660 representing the field of view 640B of the virtual camera 620B as a game video on the touch screen 15, and displays the virtual pads VP1 and VP2 superimposed on the game video. Note that details of the virtual pads VP1 and VP2 will be described later.

When the virtual pad VP1 or VP2 is operated, the user terminal 100 of the user causes the soldier object 720 of the user to perform an action corresponding to the operation in the virtual space 600B defined by the user terminal 100. In addition, the user terminal 100 of the own user transmits operation information for enabling the operation to be specified to the user terminal 100 of another user via the server 200. The user terminal 100 that has received the operation information selects the soldier object 720 that is operated by the user of the user terminal 100 that has transmitted the operation information, among the soldier objects 720 that exist in the virtual space 600B defined in the user terminal 100. , to operate according to the operation information.

As a result, if the operation is for moving the soldier object 720, the soldier object 720 moves in the virtual space 600B defined by each of the plurality of user terminals 100. Further, if the operation is for making the soldier object 720 jump, the soldier object 720 jumps in the virtual space 600B defined by each of the plurality of user terminals 100. Further, if the operation is an operation for changing the orientation of the bazooka, that is, the orientation of the soldier object 720, the orientation of the bazooka, that is, the soldier object The orientation of 720 is changed. Further, when the operation is an operation for firing a bullet from the bazooka, the bullet is fired from the bazooka in the virtual space 600B defined by each of the plurality of user terminals 100.

When a bullet fired from the bazooka of the own user's soldier object 720 hits an enemy object 730, the user terminal 100 of the own user reduces the HP of the enemy object 730 and sends the reduced HP via the server 200. It is transmitted to the user terminal 100 of another user. The user terminal 100 that has received the reduced HP updates the HP of the enemy object 730 existing in the virtual space 600B defined in the user terminal 100 with the reduced HP. When the HP of the enemy object decreases to 0, each of the plurality of user terminals 100 causes the enemy object 730 to disappear from the virtual space 600B defined by the user terminal 100. Note that when the bullet fired from the bazooka hits the building object 740, the building object 740 is destroyed.

Further, when a thread is released from an enemy object 730 in the virtual space 600B defined by the user terminal 100 of the user and the thread hits the soldier object 720 of the user, the user terminal 100 Reduces HP. When the HP of the soldier object 720 of the own user decreases to 0, the user terminal 100 of the own user ends the battle of the soldier object 720 and sends a notification to the other users via the server 200 that the battle has ended. It is transmitted to the terminal 100. The user terminal 100 that has received the notification causes the soldier object 720 for which the battle has ended to disappear from the virtual space 600B defined by the user terminal 100.

(Operation of user terminal 100 in response to virtual pad operation)
The virtual pad VP1 is displayed at the lower left position of the touch screen 15. On the other hand, the virtual pad VP2 has an outer diameter smaller than the outer diameter of the virtual pad VP1 and is displayed at a position slightly above the lower right row of the touch screen 15. That is, the virtual pads VP1 and VP2 are arranged so that their center positions (reference positions) are shifted from each other in both the horizontal and vertical directions on the touch screen 15.

The arrangement of the virtual pads VP1 and VP2 is fixed regardless of the user's touch operation. However, when a predetermined condition is satisfied, including a condition that is satisfied when the own user's soldier object 720 is attacked by an enemy object 730, the user terminal 100 moves the virtual pads VP1 and VP2 in a predetermined manner (for example, in the vertical and horizontal directions). The display is displayed in a manner that gives the user the impression that the display is vibrating by moving the display a predetermined amount at a time.

The user terminal 100 registers information indicating the touch position on the touch screen 15 in a history information table (not shown). Specifically, when the user terminal 100 detects a touch on the touch screen 15 from a state in which no touch is detected, the user terminal 100 determines that the state has become a "touch-on state", and changes the history information indicating the touch position to a "touch-now state". The information is registered in the history information table as history information. Further, when a touch on the touch screen 15 is no longer detected, it is determined that a "touch-off state" has been entered, and predetermined history information is registered in the history information table. The user terminal 100 identifies the type of touch operation (tap operation, drag operation, etc.) on the touch screen 15 based on the history information.

(About Virtual Pad VP1)
The virtual pad VP1 includes an operating body (operation target image) ST1 and a circular outer frame (range image) FR1 that is larger than the operating body ST1. When the operating tool ST1 is not touched, the operating tool ST1 is displayed at the center position (reference position) of the range RG1 surrounded by the outer frame FR1. When the user performs a drag operation on the operating tool ST1, the user terminal 100 moves the operating tool ST1 in the direction specified by the drag operation. More specifically, the user terminal 100 does not move the operating tool ST1 by a drag operation started by a touch operation at a position other than the position of the operating tool ST1, but by moving the operating tool ST1 by a touch operation started by a touch operation at a position of the operating tool ST1. The operating body ST1 is moved according to the drag operation.

The operating tool ST1 is a circular object having a predetermined radius from the center position of the operating tool ST1, and whose center position is movable within the outer frame FR1. As a result, when the center position moves to near the outer edge of the outer frame FR1 by the drag operation, the operating tool ST1 is displayed slightly protruding outside the outer frame FR1.

When a drag operation started by a touch operation on the operating tool ST1 is performed, the user terminal 100 specifies a vector whose starting point is the center position of the range RG1 and whose end point is the current touch position. If the current touch position is within the range RG1, the user terminal 100 aligns the center position of the operating tool ST1 with the current touch position, and if the current touch position is outside the range RG1, the user terminal 100 aligns the center position of the operating tool ST1 with the current touch position. The center position of the operating body ST1 is aligned with the intersection of the outer frame FR1 and the outer frame FR1. When the touch position for the drag operation is moved in the circumferential direction of the outer frame FR1 outside the outer frame FR1, the intersection between the touch position and the center position of the range RG1, and thus the operating tool ST1, is also moved in the circumferential direction.

The user terminal 100 moves the soldier object 720 in a direction according to the center position of the range RG1 and the current position of the operating body ST1. However, the orientation of the soldier object 720 is not changed by the drag operation of the operating body ST1. Therefore, when the operating tool ST1 is moved by a drag operation while the soldier object 720 is displayed as shown in FIG. 28(C), the soldier object 720 operates as follows. At this time, the virtual camera 620B moves to follow the soldier object 720.

When the operating body ST1 is moved upward, the soldier object 720 moves forward while facing forward (see FIG. 28(A)). When the operating body ST1 is moved downward, the soldier object 720 moves backward while facing forward (see FIG. 28(E)). When the operating body ST1 is moved to the right, the soldier object 720 moves to the right while facing forward (see FIG. 28(B)). When the operating body ST1 is moved to the left, the soldier object 720 moves to the left while facing forward (see FIG. 28(D)).

Note that when the operating body ST1 is moved diagonally upward to the right, the soldier object 720 moves diagonally forward to the right while facing forward. Furthermore, when the operating body ST1 is moved diagonally downward to the left, the soldier object 720 moves diagonally backward to the left while facing forward.

The user terminal 100 transmits, to the server 200, operation information including information that can specify that the operation target and the operation mode are the virtual pad VP1 and the drag operation, respectively, the above-mentioned vector, and the user ID. When the user releases his finger from the touch screen 15 to cancel the drag operation, the processor 10 of the user terminal 100 performs display processing to return the operating tool ST1 to the center position of the range RG1. At this time, the processor 10 of the user terminal 100 may perform a display process that returns the operating tool ST1 to the center position at once, or may perform a display process that returns the operating tool ST1 to the center position at a predetermined movement speed. You may go.

When the user performs a tap operation on any position within the range RG1, the user terminal 100 causes the soldier object 720 to jump on the spot, regardless of whether the tap operation is on the operating body ST1. . However, if the tap operation is performed within a predetermined time (for example, 0.1 seconds) after the drag operation is canceled, the soldier object 720 may be jumped. The user terminal 100 transmits to the server 200 operation information that includes information that allows identification of the operation target and operation mode as virtual pad VP1 and tap operation, respectively, and a user ID.

(About Virtual Pad VP2)
The virtual pad VP2 includes an operating body (operation target image) ST2 and a circular outer frame (range image) FR2 that is larger than the operating body ST2. The operating tool ST2 is displayed at the center position (reference position) of a range RG2 surrounded by the outer frame FR2, and when a drag operation is performed on the operating tool ST2, it moves in the direction specified by the drag operation. At this time, the user terminal 100 does not move the operating tool ST2 by a drag operation started by a touch operation at a position other than the position of the operating tool ST2, and does not move the operating tool ST2 by a drag operation started by a touch operation at a position of the operating tool ST2. The operating body ST2 is moved accordingly. The operating tool ST2 is a circular object whose center position is movable within the outer frame FR2. Therefore, when the center position of the operating tool ST2 is moved to near the outer edge of the outer frame FR2 by the drag operation, the operating tool ST2 is displayed slightly protruding outside the outer frame FR2.

When a drag operation initiated by a touch operation on the operating tool ST2 is performed, the user terminal 100 specifies a vector whose starting point is the center position of the range RG2 and whose end point is the current touch position. If the current touch position is within the range RG2, the user terminal 100 aligns the center position of the operating tool ST2 with the current touch position, and if the current touch position is outside the range RG2, the user terminal 100 aligns the center position of the operating tool ST2 with the current touch position. The center position of the operating body ST2 is aligned with the intersection of the outer frame FR2 and the outer frame FR2. When the touch position for a drag operation is moved in the circumferential direction of the outer frame FR2 outside the outer frame FR2, the intersection between the touch position and the center position of the range RG2, and thus the operating tool ST2, also moves in the circumferential direction.

The user terminal 100 changes the firing direction of the bazooka and the arrangement of the virtual camera 620B according to the center position of the range RG2 and the current position of the operating body ST2. When the operating body ST2 moves in the left-right direction, the user terminal 100 determines the firing direction of the bazooka, that is, the orientation of the soldier object 720 relative to the body axis of the soldier object 720 when viewed from above the soldier object 720. The position and orientation of the virtual camera 620B are changed to clockwise or counterclockwise, and to capture the soldier object 720 from behind. Further, when the operating body ST2 moves in the vertical direction, the user terminal 100 changes the firing direction of the bazooka to the vertical direction with the straight line connecting both shoulders of the soldier object 720 as an axis, and also changes the firing direction to capture the firing direction. The position and orientation of virtual camera 620B are changed to .

Therefore, when the operating body ST2 is moved by a drag operation while the soldier object 720 is displayed as shown in FIG. 29(C), the direction of the bazooka and the position of the virtual camera 620B change as follows. do.

That is, when the operating body ST2 is moved upward, the firing direction of the bazooka is directed upward with the straight line connecting both shoulders of the soldier object 720 as the axis, and the virtual camera 620B is moved downward while changing its direction upward. (See FIG. 29(A)). When the operating body ST2 is moved downward, the firing direction of the bazooka points downward with the straight line connecting the two shoulders as an axis, and the virtual camera 620B moves upward while changing its direction downward (Fig. 29 (See (E)).

When the operating body ST2 is moved to the left, the firing direction of the bazooka, that is, the orientation of the soldier object 720 is changed to a counterclockwise direction centering on the body axis of the soldier object 720, and the virtual camera 620B is The movement of the soldier object 720 is followed so as to capture the soldier object 720 from behind (see FIG. 29(B)). When the operating body ST2 is moved to the right, the firing direction of the bazooka, that is, the orientation of the soldier object 720 is changed to a clockwise direction centering on the body axis of the soldier object 720, and the virtual camera 620B is moved to the direction of the soldier object 720. The movement of the soldier object 720 is followed so as to be captured from behind (see FIG. 29(D)).

Note that when the operating body ST2 is moved diagonally upward to the right, the firing direction of the bazooka, that is, the soldier object 720 faces diagonally upward to the right. Furthermore, when the operating body ST1 is moved diagonally downward to the left, the firing direction of the bazooka, that is, the soldier object 720 faces diagonally downward to the left.

The user terminal 100 transmits to the server 200 operation information that includes information that allows identification of the operation target and operation mode as virtual pad VP2 and drag operation, the vector, and the user ID. When the user releases his finger from the touch screen 15 to cancel the drag operation, the user terminal 100 returns the operating body ST2 to the center position of the range RG2.

When the user performs a tap operation on any position within the range RG2, the user terminal 100 causes the bazooka to fire a bullet, regardless of whether the tap operation is performed on the operating body ST2. Further, the user terminal 100 transmits to the server 200 operation information that includes information that allows identification of the operation target and operation mode as virtual pad VP2 and tap operation, respectively, and a user ID.

Virtual pads VP1 and VP2 are arranged in a layer above the game video (a layer with a high priority) and are displayed superimposed on the game video. Furthermore, regarding the virtual pads VP1 and VP2, one virtual pad is arranged in a layer above the other virtual pad (layer with higher priority). In this way, the image displayed on the touch screen 15 is an image in which a plurality of layers with different priorities are superimposed, and the virtual pads VP1 and VP2 are each displayed on different layers.

When playing the live battle game of this embodiment using a small terminal whose display area is smaller than the touch screen 15 of the user terminal 100, the virtual pads VP1 and VP2 may partially overlap in the display area. It is expected that it will be put away. However, even in such a case, the small terminal accepts operations within the overlapping range as operations for a virtual pad with a high priority. For example, when virtual pad VP2 is set in the hierarchy above virtual pad VP1, if a tap operation is performed on an overlapping range, the small terminal will treat it as a tap operation on virtual pad VP2 and fire a bazooka. fire a bullet.

Furthermore, icons IC1 and IC2 are displayed on the touch screen 15, which can be tapped while the game is in progress. The icon IC1 is an icon for exerting an effect on the virtual space 600B, and by tapping the icon IC1, a virtual object such as an obstacle is thrown into the virtual space 600B. Further, the icon IC2 is an icon for inputting the user's comment, and by tapping the icon IC2, the user's comment is displayed on the touch screen 15 of each of the plurality of user terminals 100. Icons IC1 and IC2 are both arranged in a layer above virtual pads VP1 and VP2.

Therefore, when playing the live competitive game of the present embodiment using the small terminal, for example, when the icon IC1 is displayed in the display area of the small terminal overlapping with the virtual pad VP2, the When a tap operation is performed on the overlapping range, the small terminal receives the tap operation as a tap operation on the icon IC1.

According to the present embodiment, the operating tools ST1 and ST2 are returned to the center positions of the ranges RG1 and RG2 in response to release of the drag operation on the operating tools ST1 and ST2, respectively. For this reason, if the tap operation for jumping or firing a bullet is accepted only when the tap operation is performed on the operating body ST1 or ST2, even if the tap operation is performed at the release position of the drag operation, Since the operating tools ST1 and ST2 are not present, the request cannot be accepted effectively. As a result, it becomes difficult to perform a tap operation immediately after canceling the drag operation.

In order to solve the above-mentioned inconvenience, in this embodiment, when a tap operation is performed on the range RG1, game control is performed such that the soldier object 720 jumps, regardless of whether the tap operation is on the operating body ST1 or not. is executed. Furthermore, when the operating body ST2 is returned to the center position of the range RG2 in response to the release of the drag operation on the operating body ST2, when a tap operation is performed on the range RG2, the tapping operation is an operation on the operating body ST2. Regardless of whether or not this happens, game control such as firing a bazooka bullet is executed.

Thereby, the tap operation immediately after the drag operation is released can be facilitated, and for example, the movement of the soldier object 720 in response to the drag operation on the operation tool ST1 and the jump of the soldier object 720 in response to the tap operation within the range RG1 can be made easier. It is possible to improve the operability when performing continuous operations, and to change the direction of the bazooka according to the drag operation on the operating body ST2 and attack according to the tap operation within the range RG2. Operability can be improved.

Further, the virtual pad that accepts operations for changing the firing direction of the bazooka or the orientation of the soldier object 720 or for attacking with the bazooka is different from the virtual pad that accepts operations for moving or jumping the soldier object 720. This makes it possible to change direction and attack while moving and jumping, improving operability.

That is, if the virtual pad VP1 accepts an operation to move the soldier object 720 and an operation to attack with a bazooka gun, an operation to change the firing direction of the bazooka gun or the orientation of the soldier object 720, and an operation to make the soldier object 720 jump. If it is accepted by virtual pad VP2, it becomes difficult to attack while moving or jump while changing direction.

However, in this embodiment, the operation of moving the soldier object 720 and the operation of jumping the soldier object 720 are accepted by the virtual pad VP1, and the operation of changing the firing direction of the bazooka or the orientation of the soldier object 720 and the attack with the bazooka are performed. Since the virtual pad VP2 accepts the operations of moving and jumping, it is possible to change direction and attack while moving and jumping. As a result, operability can be improved.

(User terminal processing)
Among the processes executed by the user terminal 100 based on the game program, the flow of the process according to the operation of the virtual pad VP1 will be explained using the flowchart shown on the left side of FIG. The flow will be explained using the flowchart shown on the right side of FIG. Note that a part of the processing may be executed in the server 200 and the processing results may be transmitted to the user terminal 100.

Referring to the flowchart on the left, in step S81, it is determined based on the input operation on the touch screen 15 whether a tap operation has been performed within the range RG1. When it is determined that a tap operation has been performed within the range RG1, the process advances to step S82 and the soldier object 720 is caused to jump.

If it is not determined that a tap operation has been performed within the range RG1, the process advances to step S83. In step S83, it is determined based on the history information table whether a drag operation started by a touch operation on the operating tool ST1 is in progress. If it is not determined that the drag operation is in progress, the operation tool ST1 is placed at the center position (reference position) of the range RG1 in step S84, and then the process returns. On the other hand, if it is determined that the drag operation is in progress, the process advances to step S85.

In step S85, a vector is created whose starting point is the center position of the range RG1 and whose ending point is the current touch position. In step S86, the operating body ST1 is moved based on the vector. That is, if the current touch position is within the range RG1, the operating body ST1 is moved to the current touch position, and if the current touch position is outside the range RG1, the operating body ST1 is moved to the intersection of the vector and the outer frame FR1. Move ST1. In step S87, the soldier object 720 is moved in a direction according to the center position of the range RG1 and the current position of the operating body ST1.

When the processing in step S82 or S87 is completed, the process advances to step S88, and operation information for making it possible to specify the user's operation is transmitted to the server 200. That is, when the process advances from step S82 to step S88, operation information including information that can identify that the operation target and operation mode are the virtual pad VP1 and the tap operation, respectively, and the user ID is sent to the server 200. Send. On the other hand, when the process advances from step S87 to step S88, information that can specify that the operation target and operation mode are virtual pad VP1 and drag operation, respectively, the vector created in step S85, and the user ID of the own user are provided. The operation information including the above is transmitted to the server 200. When the process of step S89 is completed, the process returns.

Referring to the flowchart on the right, in step S91, it is determined based on the input operation on the touch screen 15 whether a tap operation has been performed within the range RG2. When it is determined that the tap operation has been performed within the range RG2, the process advances to step S92 and a bullet is fired from the bazooka.

If it is not determined that a tap operation has been performed within the range RG2, the process advances to step S93. In step S93, it is determined based on the history information table whether a drag operation started by a touch operation on the operating tool ST2 is in progress. If it is not determined that the drag operation is in progress, the operation tool ST2 is placed at the center position (reference position) of the range RG2 in step S94, and then the process returns. On the other hand, if it is determined that the drag operation is in progress, the process advances to step S95.

In step S95, a vector is created whose starting point is the center position of the range RG1 and whose ending point is the current touch position. In step S96, the operating body ST2 is moved based on the vector. That is, if the current touch position is within the range RG2, the operating body ST1 is moved to the current touch position, and if the current touch position is outside the range RG2, the operating body is moved to the intersection of the vector and the outer frame FR2. Move ST2. In step S97, the firing direction of the bazooka and the arrangement of the virtual camera 620B are changed according to the center position of the range RG1 and the current position of the operating body ST2.

Specifically, when the operating body ST2 is moved in the left-right direction, the firing direction of the bazooka, that is, the direction of the soldier object 720, is changed clockwise or counterclockwise when viewed from above the body axis of the soldier object 720. At the same time, the position and direction of the virtual camera 620B are changed so as to capture the soldier object 720 from behind. Furthermore, when the operating body ST2 is moved in the vertical direction, the firing direction of the bazooka is changed vertically with the straight line connecting both shoulders of the soldier object 720 as the axis, and the virtual camera is moved to capture the firing direction. Change the position and orientation of 620B.

When the process of step S92 or S97 is completed, the process advances to step S98, and operation information for making it possible to specify the user's operation is transmitted to the server 200. That is, when the process advances from step S92 to step S98, operation information including the user ID and information that can identify that the operation target and operation mode are virtual pad VP2 and tap operation, respectively, is sent to the server 200. Send. On the other hand, when the process advances from step S97 to step S98, information that can specify that the operation target and operation mode are virtual pad VP2 and drag operation, respectively, the vector created in step S95, and the user ID of the user The operation information including the above is transmitted to the server 200. When the process of step S98 is completed, the process returns.

<Effects of this embodiment>
According to the present embodiment, the operating tool ST1 is displayed at a predetermined reference position on the touch screen 15, and an outer frame FR1 is displayed in which a predetermined range RG1 including the reference position can be specified. When a drag operation is performed on the operating body ST1, the operating body ST1 moves from the reference position to a position within the range RG1 corresponding to the current position of the drag operation. Game control for moving the soldier object 720 is executed according to the reference position and the display position of the operating tool ST1. Further, when a tap operation is performed on the range RG1, game control is executed to cause the soldier object 720 to jump, regardless of whether the tap operation is an operation on the operating body ST1.

Further, the operating tool ST2 is displayed at a predetermined reference position on the touch screen 15, and an outer frame FR2 is displayed in which a predetermined range RG2 including the reference position can be specified. When a drag operation is performed on the operating body ST2, the operating body ST2 moves from the reference position to a position within a range RG2 corresponding to the current position of the drag operation. Game control for changing the firing direction of the bazooka is executed according to the reference position and the display position of the operating body ST2. Further, when a tap operation is performed on the range RG2, regardless of whether the tap operation is performed on the operating body ST2, game control is executed to cause the bazooka to fire a bullet.

As a result, it is possible to improve the operability when continuously moving the soldier object 720 in response to a drag operation on the operating body ST1 and jumping in response to a tap operation on the range RG1, and It is possible to improve the operability when continuously changing the firing direction of the bazooka in response to a drag operation on the body ST2 and firing bullets in response to a tap operation on the range RG2.

Furthermore, according to the present embodiment, when the drag operation on the operating tool ST1 is released, the operating tool ST1 is returned to the reference position. This makes it possible to make the operation position uniform when starting the drag operation, thereby improving the operability of the drag operation.

Furthermore, according to the present embodiment, the operating tool ST1 is not moved by a drag operation started by a touch operation at a position other than the display position of the operating tool ST1, but by a touch operation at a display position of the operating tool ST1. Move in response to an initiated drag operation. This can prevent a user's erroneous operation within the range RG1 from being effectively accepted as a drag operation, resulting in inconveniences such as moving the operating tool ST1 and even the soldier object 720 in an unexpected direction. can be prevented from occurring.

Further, according to the present embodiment, when an operation is performed on the virtual pad VP2, game control is executed to change the direction of the bazooka or to fire a bullet from the bazooka. Here, the arrangement of the virtual pad VP2 is determined so that it is shifted from the virtual pad VP1 in both the horizontal direction (horizontal direction) and the vertical direction (vertical direction) on the touch screen 15.

By vertically shifting the virtual pad VP2 with respect to the virtual pad VP1, even if the game image is displayed in a display area whose width is shorter than its height, it is possible to prevent the virtual pads VP1 and VP2 from overlapping as much as possible. It can be prevented. That is, even when playing a game while holding the smartphone vertically, for example, it is possible to prevent the virtual pads VP1 and VP2 from overlapping as much as possible. Further, when the game image is displayed vertically on the smartphone and the virtual pad VP1 is operated with the fingers of the left hand, while the virtual pad VP2 is operated with the fingers of the right hand, it is possible to avoid the left and right fingers from colliding.

Furthermore, according to the present embodiment, different priorities are associated with the virtual pads VP1 and VP2, respectively. In a situation where ranges RG1 and RG2 overlap, if a user operation is performed within the overlapping range, the user operation is accepted as an operation within the higher priority range of ranges RG1 and RG2. As a result, when playing the game of this embodiment using a small terminal whose display area is smaller than the touch screen 15 of the user terminal 100, even if the ranges RG1 and RG2 overlap, the overlapping Since an operation on one of the ranges is accepted as an operation on either one of the ranges, the user can recognize in advance the game control performed by the operation on the overlapping ranges, so it is possible to avoid confusing the user. Furthermore, in the present embodiment, virtual pad VP2 is prioritized over virtual pad VP1, so if a tap operation is performed on an overlapping range, attack can be prioritized over jump.

Further, according to the present embodiment, when a predetermined condition including a condition that is satisfied when the soldier object 720 is attacked by the enemy object 730 is satisfied, the virtual pads VP1 and VP2 vibrate up and down. This can make the game more enjoyable.

Further, according to the present embodiment, when a drag operation is performed on the operating tool ST1, the soldier object 720 moves in the direction specified by the drag operation. On the other hand, when a tap operation is performed on the range RG1, the soldier object 720 performs a jump action, which is an action regardless of the position of the tap operation. If there is an obstacle such as a rock in the movement direction of the soldier object 720, the jump action needs to be performed at an accurate timing, but the jump is performed in response to a tap operation over a relatively wide range such as range RG1. Thereby, the user can plan the timing of the tap operation, that is, the timing of the jump, while watching the game video instead of the virtual pad VP1. This improves operability.

Further, according to the present embodiment, when a drag operation is performed on the operating body ST2, the firing direction of the bazooka moves in the direction specified by the drag operation. On the other hand, when a tap operation is performed in the range RG2, an action of firing a bullet is performed as an action regardless of the position of the tap operation. When the attack target is moving, the action of firing a bullet must be performed at the correct timing, but by having the action of firing a bullet be performed in response to a tap operation over a relatively wide range such as range RG2, The user can plan the timing of the tap operation, that is, the timing of firing the bullet, while watching the game image instead of the virtual pad VP2. This improves operability.

<Modified example>
Modifications of the embodiment described above are listed below.

(1) In the embodiment described above, virtual pads VP1 and VP2 are displayed on the touch screen 15. However, the number of virtual pads to be displayed may vary depending on the stage, such as displaying one of virtual pads VP1 and VP2 in one stage and displaying both virtual pads VP1 and VP2 in another stage. You can do it like this.

(2) In the above embodiment, the game video is displayed vertically. However, the display mode of the game image may be switched depending on the stage, such as displaying the game image vertically in one stage and horizontally in another stage. In this case, the display positions of virtual pads VP1 and VP2 are also switched according to the stage.

(3) In the embodiment described above, the virtual pad VP1 is displayed on the left side of the touch screen 15, and the virtual pad VP2 is displayed on the right side of the touch screen 15. However, in consideration of the user's dominant arm, the arrangement of the virtual pads VP1 and VP2 may be changed by user settings.

(4) In the above embodiment, the soldier object 720 fights against the enemy object 730. However, a battle may be made between a plurality of soldier objects 720 operated by a plurality of users. In this case, the soldier object 720 operated by another user becomes the enemy object and a battle is held in a battle royale format, and the user who operates the last surviving soldier object 720 becomes the winner.

(5) In the above embodiment, the enemy object 730 is an NPC that operates according to a game program. However, the enemy object 730 may be operated by a player (performer).

(6) In the above embodiment, both virtual pads VP1 and VP2 are displayed at predetermined positions. However, either one of the virtual pads VP1 and VP2 may be displayed at a position corresponding to the user's touch position. For example, the operating tool ST2 may be displayed at the user's touch position, and the outer frame FR2 may be displayed such that the position of the operating tool ST2 is the center position. In addition, when displaying one of the virtual pads VP1 and VP2 at a position corresponding to the user's touch position, at least for a certain period of time (for example, a predetermined number of stages), after the touch operation is canceled. Also, the position of the virtual pad may not be changed. Furthermore, the display positions of the virtual pads VP and VP2 may be set in advance by user settings.

(7) In the above embodiment, there is only one soldier object 720 that can be operated by the user. However, a soldier object 720 operated by the user and another soldier object 720 that operates as an ally of the user as an NPC according to the game program are displayed, and a predetermined achievement condition (for example, the number of enemy objects 730 defeated) is displayed. The operation target soldier object 720 may be switched to the other soldier object 720 by satisfying a condition that is satisfied when a predetermined number is reached or a condition that is satisfied when a predetermined location is reached. . In this case, the soldier object 720 before switching may be made to operate as an NPC, or may be made to disappear.

(8) In the above embodiment, when a specific situation occurs, both virtual pads VP1 and VP2 are displayed in a predetermined manner. However, in the particular situation, only one of the virtual pads VP1 and VP2 may be operated and displayed in a predetermined manner, or the virtual pads VP1 and VP2 may be operated and displayed in different predetermined manners.

(9) In the above embodiment, the shapes of the outer frames FR1 and FR2 are perfectly circular, but the shapes may be elliptical or cross-shaped, and the shape of the outer frame FR2 is The shape may be different from that of the outer frame FR1.

(10) In the above embodiment, the shape of each of the outer frames FR1 and FR2, that is, the width of each of the ranges RG1 and RG2, is fixed regardless of the drag operation on each of the operating bodies ST1 and ST2. However, the shape of the outer frame FR1, that is, the width of the range RG1 may be changed in response to a drag operation on the operating tool ST1, and the shape of the outer frame FR2, that is, the width of the range RG2, may be changed in response to a drag operation on the operating tool ST2. It is also possible to change the intensity.

<Additional notes>
The matters described in each of the above embodiments are additionally described below.

(Additional note 1):
According to an aspect of an embodiment shown in the present disclosure, there is provided a game program executed on a computer (user terminal 100) including a processor, a memory, and a touch screen, the game program having the processor perform predetermined functions on the touch screen. A range image (outer frame FR1) that allows specifying a predetermined first range (range RG1) including the first position is displayed. ), and a step of accepting a drag operation on the operation target image from the user, and moving the display position of the operation target image to a position within the first range according to the current position of the drag operation. (S86, S84); performing a first game control according to the first position and the display position of the operation target image (S87); and receiving a tap operation on the first range from the user. , the step of executing the second game control (S82) regardless of whether the tap operation is an operation on the operation target image or not.

(Additional note 2):
In (Additional Note 1), the moving step returns the display position of the operation target image to the first position when the drag operation is canceled (S84).

(Additional note 3):
In (Appendix 1) or (Appendix 2), the moving step includes not moving the display position of the operation target image by a drag operation started by an operation on a position other than the display position of the operation target image; The display position of the operation target image is moved in response to the drag operation started by the operation on the display position of the operation target image (S86).

(Additional note 4):
In any one of (Appendix 1) to (Appendix 3), the step of displaying on the processor a range image (outer frame FR2) that makes it possible to specify a predetermined second range (range RG2) of the touch screen; , the step of executing a third game control (S92, S97) in response to the user's operation in the second range, and the first range and the second range are arranged such that the central positions of each range are The positions are determined to be shifted both in the horizontal direction and the vertical direction on the touch screen.

(Appendix 5):
In (Additional Note 4), the range image that allows the first range to be identified and the range image that allows the second range to be identified are each associated with different priorities, and the first range can be identified. If an operation is performed within the overlapping range in a situation where the range image that makes it possible to specify the second range overlaps with the range image that makes it possible to specify the second range, the first range and the second range A step of accepting the operation in the range corresponding to the range image having a higher priority is executed.

(Appendix 6):
In any one of (Appendix 1) to (Appendix 5), the step of causing the processor to operate and display each of the operation target image and the range image in a predetermined manner when a predetermined condition is satisfied according to the progress of the game. Let it run.

(Appendix 7):
In (Appendix 6), the game based on the game program is a competition game in which a first object operated by a user competes against a second object, and the predetermined condition is that the first object is attacked by the second object. Contains conditions that are established by receiving an attack.

(Appendix 8):
In any one of (Appendix 1) to (Appendix 7), the game based on the game program is a game in which a first object operated by a user appears in a virtual space, and the first game control is a game in which a first object operated by a user appears in a virtual space. 1 position and the display position of the operation target image on the first object, and the second game control is a control that applies a second action to the first object that is independent of the position of the tap operation. This is a process applied to the first object.

(Appendix 9):
According to an aspect of one embodiment, there is provided a gaming method executed by a computer (user terminal 100) including a processor, a memory, and a touch screen, the computer having a predetermined first position of the touch screen. Displaying an operation target image (operating tool ST1) at a (reference position) and displaying a range image (outer frame FR1) that makes it possible to specify a predetermined first range (range RG1) that includes the first position. and a step of moving the display position of the operation target image to a position within the first range according to the current position of the drag operation by accepting a drag operation on the operation target image from the user (S86, S84 ), performing a first game control according to the first position and the display position of the operation target image (S87), and receiving a tap operation on the first range from the user, thereby controlling the tap operation. and a step (S82) of executing the second game control regardless of whether or not the operation is performed on the operation target image.

(Appendix 10):
According to an aspect of an embodiment, an information terminal device (user terminal 100) includes a storage section (storage section 120) that stores a game program, and a storage section that stores a game program. a control unit (control unit 110) that controls the operation, and the control unit displays the operation target image (operation tool ST1) at a predetermined first position (reference position) of the touch screen, and Displaying a range image (outer frame FR1) that allows specifying a predetermined first range (range RG1) including one position, and accepting a drag operation on the operation target image from the user, a step of moving the display position of the image to a position within the first range corresponding to the current position of the drag operation; and a step of moving the display position of the image to a position within the first range corresponding to the current position of the drag operation; By performing the first game control (S87) and accepting a tap operation on the first range from the user, the second game can be controlled regardless of whether the tap operation is on the operation target image or not. and a step of executing control (S82).

[Example of implementation using software]
The control blocks (especially the control units 110, 210, 310, 410) of the user terminal 100, the server 200, the game play terminal 300 (HMD set 1000), and the distribution terminal 400 are based on logic formed in an integrated circuit (IC chip) or the like. It may be realized by a circuit (hardware) or by software.

In the latter case, the user terminal 100, the server 200, the game play terminal 300 (HMD set 1000), and the distribution terminal 400 are equipped with a computer that executes instructions of a program that is software that implements each function. This computer includes, for example, one or more processors and a computer-readable recording medium that stores the above program. In the computer, the processor reads the program from the recording medium and executes the program, thereby achieving the object of the present invention. As the processor, for example, a CPU (Central Processing Unit) can be used. As the recording medium, in addition to "non-temporary tangible media" such as ROM (Read Only Memory), tapes, disks, cards, semiconductor memories, programmable logic circuits, etc. can be used. Further, the computer may further include a RAM (Random Access Memory) for expanding the above program. Furthermore, the program may be supplied to the computer via any transmission medium (communication network, broadcast waves, etc.) that can transmit the program. Note that one aspect of the present invention can also be realized in the form of a data signal embedded in a carrier wave, in which the program is embodied by electronic transmission.

The present invention is not limited to the embodiments described above, and various modifications can be made within the scope of the claims, and embodiments obtained by appropriately combining technical means disclosed in different embodiments. are also included within the technical scope of the present invention.

1 System, 2 Network, 3, 3A, 3B User (first user), 4 Player (performer), 10, 20, 30, 40 Processor, 11, 21, 31, 41 Memory, 12, 22, 32, 42 Storage , 13, 23, 33, 43 communication IF, 14, 24, 34, 44 input/output IF, 15, 45 touch screen, 17 camera, 18 ranging sensor, 51 monitor, 52 gaze sensor, 53 1st camera, 54 1st 2 camera, 55 microphone, 56 speaker, 100, 100A, 100B, 100C user terminal (computer, first computer, first information processing device), 110, 210, 310, 410 control unit (first control unit, second control unit) 111,311,413 Operation reception unit, 112,312,412 Display control unit, 113,313 UI control unit, 114,314 Animation generation unit, 115,315 Game progress unit, 116,316 Virtual space control unit, 117 Video playback section, 120, 220, 320, 420 Storage section (first storage section, second storage section), 131, 231, 331 Game program (program, first program), 132, 232, 332 Game information, 133 , 233, 333 user information, 151, 451 input unit, 152, 452 display unit (display), 200 server, 211 communication intermediary unit, 212 log generation unit, 213 list generation unit, 234, 421 user list, 300 game play terminal (external device, second external device), 317 reaction processing unit, 400 distribution terminal (external, first external device, computer, second information processing device), 411 communication control unit, 414 audio reception unit, 415 motion identification unit, 416 Operation instruction data generation unit, 422 Motion list, 423 Distribution program (program, second program), 540, 1020, 1021 Controller, 500 HMD, 510 HMD sensor, 520 Motion sensor, 530 Display, 600A, 600B Virtual space, 610 Avatar object (character), 620A, 620B Virtual camera, 631, 632, 633, 634 Object, 640A, 640B View area, 650, 660 View image, 671 Enemy object, 672, 673 Obstacle object, 674 Performance object, 691, 692 Utterance, 701,702,703A,70B,704A,704B,705,706,711,711A,711B,711C,711D,722,723,745,745A,745B,745C,752,762,763,930,2011 , 2022, 2031, 2032, 2033, 2034, 2037, 2038, 2051, 2063, 2072, 2073, 2075 UI image (message UI, UI), 721 Download screen, 731 User list screen (list), 732, 732A, 732B , 732C, 742, 742A, 742B, 742C Record image, 733, 733A, 733B, 733C User name, 734, 734A, 734B, 734C Tag information, 735, 735A, 735B, 735C Icon, 741 Motion list screen (choices), 743,743A,743B,743C Motion name, 744,744A,744B,744C,753 Motion image, 751 Distribution screen, 761 Distribution completion screen, 810A,810B Motion video, 820A,820B Speech audio, 910A,910B Video, 920A, 920B audio, 1000 HMD set, 1010 object, 1030 storage medium

Claims (3)

A program executed on a computer,
to the processor,
Displaying an operation target image at a predetermined first position on the touch screen, and displaying a range image that allows specifying a predetermined first range including the first position;
a step of receiving a drag operation on the operation target image from a user and executing a first control for moving the object appearing in the virtual space according to the first position and the current position of the drag operation; and,
executing a display process of returning the display position of the operation target image to the first position when the drag operation is canceled;
executing a second control different from the first control by accepting a tap operation from a user for any position within the first range including the first position; A program to be executed. The program according to claim 1, wherein the second control is executed regardless of whether the tap operation is an operation on the operation target image. 3. The program according to claim 1, wherein the second control is control for causing the object to perform a second action in response to the tap operation.

Images