JP2020103682A - Computer program, terminal device, and game system - Google Patents

Abstract

To provide a computer program for executing a game using a 3D model generated by a 3D scan.SOLUTION: A computer program makes a terminal device comprising an imaging unit and an operation unit for accepting a user's operation function as: model generation means for generating a 3D model on the basis of scan image data on an object imaged by the imaging unit; virtual object generation means for generating a virtual object including at least one 3D model as its component; and game execution means for executing a game in which the virtual object is made to act in a virtual space on the basis of user's operation.SELECTED DRAWING: Figure 1

Description

The present invention relates to a computer program, a terminal device, and a game system.

2. Description of the Related Art Conventionally, a technique of 3D scanning an object using a terminal device such as a smartphone is known.

For example, Non-Patent Document 1 discloses a technique of generating a 3D model of an object using a camera and an acceleration sensor built in a smartphone.

Toshiyasu Hirasawa, Yukoba, “3D scanning with a monocular camera! The new feature of the Xperia XZ1 series “3D Creator” is amazing”, [online], September 7, 2017, Weekly ASCII, Kadokawa ASCII Research Institute Search December 27, 2018], Internet <URL:http://weekly.ascii.jp/elem/000/000/404/404036/> Saki Mitama, “Free 3D scanning application “Qlone” I tried scanning various things with iPhone (registered trademark). [Tips on how to use/accuracy/shooting]”, [online], July 4, 2017, drawing lab, Saki Mitama, [December 27, 2018 search], Internet <URL:https://soramitama. com/archives/4733>

The technique for 3D scanning an object is not limited to the above, and various scanning techniques have been researched and developed (for example, Non-Patent Document 2). However, how to utilize the 3D model generated by the 3D scan has not been sufficiently studied.

An object of the present invention is to provide a computer program that executes a game using a 3D model generated by 3D scanning.

The first invention is
A terminal device including an imaging unit and an operation unit that receives a user operation,
Model generating means for generating a 3D model based on the scan image data of the object imaged by the imaging unit,
Functioning as virtual object generation means for generating a virtual object having at least one of the 3D models as constituent elements, and game execution means for executing a game that causes the virtual object to behave in a virtual space based on an operation of the user ,
It is a computer program.

Also, in the first invention, the virtual object generation means specifies at least one of a position and an orientation in which two or more 3D models are arranged based on a user's operation, thereby generating these 3D models. The virtual object as a component may be generated.

Further, in the first invention, the model generation means is a parameter indicating a performance of the virtual object with respect to the 3D model, based on at least one of a shape, a size, and a color of the object. A parameter that affects at least one of the parameters may be set.

A second aspect of the present invention is a terminal device that includes a storage section that stores the first aspect of the invention and a control section that executes the first aspect of the invention.

The third invention is
A game system including: a first device including an imaging unit; and a second device including an operation unit that receives a user operation,
The first device is
Functioning as model generating means for generating a 3D model based on the scan image data of the object imaged by the imaging section, and model storing means for storing data relating to the 3D model,
The second device is
A virtual object generation unit that reads data related to the 3D model and that generates at least one virtual object having the 3D model as a component, and a game that causes the virtual object to act in a virtual space based on an operation by the user. Functions as a game execution means to execute,
It is a game system.

The fourth invention is
A game system including: a first device including an imaging unit; and a second device including an operation unit that receives a user operation,
The first device is
Functioning as image data storage means for storing image data of the object imaged by the imaging unit,
The second device is
Model generation means for reading the image data and generating a 3D model based on the image data,
Functions as virtual object generation means for generating a virtual object having at least one of the 3D models as constituent elements, and game execution means for executing a game that causes the virtual object to behave in a virtual space based on an operation of the user. ,
It is a game system.

The fifth invention is
A game system including a first device including an imaging unit, a second device including an operation unit that receives a user operation, and a third device connected to the first device and the second device via a communication network. There
The first device is
Functioning as image data transmitting means for transmitting the image data of the object imaged by the imaging unit to the third device,
The third device is
Image data receiving means for receiving the image data,
Functioning as model generating means for generating a 3D model based on the image data, and model transmitting means for transmitting data relating to the 3D model to the second device,
The second device is
A virtual object generation unit that receives data related to the 3D model and that generates at least one virtual object having the 3D model as a component, and a game that causes the virtual object to act in a virtual space based on an operation by the user. Function as a game execution means,
It is a game system.

In addition, in the third invention, the fourth invention, and the fifth invention, at least two or more of the second devices are included, and the game executing means is associated with each user who operates the second device. The battle game using the virtual object may be executed, and the identification information of the user may be associated with a predetermined privilege according to the result of the battle game.

According to the present invention, it is possible to provide a computer program that executes a game using a 3D model generated by 3D scanning.

It is a figure which shows the structure of the terminal device in this embodiment. It is a figure which shows an example which carries out 3D scanning of the target object using the terminal device in this embodiment. It is a figure which shows an example of the game screen using the 3D model produced|generated by 3D scanning in this embodiment. It is a flow chart which shows virtual object generation processing in this embodiment.

Hereinafter, a game program executed by the terminal device 1 according to the present embodiment will be described with reference to FIGS.

<Explanation of the game>
The terminal device 1 executes a predetermined game including at least a battle mode and a custom mode.

<Explanation of battle mode>
In the battle mode, the user can make the virtual robot 4 (virtual object) customized by himself/herself compete with another virtual robot 4. The other virtual robot 4 may be a non-player character or a player character operated by another user.

A parameter indicating the performance of the virtual robot 4 (hereinafter referred to as “performance parameter”) is set in the virtual robot 4. Performance parameters include physical strength parameters, offensive power parameters, and defense power parameters.

The physical strength parameter is a parameter that is subtracted when an attack is received from the virtual robot 4 of the opponent. When the physical strength parameter reaches a predetermined value (for example, zero), the virtual robot 4 becomes incapable of acting. In the battle mode, the player who first sets the physical strength parameter of the opponent virtual robot 4 to a predetermined value is the winner.

The attack force parameter is a parameter that influences how much the physical strength parameter of the opponent virtual robot 4 is subtracted when the opponent virtual robot 4 is attacked. The larger the attack power parameter, the more the physical strength parameter of the virtual robot 4 of the opponent can be subtracted by one attack.

The defense force parameter is a parameter that influences how much the physical strength parameter is subtracted when an attack is received from the opponent virtual robot 4. The larger the defense force parameter, the smaller the amount of the physical strength parameter subtracted when an attack is received from the opponent virtual robot 4.

<Explanation of custom mode>
In the custom mode, the user can customize the virtual robot 4 used in the battle mode. The virtual robot 4 of this embodiment is configured by combining a plurality of parts.

Here, the customization includes configuring the virtual robot 4 by combining a plurality of parts and replacing some of the parts of the ready-made virtual robot 4 with another part.

Parts used for customizing the virtual robot 4 include a part prepared in advance by a game developer and a 3D model part generated by a 3D scan described later.

The parts prepared in advance by the game developer are parts that the user can use to customize the virtual robot 4 from the beginning of the game execution.

Further, the parts prepared in advance by the game developer may include parts that can be used for customizing the virtual robot 4 when the progress of the game satisfies a predetermined condition. Here, the game progress satisfying the predetermined condition means, for example, winning three times in the battle mode.

A parameter that affects at least one of the performance parameters of the virtual robot 4 is set for each part. Then, the performance parameters of the virtual robot 4 are set based on the parameters set in the parts forming the virtual robot 4.

<Explanation of 3D scanning>
Further, in the terminal device 1, by executing the game program, it is possible to generate a 3D model of the target object photographed by the camera 160 described later.

Specifically, the user photographs the target object with the camera 160 from a plurality of directions. When the object is photographed from a plurality of directions, a polygon mesh of the object is generated, and then texture mapping is performed. As a result, a 3D model of the photographed object is generated.

The 3D scanning method described in the present embodiment is an example, and the embodiment of the present invention is not limited to this. For example, 3D scanning methods include “contact type” and “non-contact type”, but any method may be adopted as long as it is a method capable of implementing the present invention.

<Hardware configuration and functional configuration>
With reference to FIG. 1, a hardware configuration and a functional configuration of the terminal device 1 on which the game and the 3D scan are executed will be described.

A user account is assigned to the terminal device 1 in association with the terminal device 1. This user account is managed as user account information.

In addition, the user is given a game account when playing the game. This game account is managed as game account information.

<Hardware configuration of terminal device 1>
As shown in FIG. 1, the terminal device 1 includes a speaker 130, a liquid crystal screen 140, a touch pad 150, and a camera 160. For example, the terminal device 1 is a smartphone. In this terminal device 1, a predetermined game progresses based on the game program and data.

The terminal device 1 includes a control unit 10, a storage unit 11, a network interface 12, an audio processing unit 13, a graphic processing unit 14, an operation unit 15, and an imaging unit 16.

The storage unit 11, the network interface 12, the audio processing unit 13, the graphic processing unit 14, the operation unit 15, and the imaging unit 16 are connected to the control unit 10 via the bus 100.

The control unit 10 controls the operation of the terminal device 1.

The storage unit 11 is mainly composed of an HDD, a RAM and a ROM. The storage unit 11 stores, for example, a game program and data for executing a game.

In addition, the storage unit 11 stores a 3D model of an object described later.

The network interface 12 is connected to a communication network in order to send and receive data between the terminal device 1 and the server device. As a result, the game program and the game data are downloaded to the terminal device 1.

The audio processing unit 13 reproduces and synthesizes a digital game sound according to an instruction from the control unit 10. A speaker 130 is connected to the audio processing unit 13. The game sound is output from the speaker 130.

The graphic processing unit 14 draws a game image including the virtual game space, the virtual robot 4, and the like in a moving image format according to an instruction from the control unit 10. The game image drawn in the moving image format by the graphic processing unit 14 is displayed on the liquid crystal screen 140 as a game screen.

An operation signal from the user is input to the operation unit 15. In the present embodiment, an operation signal from the user is input to the operation unit 15 via the touch pad 150 that is an input position detection device. The user touches the touch pad 150 to operate the virtual robot 4, customize the virtual robot 4, and the like.

The imaging unit 16 receives a photograph or a moving image taken by the user. The camera 160 is connected to the imaging unit 16. The image capturing unit 16 transmits information on the object captured by the user with the camera 160 to the control unit 10.

<Functional configuration of the control unit 10 of the terminal device 1>
As shown in FIG. 1, the control unit 10 of the terminal device 1 functions as the model generation unit 101, the virtual object generation unit 102, and the game execution unit 103 by executing the game program.

<Explanation of the model generation means 101>
The model generation unit 101 generates a 3D model of the object based on the information of the object imaged by the imaging unit 16 (hereinafter referred to as “scan image data”).

Specifically, as shown in FIG. 2, when the user photographs the container 2 (object) with the camera 160, the model generation unit 101 receives the scan image data of the container 2 from the imaging unit 16.

When the model generation means 101 receives the scan image data of the container 2 captured from a plurality of directions, it generates a polygon mesh of the container 2. Then, the model generation means 101 performs texture mapping on the polygon mesh of the container 2. The polygon mesh generation and the texture mapping may be performed at the same time.

Thereby, the model generation unit 101 generates a 3D model of the container 2 captured by the camera 160 (hereinafter, referred to as “container model 3”).

Further, the model generation unit 101 sets an arbitrary parameter that affects any one of the performance parameters of the virtual robot 4 for the container model 3.

For example, the model generation unit 101 sets a parameter for the container model 3 based on the information indicating the size of the container 2.

In this case, the model generation unit 101 acquires information indicating the size of the container 2 based on the scan image data of the container 2. Then, when the information indicating the size of the container 2 is within the specific range, the model generation unit 101 increases the physical strength parameter of the virtual robot 4 with respect to the container model 3 as compared with the case where the information is not within the specific range. Set the parameters to be used.

Then, the model generation unit 101 stores the container model 3 and the arbitrary parameters set therein in the storage unit 11.

<Explanation of Virtual Object Generating Means 102>
The virtual object generation means 102 generates a virtual robot 4 having at least one 3D model generated by the model generation means 101 as a constituent element.

Specifically, the virtual object generation means 102 reads the 3D model of the target object stored in the storage unit 11. Then, the virtual object generation unit 102 generates the virtual robot 4 having the 3D model of the target read from the storage unit 11 as a constituent element.

For example, as shown in FIG. 3, the virtual object generation means 102 reads the container model 3 from the storage unit 11 and generates the virtual robot 4 in which the container model 3 is attached to the main gun part of the tank robot. At this time, at least one of the position and the direction in which the container model 3 is arranged is determined by being designated based on the operation of the user.

Then, the virtual object generation means 102 sets the performance parameter of the virtual robot 4 based on the parameters set in the parts forming the virtual robot 4.

For example, the virtual object generation unit 102 sets, as a performance parameter of the virtual robot 4, a value obtained by adding all the parameters set to the respective parts forming the virtual robot 4.

For example, if the parts that make up the virtual robot 4 include three parts in which the parameters that affect the physical strength parameters are set, the virtual object generation unit 102 sets the parameters set in each of these parts. The value obtained by adding is set as the physical strength parameter of the virtual robot 4.

Further, the virtual object generation means 102 sets the attack power parameter and the defense power parameter of the virtual robot 4 in the same manner as the physical strength parameter.

<Explanation of the game execution means 103>
The game execution means 103 causes the terminal device 1 to execute the predetermined game based on the operation of the touch pad 150 by the user.

The game execution means 103 reads data such as game space objects and textures included in game data of a predetermined game from the storage unit 11 and generates a two-dimensional or three-dimensional virtual game space.

In addition, the game execution means 103 generates information for displaying the virtual robot 4, the physical strength gauge of the virtual robot 4, virtual operation buttons, and the like as a game screen on the liquid crystal screen 140. The graphic processing unit 14 draws a game image on the liquid crystal screen 140 according to the information.

Further, the game executing means 103 executes a battle mode in which the virtual robot 4 customized by the user (for example, the virtual robot 4 equipped with the container model 3 shown in FIG. 3) competes with another virtual robot 4. In the battle mode, the action of the virtual robot 4 in the virtual game space is controlled based on the user's operation.

Specifically, the game execution means 103 moves the virtual robot 4 when an operation signal for moving the virtual robot 4 is input to the operation unit 15. Further, the game execution means 103 causes the virtual robot 4 to perform an attack or defense action when an operation signal for causing the virtual robot 4 to attack or defend is input to the operation unit 15.

Further, the game execution means 103 includes the type of attack of the virtual robot 4 (sword, gun, bomb, etc.), the attack force parameter of the virtual robot 4 to attack, and the defense force parameter of the virtual robot 4 to be attacked (defend). Based on, the amount of physical strength parameter of the virtual robot 4 to be attacked is calculated.

Then, the game execution means 103 determines that the virtual robot 4 whose physical strength parameter of the opponent virtual robot 4 is a predetermined value is the winner.

<Explanation of virtual object generation processing>
The virtual object generation process of the present invention will be described below with reference to FIG. The control means and the processing procedure described below are examples, and the embodiment of the present invention is not limited to these. The design of the processing procedure and the like can be changed as appropriate without changing the gist of the present invention.

First, the model generation means 101 generates a 3D model of the target object based on the scan image data of the target object (step S1).

Next, the model generation means 101 sets an arbitrary parameter that affects any one of the performance parameters of the virtual robot 4 in the generated 3D model (step S2). Then, the model generation unit 101 stores the 3D model of the target object and the arbitrary parameters set therein in the storage unit 11.

Then, the virtual object generation means 102 reads the 3D model stored in the storage unit 11. Then, the virtual object generation means 102 generates the virtual robot 4 having the read 3D model as a constituent element (step S3).

The game executing means 103 executes a battle between the virtual robot 4 customized by the user and another virtual robot 4 (step S4). The behavior of the virtual robot 4 customized by the user is controlled based on the user's operation. Then, the request processing of the present invention ends.

To summarize the above, the computer program of the present embodiment is
A terminal device 1 including an imaging unit 16 and an operation unit 15 that receives a user operation,
Model generation means 101 for generating a 3D model (for example, container model 3) based on scan image data of an object (for example, container 2) imaged by the imaging unit 16.
A virtual object generating means 102 for generating a virtual object having at least one of the 3D models as constituent elements, and a game executing means 103 for executing a game for causing the virtual object to act in a virtual space based on an operation of the user,
To function as.

<Effect of the invention>
According to the computer program of the present embodiment, it is possible to execute a game using a 3D model generated by 3D scanning.

[Other Embodiments]
The present embodiment describes an example in which a 3D scan of an object and a predetermined game are executed by one terminal device, but the present invention is not limited to this.

The terminal device on which the 3D scan is executed and the terminal device on which the predetermined game is executed may be different from each other.

For example, a 3D scan may be executed by a portable terminal device (first device) such as a smartphone, and a predetermined game may be executed by a stationary terminal device (second device) such as a home-use game machine. In this case, the first device and the second device are connected via the communication network.

Here, the control unit of the first device functions as a model generation unit and a model transmission unit by executing a predetermined application program for executing the 3D scan.

The model transmission means transmits the data regarding the 3D model generated by the model generation means to the second device.

On the other hand, the control unit of the second device functions as a model receiving unit, a virtual object generating unit, and a game executing unit by executing a game program for executing a predetermined game.

The model receiving means receives the 3D model transmitted by the model transmitting means. Then, the model receiving means sets an arbitrary parameter that influences any one of the performance parameters of the virtual robot for this 3D model.

The method for the model receiving unit to receive the 3D model transmitted from the first device is not limited to this. For example, the model receiving unit may receive the 3D model from the server device that stores the 3D model transmitted by the model transmitting unit.

Furthermore, a game in which two or more second devices are connected via a communication network and two or more virtual objects compete with each other may be executed.

When a game in which two or more virtual objects compete with each other is executed, the user may be provided with a privilege (such as virtual robot parts, items, in-game currency, and experience value) according to the result of the competition. The grant of the privilege is executed by associating the identification information of the user with the information on the privilege.

In this case, for example, the winning user may be provided with a higher valued privilege than the losing user. In addition, when the physical strength parameter of the virtual robot operated by the winning user remains at or above a predetermined value or a predetermined ratio, a bonus privilege may be given to the winning user.

In another example, the winner user may be able to request acquisition of parts of the virtual robot owned by the loser user.

The method for connecting the first device and the second device is not limited to the method via the communication network described above. For example, the first device and the second device may be connected by wire.

Alternatively, the data regarding the 3D model generated by the first device is stored in an external storage medium such as a flash memory, a magnetic disk, or an optical disk, and the data regarding the 3D model is read by the second device to which the external storage medium is connected. May be.

In another example, the first device including the imaging unit functions as an image data storage unit that stores the image data of the object imaged by the imaging unit, and the second device reads the image data and based on the image data. It may function as a model generation unit, a virtual object generation unit, and a game execution unit that generate a 3D model as a result.

Furthermore, in another example, the first device including the imaging unit functions as an image data transmission unit that transmits the image data of the object imaged by the imaging unit to the third device (for example, the server device), and the third device Functions as image data receiving means for receiving this image data, model generating means, and model transmitting means for transmitting data regarding the 3D model to the second device, and the second device receives the data regarding the 3D model, and at least You may function as a virtual object production|generation means and a game execution means which produce|generate a virtual object which makes one 3D model a component.

In this case, the third device may further function as model storage means for storing data regarding the 3D model.

Further, the third device functions as a selection 3D model storage unit that stores data regarding the 3D model selected by the user, and the second device functions as selection model acquisition requesting unit that acquires data regarding the selected 3D model. You may.

Here, the selected 3D model storage unit may store data regarding the 3D model abandoned by the user, and the selected model acquisition request unit may obtain data regarding the abandoned 3D model.

Furthermore, the selected 3D model storage means may store data regarding the 3D model shared by the users, and the selected model acquisition request means may acquire data regarding this shared 3D model.

Further, although the present embodiment describes an example in which a parameter that affects the physical strength parameter of the virtual robot is set for the 3D model of the target object based on the information indicating the size of the target object. However, the present invention is not limited to this.

For example, based on the information indicating the size of the target object, a parameter that affects the attack force parameter or the defense force parameter of the virtual robot may be set for the 3D model of the target object.

Further, based on the information indicating the size of the target object, a parameter that affects two or more parameters of the physical strength parameter, the attack power parameter, and the defense power parameter of the virtual robot is set for the 3D model of the target object. May be done.

In another example, the model generation means acquires information indicating the shape of the target object based on the scan image data of the target object. Then, the model generation means sets an arbitrary parameter that affects any one of the performance parameters of the virtual robot with respect to the 3D model of the target object based on the acquired information indicating the shape of the target object. You may.

In this case, the model generation means classifies which of the predetermined shapes such as a sphere, a prism, and a pyramid, the shape of the target object approximates. Then, the model generation means sets an arbitrary parameter that influences any one of the performance parameters of the virtual robot for this 3D model based on the classification result of the shape of the object.

In another example, the model generation means is not limited to the information indicating the shape or size of the target object, but the performance parameter of the virtual robot for the 3D model of the target object based on the information indicating the color of the target object. A parameter that affects any one of the parameters may be set.

For example, when the color of the object is a reddish color, the parameters of the 3D model may be set so that the attack power parameter of the robot increases.

In another example, the model generation means determines which of the materials such as paper, wood, metal, or plastic the object is made of, according to the information indicating the color of the object. Based on the determined material, an arbitrary parameter that affects any one of the performance parameters of the virtual robot may be set for the 3D model of the object.

In this case, for example, when it is determined that the object is a metallic material, the parameters of the 3D model are set so that the defense parameter of the virtual robot increases.

As described above, the model generation means, based on at least one of the shape, size, and color of the object, selects at least one of the performance parameters of the virtual robot for the 3D model of the object. Set the parameters that affect the parameters.

In another example, the parameters set in the 3D model may change depending on the location where the 3D scan of the object is performed.

In this case, the terminal device includes the position information acquisition unit. The position information acquisition unit is, for example, a GPS receiver, and acquires position information (for example, latitude and longitude) indicating the current position of the terminal device.

Then, when the user performs a 3D scan of the target object, the position information acquisition unit acquires the position information regarding the current position of the terminal device. When it is determined that the acquired position information is position information within a predetermined range from the specific position information, a parameter that is superior to the case where the determination is negative is set in the 3D model of the object.

Further, in the present embodiment, an example in which the performance parameter of the virtual robot is a physical strength parameter, an attack strength parameter, and a defense strength parameter is described, but the present invention is not limited to this.

For example, as the performance parameters of the virtual robot, a moving force parameter, a continuous firing force parameter, a range parameter, an attack range parameter, a stamina parameter, an avoidance force parameter, a turning force parameter, a turning force parameter, a negotiation force parameter, a production force parameter, and an AI. Various parameters may be set, such as the smartness parameter of the.

As described above, the performance parameter of the virtual robot may include any parameter that is advantageous or disadvantageous for the user to progress the game.

Further, in the present embodiment, an example is described in which the virtual object generation means sets, as the performance parameter of the virtual robot, a value obtained by adding all the parameters set in each part forming the virtual robot. The invention is not limited to this.

For example, the virtual object generation means may change the performance parameter set for the virtual robot based on the position, orientation, combination, etc. of the parts.

In this case, the virtual object generation means may add a bonus parameter based on the position, orientation, combination, etc. of the parts to what is obtained by adding all the parameters set to the respective parts forming the virtual robot.

For example, when all the parts that make up the virtual robot are made of wood, a numerical value obtained by doubling the sum of all the parameters set for the parts that make up the virtual robot may be set as the physical strength parameter.

Further, in another example, the performance parameters set in the virtual robot may be different even when the parts forming the virtual robot are the same, depending on the addition of the bonus parameter.

Further, in the above-described embodiment, an example in which a parameter that affects at least one of the performance parameters of the virtual robot is set in each part of the virtual robot is described. It is not limited to

For example, the parts may include those that do not affect any of the performance parameters of the virtual robot. Such parts are mainly used for the purpose of changing the appearance of the virtual robot.

In other examples, parts may include those that affect attributes or skills of the virtual robot, or both.

Here, the attribute is an attribute included in the virtual robot, such as a fire attribute, a water attribute, or a wind attribute. An advantageous attribute and a disadvantage attribute may be set for each attribute. For example, a virtual robot having a fire attribute has an advantage over a virtual robot having a wind attribute and has a disadvantage over a virtual robot having a water attribute.

In this case, the game execution means may correct the subtracted value of the physical strength parameter of the attacked virtual robot according to the advantage or disadvantage of the attribute. For example, an attack from a virtual robot having a fire attribute to a virtual robot having a wind attribute is 1.25 times as large as a normal attack, and an attack from a virtual robot having a fire attribute to a virtual robot having a water attribute is 0.75 times a normal attack.

The virtual robot skill is, for example, a special ability of the virtual robot. The special ability is the ability of the physical strength parameter of the virtual robot to recover a predetermined value each time the battle time passes a certain period, or when a predetermined condition is satisfied (for example, the remaining physical strength parameter of the virtual robot is 30% or less. It is a special move that can be activated.

For convenience of explanation, performance parameters, attributes, skills, and appearances are described separately. However, when setting or changing “parameters”, it means that setting or changing performance parameters, attributes, skills, and appearances. Momo may be included.

Furthermore, the attribute or skill set in the 3D model may be set based on at least one of the shape, size, and color of the object.

Further, the attribute or skill set in the 3D model may be set according to the place where the 3D scan of the target object is performed.

Further, the attribute or skill of the virtual robot may be changed based on the position, orientation, combination, etc. of the parts. That is, even if the parts forming the virtual robot are the same, the attributes or skills set for the virtual robot may be different.

The present invention may be used in a tournament in which a plurality of users (competitors) called esports compete for game scores. For example, in esports, when a battle game between virtual robots is played, it may be a condition that a part of the virtual robot is included in order to participate in esports.

In this case, the participation condition may be that the virtual robot part includes a 3D model obtained by scanning the goods of the sponsor or sponsor of the esports. In this case, the logo of the sponsor or sponsor of the product may be drawn on the 3D model.

Further, although an example in which the storage unit of the terminal device of the present embodiment is built in the terminal device is described, the present invention is not limited to this. For example, the storage unit of the terminal device may be an external storage medium such as a flash memory, a magnetic disk, or an optical disk.

Further, in the present embodiment, an example in which the terminal device is a terminal device such as a smartphone is described, but the present invention is not limited to this. The terminal device may be, for example, a portable game machine including an image capturing unit or a notebook personal computer including an image capturing unit.

DESCRIPTION OF SYMBOLS 1 Terminal device 101 Model generation means 102 Virtual object generation means 103 Game execution means 2 Container 3 Container model 4 Virtual robot

Claims (8)

A terminal device including an imaging unit and an operation unit that receives a user operation,
Model generating means for generating a 3D model based on the scan image data of the object imaged by the imaging unit,
Functioning as virtual object generation means for generating a virtual object having at least one of the 3D models as constituent elements, and game execution means for executing a game that causes the virtual object to behave in a virtual space based on an operation of the user ,
Computer program. The virtual object generation means specifies at least one of a position and an orientation for arranging two or more 3D models based on a user's operation, so that the virtual objects having these 3D models as constituent elements are generated. Generate,
The computer program according to claim 1. The model generation means, based on at least one of the shape, size, and color of the object, at least one of the parameters indicating the performance of the virtual object with respect to the 3D model. Parameters that affect the
The computer program according to claim 1. A storage unit that stores the computer program according to claim 1.
A control unit that executes the computer program,
Terminal device. A game system including: a first device including an imaging unit; and a second device including an operation unit that receives a user operation,
The first device is
It functions as a model generation unit that generates a 3D model based on the scan image data of the object imaged by the imaging unit, and a model storage unit that stores data related to the 3D model,
The second device is
A virtual object generation unit that reads data relating to the 3D model and generates at least one virtual object having the 3D model as a component, and a game that causes the virtual object to act in a virtual space based on an operation by the user. Functions as a game execution means to execute,
Game system. A game system including: a first device including an imaging unit; and a second device including an operation unit that receives a user operation,
The first device is
Functioning as image data storage means for storing image data of the object imaged by the imaging unit,
The second device is
Model generation means for reading the image data and generating a 3D model based on the image data,
Functions as virtual object generation means for generating a virtual object having at least one of the 3D models as constituent elements, and game execution means for executing a game that causes the virtual object to behave in a virtual space based on an operation of the user. ,
Game system. A game system including a first device including an imaging unit, a second device including an operation unit that receives a user operation, and a third device connected to the first device and the second device via a communication network. There
The first device is
Functioning as image data transmitting means for transmitting the image data of the object imaged by the imaging unit to the third device,
The third device is
Image data receiving means for receiving the image data,
Functioning as model generating means for generating a 3D model based on the image data, and model transmitting means for transmitting data relating to the 3D model to the second device,
The second device is
A virtual object generation unit that receives data related to the 3D model and that generates at least one virtual object having the 3D model as a component, and a game that causes the virtual object to act in a virtual space based on an operation by the user. Function as a game execution means,
Game system. At least two or more of the second devices,
The game executing means executes a competitive game by the virtual object associated with each user who operates the second device, and, in accordance with a result of the competitive game, identification information of the user and a predetermined privilege. Associate,
The game system according to any one of claims 5 to 7.

Images