JP5323671B2 - Data reproduction program, data reproduction apparatus, and data reproduction method - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a data reproducing program capable of faithfully reproducing the real situation based on real-time information on a baseball game being executed in a real space. <P>SOLUTION: According to the program, the result of the play in the real space is determined based on information ID of the play when a fielder throws a ball to a base into which a batter or runner rushes in the real space. The result of the play in a virtual space is determined based on a base running time Tk (a reference time) of a batter character or runner character and a necessary time Tn for defense. When the result of the play in the real space does not match the result of the play in the virtual space, the necessary time Tn is adjusted so that the result of the play in the real space matches the result of the play in the virtual space. Then, an image corresponding to the play whose result is determined based on the adjusted necessary time Tn is displayed in an image display part 23. <P>COPYRIGHT: (C)2011,JPO&amp;INPIT

Description

  The present invention relates to a data reproduction program, and more particularly to a program executed by a control unit of a computer capable of receiving real-time information stored in a server and related to baseball being executed in real space. The present invention also relates to a data reproduction apparatus capable of executing the data reproduction program and a data reproduction method controlled by a computer based on the data reproduction program.

  Conventionally, an application for reproducing a real-world situation such as a sports situation has been proposed. Such an application is executed in a data reproduction device such as a computer or a game device. For example, a general data reproduction device has a monitor, a device main body separate from the monitor, and an input device (ex. Keyboard, mouse, controller, etc.) separate from the device main body. . For example, a plurality of input buttons are arranged in the input device. In addition, the portable type data reproduction device includes a touch panel monitor, a device main body integrated with the monitor, and an input button provided integrally with the device main body. Furthermore, in recent years, portable communication devices that can transmit and receive data wirelessly, such as mobile phones, are sometimes used as data reproduction devices. The mobile phone has a monitor, a mobile phone main body integrated with the monitor, and an input button provided integrally with the mobile phone main body.

In recent years, mobile phones can be used not only as devices for calls but also as data transmission / reception devices by connecting to a dedicated network or the Internet. For this reason, various attempts have been made to actively use a mobile phone as a data transmission / reception device. As an example of this, a system is constructed that uses information stored in a dedicated network or a server placed on the Internet to transmit the status of sports currently being performed in the world to a mobile phone or the like as distribution data. It's getting on. (Non-Patent Document 1)
In addition, there is a proposal that uses real-time real-time data in a game. Japanese Patent Laid-Open No. 2000-308757 discloses contents for acquiring data such as time, game time, number of times of front and back, etc. from a host device as real-time data relating to baseball, for example. A specific example of the game is that the player decides a predetermined baseball game timing in the real world, switches to the game using the real-world data at that time, and the player plays. ing. (See Patent Document 1)

JP 2000-308757 A

Data Stadium “Bulk Text Bulletin” (Reference URL; as of December 11, 2009) http://datastadium.co.jp/corp/backnumber/press/000279.html

  At present, attempts are being made to faithfully reproduce the real-world baseball situation on a mobile phone using an application that reproduces the real-world baseball situation (hereinafter referred to as a reproduction app). However, since it is not possible to acquire all data related to baseball in the real world, the data that cannot be acquired is complemented with virtual data. For this reason, there are many cases where it is difficult to always match the real-world data and the virtual data well, and it may be assumed that the natural reproduction of the play cannot be performed depending on the simulation.

  For example, in a real-world baseball game, when an infielder catches a ball and throws it into the baseball and tries to reproduce the phenomenon that the result is safe on a mobile phone, depending on the position of the fielder character, the flying direction of the ball, etc. In some cases, it is assumed that there is a problem that the result of the virtual space is out even though the result of baseball in the real world is safe.

  Conversely, in real-world baseball, if the infielder catches the ball and sends it to the baseball, it is assumed that the result in the virtual space will be safe if it tries to reproduce the event that the result is out. There are also cases.

  The present invention has been made in view of such considerations, and an object of the present invention is to faithfully reproduce the actual situation based on real-time information regarding baseball being executed in the real space. To provide a data reproduction program.

A data reproduction program according to claim 1 is a program for causing a control unit of a computer, which is stored in a server and capable of receiving real-time information about baseball being executed in real space, to realize the following functions.
(1) An information storage function for receiving real-time information from a server and storing it in a storage unit, including information on play when a fielder throws a ball to a batter or runner running in real space.
(2) A play result recognition function for recognizing whether the play in the real space is out or safe based on the play information stored in the storage unit.
(3) Based on the play information stored in the storage unit, either one of the sprinting time that the batter character strikes after hitting the ball object and the sprinting time that the runner character skates Reference time setting function to set as a reference time.
(4) The ball object moving time from the time when the ball object is hit back by the batter character to the time when the ball object is caught by the fielder character, and from the time when the fielder catches the ball object, Time required to set the time required to play in the virtual space, which is the time required to play the object in the virtual space, and the time required to play the ball object until the ball object sent from the fielder character reaches the base. Setting function.
(5) A play result determination function for determining whether play in the virtual space is out or safe based on the reference time and the required time.
(6) A result difference determination function for determining whether or not the play result in the real space matches the play result in the virtual space.
(7) To converge play in the virtual space so that the play result in the real space and the play result in the virtual space match when the play result in the real space and the play result in the virtual space do not match Necessary time adjustment function to adjust the required time.
(8) An image display function for displaying an image corresponding to a play in a virtual space whose result is determined in the necessary time after adjustment on the image display unit.

  In this data reproduction program, the control unit of the computer executes each function. In the information storage function, real-time information including information on play when a fielder throws a ball to a batter or runner running in real space is received from the server, and this real-time information is stored in the storage unit. The play result recognition function recognizes whether the play result in the real space is out or safe based on the play information stored in the storage unit. In the reference time setting function, based on the play information stored in the storage unit, either the strike time that the batter character strikes after hitting the ball object or the strike time that the runner character strikes The running time is set as the reference time. In the required time setting function, the ball object moving time from the time when the ball object is hit back by the batter character to the time when the ball object is caught by the fielder character, and the time when the fielder catches the ball object, The time required to play in the virtual space is set as the time required for the character to move the ball object and the time required to play the ball object until the ball object sent from the fielder character reaches the cage. Is done. The play result determination function determines whether the play result in the virtual space is out or safe based on the reference time and the required time. In the result difference determination function, it is determined whether or not the play result in the real space matches the play result in the virtual space. With the required time adjustment function, if the play result in the real space and the play result in the virtual space do not match, the play in the virtual space converges so that the play result in the real space and the play result in the virtual space match. The required time is adjusted to In the image display function, an image corresponding to the play in the virtual space whose result is determined in the necessary time after adjustment is displayed on the image display unit.

  In particular, in the necessary time adjustment function, the ball object moving time included in the necessary time is adjusted by correcting the moving speed of the ball object returned by the batter character stored in the storage unit. In the necessary time adjustment function, the ball object throwing time included in the necessary time is further adjusted by correcting the moving speed of the ball object thrown from the fielder character stored in the storage unit. Furthermore, in the necessary time adjustment function, the movement speed from the time when the fielder character catches the ball object to the time when the fielder character throws the ball object, which is stored in the storage unit, is corrected to the necessary time. The included operating time is further adjusted.

  Here, it is determined whether the play result in the virtual space is out or safe based on the reference time corresponding to the running time and the necessary time required for catching and throwing the fielder character. When the play result in the virtual space and the play result in the real space do not match, the required time is adjusted so that the play result in the real space and the play result in the virtual space match. Then, an image corresponding to a play whose result is determined by the necessary time after adjustment is displayed on the image display unit.

  Thus, in the present invention, when the play result in the virtual space and the play result in the real space do not match, by adjusting the necessary time required for catching and throwing the fielder character in the virtual space, The play result in the virtual space and the play result in the real space can be matched, and the play in the real space can be reproduced with a natural image.

  It is also possible to adjust the reference time when the play result in the virtual space and the play result in the real space do not match. However, since the reference time corresponds to the run time of the runner character, the runner character imitates human beings, and running is also a familiar action in the real world, the result of adjustment of the reference time If the reference time, that is, the traveling speed deviates from the real-world speed and becomes too fast or slow, a visually uncomfortable feeling is strongly generated. Therefore, in the present invention, this reference time is basically fixed (note that there is a difference in running speed between characters based on the ability of each character), and the required time is adjusted.

  Here, the required time is the ball object movement time until the ball object is caught by the fielder character, and the movement from the time when the fielder character catches the ball object to the time when the fielder character throws the ball object. Since it is composed of the time and the ball object throwing time until the ball object thrown from the fielder character reaches the heel, even if any one of these times is adjusted, it does not appear to be strange. In addition, if the time to be adjusted is distributed over the plurality of travel times and the like, it is possible to further suppress an uncomfortable appearance.

  In this case, the ball object moving time is adjusted by correcting the moving speed of the ball object returned by the batter character. For example, even if the play result in the real space is a result of being safe, even if the play result in the virtual space is a result of being out, the moving speed of the ball object returned by the batter character is set to the default speed. By setting a slower speed and recalculating a series of plays in the virtual space, a play that matches the play result in the real space can be reproduced without a sense of incongruity. Conversely, even if the play result in the real space is a result of out, even if the play result in the virtual space is a safe result, the moving speed of the ball object returned by the batter character is set to the default. By setting the speed faster than the speed and recalculating a series of plays in the virtual space, a play that matches the play result in the real space can be reproduced without a sense of incongruity.

  In this case, as described above, when the play result in the real space and the play result in the virtual space do not match, first, the moving speed of the ball object returned by the batter character (first moving speed) Next, the moving speed (second moving speed) of the ball object sent from the fielder character is corrected. Thereby, the ball object moving time and the ball object throwing time are adjusted. Thus, in the present invention, compared to the case where only the movement speed (first movement speed) of the ball object returned by the batter character is corrected, the movement speeds (first movement) of the two ball objects relative to the default speed are corrected. (Speed and second movement speed) are reduced, so that the movement state of the ball object can be reproduced without a sense of incongruity. This effect is particularly noticeable when the required time has to be significantly changed.

  Furthermore, in this case, as described above, when the play result in the real space and the play result in the virtual space do not match, first, the moving speed of the ball object returned by the batter character is corrected, and then The movement speed of the ball object sent from the fielder character is corrected, and finally the movement speed when the fielder character performs the catching action and the throwing action is corrected. Thereby, the movement time of the fielder character is adjusted. As described above, in the present invention, the movement speed of the fielder character is corrected after the movement speed of the ball object is corrected. Therefore, main adjustment of the required time can be performed by correcting the moving speed of the ball object, and fine adjustment of the required time can be performed by correcting the movement speed of the fielder character. Thereby, even if the play result in the real space and the play result in the virtual space do not match, a play that matches the play result in the real space can be reproduced more comfortably.

  In the data reproduction program according to claim 2, in the data reproduction program according to claim 1, when the real world play result recognized by the play result recognition function is out, the virtual space determined by the play result determination function If the play result is safe, the required time is adjusted so that the required time is less than the reference time, and when the real-world play result recognized by the play result recognition function is safe, the play result judgment function determines If the play result of the virtual space is out, the required time is adjusted so that the required time is longer than the reference time. This function is realized in the necessary time adjustment function. The invention according to claim 2 shown here shows a specific form of the necessary time adjustment function in the invention according to claim 1.

A data reproduction program according to claim 3 is a program for causing the control unit of the computer to further realize the following functions in the data reproduction program according to claim 1 or 2 .
(9) Ability recognition function for recognizing the ability of the fielder character stored in the storage unit.
(10) As the fielder character's ability increases, the movement speed of the fielder character is corrected by increasing the movement speed from when the fielder character catches the ball object to when the fielder character throws the ball object. And the required time reset function to reset the required time.

  In this data reproduction program, the control unit of the computer executes each function. In the ability recognition function, the ability of the fielder character stored in the storage unit is recognized. With the necessary time resetting function, the higher the fielder's ability, the faster the speed of the fielder character from when the fielder character catches the ball object to when the fielder character throws the ball object. The operating time is corrected and the required time is reset.

  In this case, as the ability of the fielder character increases, the movement time of the fielder character is corrected by increasing the movement speed from the time when the fielder character catches the ball object to the time when the fielder character throws the ball object. Is done. As a result, the necessary time is reset. For example, when the fielder character's defensive power is high, the speed of the fielder character is increased, and when the fielder character's defensive power is low, the speed of the fielder character is decreased. Thus, in the present invention, the catching motion of a player character with reality can be reproduced by changing the motion speed of the fielder character according to the ability of the fielder character.

A data reproduction program according to claim 4 is a program for causing the control unit of the computer to further realize the following functions in the data reproduction program according to claim 3 .
(11) A capability recognition function for recognizing the capabilities of the fielder character stored in the storage unit.

  In this data reproduction program, the control unit of the computer executes each function. In the ability recognition function, the ability of the fielder character stored in the storage unit is recognized. In the necessary time resetting function, the higher the ability of the fielder character is, the faster the time for the fielder character to start the catching action, and the movement speed of the ball object returned by the batter character stored in the storage unit is set. By increasing the speed, the ball object moving time is corrected and the necessary time is reset.

  In this case, as the ability of the fielder character increases, processing for increasing the time for the fielder character to start the catching action and processing for increasing the moving speed of the ball object returned by the batter character are executed. Thereby, the ball object moving time is adjusted. For example, a process for increasing the time required for the fielder character to start the catching action is performed as the ability of the fielder character increases. More specifically, when the fielder character has high defensive power, a command is issued to cause the fielder character to start an action when the ball object is hit back by the batter character. On the other hand, when the fielder character's defensive power is low, a command for starting the action of the fielder character is issued after a predetermined time has elapsed since the ball object was hit back by the batter character. Thus, in the present invention, the action start time of the fielder character is changed according to the ability of the fielder character, so that the catching action of the player character with reality can be reproduced.

  When the fielder character catches the ball object, as described above, when the time when the fielder character starts moving (movement start time) is changed, the fielder character is hit back by the fielder character and the batter character in the virtual space. The positional relationship with the ball object changes. Therefore, in order for the fielder character to catch the ball object, it is necessary to correct this positional relationship. Here, this positional relationship is corrected by changing the moving speed of the ball object returned by the batter character.

A data reproduction device according to a fifth aspect is a data reproduction device capable of receiving real-time information about baseball being executed in a real space, stored in a server. In this data reproduction device, the control unit of the data reproduction device receives real-time information from a server and stores it in a storage unit, including information on play when a fielder sends a ball to a batter or runner running in real space. Based on the play information stored in the storage unit and the play information stored in the storage unit, the play result recognition unit for recognizing whether the play in the real space is out or safe based on the play information stored in the storage unit. Reference time setting means for setting, as a reference time, a reference time setting means for setting a reference time as either one of a scoring time for the character to strike after hitting the ball object and a scoring time for the runner character to strike, The ball object from the time when it is hit back by the batter character until the time when the ball object is caught by the fielder character Movement time, movement time from the time when the fielder catches the ball object until the time when the fielder throws the ball object, and ball object throwing until the ball object sent from the fielder character reaches the basket Play result to determine whether play in the virtual space is out or safe based on the required time setting means to set the time consisting of time as the required time required for play in the virtual space, and the reference time and the required time When the judgment means, the result difference judgment means for judging whether or not the play result in the real space and the play result in the virtual space match, and the play result in the real space and the play result in the virtual space are inconsistent , The play result in the real space and the play result in the virtual space In order to converge the play of the virtual space so as to match, the necessary time adjusting means for adjusting the required time, and an image corresponding to the play in the virtual space whose result is determined by the necessary time after adjustment, an image display unit And an image display means for displaying on the screen.

In particular, the necessary time adjusting means adjusts the ball object moving time included in the necessary time by correcting the moving speed of the ball object returned by the batter character stored in the storage unit. The necessary time adjusting means further adjusts the ball object throwing time included in the necessary time by correcting the moving speed of the ball object sent from the fielder character stored in the storage unit. Further, the necessary time adjusting means corrects the movement speed stored in the storage section from the time when the fielder character catches the ball object to the time when the fielder character throws the ball object. The included operating time is further adjusted.

A data reproduction method according to a sixth aspect is a data reproduction method controlled by a computer capable of receiving real-time information relating to baseball being executed in real space, stored in a server. In this data reproduction method, the computer control unit receives real-time information from the server and stores it in the storage unit, including real-time information including a play information when the fielder sends the ball to the batter or runner running in real space. Based on the play information stored in the storage unit, the play result recognition step for recognizing whether the play in the real space is out or safe, and on the basis of the play information stored in the storage unit, the batter character A reference time setting step in which either one of the sprinting time for which the runner character runs after hitting the ball object and the sprinting time for which the runner character runs is set as a reference time, and the ball object is the batter character From the time when the ball object is hit back to the time when the ball object is caught by the fielder character. Object movement time, movement time from the time when the fielder catches the ball object to the time when the fielder throws the ball object, and ball object throwing until the ball object sent from the fielder character reaches the basket Play result that determines whether play in the virtual space is out or safe based on the required time setting step, the reference time and the required time as the required time required for play in the virtual space. When the judgment step differs from the result difference judgment step for judging whether or not the play result in the real space and the play result in the virtual space match, and the play result in the real space and the play result in the virtual space do not match , Play results in real space and virtual space In order to converge the play of the virtual space so that the play result in the game matches, it corresponds to the necessary time adjustment step for adjusting the required time and the play in the virtual space in which the result is determined by the necessary time after adjustment. An image display step of displaying the image on the image display unit.

In particular, in the necessary time adjusting step, the ball object moving time included in the necessary time is adjusted by correcting the moving speed of the ball object returned by the batter character stored in the storage unit. In the necessary time adjustment step, the ball object pitching time included in the necessary time is further adjusted by correcting the moving speed of the ball object sent from the fielder character stored in the storage unit. Further, in the necessary time adjustment step, the movement speed from the time when the fielder character catches the ball object to the time when the fielder character throws the ball object stored in the storage unit is corrected to the necessary time. The included operating time is further adjusted.

  In the present invention, even if the play result in the virtual space and the play result in the real space do not match, by adjusting the necessary time required for catching and sending the fielder character in the virtual space, The play result can be matched with the play result in the real space. In other words, even if the play result in the virtual space and the play result in the real space do not match, the ball object movement that constitutes the required time so that the play result in the virtual space and the play result in the real space match. By adjusting at least one of the time, the motion time, and the ball object throwing time, a play that matches the play result in the real space can be reproduced with a natural video.

The figure which shows the relationship between the server and mobile telephone by one Embodiment of this invention. The figure which shows the hardware constitutions of the said mobile telephone. The functional block diagram as an example of the said mobile telephone. The figure which shows the structure of real-time information data. The figure which shows the distance used for calculation of reference | standard time in virtual space. The figure which shows the position of a player character, and the catching position of a ball | bowl. The figure which shows an example of the calculation form of reference | standard time. The figure which shows the correspondence of the performance data (missing rate data) of a player character, and capability data (defense power data). Flow showing information reproduction system. Flow showing information reproduction system.

[Configuration and operation of data transmitter / receiver]
The data transmitter / receiver 2 such as a mobile phone is connected to the server 1 via a communication facility such as a base station. Specifically, as shown in FIG. 1, the mobile phone 2 is connected to the server 1 via a base station included in the communication network 3 and transmits and receives data. Here, an example in which the data transmission / reception device 2 is a mobile phone is shown, but the data transmission / reception device 2 may be a means other than the mobile phone. For example, the data transmission / reception device 2 may be a home data reproduction device, a portable type data reproduction device, or the like. A home data reproduction device and a portable data reproduction device have a control unit, a storage unit, and the like. Also, input from the controller, input from the touch panel, input from the input button, and the like are controlled by the input unit 26, and the monitor is controlled by the image display unit.

  The server 1 stores various types of data, executes various types of processing based on requests from the mobile phone 2, and transmits data and processing results to the mobile phone 2. The server mainly includes a CPU 101 (Central Processing Unit), a RAM 102 (Random Access Memory), a data storage unit 103, a network communication unit 104 (communication unit), and a ROM 105 (Read Only Memory).

  The CPU 101 reads out a control program stored in the data storage unit 103 and controls various processes based on the control program. The ROM 105 stores a basic program for controlling the server 1, various data, various parameters, and the like. The RAM 102 temporarily stores various programs, various data, data being processed, data transmitted from the mobile phone 2, and the like. For the data storage unit 103, for example, a hard disk is used. The data storage unit 103 stores a control program, data transmitted from the mobile phone 2, and the like. The communication unit 104 controls transmission / reception of data with the mobile phone 2 via the base station.

  The server 1 having the above configuration receives terminal data, control data, and the like related to terminal information of the mobile phone 2 from the mobile phone 2. Thereafter, data necessary for executing various programs in the mobile phone 2 is transmitted from the server 1 to the mobile phone 2. The various programs shown here include a data reproduction program described later.

  In the mobile phone 2, various programs are executed based on the data acquired from the server 1. The cellular phone 2 mainly includes a control unit 21, a storage unit 22, a drawing processing unit 23 (image display unit), a communication unit 24, a sound output unit 25, an input unit 26, and the like. The control unit 21 includes a CPU 201 (Central Processing Unit), and the storage unit 22 includes a ROM 205 (Read Only Memory), a RAM 202 (Random Access Memory), and a recording medium. The drawing processing unit 23 (image display unit) includes a display 203 (monitor), and the sound output unit 25 includes a speaker 204. The communication unit 24 controls communication with an external device, and the input unit 26 controls a plurality of buttons. FIG. 2 shows a hardware configuration of the mobile phone 2.

  The CPU 201 executes a program stored in at least one of the storage unit 22, for example, the ROM 205, the RAM 202, and a recording medium. The CPU 201 issues various instructions and controls various programs. The ROM 205 stores a basic program for controlling the mobile phone 2, various data, various parameters, and the like. The RAM 202 temporarily stores various programs, various data, data being processed, data received from the server, and the like. The recording medium stores various programs, various data, various parameters, and the like, and the programs and data stored in the recording medium can be read and written.

  The monitor 203 displays information and images related to communication, information and images when various programs are processed, and information and images as processing results of various programs. Image data is generated in the drawing control unit 207 built in the mobile phone 2, and information and images are displayed on the monitor 203 based on the image data. The speaker 204 outputs sounds related to communication, sounds during processing of various programs, sounds as processing results of various programs, and the like. Sound data is generated by a sound control unit 208 built in the mobile phone 2, and sound is output to the speaker 204 based on this sound data. Note that basic image data used when generating image data and sound data is stored in the RAM 202 and a recording medium.

  The communication unit 24 includes a communication device for transmitting and receiving data. In the communication unit 24, processing for transmitting data to the base station, the server 1 or the like, processing for receiving data from the base station or the server 1 or the like is executed in the communication device based on a command from the CPU 201. .

  The input unit 26 includes a plurality of buttons and a control device for controlling these buttons. For example, when a button is pressed, an input signal corresponding to the pressed button is issued from the control device. Then, a command corresponding to this input signal is issued from the CPU 201.

  The card reader / writer 210 can be loaded with a recording medium. Data extracted from the recording medium is controlled by the external device control unit 211 and supplied to the CPU 201 and the RAM 202.

  In the mobile phone 2 configured as described above, for example, when a program stored in the RAM 202, for example, a data reproduction program is executed, the mobile phone 2 issues a connection request to the server 1 from the communication unit 24. . When the connection request is authenticated by the server 1, data stored in the data storage unit 103 of the server 1, for example, data necessary for executing the data reproduction program is transmitted to the server 1 via the communication unit 104 of the server 1. 1 to the mobile phone 2. Then, this data is downloaded to the mobile phone 2, and various processes of the data reproduction program are executed based on this data.

[Outline of various processes in the information reproduction system]
FIG. 3 is a functional block diagram for explaining functions that play a major role in the present invention. In this system, real-time information related to baseball being executed in the real space is stored in the server 1, and this real-time information is received from the server 1. Based on the real-time information, the following functions (means) are realized.

  The information storage means 50 has a function of receiving real-time information from the server 1 and storing it in the storage unit 22.

  This means receives real-time information from the server 1 and stores the real-time information in the storage unit 22. This real-time information includes information on play when a fielder throws a ball into a cage where a batter or runner runs in real space.

  Specifically, a signal requesting connection to the server 1 is output from the communication unit 24 of the mobile phone 2 and input to the communication unit 104 of the server 1. Based on this signal, when the CPU 101 of the server 1 permits the connection of the mobile phone 2, real-time information stored in the data storage unit 103 of the server 1 is supplied to the RAM 102. The real-time information stored in the RAM 102 is output from the communication unit 104 of the server 1 and input to the communication unit 24 of the mobile phone 2. This real-time information is stored in the RAM 202 of the mobile phone 2. In this way, the mobile phone 2 receives real-time information from the server 1. Here, the real-time information received by the mobile phone 2 includes information on play when the fielder sends a ball to the cage where the batter or runner runs in real space.

  The play result recognition means 51 has a function of recognizing whether the play result in the real space is out or safe based on the play information stored in the storage unit 22.

  In this means, the control unit 21 recognizes whether the play result in the real space is out or safe based on the play information stored in the storage unit 22. The play information includes information for determining whether the play result in the real space is out or safe. For example, the play information includes information indicating hits, second strike, third strike, home run, out, and the like. Based on this information, the CPU 201 recognizes whether or not the play result is out.

  Based on the play information stored in the storage unit 22, the reference time setting means 52 is one of a running time when the batter character strikes after hitting the ball object and a running time when the runner character runs. One scoring time is set as a reference time.

  In this means, based on the play information stored in the storage unit 22, either one of the running time for the batter character to run after hitting the ball object and the running time for the runner character to run. The dredging time is set in the control unit 21 as a reference time. For example, the information on play includes information indicating a spear that the batter character reaches after hitting the ball object and information indicating a spear that the runner character reaches and reaches. Based on such play information, the CPU 201 executes processing for calculating the above-mentioned running time. Then, the CPU 201 executes a process for setting the scoring time calculated here as a reference time, and the reference time is stored in the RAM 202.

  The necessary time setting means 53 has a function of setting a necessary time required for play in the virtual space.

  With this means, the time required for playing in the virtual space is set in the control unit 21. This necessary time is, for example, from the time when the ball object is hit back by the batter character until the time when the ball object is caught by the fielder character, and from the time when the fielder catches the ball object, It is composed of an operation time until the time when the fielder throws the ball object, and a time consisting of the ball object throwing time until the fielder character throws the ball but reaches the basket.

  The ability recognition means 54 has a function of recognizing the ability of the fielder character stored in the storage unit 22.

  With this means, the ability of the player character stored in the storage unit 22 is recognized by the control unit 21. Specifically, the CPU 201 recognizes the ability including the defensive power of the player character stored in the RAM 202. The player character's defensive power is defined in advance in the data reproduction program and stored in the RAM 202.

  The play result determination means 55 has a function of determining whether the play result in the virtual space is out or safe based on the reference time and the necessary time.

  In this means, the CPU 201 executes a process of determining whether the play result in the virtual space is out or safe based on the reference time and the required time. For example, the CPU 201 determines whether or not the reference time corresponding to the running time is equal to or less than the necessary time required for catching and throwing. Then, when the reference time corresponding to the running time is equal to or shorter than the necessary time required for catching and throwing, it is determined that the play result in the virtual space is out. On the other hand, when the reference time corresponding to the running time is longer than the necessary time required for catching and throwing, it is determined that the play result in the virtual space is safe.

  The result difference determination means 56 has a function of determining whether or not the play result in the real space matches the play result in the virtual space.

  With this means, the control unit 21 determines whether or not the play result in the real space matches the play result in the virtual space. For example, when the play result in the real space is out, the CPU 201 executes processing for determining whether the play result in the virtual space is also out or safe. Similarly, when the play result in the real space is safe, the CPU 201 executes processing for determining whether or not the play result in the virtual space is also safe.

  When the play result in the real space and the play result in the virtual space are inconsistent, the necessary time adjusting unit 57 adjusts the necessary time so that the play result in the real space and the play result in the virtual space match. It has a function.

  In this means, if the play result in the real space and the play result in the virtual space are inconsistent, the process of adjusting the required time so that the play result in the real space and the play result in the virtual space match, It is executed by the CPU 201. For example, when the play result in the real world is out and the play result in the virtual space is safe, the required time is adjusted so that the required time is less than or equal to the reference time. In addition, when the real-world play result recognized by the play result recognition function is safe, if the play result in the virtual space judged by the play result judgment function is out, the required time is set to be longer than the reference time. Is adjusted.

  Here, the ball object moving time is adjusted by causing the CPU 201 to execute processing for correcting the moving speed of the ball object returned by the batter character stored in the RAM 202. In addition, the ball object throwing time is adjusted by causing the CPU 201 to execute processing for correcting the moving speed of the ball object sent from the fielder character stored in the RAM 202. Further, by causing the CPU 201 to execute a process of correcting the motion speed stored in the RAM 202 from the time when the fielder character catches the ball object to the time when the fielder character throws the ball object, the motion time is increased. Adjusted. By such processing, the time required for play in the virtual space is adjusted.

  The necessary time resetting means 58 has a function of resetting the required time by correcting at least one of the ball object moving time, the ball object throwing time, and the action time according to the ability of the fielder character. I have.

  In this means, processing for correcting at least one of the ball object moving time, the ball object throwing time, and the action time is executed in the control unit 21 in accordance with the ability of the fielder character. As a result, the necessary time is reset. Here, for example, the process of setting the time for the fielder character to start the catching action so that the time required for the fielder character to start the catching action becomes faster as the ability of the fielder character, for example, the defensive ability increases. It is executed by the CPU 201. Then, the CPU 201 executes a process of increasing the moving speed of the ball object returned by the batter character according to the time when the fielder character starts the catching action, and the ball object moving time is corrected. Further, as the fielder character's defensive power increases, the CPU 201 executes a process for increasing the operation speed from the time when the fielder character catches the ball object to the time when the fielder character throws the ball object. The operating time is corrected.

  The image display means 59 has a function of displaying on the image display unit 23 an image corresponding to a play whose result is determined in the necessary time after adjustment.

  With this means, an image corresponding to a play whose result is determined by the necessary time after adjustment is displayed on the image display unit 23. For example, an image corresponding to a play whose result is determined in the necessary time after adjustment is displayed on the monitor 203 using the image data. Note that the image data is stored in the sub-RAM 202, and is read from the RAM 202 and supplied to the monitor 203 as necessary.

[Detailed explanation of information reproduction system]
Next, the specific contents of this system will be described. The flow shown in FIG. 9 will also be described at the same time. In this system, various data in the server 1 is stored in the data storage unit 103. When various types of data are used, the various types of data are supplied from the data storage unit 103 to the RAM 102, and by using the various types of data on the RAM 102, the CPU 101 executes various types of processing and control.

  Hereinafter, an example will be described in which the present system is realized in a reproduction application (hereinafter referred to as a reproduction application) for reproducing the baseball situation in the real world with the mobile phone 2. Here, an example in which the present system functions independently in the reproduction application is shown, but the present system does not necessarily function independently, and for example, functions as one mode in a game. May be. In this case, when a mode for the present system is selected on the mode selection screen, the present system is executed.

  This system is executed in the mobile phone 2. In this system, an image informing the situation of the baseball being executed in the real space is displayed on the monitor 203 of the mobile phone 2 using real-time information regarding the baseball being executed in the real space.

  First, when a predetermined button of the input unit 26 is operated while the mobile phone 2 is powered on, a reproduction application for realizing the present system is activated (S1). Specifically, the CPU 201 executes processing for starting execution of a reproduction application program (data reproduction program) stored in the RAM 202. Then, the CPU 201 recognizes various default data necessary for reproducing the baseball in the real space on the mobile phone 2. The default data is included in the data reproduction program and is stored in the RAM 202.

  In this example, the data reproduction program is stored in the RAM 202. However, the data reproduction program is stored in the recording medium, and the data reproduction program is supplied from the recording medium to the RAM 202 to reproduce the data. The program may be executed.

  For example, the default data includes data regarding various images for the virtual space. The data related to various images for the virtual space includes, for example, model data for stadiums, model data for player characters, model data for various objects, and the like. The default data includes position coordinate data for arranging model data for the virtual space in the virtual space. The default data includes image data for displaying the model arranged in the virtual space on the monitor 203. Further, the default data includes other various data used in the present system.

  When the above model is placed in the virtual space at the position indicated by the position coordinate data for the model, the model is photographed for each frame by the virtual camera placed at a predetermined position in the virtual space. The image data captured here is stored in the RAM 202. Then, a reproduced image is displayed on the monitor 203 using this image data. A command for executing these series of processes is issued from the CPU 201.

  Next, when the execution of the reproduction application is started, the mobile phone 2 is connected to the server 1 and receives information data JD corresponding to the real-time information from the server 1 (S2). For example, when execution of the reproduction application is started, a signal requesting connection to the server 1 is output from the communication unit 24 of the mobile phone 2 and input to the communication unit 104 of the server 1. At this time, terminal identification data for identifying the mobile phone 2 is also transmitted from the mobile phone 2 to the server 1 and stored in the RAM 102. In the server 1 that has received this signal, the CPU 101 executes a process for determining whether or not to permit the connection based on the terminal identification data of the mobile phone 2. The RAM 102 of the server 1 stores the same data as the terminal identification data of the mobile phone 2, and the CPU 101 determines whether or not to permit the connection of the mobile phone 2 by collating with this data.

  When the server 1 permits the connection of the mobile phone 2, the information data JD corresponding to the real-time information stored in the RAM 102 of the server 1 is transmitted via the communication unit 104 of the server 1 and the communication unit 24 of the mobile phone 2. , Transmitted from the server 1 to the mobile phone 2 and stored in the RAM 202 of the mobile phone 2. In this way, the mobile phone 2 receives real-time information from the server 1.

  The information data JD corresponding to real-time information corresponds to information for each baseball in the real space. This information data JD is stored in the data storage unit 103 of the server 1 and is supplied from the data storage unit 103 to the RAM 102 when the connection between the server 1 and the mobile phone 2 is established. The information data JD is transmitted from the server 1 to the mobile phone 2 and stored in the RAM 202 of the mobile phone 2 as described above.

  Here, as shown in FIG. 4, the information data JD corresponding to the real-time information is composed of basic data JD1 and supplementary data JD2. The basic data JD1 is data indicating information on pitchers, batters, fielders, and runners in real space, for example. The supplemental data JD2 is data indicating the catching posture when the fielder catches the ball in the real space, for example.

  The pitcher basic data JD1t includes, for example, data td1 indicating the pitcher name, data td2 indicating whether or not the ball pitched by the pitcher is a strike, data td3 indicating the pitching course, and data td4 indicating the pitch type. Has been. The basic data JD1d for the batter includes, for example, data dd1 indicating the batter name, data dd2 indicating the bounce, skipping, see-off, etc., hit, double strike, triple strike, home run, foul, and out Data dd3 indicating information (including information), data dd4 indicating fly, liner, goro, etc., and data indicating the direction in which the ball flew (pitcher, catcher, first base, second base, third base, short, right, center, left) It consists of dd5 and the like. The fielder basic data JD1y includes, for example, data yd1 (n) indicating the fielder name of each fielder position, position data yd2 (n) indicating the fielder fielder position, data yd3 indicating the ball catching field, and each fielder. Data yd4 (n) indicating the result of catching (catch or error), etc., data yd5 indicating the basket sent by the fielder, and the like. The basic data JD1s for the runner is composed of, for example, data sd1 indicating the kite where the runner was present, data sd2 indicating the kite that the runner has advanced, and the like. Note that the data sd2 indicating the kite that the runner has advanced includes information about the kite that has been out.

  Further, supplementary data JD2 includes, for example, posture data JD2s indicating a catching posture such as a normal catch and a special catch (jumping catch, diving catch, and sliding catch), results data JD2r (n) indicating the results of each player, And data JD2f indicating the end of the game.

  The basic data JD1 and the supplementary data JD2 are text data, for example, CSV format data. In FIG. 4, the data JD1t, JD1d, JD1y, JD1s, and JD2 of each item are CSV format data. For example, the data JD1t, JD1d, JD1y, JD1s, JD2 of each item are respectively (td1, td2, td3, td4), (dd1, dd2, dd3, dd4, dd5), (yd1 (n), yd2 ( n), yd3, yd4 (n), yd5), (sd1, sd2), and (JD2s, JD2r (n), JD2f).

  In addition, td1 is a numerical value for identifying the name of the pitcher who is climbing, td2 is a numerical value for distinguishing between strike and ball (ex. 1 for strike, 2 for ball), and pitch for td3 The coordinate data indicating the course, td4, is assigned a numerical value (1 for ex. Straight, 2 for curve, 3 for chute, 4 for fork, etc.) for identifying the ball type.

  Also, dd1 is a numerical value for identifying the name of the batter at the bat, dd2 is a numerical value for distinguishing backlash, idling, and see-off (ex. 1 for hitting back, 2 for idling, and for seeing off In case 3), dd3 is a numerical value for distinguishing hit, double strike, triple strike, home run, out, and foul (ex. 1 for hit, 2 for double strike, 3 for triple strike, and 3 for home run Is assigned 4, 5 for out and 6) for foul. Also, dd4 is a numerical value for distinguishing fly, liner, and goro (ex. 1 for fly, 2 for liner, 3 for goro), and dd5 to distinguish the direction of the ball. (Ex. 1 for pitcher, 2 for catcher, 3 for 1st base, 4 for 2nd base, 5 for 3rd base, 6 for short, 7 for light, 7 for center Is assigned 8, and in the case of left is assigned 9).

  Further, yd1 (n) is a numerical value corresponding to the fielder name of each fielder position, yd2 (n) is position coordinate data indicating the fielder field position, yd3 is position coordinate data indicating the ball-catching position, and yd4 ( n) is assigned a numerical value indicating the result of catching each fielder (ex. 1 for catching, 2 for error, 3 for not catching). Here, n is a numerical value for distinguishing players. In addition, a numerical value indicating the kite thrown by the fielder is assigned to yd5. For example, 1 is assigned for the baseball thrown by the fielder, 2 for the baseball, 3 for the baseball, and 4 for the home. In the case of double play or triple play, processing is performed by increasing the number of digits according to the number of baskets sent by the fielder. For example, in the case of “6-4-3” double play, 21 is assigned to yd5 because the ball is sent to the first base after the second base. Further, in the case of “2-6-4-3” triple play, 421 is assigned to yd5 because it goes out in the order of home, second base, and first base.

  In addition, sd1 is a numerical value indicating the status of the output before the advance (ex. 100 if there was a runner in the first base, 010 if there was a runner in the second base, and if there was a runner in the third base 001, 110 if runners were present in the first and second base, 011 if runners were present in the second and third base, 101 if runners were present in the first and third base, full 111) is assigned. Also, a numerical value (same as ex. Sd1) indicating the output status after progress is assigned to sd2. The numerical value indicating the out-going bag is also assigned to sd2 in the same format following the numerical value indicating the output status after progressing (same as ex.sd1).

  Furthermore, JD2s is a numerical value for distinguishing between normal catch and special catch (ex. 1 for normal catch, 2 for jumping catch, 3 for diving catch, 4 for sliding catch), JD2r (N) is a numerical value indicating the result of each player (ex. Batting rate, failure rate, etc.), JD2f is a numerical value indicating the end of the game (ex. 1 at the end of the game, 2 when the game is in progress), Assigned.

  The fielder, batter, and runner in the real space and the fielder character, batter character, and runner in the virtual space have a one-to-one correspondence. In addition, each character in the virtual space is managed by the CPU 201 by identification data n ′ (corresponding to the above n). The table that defines the correspondence relationship is stored in the RAM 202 of the mobile phone 2. Here, an example is shown in which the cellular phone 2 pre-owns this table, but this table is downloaded from the server 1 to the RAM 202 of the cellular phone 2 when the cellular phone 2 first accesses the server 1. You may make it do.

  Subsequently, based on the information data JD stored in the RAM 202, the CPU 201 determines whether or not the play result in the real space is out (S3). For example, based on the batter basic data JD1d (dd3) included in the information data JD, the CPU 201 determines whether or not the play result in the real space is out.

  For example, the data dd3 included in the batter basic data JD1d includes a numerical value for distinguishing hit, second strike, third strike, home run, and out (ex. Hit is 1, second is second, third is 3, 4 for home runs and 5) for out. By reading this data dd3 from the RAM 202 and causing the CPU 201 to recognize it, it is determined whether or not the play result in the real space is out. In this case, for example, when the value of the data dd3 is 5, it is determined that the play result in the real space is out (Yes in S3).

  On the other hand, when the play result in the real space is not out (No in S3), the data dd3 is referred to the CPU 201, so that the play result is a hit (hit, second hit, third hit) excluding the home run. Is determined (S4). Here, if the play result is a hit (except for home run, hit, second strike, third strike) (Yes in S4), it is determined that the play result in the real space is safe (S5).

  If this play result is not a hit (excluding hit, second strike, third strike) excluding the home run (No in S4), it is determined that the play result in the real space is other (S6). This case corresponds to a case where the play result in the real space is neither out nor safe. For example, this corresponds to a case where the play result in the real space is a home run, an empty swing, a see-off, a foul, or the like.

  The play result in the real space determined here is managed by the CPU 201 by assigning a predetermined numerical value to the first result data RD1 (S7). For example, when the play result in the real space is out, 1 is assigned to the first result data RD1, and when the play result is safe, 2 is assigned to the first result data RD1. If the play result is other than this, 3 is assigned to the first result data RD1. Here, the numerical value assigned to the first result data RD1 is defined in advance in the program.

  Subsequently, based on the batter basic data JD1d (dd2) included in the information data JD, processing for determining whether or not the ball has been returned is executed by the CPU 201 (S8). When the ball is hit back (Yes in S8), the running time data Ts that the batter character runs after hitting the ball object based on the information data JD stored in the RAM 202, and the runner character runs the run. Either one of the running time data Ts to be performed is set in the CPU 201 as the reference time data Tk (S9).

  For example, the fielder basic data JD1y included in the information data JD includes data yd5 indicating a basket thrown by the fielder. By causing the CPU 201 to recognize the data yd5, the basket that the fielder character throws is determined. The kite determined here is set as the kite to which the batter character or runner character finally heads. Then, on the basis of the heel information yd5, the sprinting time data Ts of either the sprinting time for which the batter character strikes after hitting the ball object or the sprinting time for which the runner character sprints is calculated. Processing is executed by the CPU 201.

  Here, the batter character's running speed data Vd and the running character's running speed data Vs are set to the same predetermined value. In addition, since the distance data between each of the saddles is also set to a predetermined distance, the process of dividing the distance data L1 indicating the distance that the batter character or the runner character runs by the running speed data Vd (= Vs), By causing the CPU 201 to execute, the running time data Ts (= L1 / Vd) is set. Then, the running time data Ts is set by the CPU 201 as reference time data Tk for defining the time of one play. The reference time data Tk is stored in the RAM 202.

  Here, as shown in FIG. 5, the distance indicated by the distance data L1 described above is a distance from the heel where the batter character or the runner character has started running to the heel where the batter character or the runner character has finished running. It corresponds. For example, FIG. 5A shows a setting form of the distance data L1 when the batter character runs to the first base, and FIG. 5B shows the distance data L1 when the runner character runs from the first base to the second base. The setting form is shown. Note that the position of each ridge is set at a predetermined position in the virtual space. Here, the distance between the ridges is obtained by causing the CPU 201 to recognize the position coordinate data defining the position of each ridge.

  The reference time data Tk described above corresponds to the time data when the batter character or the runner character runs the distance data L1 shown in FIG. In the example of FIG. 5, the reference time data Tk is shown in parentheses.

  Subsequently, based on the fielder basic data JD1y (yd4 (n)) included in the information data JD, a process of specifying a fielder character TC (target character) that catches the ball object is executed by the CPU 201 ( S10). For example, the CPU 201 recognizes the fielder character identification data n ′ corresponding to the fielder having the catching information or error information based on the data yd4 (n) indicating the catching result. In other words, the identification data n ′ of the fielder character corresponding to the fielder whose yd4 (n) value is 1 or 2 is recognized by the CPU 201. Then, the target character TC is specified by causing the CPU 201 to execute a process of assigning the identification data n ′ of the fielder character to the identification data N of the target character TC.

  If the ball object is not hit back (No in S8), for example, if there is no fielder with catch information or error information (when the value of yd4 (n) of all fielders is 3), the batter Will have missed or sent off. In this case, the CPU 201 executes a process of changing any one of the strike count, the ball count, and the out count, and the result is displayed on the monitor 203 using the count image data (not shown). . Then, the CPU 201 executes a process in step 29 (S29) described later.

  Subsequently, based on the fielder basic data JD1y, yd3 included in the information data JD, the CPU 201 recognizes the data indicating the catching position HP, that is, the position coordinate data yd3 of the catching position. Thereby, as shown in FIG. 6, the catching position HP where the target character TC catches the ball object is set in the virtual space (S11). In FIG. 6, the catching position HP is indicated by an X symbol. The virtual space is a virtual space in which the same space as the real space is formed, and the unit system is also set to be the same. For this reason, in this virtual space, the position coordinate data of the real space included in the information data JD is directly used.

  Then, the process which arrange | positions each player character in virtual space is performed by CPU201 (S12). For example, based on the fielder basic data JD1y, yd2 (n) included in the basic data JD1, position coordinate data indicating the defensive position of each fielder character is read from the RAM 202, and this position coordinate data is sent to the CPU 201. Be recognized. Then, the CPU 201 issues a command to place each fielder character at the position indicated by the position coordinate data. Then, as shown in FIG. 6, a model corresponding to each fielder character is arranged in the virtual space. In FIG. 6, the fielder character is indicated by a circle symbol, and the target character TC is indicated by a double circle symbol. In FIG. 6, the batter character is indicated by a square symbol. FIG. 6 shows the case where the runner character has not come out.

  Here, an example in which the fielder character's defensive position is set based on the fielder basic data JD1y, yd2 (n) included in the basic data JD1 is shown. The position may be set to a predetermined position defined in advance in the data reproduction program.

  Further, when the runner character exists on the heel, the runner character is also arranged in the virtual space based on the basic data JD1s and sd1. In this case, the runner character is placed in the virtual space at a predetermined position on the heel.

  Subsequently, a process of setting the necessary time data Tn required for play in the virtual space is executed by the CPU 201 (S13). The required time data Tn is, for example, the ball object moving time data Th from the time when the ball object is hit back by the batter character to the time when the ball object is caught by the target character TC, and the target character TC captures the ball object. It consists of motion time data Td from the time of the ball to the time when the target character TC sends the ball object, and the ball object pitch time data Ti sent from the target character TC (see FIG. 7). Here, the necessary time data Tn is set by causing the CPU 201 to execute a process of adding the ball object moving time data Th, the motion time data Td, and the ball object throwing time data Ti.

  FIG. 7 (a) shows an example in which a short fielder character catches a ball object returned by a batter character and sends it to a glance. FIG. 7B shows an example in which the runner character runs from one base to the second base and the short fielder character catches the ball object returned by the batter character and sends it to the second base. In FIGS. 7A and 7B, the time data Th, Td, Ti required for the movement of the ball object and the motion of the target character TC are shown in parentheses.

  Here, the CPU 201 executes processing for setting the ball object movement time data Th from when the ball object is hit back by the batter character until the ball object reaches the catching position HP. For example, the CPU 201 executes processing for calculating the ball object moving time data Th based on the trajectory equation of the hit ball stored in the RAM 202. More specifically, the trajectory equation of the hit ball is determined by the CPU 201 based on the initial conditions. For example, the trajectory equation of the hit ball is uniquely set based on the ball object discharge position BP, the ball object arrival position (including the ball catching position HP), the initial velocity of the ball, the ball discharge angle, and the like. Then, the CPU 201 calculates ball object movement time data Th when the ball object moves at a predetermined movement speed Vb1 at a predetermined time interval on the trajectory defined by the trajectory equation of the hit ball. Time data Th is stored in the RAM 202.

  The initial conditions for setting the trajectory equation of the hit ball, for example, the ball object discharge position BP, the ball object arrival position (excluding the ball catching position HP), the initial velocity of the ball, the ball discharge angle, etc. It is defined in advance in the reproduction program and is set to a predetermined value.

  Further, the CPU 201 executes processing for setting the operation time data Td from the time when the target character TC catches the ball object to the time when the target character TC throws the ball object. This motion time data Td corresponds to reproduction time data of a series of image data (moving image data) from when the target character TC catches the ball object until the target character TC sends the ball object.

  Here, for example, the CPU 201 executes processing for setting speed data corresponding to the motion speed when the target character TC performs a ball-sending motion, that is, motion speed data Vy to a predetermined speed. Here, the operation speed data Vy corresponds to a predetermined number of frames. That is, by causing the CPU 201 to execute a process of multiplying the operation speed data Vy by one frame time (ex. 1/60 (sec)), the operation time data Td is set, and the operation time data Td is stored in the RAM 202. Is done. The operation speed data Vy, that is, the predetermined number of frames, is defined in advance in the data reproduction program and is set to a predetermined value.

  Further, the CPU 201 executes processing for setting the ball object throwing time data Ti sent from the target character TC. Here, the movement speed data Vb2 of the ball object at the time of ball feeding is set to a predetermined value in advance in the data reproduction program. Further, based on the position coordinate data of the catching position HP and the position coordinate data indicating the position of the throwing destination, the distance connecting the catching position HP and the position of the throwing destination (the tip of the throwing destination), for example, a straight distance is calculated. Processing is executed by the CPU 201, and distance data L <b> 2 indicating this distance is stored in the RAM 202. Then, by causing the CPU 201 to execute a process of dividing the distance data L2 by the moving speed data Vb2, ball object throwing time data Ti (= L2 / Vb2) is calculated. The ball object throwing time data Ti is stored in the RAM 202.

  Then, the CPU 11 executes a process of adding the ball object moving time data Th, the operation time data Td, and the ball object throwing time data Ti. The required time data Tn is set by causing the CPU 201 to recognize the value of the processing result as the value of the required time data Tn. The necessary time data Tn is stored in the RAM 202.

  Subsequently, the CPU 201 executes processing for setting the ability of the fielder character, for example, defensive power (S14). For example, the CPU 201 executes a process of generating the defensive power data SD of the target character TC based on the result data JD2r (n) included in the supplementary data JD2. The result data JD2r (n) includes failure rate data ss indicating the number of failures with respect to the number of catches of each fielder. Based on the failure rate data ss, the fielder character's defensive power is evaluated and defensive power data SD is generated (see FIG. 8). Thus, when the field strength data SD of each fielder character is set, the field strength data SD of the target character TC is recognized by the CPU 201.

  The setting of the defense force data SD based on the correspondence table of FIG. 8 is performed as follows. The correspondence table is set so that the value of the defense strength data SD increases as the value of the failure rate data ss decreases. For example, the defensive ability data SD corresponding to the fielder character's failure rate data ss is set by making the CPU 201 refer to the correspondence table of FIG. The value of the defense force data SD corresponding to the failure rate data ss is set by linear interpolation.

  The correspondence table shown in FIG. 8 is defined in advance in the data reproduction program and stored in the RAM 202.

  Subsequently, based on the reference time data Tk and the necessary time data Tn, the play result in the virtual space is set to out or safe (S15). Here, for example, the CPU 201 determines whether or not the reference time data Tk (= Ts) corresponding to the running time data Ts is equal to or less than the necessary time data Tn necessary for catching and throwing. When the reference time data Tk corresponding to the running time data Ts is equal to or less than the necessary time data Tn necessary for catching and sending (Tk ≦ Tn, Tn = Th + Td + Ti), the play result in the virtual space is set to be safe. Is done. On the other hand, when the reference time data Tk corresponding to the running time data Ts is larger than the necessary time data Tn necessary for catching and throwing (Tk> Tn, Tn = Th + Td + Ti), the play result in the virtual space is set to out. Is done.

  Then, the play result is managed by the CPU 201 by assigning a predetermined numerical value to the second result data RD2 (S16). For example, when the play result in the virtual space is out, 1 is assigned to the second result data RD2, and when the play result is safe, 2 is assigned to the second result data RD2. Here, the numerical value assigned to the second result data RD2 is defined in advance in the data reproduction program.

  Subsequently, the CPU 201 determines whether or not the play result in the real space matches the play result in the virtual space (S17). For example, when the play result in the real space is out, the CPU 201 executes processing for determining whether or not the play result in the virtual space is also out. Similarly, when the play result in the real space is safe, the CPU 201 executes processing for determining whether or not the play result in the virtual space is also safe.

  Here, by comparing the first result data RD1 and the second result data RD2, the CPU 201 determines whether or not the play result in the real space matches the play result in the virtual space. More specifically, the CPU 201 executes processing for comparing whether or not the first result data RD1 and the second result data RD2 are equal. Here, when the first result data RD1 and the second result data RD2 are equal (RD1 = RD2), it is determined that the play result in the real space matches the play result in the virtual space (Yes in S17). In this case, the process of step 23 (S23) described later is executed by the CPU 201.

  On the other hand, if the play result in the real space and the play result in the virtual space do not match (No in S17), the CPU 201 determines whether the first result data RD1 is 1 or 2 (S18). ). If the first result data RD1 is 1 or 2 (Yes in S18), the process of adjusting the required time data Tn so that the play result in the real space and the play result in the virtual space match, It is executed by the CPU 201 (S19). If the first result data RD1 is 3 (No in S18), the process of adjusting the required time data Tn is not executed, and the process of step 29 (S29) is executed by the CPU 201.

  Hereinafter, a detailed description will be given of processing for adjusting the required time data Tn so that the play result in the real space and the play result in the virtual space match. Here, the CPU 201 executes processing for correcting each time data constituting the required time data Tn in the order of the ball object moving time data Th, the ball object throwing time data Ti, and the ball object movement time data Td.

  First, the CPU 201 executes a process of correcting the moving speed data Vb1 of the ball object returned by the batter character stored in the RAM 202. For example, in the case where adjustment is made so that a play result that is out in the virtual space becomes safe, the process of correcting the movement speed data Vb1 of the ball object so that the movement speed of the hit ball object is slow is performed by the CPU 201. It is executed by. More specifically, the moving speed data Vb1 of the ball object is corrected by multiplying the moving speed data Vb1 of the ball object by a predetermined correction coefficient, for example, a predetermined positive number less than 1.0.

  Further, when adjusting so that the play result that is safe in the virtual space is out, the process of correcting the movement speed data Vb1 of the ball object so as to increase the movement speed of the hit ball object is CPU 201. It is executed by. More specifically, the moving speed data Vb1 of the ball object is corrected by multiplying the moving speed data Vb1 of the ball object by a predetermined correction coefficient, for example, a predetermined positive number greater than 1.0 and not more than 2.0. Is done.

  The correction coefficient used here is defined in advance as a predetermined value in the data reproduction program, and is stored in the RAM 202.

  Then, by using the corrected movement speed data Vb1 'of the ball object, the ball object movement time data Th is corrected in the same form as the calculation of the ball object movement time data Th described above. That is, the ball object moving time data Th ′ when the ball object moves at the moving speed indicated by the corrected moving speed data Vb1 ′ on the trajectory defined by the trajectory equation of the hit ball described above at a predetermined time interval. Is calculated by the CPU 201. The ball object movement time data Th ′ becomes the corrected ball object movement time data, and is stored in the RAM 202 as new ball object movement time data Th ′. In this way, the ball object moving time data Th is adjusted.

  Then, the CPU 201 executes a process of recalculating the necessary time data Tn by adding the adjusted ball object moving time data Th ′, the ball object throwing time data Ti, and the motion time data Td. (S19). Then, using the necessary time data Tn ′ after the recalculation, the play result in the virtual space is reset to out or safe (S20). Then, the CPU 201 executes processing for setting the second result data RD2 'corresponding to the play result (S21). Then, the CPU 201 determines whether or not the play result in the real space matches the play result in the virtual space (S22). For example, the CPU 201 determines whether or not the first result data RD1 and the second result data RD2 'match. If the first result data RD1 and the second result data RD2 'match, the CPU 201 executes a process of step 23 (S23) described later.

  The processing from step 20 (S20) to step 22 (S22) shown here is the same as the processing from step 15 (S15) to step 17 (S17). For this reason, detailed description is omitted here.

  Subsequently, when the play result in the real space and the play result in the virtual space do not match (No in S22), the moving speed data Vb2 of the ball object sent from the target character TC stored in the RAM 202 is corrected. The CPU 201 executes the process to perform. For example, when the play result that is out in the virtual space is made safe, the CPU 201 executes a process of correcting the movement speed data Vb2 of the ball object so that the movement speed of the ball object after throwing becomes slow. The More specifically, the moving speed data Vb2 of the ball object is corrected by multiplying the moving speed data Vb2 of the ball object by a predetermined correction coefficient, for example, a predetermined positive number less than 1.0.

  In addition, when the play result that is safe in the virtual space is set to “out”, the CPU 201 executes a process of correcting the movement speed data Vb2 of the ball object so that the movement speed of the ball object after the pitching becomes faster. The More specifically, the moving speed data Vb2 of the ball object is corrected by multiplying the moving speed data Vb2 of the ball object by a predetermined correction coefficient, for example, a predetermined positive number between 1.0 and 2.0. .

  The correction coefficient used here is defined in advance as a predetermined value in the data reproduction program, and is stored in the RAM 202.

  Then, by using the corrected movement speed data Vb2 'of the ball object, the ball object pitching time data Ti is corrected in the same form as the calculation of the ball object pitching time data Ti described above. That is, the ball object throwing time data Ti ′ (= L2 / Vb2 ′) is calculated by causing the CPU 201 to execute a process of dividing the distance data L2 by the corrected moving speed data Vb2 ′. The ball object throwing time data Ti ′ is stored in the RAM 202. In this way, the ball object throwing time data Ti is adjusted.

  Then, a process of recalculating the necessary time data Tn ′ by adding the adjusted ball object moving time data Th ′, the adjusted ball object throwing time data Ti ′, and the above-described operation time data Td is performed by the CPU 201. It is executed by. Then, the CPU 201 re-executes the processing from step 19 (S19) to step 21 (S21) using the recalculated necessary time data Tn '. Then, the CPU 201 determines whether or not the processing in step 22 (S22), that is, whether the play result in the real space matches the play result in the virtual space. If the play result in the real space matches the play result in the virtual space, the CPU 201 executes a process of step 23 (S23) described later.

  Subsequently, when the play result in the real space and the play result in the virtual space again do not match (No in S22), the target character TC stored in the RAM 202 starts from the time when the target character TC catches the ball object. The CPU 201 executes processing for correcting the motion speed data Vy until the time when the TC sends the ball object. For example, when the play result that is out in the virtual space is adjusted to be safe, the process of correcting the motion speed data Vy of the target character TC so that the motion speed of the target character TC is slow is performed by the CPU 201. It is executed by. More specifically, the motion speed data Vy of the target character TC is corrected by multiplying the motion speed data Vy of the target character TC by a predetermined correction coefficient, for example, a predetermined positive number less than 1.0.

  Further, when the play result that is safe in the virtual space is adjusted to be out, the process of correcting the motion speed data Vy of the target character TC so that the motion speed of the target character TC becomes faster is the CPU 201. It is executed by. More specifically, the motion of the target character TC is multiplied by a predetermined correction coefficient (predetermined positive number), for example, a value greater than 1.0 and less than or equal to 2.0. The speed data Vy is corrected.

  The correction coefficient used here is defined in advance as a predetermined value in the data reproduction program, and is stored in the RAM 202.

  Then, the motion time data Td is corrected in the same form as the calculation of the motion time data Td described above by using the motion speed data Vy ′ of the target character TC after correction. That is, the operation time data Td ′ is calculated by causing the CPU 201 to execute a process of multiplying the corrected operation speed data Vy ′ by one frame time (ex. 1/60 (sec)). The operation time data Td ′ is stored in the RAM 202. In this way, the motion time data Td ′ of the target character TC is adjusted.

  A process of recalculating the necessary time data Tn ′ by adding the adjusted ball object moving time data Th ′, the adjusted ball object throwing time data Ti ′, and the adjusted operation time data Td ′. This is executed by the CPU 201 (S19). Then, the CPU 201 re-executes the processing from step 19 (S19) to step 21 (S21) using the recalculated necessary time data Tn '. Then, the CPU 201 determines whether or not the processing in step 22 (S22), that is, whether the play result in the real space matches the play result in the virtual space. If the play result in the real space matches the play result in the virtual space, the CPU 201 executes a process of step 23 (S23) described later.

  In the above processing, if the play result in the real space and the play result in the virtual space do not match (No in S22), the ball object until the play result in the real space matches the play result in the virtual space. The CPU 201 repeatedly executes processing for correcting the time data Th, Ti, Td constituting the required time data Tn, Tn ′ in the order of the movement time data Th, the ball object throwing time data Ti, and the ball object movement time data Td. Is done.

  Further, the value of the predetermined correction coefficient may be decreased as the number of corrections of each time data Th, Ti, Td increases. Thereby, each time data Th, Ti, and Td can be finely adjusted, and the required time data Tn ′ can be prevented from becoming an extremely large value or an extremely small value.

  Subsequently, when the play result in the real space matches the play result in the virtual space (Yes in S17, Yes in S22), the ball object moving time data Th, Th ′, The CPU 201 executes processing for correcting at least one of the time data Td and Td ′ of the target character TC. That is, the required time data Tn ′ is corrected according to the defensive power data SD of the target character TC (S23).

  Hereinafter, a detailed description will be given of the correction of the required time data Tn ′ according to the defensive power data SD of the target character TC. First, time data for defining the movement start time of the target character TC is set so that the time for the target character TC to start moving to the catching position becomes faster as the defensive power data SD of the target character TC increases. The CPU 201 executes the process to perform.

  For example, when the defensive power data SD of the target character TC is the maximum (ex. SD = 10.0), the time data tc is the time (tc = 0) when the ball object returned by the batter character starts moving. Is set. That is, in this case, when the batter character hits the ball object, the target character TC starts moving.

  Further, the time data tc is set so that as the defensive power data SD of the target character TC decreases by a predetermined value m, the time for the target character TC to start moving to the catching position is delayed by the predetermined time dt. Is done. Here, as the defensive power data SD of the target character TC decreases by 1.0, the time data is set so that the time for the target character TC to start moving to the catching position is delayed by 0.1 (sec). tc is set.

  Therefore, when the defensive power data SD of the target character TC is the lowest value (ex. SD = 0.0), the time data tc is a predetermined time from the time when the ball object returned by the batter character starts moving. Is set to the elapsed time (tc = 1.0). That is, in this case, the target character TC starts to move after 1.0 (sec) with reference to the time when the batter character hits the ball object.

  The time data tc is set by using a predetermined setting formula, for example, “tc = dt × mX | SD-10.0 |” formula.

  When the time data tc is set in this way, the CPU 201 executes processing for correcting the moving speed data Vb1 and Vb1 'of the ball object based on the time data tc.

  In the present embodiment, as a precondition, the target character TC also reaches the catching position HP before the hit ball object reaches the catching position HP. For this reason, for example, when the defensive power data SD of the target character TC is the maximum, the target character TC also reaches the catching position HP when the hit ball object reaches the catching position HP. The moving speed data Vt of the character TC is set. For example, by causing the CPU 201 to execute a process of dividing the distance data L3 from the defensive position of the target character TC to the catching position HP by the ball object movement time data Th, Th ′, the moving speed data Vt of the target character TC Is set.

  However, as described above, if the time for the target character TC to start moving is delayed, the target character TC cannot reach the catching position HP when the hit ball object reaches the catching position HP. . For this reason, here, the target character TC can catch the hit ball object at the catching position HP by executing a process of reducing the moving speed data Vb1 and Vb1 ′ of the ball object. .

  This process is executed as follows. For example, first, the CPU 201 executes the process of adding the time data tc to the ball object moving time data Th and Th ′, thereby correcting the ball object moving time data Th and Th ′. Then, the CPU 201 executes a process of calculating the length of the trajectory defined by the trajectory equation and dividing the data indicating the length by the corrected ball object moving time data Th and Th ′. Then, this processing result is recognized by the CPU 201 as the moving speed data Vb1 ″ of the new ball object. Then, the ball object moving time data Th ″ corresponding to the moving speed data Vb1 ″ of the ball object is described above. The target character TC can catch the hit ball object at the catching position HP by using the moving speed data Vb1 ″ of the ball object.

  Here, for example, the CPU 201 executes processing for setting the action speed data Vy and Vy ′ so that the catching action of the target character TC increases as the defensive power data SD of the target character TC increases. The

  For example, when the defensive power data SD of the target character TC is the maximum (ex. SD = 10.0), the motion speed data of the target character TC is maintained at the values of the motion speed data Vy and Vy ′.

  Further, the motion speed data Vy and Vy ′ are set so that the motion speed of the target character TC decreases at a predetermined rate as the defensive power data SD of the target character TC decreases by a predetermined value m. Here, as the defensive power data SD of the target character TC decreases by 1.0, the predetermined value ks (predetermined positive number) is subtracted from the motion speed data Vy, Vy ′ of the target character TC. The motion speed data Vy ″ of the new target character TC is set. Then, the motion time data Td ″ of the target character TC corresponding to the motion speed data Vy ″ of the new target character TC is calculated in the above-described form. Is done.

  The operation speed data Vy ″ is set using a predetermined setting formula, for example, “Vy ″ = Vy′−ksXmX | SD−10.0 |” formula. Here, ks is set to a predetermined value in advance in the data reproduction program.

  Then, the necessary time data Tn ″ is reset using the ball object moving time data Th ″ and the movement time data Td ″ of the target character TC, which are corrected based on the defensive power data SD of the target character TC ( S23).

  Then, using this necessary time data Tn ″, the play result in the virtual space is reset to out or safe (S24). Then, the process of setting the second result data RD2 ″ corresponding to this play result is It is executed by the CPU 201 (S25). Then, the CPU 201 determines whether or not the play result in the real space matches the play result in the virtual space (S26). For example, the CPU 201 determines whether or not the first result data RD1 and the second result data RD2 ″ match. The processing from step 24 (S24) to step 26 (S26) shown here is as follows. This is the same as the processing from step 15 (S15) to step 17 (S17), and therefore detailed description is omitted here.

  If the play result in the real space and the play result in the virtual space do not match (No in S26), the necessary time data Tn ″ is set so that the play result in the real space matches the play result in the virtual space. A process of correcting the included ball object throwing time data Ti ′ is executed by the CPU 201 (S27). Here, for example, the absolute value Z (| reference time of the difference between the reference time data Tk and the required time data Tn ″) Using the data Tk−required time data Tn ″ |), the ball object throwing time data Ti ′ is corrected.

  For example, when the play result in the real space is out and the play result in the virtual space is safe, a value obtained by dividing the distance data L1 by the absolute value Z is used as the moving speed data Vb2 ′ of the ball object at the time of pitching. The adding process is executed by the CPU 201. Further, when the play result in the real space is safe and the play result in the virtual space is out, a value obtained by dividing the distance data L1 by the absolute value Z is calculated from the moving speed data Vb2 ′ of the ball object at the time of pitching. The CPU 201 executes a subtraction process. As described above, the moving speed data Vb2 ′ of the ball object at the time of throwing is corrected, and the ball object throwing time data Ti ′ is calculated by using the corrected moving speed data Vb2 ′. The final required time data Tns is set such that the play result in the virtual space matches.

  When the necessary time data Tns is adjusted in this way (S27), an image corresponding to a play whose result is determined by the adjusted necessary time data Tns is displayed on the image display unit 23 (S28). For example, the result of the final required time data Tns is determined by photographing a state in which the player character and the ball object move at the above speed in the virtual space with a virtual camera arranged at a predetermined position in the virtual space. An image corresponding to the play to be played is displayed on the monitor 203 using the image data. Note that the image data used here is stored in the RAM 202, and is read from the RAM 202 and supplied to the monitor 203 as necessary.

  Subsequently, based on the data indicating the end of the game included in the supplementary data JD2, the CPU 201 determines whether or not the game has ended (S29). Whether or not the game is over is determined by the CPU 201 based on the supplementary data JD2, for example. If the supplementary data JD2 does not include data indicating the end of the game (No in S29), an instruction to reproduce the next play is issued from the CPU 201, and the process of step 2 (S2) is performed by the CPU 201. Will be re-executed. Here, a command to reproduce the next play when a predetermined time, for example, 3600 frame time has elapsed from the time when the process of step 28 (S28) is completed, or when a predetermined button for reproducing the next play is pressed. Is issued from the CPU 201. Then, the process of step 2 (S2) is re-executed by the CPU 201.

  On the other hand, when the supplementary data JD2 includes data indicating the end of the game (Yes in S29), an image indicating the end of the game is displayed on the monitor 203 using the image data (S30). When a predetermined button for ending the reproduction application is pressed, or when a predetermined time, for example, 7200 frame time has elapsed, the reproduction application, that is, the present system ends (S31).

  Thus, in the present embodiment, even if the play result in the virtual space and the play result in the real space do not match, the necessary time data Tn necessary for catching and throwing the target character TC in the virtual space is obtained. By adjusting, the play result in the virtual space can be matched with the play result in the real space. Specifically, the required time data Tn is configured so that the play result in the virtual space and the play result in the real space match even if the play result in the virtual space and the play result in the real space do not match. By adjusting the time data Th, Td, and Ti to be performed, the play result in the virtual space can be matched with the play result in the real space. Thereby, the video of the play result can be reproduced without a sense of incongruity.

[Other Embodiments]
(A) In the above embodiment, an example in which the mobile phone 2 is used as an example of a computer to which the data reproduction program can be applied has been described. However, the computer is not limited to the above embodiment, and the monitor is a separate body. The present invention can be similarly applied to a configured data reproduction device, a data reproduction device in which a monitor is integrated, a personal computer that functions as a data reproduction device by executing a data reproduction program, a workstation, a game device, and the like. it can.
(B) The present invention includes a program for realizing the system as described above, and a computer-readable recording medium on which the program is recorded. Examples of the recording medium include a computer-readable flexible disk, a semiconductor memory, a CD-ROM, a DVD, an MO, a ROM cassette, and the like in addition to the cartridge.

  INDUSTRIAL APPLICABILITY The present invention can be used in an information reproduction application that is executed by a computer that can receive real-time information relating to baseball that is being executed in real space and that is stored in a server.

1 server 2 mobile phone 201 CPU
202 RAM
203 monitor 50 information storage means 51 play result recognition means 52 reference time setting means 53 required time setting means 54 ability recognition means 55 play result judgment means 56 result difference judgment means 57 necessary time adjustment means 58 necessary time resetting means 59 image display means JD information data, real-time information data HP catching position TC target character Th ball object movement time data Td motion time data of target character Ti ball object throwing time data Tn, Tns required time data SD defensive power data

Claims (6)

Real-time information about baseball running in real space, stored in the server, can be received by the control unit of the computer,
An information storage function for receiving the real-time information from the server and storing it in the storage unit, including information on the play when the fielder sends the ball to the batter into which the batter or runner runs in real space;
Based on the play information stored in the storage unit, a play result recognition function for recognizing whether the play in the real space is out or safe,
Based on the information of the play stored in the storage unit, either one of the running time that the batter character runs after hitting the ball object and the running time that the runner character runs, Reference time setting function to set as reference time,
The ball object moving time from the time when the ball object is hit back by the batter character to the time when the ball object is caught by the fielder character, and from the time when the fielder catches the ball object, the fielder The time required for play in the virtual space is the time consisting of the motion time until the character throws the ball object and the ball object throw time until the ball object sent from the fielder character reaches the basket. As a necessary time setting function to set,
A play result judging function for judging whether the play in the virtual space is out or safe based on the reference time and the required time;
A result difference determination function for determining whether or not the play result in the real space and the play result in the virtual space match;
When the play result in the real space and the play result in the virtual space are inconsistent, the play in the virtual space is converged so that the play result in the real space and the play result in the virtual space match. In order to adjust the necessary time, a necessary time adjusting function;
An image display function for displaying an image corresponding to the play in a virtual space in which a result is determined in a necessary time after adjustment on an image display unit;
Realized ,
In the necessary time adjustment function,
The ball object moving time included in the necessary time is adjusted by correcting the moving speed of the ball object returned by the batter character stored in the storage unit,
The ball object throwing time included in the necessary time is further adjusted by correcting the moving speed of the ball object sent from the fielder character stored in the storage unit,
The movement time from the time when the fielder character catches the ball object to the time when the fielder character throws the ball object, which is stored in the storage unit, is included in the necessary time by correcting the movement speed. The operating time is further adjusted,
Data reproduction program. In the necessary time adjustment function, when the play result in the virtual space determined by the play result determination function is safe when the play result in the real world recognized by the play result recognition function is out, The virtual space determined by the play result determination function when the required time is adjusted so that the required time is equal to or less than the reference time and the play result in the real world recognized by the play result recognition function is safe. When the play result is out, the required time is adjusted so that the required time is longer than the reference time.
The data reproduction program according to claim 1. In the control part of the computer,
An ability recognition function for recognizing the ability of the fielder character stored in the storage unit;
As the ability of the fielder character increases, the operation time is corrected by increasing the operation speed from the time when the fielder character catches the ball object to the time when the fielder character throws the ball object. And a necessary time resetting function for resetting the necessary time,
The data reproduction program according to claim 1 or 2 . In the control part of the computer,
Ability recognition function that recognizes the ability of the fielder character stored in the storage unit,
Further realized,
In the necessary time resetting function, the higher the ability of the fielder character, the earlier the time for the fielder character to start the catching action, and the ball returned by the batter character stored in the storage unit. By increasing the moving speed of the object, the ball object moving time is corrected and the necessary time is reset.
The data reproduction program according to claim 3 . A data reproduction device capable of receiving real-time information about baseball being executed in a real space stored in a server,
The control unit of the data reproduction device is
Information storage means for receiving the real-time information from the server and storing it in the storage unit, including information on the play when the fielder throws the ball to the batter in which the batter or runner runs in real space;
Based on the information of the play stored in the storage unit, a play result recognition means for recognizing whether the play in the real space is out or safe,
Based on the information of the play stored in the storage unit, either one of the running time that the batter character runs after hitting the ball object and the running time that the runner character runs, A reference time setting means for setting as a reference time;
The ball object moving time from the time when the ball object is hit back by the batter character to the time when the ball object is caught by the fielder character, and from the time when the fielder catches the ball object, the fielder The time required for play in the virtual space is the time consisting of the motion time until the character throws the ball object and the ball object throw time until the ball object sent from the fielder character reaches the basket. As necessary time setting means to set,
A play result judging means for judging whether the play in the virtual space is out or safe based on the reference time and the required time;
A result difference judging means for judging whether or not the play result in the real space and the play result in the virtual space match;
When the play result in the real space and the play result in the virtual space are inconsistent, the play in the virtual space is converged so that the play result in the real space and the play result in the virtual space match. Therefore, a necessary time adjusting means for adjusting the necessary time,
Image display means for displaying an image corresponding to the play in the virtual space in which the result is determined by the necessary time after adjustment on the image display unit;
Equipped with a,
In the necessary time adjusting means,
The ball object moving time included in the necessary time is adjusted by correcting the moving speed of the ball object returned by the batter character stored in the storage unit,
The ball object throwing time included in the necessary time is further adjusted by correcting the moving speed of the ball object sent from the fielder character stored in the storage unit,
The movement time from the time when the fielder character catches the ball object to the time when the fielder character throws the ball object, which is stored in the storage unit, is included in the necessary time by correcting the movement speed. The operating time is further adjusted,
Data reproduction apparatus. A data reproduction method controlled by a computer capable of receiving real-time information about baseball being executed in real space stored in a server,
The control unit of the computer
An information storage step for receiving the real-time information from the server and storing it in the storage unit, including information on play when the fielder sends the ball to the batter into which the batter or runner runs in real space;
A play result recognition step for recognizing whether the play in the real space is out or safe based on the information of the play stored in the storage unit;
Based on the information of the play stored in the storage unit, either one of the running time that the batter character runs after hitting the ball object and the running time that the runner character runs, A reference time setting step to set as a reference time;
The ball object moving time from the time when the ball object is hit back by the batter character to the time when the ball object is caught by the fielder character, and from the time when the fielder catches the ball object, the fielder The time required for play in the virtual space is the time consisting of the motion time until the character throws the ball object and the ball object throw time until the ball object sent from the fielder character reaches the basket. As a necessary time setting step to set,
A play result determining step for determining whether the play in the virtual space is out or safe based on the reference time and the required time;
A result difference determination step of determining whether or not the play result in the real space and the play result in the virtual space match; and
When the play result in the real space and the play result in the virtual space are inconsistent, the play in the virtual space is converged so that the play result in the real space and the play result in the virtual space match. A necessary time adjusting step for adjusting the necessary time;
An image display step for displaying an image corresponding to the play in the virtual space in which the result is determined by the necessary time after adjustment on the image display unit;
The execution,
In the necessary time adjustment step,
The ball object moving time included in the necessary time is adjusted by correcting the moving speed of the ball object returned by the batter character stored in the storage unit,
The ball object throwing time included in the necessary time is further adjusted by correcting the moving speed of the ball object sent from the fielder character stored in the storage unit,
The movement time from the time when the fielder character catches the ball object to the time when the fielder character throws the ball object, which is stored in the storage unit, is included in the necessary time by correcting the movement speed. The operating time is further adjusted,
Data reproduction method.

Images