JP5180999B2 - GAME PROGRAM, GAME DEVICE, GAME CONTROL METHOD - Google Patents

Description

  The present invention relates to a game program. The present invention also relates to a game apparatus that can execute the game program, and a game control method that is controlled by a computer based on the game program.

  Conventionally, various video games have been proposed. These video games are executed in a game device. Here, a case is considered where a battle game, for example, a baseball game is executed on the game device. For example, in the mode in which the player plays as a manager (director mode), the player character selects the item corresponding to the command desired by the player from the icons or items displayed on the monitor. On the other hand, various instructions such as a sign instruction are instructed. Then, when a command is instructed to the player character, the player character moves based on this command, and the result is displayed on the monitor (see Patent Document 1 and Patent Document 2).

JP 2002-273049 A JP2007-68824A

  In the conventional baseball game as described above, the player selects various commands and signs for the player character by selecting an icon or item corresponding to the command he desires from a plurality of icons or items. I was able to give orders.

  In particular, when the baseball game is executed in the manager mode, the player operating the manager character can select each player character by selecting his / her tactic (thinking) during the game from a plurality of commands. introduce. However, there is a problem that it is difficult for the player to find a command that suits his tactic among many commands, and it is difficult to transmit a tactic he desires to each player character. In addition, some players have requested that the player's intentions and desires be reflected on the game casually, but as described above, conventionally, a predetermined tactic is selected from a number of instructions. There is no game with a manager mode in which tactics can be easily selected and operated.

  The present invention has been made in view of such problems, and an object of the present invention is to provide a game that can easily transmit a player's thoughts to a character.

The game program according to claim 1 is a program for causing a control unit of a computer capable of realizing a game in which a player plays a battle against an enemy team as a virtual team leader to realize the following functions.
(1) A command data storage function for storing a plurality of command data relating to character motions, which can be configured across a plurality of motion categories for classifying game character motion characteristics, in a storage unit.
(2) Any one of the plurality of command data according to the influence data corresponding to the weight of each of the plurality of action categories set simultaneously based on one input signal when the player inputs to the input unit. An instruction setting function that sets two instruction data as target instruction data.
(3) A command reflection function for reflecting the content of the final instruction command to the game event by instructing the character of the final instruction command corresponding to the target command data.

  This game program is premised on a game in which a player becomes a virtual team leader and plays against an enemy team. Here, the leader is a team supervisor, a commander, etc. The character which gives directions, such as a strategy and tactics, to this character is shown. In addition to a sports team, a team includes a battle unit that performs a battle, a group or an organization composed of animals and fictional characters, and the like. For example, a case where this game program is applied to a baseball game will be described as an example. First, a plurality of tactical command data relating to the action of a player character in a baseball game is stored in the storage unit. The plurality of tactical command data can be configured across a plurality of motion categories for classifying the motion characteristics of the player character. Next, one of the plurality of tactical command data according to the influence data corresponding to the weight of each of the plurality of action categories set simultaneously based on one input signal when the player inputs to the input unit. One tactic command data is set as target tactic command data. Then, by instructing the character with a final instruction command corresponding to the target tactic command data, the content of the tactic command is reflected in the game event.

  In this case, the player can simultaneously set the influence data corresponding to the weights of the plurality of action categories by one input, and the target tactical command data (target command data) is set based on the influence data. A final tactical instruction (final instruction instruction) corresponding to the target tactical instruction data is instructed to the player character.

  For example, when a plurality of action categories are an action category to which an aggressive tactical instruction belongs, an action category to which a defensive tactical instruction belongs, and an action category to which a tactical instruction related to scouting belongs, based on the influence data of each action category Thus, any one of the aggressive tactical command data, the defensive tactical command data, and the tactical command data related to the scissors is selected as the target tactical command data. Then, the final tactic command corresponding to the target tactic command data selected here is instructed to the player character.

  Thus, in the present invention, the player can easily transmit his tactics (final tactical command) to the player character only by setting the influence data. That is, the present invention can provide a game that can easily transmit the player's thoughts to the character.

A game program according to claim 2 is a program for causing the control unit of the computer to further realize the following functions in the game program according to claim 1.
(4) An influence data display function for displaying a relative data image for relatively expressing the value of the influence data on the image display unit using the image data.
(5) An influence data setting function for setting all influence data by setting any one of a plurality of influence data on the relative data image based on an input signal when the player inputs to the input unit.

  A case where this game program is applied to a baseball game will be described as an example. A relative data image for relatively expressing the value of influence data is displayed on the image display unit using the image data. Then, based on the input signal when the player inputs to the input unit, any one of a plurality of influence data is set on the relative data image. Then, based on one influence data set here, other influence data is set.

  In this case, all the influence data can be set by the player simply setting any one of the plurality of influence data on the relative data image, for example, on the polygonal image. Accordingly, the player can visually grasp the relative relationship between the plurality of pieces of influence data and can easily set the plurality of pieces of influence data.

A game program according to claim 3 is a program for causing the control unit of the computer to further realize the following functions in the game program according to claim 2.
(6) A range data storage function for storing range data that defines the range of each of the plurality of influence data in the storage unit.
(7) A high-frequency data detection function for detecting influence data that has been frequently used in a plurality of events.
(8) A range data changing function for changing the range data so that the upper limit of the detected influence data is increased.

  A case where this game program is applied to a baseball game will be described as an example. Range data defining the ranges of a plurality of influence data is stored in the storage unit. Then, the influence data that is frequently used in a plurality of game events is detected. Then, the range data is changed so that the upper limit of the influence data detected here is increased. Then, the shape of the relative data image is changed based on the changed range data, and the changed relative data image is displayed on the image display unit using the image data.

  In this case, by detecting the influence data frequently used in a plurality of game events, for example, which of the tactics of the aggressive tactics, defensive tactics, and other tactics was prioritized. Detected. And about the tactic which the player used preferentially, the range data corresponding to the tactic is changed. Then, the strategy used preferentially by the player can be reflected in the shape of the relative data image, for example, the shape of a polygonal image. Thereby, the player can visually grasp the tactics (thinking) used preferentially by the player.

  In the game program according to a fourth aspect, in the game program according to the second or third aspect, the influence data setting function sets all the influence data so that the total of the plurality of influence data is constant.

  A case where this game program is applied to a baseball game will be described as an example. All the influence data are set so that the sum of the plurality of influence data is constant.

  In this case, when the player sets any one of the plurality of influence data on the relative data image, for example, on the polygonal image, the total of the plurality of influence data is made constant based on the influence data. Other influence data is set. Accordingly, other influence data can be easily set based on the position designated by the player on the polygonal image and the influence data corresponding to the position. That is, when certain influence data is set to be large, the total of the influence data is constant, so that other influence data is inevitably set to be small.

  As a specific example, assume an equilateral triangle in which a line is drawn from the center of gravity to each vertex. Each vertex of the equilateral triangle corresponds to the maximum value of each of the three influence data, and the total of the three influence data is 100%. Under this condition, if setting is made such that a certain influence data has a numerical value of 80%, the remaining two influence data are determined by 10% each.

A game program according to claim 5 is a program for causing the control unit of the computer to further realize the following functions in the game program according to any one of claims 1 to 4.
(9) A command content notification function for displaying a command content image for reporting the content of the command corresponding to the command data on the image display unit using the image data.

  A case where this game program is applied to a baseball game will be described as an example. A tactic content image for notifying the content of a tactic command corresponding to the tactic command data is displayed on the image display unit using the image data. When target tactic command data (target command data) for instructing the player character is set, a tactic content image corresponding to the target tactic command data is displayed with emphasis.

  In this case, since a plurality of tactical content images for informing the content of the tactical command are displayed on the image display unit, the player can view a plurality of tactical command images to be selected by viewing the plurality of tactical content images. Can be visually recognized. Also, for the tactical command instructed to the player character, the tactical content image is highlighted, so that the player looks at the highlighted tactical content image and finally determines the tactical command to be instructed to the player character, I can grasp it.

A game program according to claim 6 is a program for causing the control unit of the computer to further realize the following functions in the game program according to any one of claims 1 to 5.
(10) An instruction selection function for randomly selecting a predetermined number of instruction data from among a plurality of instruction data.

  A case where this game program is applied to a baseball game will be described as an example. A predetermined number of tactical command data is randomly selected from a plurality of tactical command data. Then, based on each of the plurality of influence data, any one of the plurality of operation categories is selected as the target operation category. Then, the tactical command data including the target action category in the configuration among the predetermined number of tactical command data is selected as the target tactical command data.

  In this case, a target action category is selected based on each influence data, and tactical instruction data including the target action category in the configuration among a predetermined number of tactical instruction data is selected as target tactical instruction data. Then, a final tactic command (final instruction command) corresponding to the target tactic command data selected here is instructed to the player character. As a result, the player can easily extract tactical command data that can be transmitted to the player character by simply setting influence data that conforms to his tactics. It can be reflected in the event.

A game program according to claim 7 is a program for causing the control unit of the computer to further realize the following functions in the game program according to claim 6.
(11) A selection rate setting function for setting weights of a plurality of operation categories in each of a plurality of command data as selection rate data.

  A case where this game program is applied to a baseball game will be described as an example. Weights of a plurality of action categories in a plurality of command data are set as selection rate data. Then, the tactical command data including the target action category in its configuration and the selection rate data of the tactical command data including the target action category in its configuration are recognized. Then, on the basis of the selection rate data, any one of the tactical command data including the target action category in its configuration is set as the target tactical command data.

  In this case, based on the selection rate data corresponding to the weight of each of the plurality of action categories in each of the plurality of instruction data, any one target tactic instruction data in the tactic instruction data including the target action category in its configuration is Selected. For this reason, according to the importance of each tactical command data in each action category, by setting selection rate data for each tactical command data, the final tactical command (final command) to be instructed to the player character. Corresponding target tactical command data can be appropriately selected and set.

  In the game program according to claim 8, in the game program according to claim 7, the command setting function has a final command data selection probability based on the selection rate data of each command data including the target action category in its configuration. And the target instruction data is set based on the selection probability.

  When this game program is applied to a baseball game as an example, the final selection probability of tactical command data is calculated based on the selection rate data of each tactical command data including the target action category in its configuration. . Then, based on this selection probability, target tactic command data is set.

  In this case, since the target tactical command data is set based on the selection probability calculated based on the selection rate data, for example, there is a probability that tactical command data having a large selection rate data is selected as the target tactical command data. Get higher. On the other hand, the tactical command data having a small selection rate data has a low probability of being selected as the target tactical command data, but is not necessarily selected as the target tactical command data, and may be selected as the target tactical command data. In this way, by setting the target tactic command data using the selection probability, a variety of tactics can be transmitted to the player character.

  In the game program according to claim 9, in the game program according to any one of claims 1 to 5, the command setting function includes a plurality of action categories in a configuration corresponding to each of the plurality of influence data. One or a plurality of instruction data is selected, and any one instruction data among the selected one or a plurality of instruction data is set as target instruction data.

  A case where this game program is applied to a baseball game will be described as an example. One or a plurality of tactical command data including a plurality of action categories in the configuration are selected at a ratio corresponding to each of a plurality of influence data. . Then, any one of the one or a plurality of tactic command data selected here is set as target tactic command data.

  In this case, since one or a plurality of tactical command data including a plurality of action categories in the configuration is selected at a ratio corresponding to each of the plurality of influence data, all of the action categories are weighted according to the weight of each of the plurality of action categories. One or more tactical command data can be narrowed down from the tactical command data. In other words, the one or more tactics command data narrowed down here are one or more tactics command data reflecting the weight of each of a plurality of action categories, that is, one or more tactics command data according to the player's desired tactics. Tactical command data. For this reason, by selecting the target tactic command data to be finally instructed to the player character from the one or more tactic command data, the player's tactic can be appropriately transmitted to the player character. .

  In the game program according to claim 10, in the game program according to claim 9, the command setting function is based on a calculation using an input signal from the input unit or a random number at a rate corresponding to each of the plurality of influence data. One of the selected instruction data or a plurality of instruction data is set as target instruction data.

  A case where this game program is applied to a baseball game will be described as an example. One or more selected at a rate corresponding to each of a plurality of influence data based on an input signal from an input unit or a calculation using a random number Any one of the tactical command data is selected as target tactical command data (target command data). Thereby, the target tactics command data finally instruct | indicated to a player character can be selected manually or automatically.

  A game device according to an eleventh aspect is a game device capable of executing a game in which a player becomes a virtual team leader and plays against an enemy team. The control unit of the game apparatus includes command data storage means for storing a plurality of command data relating to the character motion, which can be configured across a plurality of motion categories for classifying the character of the game character motion, in the storage unit. And any one of the plurality of command data according to the influence data corresponding to the weight of each of the plurality of action categories set simultaneously based on one input signal when the player inputs to the input unit Command setting means for setting the command data as target command data, and command reflecting means for reflecting the content of the final command to the event of the game by instructing the character of the final command corresponding to the target command data And has.

  A game control method according to a twelfth aspect is a game control method controlled by a computer capable of executing a game in which a player becomes a virtual team leader and plays against an enemy team. A control unit of the computer includes a command data storage step of storing a plurality of command data relating to the character motion, which can be configured across a plurality of motion categories for classifying the motion characteristics of the game character, in the storage unit; Any one command in the plurality of command data according to the influence data corresponding to the weight of each of the plurality of action categories set simultaneously based on one input signal when the player inputs to the input unit A command setting step for setting data as target command data, and a command reflecting step for reflecting the content of the final command to the game event by instructing the character of the final command corresponding to the target command data Have.

  In the present invention, the player can easily transmit his tactics to the character simply by setting the influence data. That is, the present invention can provide a game that can easily transmit the player's thoughts to the character.

1 is a basic configuration diagram of a game device according to an embodiment of the present invention. The control block diagram as an example of the said game device. The functional block diagram as an example of the said game device. The figure which shows the correspondence of tactical command data and a tactical command. The figure which shows the correspondence of operation | movement category data and an operation | movement category. The figure which shows an example of the setting form of selection rate data. Diagram showing tactics setting graph The figure which shows an example of the setting form of the influence data in a tactics setting graph. The figure which shows a battle | competition screen and a tactical image. The figure which shows the correspondence of the number of dominant games and the upper limit of range data. The figure which shows an example of the tactics setting graph which changes according to a manager's tactics. Flow for explaining the overall outline of the baseball game The flow which shows the tactics reflection system in a baseball game (1st Embodiment). The flow which shows the tactics reflection system in a baseball game (1st Embodiment). The flow which shows the tactics reflection system in a baseball game (1st Embodiment). The flow which shows the tactics reflection system in a baseball game (2nd Embodiment). The figure which shows the other form of the tactics setting graph

[First Embodiment]
[Configuration and operation of game device]
FIG. 1 is an external view of a portable game machine 1 as an example of a computer to which a game program according to the present invention can be applied. FIG. 2 is a control block diagram as an example of the portable game machine 1.

  As shown in FIG. 1, the portable game machine 1 mainly includes a main body 2, a liquid crystal monitor unit 3, an input unit 4, a cartridge mounting unit 5, and a communication unit 23.

  The main body 2 has an upper housing 2a and a lower housing 2b. The upper housing 2a and the lower housing 2b are connected to each other so as to be openable and closable. The liquid crystal monitor unit 3 includes a first liquid crystal monitor provided in the upper casing 2a, that is, an upper liquid crystal monitor 3a, and a second liquid crystal monitor provided in the lower casing 2b, that is, a lower liquid crystal monitor 3b. Here, for example, the upper liquid crystal monitor 3a is a non-contact input type monitor, that is, a non-touch panel type monitor, and the lower liquid crystal monitor 3b is a contact input type monitor, that is, a touch panel type monitor. The non-touch panel type monitor includes a liquid crystal panel, and the touch panel type monitor includes a liquid crystal panel and a touch panel. In the touch panel type monitor, the display surface of the liquid crystal panel and the data input surface of the touch panel are configured in a stacked and integrated type.

  The lower liquid crystal monitor 3b (touch panel type monitor) of the liquid crystal monitor unit 3 is a contact input type monitor. For this reason, it is possible to give instructions regarding various inputs by bringing an instruction means such as a touch pen or a finger into contact with the lower liquid crystal monitor 3b. As described above, the lower liquid crystal monitor 3b of the liquid crystal monitor unit 3 is one of the input means similarly to the input unit 4 described later. That is, in this embodiment, the lower liquid crystal monitor 3b and the input unit 4 of the liquid crystal monitor unit 3 are input means.

  The input unit 4 includes a cross-shaped direction indicating button 4a disposed at the left center portion of the lower housing 2b, a select button 4b and a start button 4c disposed on the left and right above the lower housing 2b, and a lower housing. An instruction button 4d disposed at the right center portion of the body 2b, a power button 4e disposed at the upper right portion of the lower housing 2b, and L buttons 4f and R disposed at the left and right corners of the lower housing 2b It consists of a button 4g.

  The cartridge mounting portion 5 is provided at the lower portion of the lower housing 2b. For example, a game cartridge can be mounted on the cartridge mounting portion 5. The communication unit 23 is built in the main body 2, for example, the upper housing 2a. In the communication unit 23, for example, a local wireless network function, an Internet connection function using a wireless LAN, and the like are provided.

  Note that the portable game machine 1 is also provided with a volume adjustment button, an earphone jack, and the like. However, these descriptions are omitted here.

  As shown in FIG. 2, the portable game machine 1 has a control device 10 therein. The control device 10 includes a CPU (Central Processing Unit) 11 using a microprocessor, a ROM (Read Only Memory) 12 as a main storage device, a RAM (Random Access Memory) 13, an image processing circuit 14, and a sound processing. Circuit 15. These are connected to each other via a bus 16.

  The CPU 11 interprets instructions from the game program and performs various data processing and control. The ROM 12 stores programs and the like necessary for basic control (for example, startup control) of the game machine 1. The RAM 13 secures a work area for the CPU 11. The image processing circuit 14 controls the liquid crystal monitor unit 3 in accordance with a drawing instruction from the CPU 11, and displays a predetermined image on at least one of the upper liquid crystal monitor 3a and the lower liquid crystal monitor 3b.

  The image processing circuit 14 includes a touch input detection circuit 14a. When an instruction means such as a touch pen or a finger is brought into direct contact with the touch panel, the coordinate data of the contact position is supplied from the touch input detection circuit 14a to the CPU 11, and the contact position is recognized by the CPU 11. Further, when the pointing means is brought into direct contact with the touch panel at the position of the object displayed on the liquid crystal panel, the coordinate data of the object is supplied from the touch input detection circuit 14a to the CPU 11, and the object is recognized by the CPU 11. Is done. Note that the above-described processing by the CPU 11 may be executed after the coordinate data of the contact position is stored in the RAM 13.

  The sound processing circuit 15 generates an analog audio signal corresponding to a sound generation instruction from the CPU 11 and outputs the analog audio signal to the speaker 22. The communication control circuit 20 and the communication interface 21 are included in the communication unit 23 and are used to connect the game machine 1 to another game machine or the like wirelessly. The communication control circuit 20 and the communication interface 21 are connected to the CPU 11 via the bus 16. The communication control circuit 20 and the communication interface 21 control and transmit a connection signal for connecting the game machine 1 to the Internet through a local wireless network or a wireless LAN in accordance with a command from the CPU 11.

  An external storage device 17 that is separate from the control device 10 is connected to the bus 16. For example, the external storage device 17 includes a game cartridge or the like that is detachably attached to the main body 2 such as the lower housing 2b. Inside the external storage device 17, a ROM 18 as a storage medium and a memory 19 as a rewritable user memory are provided. In the ROM 18, a game program for causing the game machine 1 as a computer to function and various data necessary for executing the game program are recorded in advance. The various data includes various image data. For the memory 19, a rewritable memory such as a flash memory is used. For example, game save data is recorded in the memory 19 as necessary.

  The storage medium of the external storage device 17 is not limited to a semiconductor storage element, and various storage media such as a magnetic storage medium, an optical storage medium, and a magneto-optical storage medium may be used. Note that an interface circuit is interposed between the bus 16 and each element as necessary, but the illustration thereof is omitted here.

  In the game machine 1 configured as described above, the game program recorded in the ROM 18 of the external storage device 17 is loaded, and the loaded game program is executed by the CPU 11 so that the player can display games of various genres. You can play on the monitor unit 3. In addition, by connecting the game machine 1 to the wireless network via the communication control circuit 20 or connecting to another game machine via a communication cable or the like, data can be exchanged with other game machines. And can play a battle game.

[Outline of various processes in game devices]
The game executed on the game machine 1 is, for example, a baseball game. In the game machine 1, for example, a game in which a manager directs a team can be executed. In this game, the manager's tactics (thinking) are reflected in the match event. FIG. 3 is a functional block diagram for explaining the following functions that play a major role in the present invention. The following means are mainly controlled by the control device 10.

  The command data storage means 50 has a function of storing a plurality of tactical command data (command data) related to the action of the player character in the RAM 13.

  In this means, a plurality of tactical command data relating to the action of the player character is stored in the RAM 13. For example, tactical commands corresponding to tactical command data include “meeting” command, “strong shake” command, “safety bunt” command, “stolen” command, “end run” command, “watch the ball” command, etc. is there. Other tactical commands include “attack the inner corner” command, “target the outer corner” command, “warn the stealer” command, “target the lower eye” command, “target the cramp” command, “one ball” There is a command to detach.

  Each tactical command is managed by tactical command data. For example, this tactical command is managed by assigning a predetermined numerical value, for example, “1” to the tactical command data corresponding to the “meeting” command. Further, this tactical command is managed by assigning a predetermined numerical value, for example, “2” to the tactical command data corresponding to the “strong” command. Similarly, other tactical commands are managed by assigning predetermined numerical values to tactical command data corresponding to other tactical commands.

  Each tactical command managed in this way is classified into one or a plurality of action categories to be described later. Specifically, each tactical command data corresponding to each tactical command is associated with each action category data corresponding to each action category via selection rate data described later.

  The predetermined numerical value is defined in advance in the game program, and is read from the ROM 18 of the external storage device 17 and stored in the RAM 13 when the game program is loaded.

  The category data storage means 51 has a function of storing a plurality of action category data for classifying the action characteristics of game characters in the RAM 13.

  In this means, a plurality of action category data for classifying the action characteristics of game characters is stored in the RAM 13. For example, as the action category corresponding to the action category data, for example, a first action category to which an aggressive tactical instruction belongs, a second action category to which a defensive tactical instruction belongs, and a third action category to which other tactical instructions belong. There is. As described above, there are a plurality of action categories (first action category, second action category, and third action category), and each tactical command belongs to one or more action categories. . In other words, each tactical command may belong to one action category or may belong to a plurality of action categories. In the third action category, for example, a tactical command related to a running rod and a tactical command for a runner belong.

  Each operation category is managed by operation category data. For example, the first action category is managed by assigning a predetermined numerical value such as “1” to the action category data corresponding to the first action category. Similarly, by assigning predetermined numerical values such as “2” and “3” to the operation category data corresponding to the second operation category and the operation category data corresponding to the third operation category, the second operation category And the third action category is managed.

  The predetermined numerical value is defined in advance in the game program, and is read from the ROM 18 of the external storage device 17 and stored in the RAM 13 when the game program is loaded.

  The selection rate setting means 52 has a function of setting selection rate data for each of one or more tactical commands included in each of a plurality of action categories.

  In this means, selectivity data is set for each of one or more tactical commands included in each of a plurality of action categories. Specifically, selectivity data is set for each of one or more tactical commands included in each of the first action category, the second action category, and the third action category. The selection rate data is data used when selecting a tactical command to be instructed at a game event from a plurality of tactical commands. The selection rate data is data that associates each tactic command data corresponding to each tactic command with each motion category data corresponding to each motion category.

  Note that the correspondence between each tactical command data and each action category data, and the value of the selection rate data set in each tactical command are defined in advance in the game program, and when the game program is loaded, The data is read from the ROM 18 of the storage device 17 and stored in the RAM 13.

  The influence data storage unit 53 has a function of storing a plurality of pieces of influence data corresponding to the weights of the plurality of operation categories in the RAM 13. The influence data storage unit 53 includes a range data storage unit 54. The range data storage means 54 has a function of storing, in the RAM 13, range data that defines a range of a plurality of influence data.

  In this means, a plurality of pieces of influence data corresponding to the weights of a plurality of operation categories and range data defining a range of the plurality of pieces of influence data are stored in the RAM 13. Here, the plurality of pieces of influence data are indices indicating the degree of influence each of the plurality of operation categories has on the game event.

  For example, as initial conditions, first influence data indicating the degree of influence of the first action category on the game event, second influence data indicating the degree of influence of the second action category on the game event, and the third action category The third influence data indicating the degree of the influence that the game event has on the game event is stored in the RAM 13. Further, as initial conditions, first range data, second range data, and third range data for defining the lower limit value and the upper limit value of each influence data are stored in the RAM 13. Each of the first range data, the second range data, and the third range data includes an upper limit value and a lower limit value.

  The influence data display means 55 has a function of displaying a relative data image for relatively expressing the value of the influence data on the liquid crystal monitor unit 3 using the image data.

  In this means, a relative data image for relatively expressing the value of the influence data is displayed on the liquid crystal monitor unit 3 using the image data. This relative data image is for expressing and setting the influence of each action category. Here, the relative data image is composed of, for example, a triangular graph (hereinafter referred to as a tactic setting graph). The image data used here is read from the ROM 18 of the external storage device 17 and stored in the RAM 13 when the game program is loaded.

  The tactic setting graph is set based on the range data, and the tactic setting graph after setting is displayed on the liquid crystal monitor unit 3. When the range data is changed, the tactical setting graph is changed based on the changed range data, and the changed tactical setting graph is displayed on the liquid crystal monitor unit 3.

  The influence data setting means 56 has a function of setting all the influence data by setting at least one of a plurality of influence data.

  In this means, all the influence data is set by setting at least one of the plurality of influence data. Specifically, all the influence data is set by setting at least one of the plurality of influence data on the tactics setting graph. More specifically, by setting any one of the plurality of pieces of influence data on the tactic setting graph, other pieces of influence data are set so that the sum total of the plurality of pieces of influence data becomes constant. Specifically, when the player operates the input unit 4 to select an arbitrary point on a line connecting a certain vertex of the tactical setting graph and the center of gravity, the influence data of the action category corresponding to this point, that is, The influence data of any one of the first operation category, the second operation category, and the third operation category is set. Then, based on this influence data, influence data of another operation category is set.

  The thinking command selection means 57 has a function of randomly selecting a predetermined number of tactic command data from a plurality of tactic command data.

  In this means, a predetermined number of tactical command data is randomly selected from a plurality of tactical command data. Specifically, a predetermined number of tactical command data is selected at random using a random number generation program. Note that the random number generation program is defined in advance in the game program, and is read from the ROM 18 of the external storage device 17 and stored in the RAM 13 when the game program is loaded.

  The command content notifying means 58 has a function of displaying a tactical image (command content image) for notifying the content of the tactical command on the liquid crystal monitor unit 3 using image data.

  In this means, a tactical image for notifying a tactical command corresponding to the tactical command data is displayed on the liquid crystal monitor unit 3 using the image data. Specifically, a card-like tactical image corresponding to each of a predetermined number of tactical command data is displayed on the liquid crystal monitor unit 3. Further, when the target tactical command data is set as will be described later, a card-like tactical image corresponding to the target tactical command data is displayed on the liquid crystal monitor unit in a state where a predetermined number of tactical images are displayed on the liquid crystal monitor unit 3. 3 is highlighted. The image data used here is read from the ROM 18 of the external storage device 17 and stored in the RAM 13 when the game program is loaded.

  The command setting means 59 has a function of setting at least one tactical command data of the plurality of tactical commands as target tactical command data based on the degree of influence each of the plurality of affecting data has on the game event. ing.

  In this means, at least any one of the plurality of tactical command data is set as the target tactical command data based on the degree (weight) of the influence that each of the plurality of affecting data has on the game event. . Specifically, one of the plurality of operation categories is selected as the target operation category according to the influence data corresponding to the weight of the operation category. Then, one or more tactical command data included in the target action category is selected from a predetermined number of tactical command data. Then, at least one tactical command data among the one or a plurality of tactical command data included in the target action category is set as the target tactical command data.

  Here, when setting the target tactical command data, the selection rate data of each of one or more tactical commands included in the target action category is used. Based on the selection rate data, the selection probability of the final command data is calculated. Based on the selection probability, at least one tactic in one or more tactical command data included in the target action category is calculated. Command data is set as target tactical command data.

  The command reflecting means 60 has a function of reflecting a tactic in a game event by instructing a player character participating in the game event with a target tactic command (final command) corresponding to the target tactic command data.

  In this means, the tactic is reflected in the match event by instructing the character participating in the match event with the target tactic command corresponding to the target tactic order data. Specifically, when the team for which the manager instructs a tactic is the attack side, the target tactic command is instructed to at least one of the batter character and the runner character. On the other hand, when the team instructing the tactic is the defensive side, the target tactic command is instructed to the pitcher character.

  The high-frequency data detection means 61 has a function of detecting influence data that is frequently used in a plurality of game events.

  With this means, influence data having a high use frequency in a plurality of game events is detected. Specifically, when the game event is ended, the influence data having the highest use frequency in the game event is detected. Then, by repeatedly executing this process every time the match event ends, the influence data having the highest use frequency in the plurality of match events is detected as the high-frequency influence data.

  The range data changing unit 62 has a function of changing the range data so that the upper limit of the detected influence data is increased.

  In this means, the range data is changed so that the upper limit value of the range data corresponding to the detected influence data (high frequency influence data) is increased. Specifically, the upper limit value of the range data is changed to a value between the initial condition value and the maximum value based on the number of games (the number of dominant games) in which the high-frequency influence data dominates the game event. Is done. The correspondence relationship between the number of dominant games and the upper limit value of the range data is defined in advance in the game program. When the game program is loaded, it is read from the ROM 18 of the external storage device 17 and stored in the RAM 13. ing.

[Outline of tactics reflection system in baseball game]
Next, the content of 1st Embodiment of the tactics reflection system in a baseball game is demonstrated. The flow shown in FIGS. 12 and 13 will also be described at the same time. FIG. 12 is a flow for explaining the overall outline of the baseball game, and FIG. 13 is a flow for explaining the present system. Processing executed in this system is mainly executed in the control device 10.

  First, when the game machine 1 is turned on and the game machine 1 is activated, a baseball game program is loaded from the recording medium 10 into the RAM 13 and stored. At this time, various basic game data necessary for executing the baseball game are simultaneously loaded from the recording medium 10 into the RAM 13 and stored (S1).

  For example, the basic game data includes data related to various images for a three-dimensional game space. Examples of data relating to various images for the three-dimensional game space include model data of various objects, such as model data for stadiums, model data for player characters, model data for spectators, and model data for balls. Etc. are included. Further, the basic game data includes position coordinate data for arranging model data for the three-dimensional game space in the three-dimensional game space. Further, the basic game data includes image data for displaying a model (object) arranged in the three-dimensional game space on the liquid crystal monitor unit 3. The image data is generated by photographing a model arranged in the three-dimensional game space with a virtual camera. Further, the basic game data includes various data used in the above system.

  Each model is managed by the CPU 11 using identification data set uniquely for each model. In other words, by making the CPU 11 recognize this identification data, a model (object) is specified, and image data for the model is read from the RAM 13.

  Subsequently, the baseball game program stored in the RAM 13 is executed by the CPU 11 based on the basic game data (S2). Then, the start screen of the baseball game is displayed on the liquid crystal monitor unit 3. Then, various setting screens for executing the baseball game are displayed on the liquid crystal monitor unit 3. Here, for example, a mode selection screen for selecting a play mode of the baseball game is displayed on the liquid crystal monitor unit 3 (not shown). In the mode selection screen, the player operates the input unit 4 to determine the play mode (S3). The play mode includes, for example, a battle mode in which a team is selected from 12 teams to enjoy a match of one game, and a manager mode in which a player enjoys a battle as a manager.

  Subsequently, in the play mode selected on the mode selection screen, various events are executed by the CPU 11 (S4). The various events executed here include, for example, events automatically controlled by the CPU 11 based on an automatic control program (AI program, Artificial Intelligence Program), and manual control by the player based on an input signal from the input unit 4. There are events to be done. In addition, the player character is controlled by automatic control for automatically instructing the player character based on an automatic control program, or by manual instruction for directly instructing the player character based on an input signal from the input unit 4. There is control etc. Thus, in this baseball game, an event is controlled or an instruction is instructed to a player character in accordance with an instruction from the input unit 4 or an instruction from an automatic control program.

  Note that the automatic control program shown here is a program for automatically controlling a command for an event and a command for a player character on behalf of a player. This automatic control program is prepared in advance in the game program.

  Subsequently, the CPU 11 determines whether or not the selected play mode has ended (S5). Specifically, the CPU 11 determines whether or not a command indicating that the play mode has ended is issued. When the CPU 11 determines that an instruction indicating that the play mode has ended is issued (Yes in S5), the CPU 11 executes a process of storing game continuation data in the RAM 13.

  When the game continuation data is stored in the RAM 13, a selection screen for selecting whether or not to end the baseball game is displayed on the liquid crystal monitor unit 3 (S6). When an item indicating the end of the baseball game is selected by operating the input unit 4 on the selection screen (Yes in S6), the CPU 11 executes a process for ending the baseball game. (S7). On the other hand, when an item indicating continuation of the baseball game is selected by operating the input unit 4 on the selection screen (No in S6), the mode selection screen in Step 3 (S3) is displayed on the liquid crystal monitor. Redisplayed in part 3.

  Note that, unless the CPU 11 determines that an instruction to end the play mode has been issued (No in S5), various events are executed by the CPU 11 in the play mode selected on the mode selection screen (S4).

  Below, the specific content of the tactics reflection system in a baseball game is demonstrated.

  Here, an example in which the present system functions in the supervisor mode is shown. In this example, a player directs a certain team in a managerial position, and a computer directs an opponent team. A command related to the opponent team, for example, a command related to the setting of the opponent team, a command to the player character of the opponent team, and the like are executed by the CPU 11 based on the automatic control program.

  First, when the manager mode is started (S11), a team setting screen for setting a team is displayed on the liquid crystal monitor unit 3, for example, the lower liquid crystal monitor 3b (not shown). Then, on the team setting screen, when the player operates the input unit 4, the own team (Team A) and the enemy team (Team B) that he / she commands are selected (S12). Then, the team identification data IDT stored in the RAM 13 is recognized by the CPU 11. Through this recognition process, the CPU 11 recognizes and manages the A team that the player conducts and the B team that battles the A team of the player.

  A predetermined value defined in advance in the game program is assigned to the team identification data IDT. For example, “1” is assigned to the identification data IDT for team A, and “2” is assigned to the identification data IDT for team B. Such team identification data IDT is stored in the RAM 13, and is read from the RAM 13 and assigned, for example, when a team is specified or when team information is specified.

  Subsequently, a member setting screen for setting a starting member is displayed on the liquid crystal monitor unit 3, for example, the lower liquid crystal monitor 3b (not shown). Then, on this member setting screen, the starting member is selected by the player operating the input unit 4 (S13). At this stage, the starting member of the opponent team is also selected. The starting member of the opponent team is automatically selected based on the automatic control program. Each of the plurality of player characters of each team has different identification data IDK (IDT).

  When a player character is selected based on an instruction from the player or an automatic control program, the player character identification data IDK (IDT) stored in the RAM 13 is recognized by the CPU 11. By this recognition processing, each player character is recognized and managed by the CPU 11. Note that a predetermined value defined in advance in the game program is assigned to the player identification data IDK (IDT). The player identification data IDK (IDT) is stored in the RAM 13, and is read from the RAM 13 when, for example, each player character is specified, or when each player character is specified.

  Subsequently, tactical command data C for managing each of the plurality of tactical commands is stored in the RAM 13 (S14). Here, as shown in FIG. 4, “Meeting”, “Strong”, “Safety Bunt”, “Stolen”, “End Run”, “Look at the Ball”, etc. are prepared as a plurality of tactical commands. ing. These tactical commands are used during attacks. In addition, there are several tactical commands such as “attack the inner corner”, “aim for the outer corner”, “warn the stealer (quick)”, “aim for the lower eye”, “aim for the cramped area”, “disengage one ball”, etc. Is available. These tactical orders are used when defending.

  Here, for each tactical instruction, the CPU 11 executes a process of assigning any one natural number from “1” to “12” to the tactical instruction data C corresponding to each tactical instruction. . Correspondence data indicating the correspondence between the tactical instruction data C and the tactical instruction shown in FIG. 4 is stored in the RAM 13. The CPU 11 recognizes the tactical command data C based on the correspondence data stored in the RAM 13 and manages each tactical command.

  Subsequently, operation category data M for managing operation categories for classifying each of the plurality of tactical instructions is stored in the RAM 13 (S15). Specifically, as shown in FIG. 5, three action categories are prepared, and each of the three action categories is classified into a first action category in which an aggressive tactical instruction is classified, and a defensive tactical instruction is classified. And a third action category into which other tactical instructions are classified. In the third action category, for example, a tactical command related to a running rod and a tactical command for a runner are classified.

  Here, the CPU 11 executes a process of assigning any one natural number from “1” to “3” to the operation category data M corresponding to each operation category. Correspondence data indicating the correspondence relationship between the operation category data M and the operation category shown in FIG. 5 is stored in the RAM 13. The CPU 11 recognizes the operation category data M based on the correspondence data stored in the RAM 13 and manages each operation category.

  Subsequently, management data for managing the operation category to which the tactical command belongs is stored in the RAM 13 (S16). The management data corresponds to the selection rate data SR. Here, management data, that is, selection rate data SR is prepared for each action category to which each tactical command belongs, and this selection rate data SR is assigned to each tactical command of each action category (see FIG. 6). reference).

  As shown in FIG. 6, a plurality of selection rate data SR is set for each of the plurality of tactical command data C. Each of the plurality of selection rate data C in each tactical command data C is set in association with each action category data M. For example, in the relationship between certain tactical instruction data C and three action category data M (see FIG. 6), items whose selectivity data SR is not a predetermined value, for example, 0 (zero) belong to the action category. It is an item indicating a matter. On the other hand, in the relationship between the tactical command data C and the three action category data M (see FIG. 6), an item in which the selectivity data SR is a predetermined value, for example, 0 (zero), belongs to the action category. This item indicates items that are not to be executed. Each tactical command may belong to one action category or may belong to a plurality of action categories.

  In FIG. 6, selection rate data SR is set for the action category to which the tactical command belongs. More specifically, the classification target of the tactical command is defined by whether or not the selectivity data SR is zero. For example, in the “meeting” instruction (C = 1) in FIG. 6, zero is set in the selectivity data SR for the third action category, and the selectivity data SR for the first action category and the second action category. Is set to a predetermined value. In this case, the “meeting” instruction belongs to the first action category and the second action category, and does not belong to the third action category. Other tactical commands can be interpreted in the same way. For example, the “one ball off” command belongs to the second action category and the third action category, and does not belong to the third action category.

  Note that the selectivity data SR is a simplified notation, and precisely, the selectivity data is represented as SR (M, C). Here, M is the action category data, and C is the tactical instruction data.

  Subsequently, a plurality of pieces of influence data E (i) indicating the degree of influence of each of the plurality of operation categories on the game event, and range data H (i, j) defining a range of the plurality of pieces of influence data E are stored in the RAM 13. Stored (S17).

  Here, i is an identification number for identifying the influence data. i is assigned any one natural number from 1 to 3. The CPU 11 recognizes this identification number i and manages each influence data E (i). E (1) indicates the first influence data, E (2) indicates the second influence data, and E (3) indicates the third influence data. Details of the first influence data E (1), the second influence data E (2), and the third influence data E (3) will be described later.

  j is an identification number for identifying range data. 1 or 2 is assigned to j. The CPU 11 recognizes this identification number j and manages each range data H (i, 1). H (i, 1) indicates the lower limit value of the range data, and H (i, 2) indicates the upper limit value of the range data. Details of the range data H (i, j) will be described later.

  Specifically, first influence data E (1) indicating the degree of influence of the first action category on the match event, and second influence data E (2) indicating the degree of influence of the second action category on the match event. The third influence data E (3) indicating the degree of influence of the third action category on the game event is stored in the RAM 13. Further, the first range data H (1, j), the second range data H (2, j), and the third range data H (3, j) for defining the lower limit value and the upper limit value of each influence data. Is stored in the RAM 13. Each of the first range data H (1, j), the second range data H (2, j), and the third range data H (3, j) includes an upper limit value and a lower limit value.

  In the initial condition, the first influence data E (1), the second influence data E (2), and the third influence data E (3) are set to a predetermined value, for example, 33 (%). Further, under the initial conditions, the lower limit value H (1, 1) of the first range data, the lower limit value H (2, 1) of the second range data, and the lower limit value H (3, 1) of the third range data are A predetermined value, for example, 33 (%) is set. That is, under the initial conditions, the first influence data E (1), the second influence data E (2), and the third influence data E (3) are set to the lower limit value of each range data H (i, 1). Is set. Further, the upper limit value H (1, 2) of the first range data, the upper limit value H (2, 2) of the second range data, and the upper limit value H (3, 2) of the third range data are predetermined values, for example, It is set to 80 (%).

  In the present embodiment, the values of the first influence data E (1), the second influence data E (2), and the third influence data E (3), the first range data, the second range data, and The lower limit value H (i, 1) and the upper limit value H (i, 2) of the third range data are set to values obtained by rounding down the decimal part. The value of each influence data E (i) as an initial condition is defined in advance in the game program, and is read from the ROM 18 of the external storage device 17 and stored in the RAM 13 when the game program is loaded. ing.

  Subsequently, when various settings are completed as described above, a command to start a game event is issued from the CPU 11 (S18). Then, as shown in FIG. 7, the tactics setting graph 100 that relatively represents the value of the influence data E (i) is displayed on the liquid crystal monitor unit 3, for example, the lower liquid crystal monitor 3b using the image data (S19). ). The tactics setting graph 100 represents the degree of influence that each action category has on a game event. In the tactic setting graph 100, the degree of influence of each action category can be set.

  The tactics setting graph 100 is set based on the range data H (i, j) and displayed on the lower liquid crystal monitor 3b. Specifically, in the triangular tactic setting graph 100, each of the vertices Q1, Q2, and Q3 is an upper limit value of each of the first action category, the second action category, and the third action category, that is, an upper limit value H of the range data. The point corresponds to (i, 2). Further, the center of gravity G of the triangular tactics setting graph 100 corresponds to the lower limit values of the first action category, the second action category, and the third action category, that is, the lower limit value H (i, 1) of the range data. It has become.

  The first line segment S1 connecting the first vertex Q1 corresponding to the first action category and the center of gravity G corresponds to a range in which the first influence data E (1) can be set. A second line segment S2 connecting the second vertex Q2 corresponding to the second action category and the center of gravity G corresponds to a range in which the second influence data E (2) can be set. A third line segment S3 connecting the third vertex Q3 corresponding to the third action category and the center of gravity G corresponds to a range in which the third influence data E (3) can be set. The tactics setting graph 100 in the initial state is set to an equilateral triangle. Such a tactic setting graph 100 is displayed on the lower liquid crystal monitor 3b.

  In the initial state, a pointer P (circle symbol) indicating the value of each influence data E (i) is set at the position of the center of gravity G. Hereinafter, the term “pointer” may be used to mean a pointer image.

  Subsequently, in a state where the tactics setting graph 100 is displayed on the lower liquid crystal monitor 3b, an instruction means such as a touch pen or a finger is brought into contact with the lower liquid crystal monitor 3b inside the pointer P, and this instruction means is placed on the lower liquid crystal monitor 3b. The position data of the pointer P is supplied from the lower liquid crystal monitor 3 b to the RAM 13. Then, a drawing command for drawing the pointer P after movement is issued from the CPU 11, and the pointer P after movement is displayed on the lower liquid crystal monitor 3b.

  Thus, the pointer P moves in conjunction with the movement of the instruction means. Then, each influence data E (i) is set according to the position indicated by the position data of the pointer P after the movement (S20). Thereby, the strategy of the director (player) is set.

  Specifically, the pointer P placed at the position of the center of gravity G of the tactics setting graph 100 moves on a line segment connecting any one of the three vertices Q1, Q2, and Q3 and the center of gravity G. Specifically, as shown in FIG. 8, when the pointer P is moved on the first line segment S1, the distance data r1 of the straight line connecting the center of gravity G and the pointer P, the pointer P, and the first vertex Q1. The first range data is lower than the lower limit value H (1,1) and lower than the upper limit value H (1,2) of the first range data. Influence data E (1) is set. Then, based on the first influence data E (1), the second influence data E (2) and the third influence data E (3) of other operation categories are set.

  More specifically, as described above, when the first influence data E (1) is set, the value of the first influence data E (1) is subtracted from 100 (%), and the subtraction result is ½. Multiply Then, by assigning the multiplication result to the second influence data E (2) and the third influence data E (3), influence data E (i) (second influence data E (2) and second influence data E (2) 3 influence data E (3)) is set.

  When the first influence data E (1), the second influence data E (2), and the third influence data E (3) are set in this way, each influence data E (i) is stored in the RAM 13. The Similarly, when the pointer P is moved on the second line segment S2 or when the pointer P is moved on the third line segment S3, the influence data E (i) of all the operation categories. Is set.

  In the present embodiment, since each influence data E (i) is set to a value obtained by rounding down the decimal part, the first influence data E (1), the second influence data E (2), and the third influence data E The value obtained by summing up (3) may not be 100 (%). In this case, a value obtained by adding the first influence data E (1), the second influence data E (2), and the third influence data E (3) is subtracted from a constant value, for example, 100 (%). The value is added to the influence data E (i) set by the pointer P. As a result, the total of the first influence data E (1), the second influence data E (2), and the third influence data E (3) is set to a constant value (100%).

  It should be noted that the process of calculating the ratio of the above two distance data, and each influence data E between the lower limit value H (i, 1) and the upper limit value H (i, 2) of each range data based on this ratio. The process of setting (i) is executed by the CPU 11. Also, the CPU 11 executes a process of adjusting the total value of the influence data E (i) to 100 (%).

  As described above, an instruction to start a game event is issued from the CPU 11, and the manager's tactics (first influence data E (1), second influence data E (2), and third influence data E (3)) are obtained. When set, the battle between team A and team B is executed by the CPU 11 based on the automatic control program (S21). Then, the progress status of the game event, for example, the number of innings and the running status of the runner character are monitored by the CPU 11. Then, based on the progress of the game event, the CPU 11 determines whether or not to allow the player character to give a tactical instruction (S22). Here, when the instruction of the tactical instruction to the player character is permitted (Yes in S22), as shown in FIG. 9, the battle screen in which the batter character and the pitcher character battle each other is displayed on the liquid crystal monitor unit 3 such as the upper liquid crystal monitor 3a. Is displayed (S23).

  Specifically, the determination as to whether or not to permit the instruction of the tactical instruction to the player character is executed as follows. First, the inning number NI stored in the RAM 13 is recognized by the CPU 11, and the CPU 11 determines whether the inning number NI is any one of 1 to 3 times. Then, when the number of innings NI is any one of 1 to 3, the CPU 11 determines whether or not the runner exists in the second and / or third base. When the runner is present on the second base and / or the third base, a battle screen in which the batter character and the pitcher character battle each other is displayed on the liquid crystal monitor unit 3, for example, the upper liquid crystal monitor 3a.

  Next, when the number of innings NI is not 1 to 3 times, the CPU 11 determines whether the number of innings NI is any one of 4 to 6 times. When the inning number NI is any one of 4 to 6, the CPU 11 determines whether or not the runner is present in at least one of the first to third bases. And when a runner exists in at least any one of the first base to the third base, a battle screen is displayed on the upper liquid crystal monitor 3a.

  Subsequently, when the number of innings NI is not any of 4 to 6, the number of innings NI is 7 or more. In this case, a battle screen between each batter character and the pitcher character is displayed on the upper liquid crystal monitor 3a.

  The above-described runner's output status is managed by the CPU 11 by output data S (k) indicating the output status. k is an identification number for identifying the bag. For example, S (1) indicates the first output situation, S (2) indicates the second output condition, and S (3) indicates the third output condition. For example, when runners are present at a glance, a flag is set in the output data S (1) (S (1) = 1). When there are two runners, a flag is set in the output data S (2) (S (2) = 1). Furthermore, when the runner exists in the third base, a flag is set in the output data S (3) (S (3) = 1). Based on the value of the output data S (k), the CPU 11 manages the output status.

  If the answer is No in step 22 (S22), a control command for controlling the player character is instructed to each player character based on the automatic control program. That is, in this case, each player character is automatically controlled.

  As described above, when the battle screen is displayed on the upper liquid crystal monitor 3a (see FIG. 9A), a predetermined number of tactical commands are randomly selected from a plurality of tactical commands (S24). . Specifically, first, the CPU 11 executes a process of generating a random number of three or more natural numbers using a random number generation program. Then, the CPU 11 retrieves the tactical command data C having the same numerical value as the last two digits of the random number. By repeating this process, a predetermined number of tactical command data C is extracted by the CPU 11 and stored in the RAM 13. Here, by repeating this process, five tactical command data C, that is, five tactical commands are extracted.

  If the last two digits of the random number do not match the value of the tactical command data C, the random number is repeatedly generated until a random number that matches the value of the tactical command data C is generated. The random number generation program is defined in advance in the game program, and is read from the ROM 18 of the external storage device 17 and stored in the RAM 13 when the game program is loaded.

  Subsequently, a tactical image for notifying the contents of the tactical command is displayed on the liquid crystal monitor unit 3 using the image data (S25). Specifically, as shown in FIG. 9B, a card-like tactical image 110 for informing the contents of each of five randomly extracted tactical instructions is displayed on the lower liquid crystal monitor 3b. In addition, an icon image 120 for displaying the tactics setting graph 100 is displayed on the lower liquid crystal monitor 3b using the image data.

  In this state, it is determined whether or not the icon image 120 for displaying the tactics setting graph 100 has been selected (S26). Specifically, the CPU 11 determines whether or not an instruction unit such as a touch pen or a finger has touched the lower liquid crystal monitor 3 b inside the icon image 120. Here, when an instruction means such as a touch pen or a finger touches the lower liquid crystal monitor 3b inside the icon image 120 (Yes in S26), the tactics setting graph 100 shown in FIG. 7 is displayed on the lower liquid crystal monitor 3b. The In this state, as described above, when the pointer P is set in the tactical setting graph 100, each influence data E (i) is set according to the position of the pointer P after the setting (S27). In this screen, in a state where the tactics setting graph 100 is displayed on the lower liquid crystal monitor 3b, an icon image for redisplaying the card-like tactical image 110 is displayed on the lower liquid crystal monitor 3b (illustrated). do not do).

  As described above, when the battle screen is displayed on the upper liquid crystal monitor 3 b, the influence data E (i) can be reset using the tactics setting graph 100. Note that whether or not to reset each influence data E (i) using the tactics setting graph 100 can be arbitrarily determined by the manager (player), so that each influence data E (i) is not necessarily reset. do not have to.

  Note that when a predetermined time, for example, 3.0 (sec) has elapsed in the state where the tactical image 110 is displayed by the instruction means such as a touch pen or a finger (No in S26), the processing in step 28 (S28) described later Is executed by the CPU 11.

  Subsequently, it is determined whether or not an icon image for redisplaying the tactical image 110 has been selected. Specifically, the CPU 11 determines whether or not an instruction unit such as a touch pen or a finger has touched the lower liquid crystal monitor 3b inside the icon image. Here, when an instruction means such as a touch pen or a finger touches the lower liquid crystal monitor 3b inside the icon image, the tactical image 110 is displayed again on the lower liquid crystal monitor 3b. That is, after resetting each influence data E (i) in the tactics setting graph 100, when the pointing means is brought into contact with the lower liquid crystal monitor 3b inside the icon image, five tactical images 110 are displayed on the lower liquid crystal monitor 3b. It will be displayed again.

  Subsequently, based on the degree of influence (weight) indicated by each of the plurality of influence data E (i), at least one tactic instruction among the plurality of tactic instructions is set as the target tactic instruction (S28). . Specifically, based on the first influence data E (1), the second influence data E (2), and the third influence data E (3), the first action category, the second action category, and the third action Any one of the operation categories is selected as the target operation category.

  Specifically, the CPU 11 executes a process of generating one random number (natural number) within a range from 1 to 100 using a random number generation program. When the random number is 1 or more and not more than the value of the first influence data E (1), the action category data M (= 1) corresponding to the first action category is recognized by the CPU 11 as the target action category data Mt. The

  Further, when the random number is larger than the value of the first influence data E (1) and is equal to or smaller than the sum of the first influence data E (1) and the second influence data E (2), the second action category is set. Corresponding action category data M (= 2) is recognized by the CPU 11 as target action category data Mt. Further, this random number is larger than the value of the second influence data E (2), and the total value of the first influence data E (1), the second influence data E (2), and the third influence data E (3). In the following case, the operation category data M (= 3) corresponding to the third operation category is recognized by the CPU 11 as the target operation category data Mt. Thus, the CPU 11 manages the target action category by recognizing the action category data M.

  Note that the random number generation program is defined in advance in the game program, and is read from the ROM 18 of the external storage device 17 and stored in the RAM 13 when the game program is loaded.

  Subsequently, one or more tactical commands included in the target action category are selected from the five tactical commands. Then, the selection rate data SR (Mt, C) for each of one or more tactical commands included in the target action category is recognized. Here, Mt is the target action category data described above. Based on the selection rate data SR (Mt, C), any one tactic command data C included in the target action category is one of the tactic command data C as the target tactic command data Ct. Is set.

  Specifically, the selection rate data SR (Mt, C) of each tactical command included in the target action category is the sum of the selection rate data SR (Mt, C) of all the tactical instructions included in the target operation category (= By dividing by ΣSR (Mt, C)), the ratio R (C) (= SR) of each selectivity data SR (Mt, C) with respect to all selectivity data ΣSR (Mt, C) included in the target action category (Mt, C) / ΣSR (Mt, C)) is determined. Then, the target tactical command is set based on the ratio R (C) of each selection rate data determined here, that is, the selection probability that is the result of the division.

  More specifically, when the number of tactical commands included in the target action category is one, the ratio R (C) of the above selection rate data is 100 (%), and therefore the tactical command corresponding to this tactical command. The data C is recognized by the CPU 11 and the target tactic command is determined. On the other hand, when there are a plurality of tactical commands included in the target action category, the tactical command is set as the target tactical command according to the ratio R (C) of the selection rate data of each tactical command.

  Here, when an example of setting when there are a plurality of tactical commands included in the target action category is shown, when a plurality of tactical commands included in the target action category are a “meeting” command and a “strong” command, The ratio R (1) of the selection rate data SR (Mt, 1) of the “meeting” instruction is 44 (%) (= 100 × 80 / (80 + 100)), and the selection rate data SR (2) of the “strong shake” instruction ) Ratio is 55 (%) (= 100 × 100 / (80 + 100)). In this case, since the sum of the two ratios R (1) and R (2) is not 100 (%), the ratio R (2) of the larger selectivity data SR (Mt, 2) is used here. That is, by changing the ratio R (2) of the selection ratio data SR (Mt, 2) of the “strong shake” command to 56 (%), the sum of the two ratios R (1) and R (2) is It is adjusted to be 100 (%).

  When the ratio R (C) of the selection rate data SR (Mt, C) for each tactical command is determined, one random number (natural number) within a range from 1 to 100 is generated using a random number generation program. Processing to be executed is executed by the CPU 11. If this random number is 1 or more and less than the ratio R (1) of the selection rate data SR (Mt, 1) of the “meeting” command, the tactical command data Ct (target tactical command data) corresponding to the “meeting” command Is recognized by the CPU 11 and a “meeting” command is set as the target tactical command. The random number is larger than the ratio R (1) of the selection rate data SR (Mt, 1) of the “meeting” instruction, and the ratio R ( 1) and the ratio R (2) of the selection rate data SR (Mt, 2) of the “strong shake” command are equal to or less than the total value, the tactical command data Ct (target tactical command data) corresponding to the “strong shake” command is , Is recognized by the CPU 11 and the “strong shake” command is set as the target tactic command.

  Here, an example in which a plurality of tactical commands included in the target action category are a “meeting” command and a “strong shake” command is shown, but even if the combination of a plurality of tactical commands is another combination The target tactical command can be set in the same manner as described above.

  As described above, when the target tactic command data Ct is recognized by the CPU 11 and the target tactic command (final instruction command) is set, the tactical image 110 corresponding to the target tactic command data is highlighted (S29). . In this way, the target tactic command instructed by the player character is notified to the player (director). Then, the target tactic command is instructed to the player character (S30). Specifically, when the team instructed by the manager is the attack side, the target tactic command is instructed to at least one of the batter character and the runner character. On the other hand, when the team instructing the tactic is the defensive side, the target tactic command is instructed to the pitcher character.

  In addition, although the example in which the target tactical command corresponding to one target tactical command data Ct is indicated to the player character is shown here, a plurality of target tactical commands are set and the plurality of target tactical commands are set. A tactical command may be given to the player character. In this case, by setting a plurality of target tactic command data Ct using the above selection probabilities, a plurality of target tactic commands can be simultaneously instructed to the player character.

  Here, the target tactic command corresponds to an interrupt command for a player character that is automatically controlled by an automatic control program. That is, in a plurality of control commands that are automatically issued to each player character based on the automatic control program, the control command corresponding to the target tactic command is replaced with the target tactic command. In this way, the target tactic command is prioritized over the control command by the automatic control program, and is executed for the target player character.

  Specifically, when the target tactic command is a “meeting” command or a “strong” command, this command is instructed to the batter character. Then, the meet cursor is enlarged or reduced to a predetermined size. When the target tactic command is a “safety bunt” command, this command is instructed to the batter character. Then, the data indicating the repulsive force between the bat and the ball is changed to the repulsive force data for the bunt.

  When the target tactic command is a “stolen” command, this command is instructed to the runner character. Then, when the pitcher character starts throwing, the runner character executes stealing. If the target tactic command is an “end run” command, this command is instructed to the batter character and the runner character. Then, the batter character swings, and the runner character starts toward the base next when the pitcher character starts pitching. Further, when the target tactic command is a “watch the ball” command, this command is instructed to the batter character. Then, the batter character misses the ball.

  Also, if the target tactical command is one of the “attack the inner corner” command, the “target outer corner” command, the “target lower” command, and the “target” command, this command is the pitcher character. Is directed against. Then, the pitcher character throws the ball on the course corresponding to the command. Further, when the target tactic command is a “warn for theft” command, this command is instructed to the pitcher character. Then, the pitcher character pitches with quick motion. Further, when the target tactic command is a “one ball off” command, this command is instructed to the pitcher character. Then, the pitcher character throws the ball on the course out of the strike zone.

  In addition, when the target tactics command is instruct | indicated with respect to each player character, the other control command required in order to control each player character is instruct | indicated with respect to each player character based on an automatic control program. . That is, when the target tactic command is instructed to each player character, each player character is controlled by the target tactic command and another control command (control command by the automatic control program) excluding the target tactic command. The

  Subsequently, the result instructed by the target tactic instruction to the player character is displayed on the battle screen displayed on the upper liquid crystal monitor 3a (not shown). For example, when the target tactic command is instructed to the batter character and / or the runner character, an image having the following contents is displayed on the upper liquid crystal monitor 3b. When the batter character hits the ball, the battle state, the flying ball state, and the flying ball result are displayed on the upper liquid crystal monitor 3b. When the runner character performs scouting, the battle state, scouting state, and scoring result are displayed on the upper liquid crystal monitor 3b. Further, when the batter character sees off the ball, the battle state and the result are counted.

  On the other hand, when the target tactic command is instructed to the pitcher character, an image having the following contents is displayed on the upper liquid crystal monitor 3b (not shown). When the pitcher character pitches based on the target tactical instruction regarding the pitching course, the battle state and the pitching result are displayed on the upper liquid crystal monitor 3b. In addition, when the pitcher character pitches based on the target tactical command related to motion, the battle state and the pitching result are displayed on the upper liquid crystal monitor 3b.

  In addition, when the battle | competition in a game event is controlled by CPU11 based on an automatic control program, the scoreboard image is displayed on the upper liquid crystal monitor 3b using image data. Each time one time is finished, the result of that time, that is, the score, is displayed on the scoreboard. If the condition of step 22 (S22) is satisfied, the scoreboard image is deleted and the battle screen is displayed on the upper liquid crystal monitor 3b.

  Subsequently, it is determined whether or not the match event has ended (S31). Then, when the game event is ended (Yes in S31), the CPU 11 executes a process of incrementing the frequency data Dh (i) associated with the influence data E (i) having the highest use frequency in this game event. (S32). This process is executed when each game event is finished. Then, the CPU 11 determines whether or not a predetermined number of game events have ended (S33). Here, when a predetermined number of game events are executed (Yes in S33), the range data corresponding to the high-frequency influence data Em (i) is changed based on the frequency data Dh (i) (S34), Based on this range data, the shape of the image data for the tactics setting graph is changed (S35). The changed image data is stored in the RAM 13. The image data changed here is used when the tactics setting graph 100 is displayed on the lower liquid crystal monitor 3b in the next game event.

  Note that, in the case of No in step 31, the process of step 22 (S22) is executed by the CPU 11. If the answer is No in Step 33, the CPU 11 executes a process in Step 36 (S36) described later.

  Here, the details of the processing from step 32 (S32) to step 35 (S35) will be described below. When the match event is ended (Yes in S31), the most used among the first influence data E (1), the second influence data E (2), and the third influence data E (3) in this match event The influence data E (im) having a high frequency is detected.

  For example, the inning number data NJ (i) indicating the number of times each influence data E (i) dominates in one game event is calculated by the CPU 11 and the influence data E (i) having the largest inning number data NJ (i). ) (Any one of the first influence data E (1), the second influence data E (2), and the third influence data E (3)) is the most frequently used influence data E (im) , Detected by the CPU 11.

  Specifically, the influence data E (i) that has influenced the most battles in one round is defined as the influence data E (i) that dominates that round, and the inning corresponding to this influence data E (i) The CPU 11 executes a process for incrementing the numerical data NJ (i). By executing this process at all times of one game event, inning number data NJ (i) indicating the number of times each influence data E (i) dominates in one game event is calculated. The influence data E (i) having the largest inning number data NJ (i) is detected by the CPU 11 as the influence data E (im) having the highest use frequency. Then, the CPU 11 executes a process of incrementing the frequency data Dh (im) associated with the detected influence data E (im) (S32).

  Here, im is a variable for defining influence data having the highest use frequency in one game event, and takes any one natural number from 1 to 3. Note that the initial value of the frequency data Dh (i) is zero (0). Hereinafter, the frequency data Dh (1) for the first influence data, the frequency data Dh (2) for the second influence data, and the frequency data Dh (3) for the third influence data are respectively referred to as the first frequency data, This is called second frequency data and third frequency data.

  Subsequently, it is determined whether or not a predetermined number of game events have been executed (S33). Specifically, the CPU 11 determines whether or not 10 game events have ended. When the game event for 10 games is completed, the maximum frequency data Dhm (i) is selected from the first frequency data Dh (1), the second frequency data Dh (2), and the third frequency data Dh (3). ) Is detected by the CPU 11. Then, the influence data Em (i) having the maximum frequency data Dhm (i) is detected by the CPU 11 as the high frequency influence data. The maximum frequency data Dhm (i) and the high frequency influence data Em (i) are stored in the RAM 13. Note that the maximum frequency data Dhm (i) corresponds to the number of dominant games in which the high-frequency influence data Em (i) dominates the game event.

  Subsequently, the range data H (i, j) is changed so that the upper limit value H (i, 2) of the range data corresponding to the high-frequency influence data Em (i) is increased (S34). Specifically, the CPU 11 executes a process of changing the upper limit value H (i, 2) of the range data to a value between the initial condition value and the maximum value based on the number of dominant games. . Here, as shown in FIG. 10, the upper limit value H (i, 2) of the range data corresponding to the high-frequency influence data Em (i) is, for example, between 80 (%) and 100 (%). Changed to a value. Specifically, the upper limit value H (i, 2) of the range data corresponding to the high-frequency influence data Em (i) is changed to a value between 85 (%) and 95 (%), for example. .

  The correspondence relationship between the number of dominant games Dhm (i) and the upper limit value H (i, 2) of the range data shown in FIG. 10 is defined in advance in the game program, and when the game program is loaded The data is read from the ROM 18 of the external storage device 17 and stored in the RAM 13.

  Then, according to the change of the upper limit value H (i, 2) of the range data, the length of the line segment connecting the vertices Q1, Q2, Q3 of the tactical setting graph 100 and the gravity center G is changed (S35). For example, when the upper limit value H (1,2) of the first range data is changed, the length of the first line segment S1 connecting the first vertex Q1 and the center of gravity G is increased in proportion to the change amount. Is done. When the upper limit value H (2, 2) of the second range data is changed, the length of the second line segment S2 connecting the second vertex Q2 and the center of gravity G is increased in proportion to the change amount. Is done. Further, when the upper limit value H (3, 2) of the third range data is changed, the length of the second line segment S2 connecting the third vertex Q3 and the center of gravity G is increased in proportion to the change amount. Is done.

  In this way, the shape of the image data for the tactical setting graph is changed, and the changed image data is stored in the RAM 13. Here, the image data stored in the RAM 13 is read from the RAM 13 and displayed on the lower liquid crystal monitor 3b in the case of Yes in step 19 (S19) and step 26 described above (Yes in S26). That is, for each predetermined number of game events (ex. 10 game events), the tactical characteristics of the manager (player) are reflected in the tactical setting graph. FIG. 11 shows a tactics setting graph that is set when the first influence data E (1) dominates the game event, that is, tactics settings that are set when the manager uses a lot of aggressive tactics. A graph is shown as an example.

  Subsequently, the CPU 11 determines whether or not an instruction for ending the supervision mode is instructed by an operation of the input unit 4 by the player (S36). When an instruction to end the supervisor mode is given by the player (Yes in S36), various data in the supervisor mode and data for continuation including data used in the system are stored in the RAM 13. Then (S37), the director mode ends. Here, the data stored in the RAM 13 may be stored in the external storage device 17, for example, the memory 19.

  Note that, in the case of No in step 36, the process of step 18 (S18) is executed by the CPU 11. Here, an example in which the process of step 18 (S18) is executed when No in step 36 is shown, but the process of step 11 (S11) may be executed when No in step 36. good.

  In the first embodiment as described above, the influence data of each of the first action category to which the aggressive tactical instruction belongs, the second action category to which the defensive tactical instruction belongs, and the third action category to which the tactical instruction related to the running skill belongs. Based on Em (i), any one of the tactical command data Ct of the aggressive tactical command data C, the defensive tactical command data C, and the tactical command data C related to the scissors is set as the target tactical command data Ct. Is set. And the target tactics command data Ct set here is instruct | indicated with respect to a player character. Thereby, the player can easily transmit his tactics to the player character only by setting the influence data E (i).

[Second Embodiment]
Next, the contents of the second embodiment will be described. The configuration and operation of the game device are the same as in the first embodiment.

  Regarding the outline of various processes in the game device, the second embodiment does not include the selection rate setting means 52 and the thinking command selection means 57. The other means of the second embodiment are the same as those of the first embodiment except for the instruction setting means 59 of the first embodiment, and thus detailed description of the same means is omitted. Note that the processing executed in this system is mainly executed in the control device 10.

  In the second embodiment, the command setting means 159 is different from the first embodiment. The command setting means 159 of the second embodiment uses at least one tactical command data C among the plurality of tactical commands as target tactical command data based on the degree of influence of each of the multiple affected data on the game event. It has a function to set as Ct.

  Specifically, in this means, one or a plurality of tactical command data C included in each of a plurality of action categories is selected at a ratio corresponding to each of a plurality of influence data. Then, at least one of the selected one or more tactical command data C is set as target tactical command data Ct.

  Here, when the target tactic command data Ct is set, at least one of the one or more selected tactic command data C selected based on an input signal from the input unit 4 or a calculation using a random number. Tactical command data C is set as target tactical command data Ct.

  About the outline | summary of the tactics reflection system in a baseball game, since the whole outline | summary of the baseball game of 2nd Embodiment is the same as 1st Embodiment, description is abbreviate | omitted. In the second embodiment, the processing from step 24 (S24) to step 28 (S28) of the first embodiment is different from that of the first embodiment. Therefore, only this part will be described in detail. A flow related to the processing described here is shown in FIG. Moreover, the same code | symbol is attached | subjected about the same content as 1st Embodiment.

  In the second embodiment, when the process of step 23 (S23) is executed by the CPU 11, the ratio of each influence data E (i) to the total influence data ΣE (i) (= E (i) / ΣE (i)). Accordingly, the CPU 11 executes processing for setting one or more category frames for each operation category (S114). Here, the total number of category frames of each operation category is set to a predetermined number, for example, five. The CPU 11 manages the number of category frames based on the frame data W (i). The upper limit value of the frame data W (i) is a predetermined number, for example, 5. Here, ΣE (i) is a symbol indicating “ΣE (i) = E (1) + E (2) + E (3)”.

  In this case, for example, the first influence data E (1), the second influence data E (2), and the third influence data E (3) are 60 (%), 20 (%), and 20 (%), respectively. To explain with an example, 3 (= 5 × 60/100) is assigned to the first frame data W (1) for the category frame for the first action category. Further, 1 (= 5 × 20/100) is assigned to the second frame data W (2) for the category frame for the second action category. Further, 1 (= 5-3-1) is assigned to the third frame data W (3) for the category frame for the third action category. Thus, the frame data W (i) is set in descending order of the influence data E (i).

  Here, depending on the distribution of each influence data E (i), the frame data W (i) may be a decimal number. In this case, the frame data W (i) is set by rounding off the decimal part. Here, the frame data W (i) corresponding to the smallest influence data E (i) is the frame data W (i) corresponding to the smallest influence data E (i) from the upper limit value of the frame data W (i). It is calculated by subtracting the sum of the other frame data W (i) excluding. Thereby, even if the frame data W (i) may become a decimal number, the total of the plurality of frame data W (i) can be set to a predetermined number, for example, five. Note that the frame data W (i) is a natural number not less than zero and not more than a predetermined number.

  When the frame data W (i) corresponding to each influence data E (i) is set as described above, a tactical command corresponding to the number of frames indicated by the frame data W (i) of each action category is sent to the CPU 11. Is selected at random (S115). For example, in the above example, since the first frame data W (1) is 3 (pieces), three tactical command data C included in the first action category are extracted at random. Similarly, one tactical command data C included in the second motion category and one tactical command data C included in the third motion category are extracted at random.

  Here, the tactical command data C is extracted at random using a random number generation program. In the first action category, three pieces of tactical command data C having the same value as the last two digits of the random number generated by the random number generation program are extracted. In the second action category, one piece of tactical command data C having the same value as the last two digits of the random number is extracted. Furthermore, in the third action category, one piece of tactical command data C having the same value as the last two digits of the random number is extracted. The random number generation program is defined in advance in the game program, and is read from the ROM 18 of the external storage device 17 and stored in the RAM 13 when the game program is loaded.

  Subsequently, when a predetermined number of tactical command data C, for example, five tactical command data C are set, any one of the five tactical command data C is randomly selected. The Then, the tactic command data C selected here is set as the target tactic command data Ct (S116). Here, in order to randomly select one tactical command data C from the five tactical command data C, the random number generation program described above is used. For example, tactical command data C having the same value as the last two digits of the random number generated by the random number generation program is set as the target tactical command data Ct.

  As described above, when the target tactic command data Ct is set, the CPU 11 executes the process of step 29 (S29) of the first embodiment.

  In the second embodiment as described above, the same effect as that of the first embodiment can be obtained. In the second embodiment, an example in which any one tactical command data C among a predetermined number of tactical command data C (ex. 5 tactical command data C) is selected at random. As shown, any one of the predetermined number of tactical command data C may be selected based on an input signal from the input unit 4. In this case, final tactical instruction data Ct is selected by the player operating a predetermined button of the input unit 4.

[Other Embodiments]
(A) In the above embodiment, an example of using a portable game machine as an example of a computer to which a game program can be applied has been shown. However, the computer is not limited to the above embodiment, and the monitor is configured separately. The present invention can be similarly applied to a game device, a game device in which a monitor is integrated, a personal computer or a workstation that functions as a game device by executing a game program.
(B) In the above embodiment, an example in which a contact input type monitor is used as the input means has been described. However, the input means is not limited to the above embodiment, and any method may be used. For example, instead of input from a contact input type monitor, input from an input unit such as a button may be performed.
(C) In the above embodiment, an example in which each influence data E (i) is set by moving the pointer P on the line connecting the vertices Q1, Q2, Q3 and the center of gravity G of the tactics setting graph 100. However, the setting form of each influence data E (i) is not limited to the above-described embodiment, and any setting may be used. For example, as shown in FIG. 15, each influence data E (i) may be set by designating an arbitrary point inside the tactics setting graph 200 with a pointer P. In this case, the ratio of the areas SP1, SP2 and SP3 of the three polygons surrounded by each side constituting the tactics setting graph 200 and a line connecting the midpoint of each side constituting the tactics setting graph 200 and the pointer P. Each influence data E (i) is set according to.
(D) The present invention includes a program for executing the game 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.

  The present invention can be used in a game program, a game device, and a game control method capable of executing a game.

1 game machine 3 LCD monitor 3
3a Upper LCD Monitor 3b Lower LCD Monitor 4 Input Unit 10 Control Device 11 CPU
13 RAM
DESCRIPTION OF SYMBOLS 14 Image processing circuit 50 Command data storage means 51 Category data storage means 52 Selection rate setting means 53 Influence data storage means 54 Range data storage means 55 Influence data display means 56 Influence data setting means 57 Thought instruction selection means 58 Instruction content notification means 59 Command setting means 60 Instruction reflection means 61 High-frequency data detection means 62 Range data change means 100,200 Tactical setting graph (relative data image)
C Tactical command data (command data)
Ct Target tactical command data (target command data)
E (i) Influence data Em (i) Frequent influence data G Center of gravity of tactical setting graph H (i, j) Range data M Action category data P pointer Q1, Q2, Q3 Vertex R (C) of tactical setting graph Ratio of rate data (selection probability)
SR selectivity data

Claims (12)

In the control part of the computer that can realize a game in which the player becomes a virtual team leader and plays against the enemy team,
A command data storage function for storing, in a storage unit, a plurality of command data related to the motion of the character, configurable over a plurality of motion categories for classifying the motion characteristics of the character of the game;
According to the influence data corresponding to the weight of each of the plurality of action categories set simultaneously based on one input signal when the player inputs to the input unit, any one of the plurality of command data Command setting function to set command data as target command data,
A command reflecting function for reflecting the content of the final command to the event of the game by instructing the character with a final command corresponding to the target command data;
A game program to make it happen. In the control part of the computer,
An influence data display function for displaying a relative data image for relatively expressing the value of the influence data on an image display unit using image data;
An influence data setting function for setting all the influence data by setting any one of the plurality of influence data on the relative data image based on an input signal when the player inputs to the input unit. When,
The game program according to claim 1 for further realizing the above. In the control part of the computer,
A range data storage function for storing, in a storage unit, range data that defines a range of each of the plurality of influence data;
A high-frequency data detection function for detecting the influence data that is frequently used in the plurality of events;
A range data change function for changing the range data so that an upper limit of the detected influence data is increased;
Realized,
The influence data display function changes the shape of the relative data image based on the changed range data, and displays the changed relative data image on the image display unit using image data.
The game program according to claim 2. The influence data setting function sets all the influence data so that a total of a plurality of the influence data is constant.
The game program according to claim 2 or 3. In the computer,
A command content notification function for displaying a command content image for reporting the content of the command corresponding to the command data on the image display unit using the image data;
Further realized,
The command content notification function further highlights and displays the command content image corresponding to the target command data when the target command data is set.
The game program according to claim 1. In the computer,
An instruction selection function for randomly selecting a predetermined number of instruction data from a plurality of the instruction data;
Further realized,
The command setting function selects any one of the plurality of operation categories as a target operation category based on each of a plurality of the influence data, and among a predetermined number of the instruction data, Setting the instruction data including the target operation category in the configuration as the target instruction data;
The game program according to any one of claims 1 to 5. In the computer,
A selection rate setting function for setting the weight of each of the plurality of operation categories in each of the plurality of command data as selection rate data;
Further realized,
The command setting function recognizes the command data including the target operation category in the configuration and the selection rate data of the command data including the target operation category in the configuration, and based on the selection rate data, Setting any one instruction data among the instruction data including the target operation category in the configuration as the target instruction data;
The game program according to claim 6. The command setting function calculates a selection probability of final command data based on the selection rate data of each of the command data including the target operation category in the configuration, and based on the selection probability, the target command data Set
The game program according to claim 7. The command setting function selects one or a plurality of the command data including a plurality of the operation categories in the configuration at a ratio corresponding to each of a plurality of the influence data, and the selected one or a plurality of the commands Any one of the instruction data in the data is set as the target instruction data;
The game program according to any one of claims 1 to 5. The instruction setting function uses any one of the one or more selected instruction data as the target instruction data based on a calculation using an input signal from an input unit or a random number. , Set,
The game program according to claim 9. A game device capable of executing a game in which a player becomes a virtual team leader and plays against an enemy team,
A control unit of the game device,
Command data storage means for storing, in a storage unit, a plurality of command data relating to the motion of the character, configurable across a plurality of motion categories for classifying the motion characteristics of the game character;
According to the influence data corresponding to the weight of each of the plurality of action categories set simultaneously based on one input signal when the player inputs to the input unit, any one of the plurality of command data Command setting means for setting command data as target command data;
Command reflecting means for reflecting the content of the final command to the event of the game by instructing the character with a final command corresponding to the target command data;
A game device comprising: A game control method controlled by a computer capable of executing a game in which a player becomes a virtual team leader and plays against an enemy team,
A control unit of the computer,
A command data storage step of storing a plurality of command data related to the motion of the character in a storage unit, configurable across a plurality of motion categories for classifying the motion characteristics of the game character;
According to the influence data corresponding to the weight of each of the plurality of action categories set simultaneously based on one input signal when the player inputs to the input unit, any one of the plurality of command data Command setting step for setting command data as target command data;
A command reflecting step of reflecting the content of the final command to the event of the game by instructing the character with a final command corresponding to the target command data;
A game control method comprising:

Images