JP7783220B2 - gaming machines - Google Patents

Description

The present invention relates to an amusement machine.

A well-known gaming machine is a pachinko gaming machine, which includes a gaming area through which gaming balls (gaming value) move and a launcher that launches gaming balls into the gaming area. Pachinko gaming machines have a starting port provided in the gaming area, and when a gaming ball is detected entering the starting port, a special symbol lottery is held. If the result of the special symbol lottery is a jackpot, the gaming state transitions to a special gaming state, and multiple special games are played in the special gaming state. During each special game, a large prize opening provided in the gaming area opens, and gaming balls are paid out based on the entry of the gaming ball into the large prize opening.

Furthermore, some gaming machines of this type are designed to transition to a big win gaming state upon the end of a small win gaming state when the passage of a gaming ball through a V-area is detected during the small win gaming state (see, for example, Patent Document 1).

JP 2023-43790 A

By the way, gaming machines are required to minimize the sense of loss that players feel.

The present invention was made in consideration of the above circumstances, and aims to provide a gaming machine that reduces the sense of loss felt by players.

In order to achieve the above object, the gaming machine of the present invention comprises:
A lottery means (special symbol lottery means 230) for performing a lottery at a predetermined opportunity;
a game value providing means (frame control board 201) for controlling the provision of game value;
a special game execution means (special game execution means 260) that can execute a special game advantageous to a player until a termination condition is met when a predetermined result is obtained in the lottery;
and a game limiting means (game limiting means 410) capable of executing a game limiting process to limit the progress of at least a part of the game when the stored value of a specific storage area (MY counter 221) that is updated based on the granting of game value reaches a specific value,
The special game execution means
As the special game, a first special game based on a specific result being obtained in the lottery, and a second special game based on a specific condition being established in the first special game can be executed;
The second special game can be executed consecutively to the first special game after the completion of the termination condition of the first special game,
The game limiting means
When the storage value of the specific storage area reaches the specific value while the second special game is being played, the game limiting process is executed upon the completion of the second special game being played;
When the memory value of the specific memory area reaches the specific value and the specific condition is met while the first special game is being played, the game limiting process is not executed upon the completion of the first special game, but is executed upon the completion of the second special game that is subsequently played.

If, while the first special game is being played, the memory value in the specific memory area reaches the specific value and the specific condition is met, and the game limiting process is executed upon the completion of the first special game, the player will not be able to obtain the profit that would have been obtained in the subsequent second special game, which can cause the player to feel a great sense of loss. In this invention, while the first special game is being played, if the memory value in the specific memory area reaches the specific value and the specific condition is met, the game limiting process is not executed upon the completion of the first special game, but is executed upon the completion of the subsequently played second special game. This allows the player to obtain the profit from the second special game, thereby reducing the player's sense of loss.

This invention can reduce the sense of loss felt by players.

1 is a perspective view showing an example of an amusement machine according to an embodiment of the present invention, illustrating its external configuration. FIG. 2 is a front view showing the external configuration of the gaming machine. FIG. 2 is a front view showing the external configuration of the game board. FIG. 2 is a front view showing the external configuration of the status display unit according to the first embodiment. FIG. 2 is a block diagram showing the general configuration of the gaming machine. FIG. 10 is a diagram showing the jackpot lottery table. FIG. 10 is a diagram showing a symbol lottery table. FIG. 10 is a state transition diagram of the game state. This is a diagram explaining the display of the performance patterns and reserved patterns. 10 is an address map of the memory area used by the main CPU. FIG. 10 is a diagram illustrating the gaming machine status flag. 10 is a flowchart showing an example of a power-on process. 10 is a flowchart showing an example of a timer interrupt process. 10 is a diagram illustrating the complete function operation management phase. FIG. 10 is a flowchart showing an example of a process for checking a counter for MY determination according to the first embodiment; 10 is a diagram showing a counter determination table for MY determination according to the first embodiment; FIG. 10 is a flowchart showing an example of a complete management phase setting process. FIG. 10 is a diagram illustrating the special game management phase. 10 is a flowchart showing an example of a complete command set process. 10 is a flowchart showing an example of a gaming machine status flag setting process. FIG. 10 is a diagram illustrating the complete function activation warning display. This is a diagram explaining the complete function activation presentation. This is a diagram explaining the complete function activation preview performance.

Embodiments of the present invention will be described below with reference to the drawings. In the following description, "front and back" basically means, when a player is in front of the gaming machine, the player side is "front" and the gaming machine side is "rear," "up and down" means the top side of the gaming machine is "up" and the bottom side is "down," and "left and right" means the left-hand side of the player playing on the gaming machine is "left" and the right-hand side is "right."

Unlike conventional pachinko gaming machines, the gaming machine 1 of this embodiment allows players to play without touching the gaming balls. The gaming machine 1 is of an enclosed circulation type, in which a fixed number of gaming balls (gaming media) circulates inside the gaming machine. Furthermore, the gaming machine 1 is a gaming machine that uses gaming value as electronic information, and the gaming value is consumed and paid out through play. In gaming machine 1, the payment of gaming value means electronically paying out (granting) the gaming value. The invention according to this embodiment is not limited to the gaming machine 1, but can also be applied to conventional pachinko gaming machines, i.e., pachinko gaming machines that allow players to physically touch gaming balls and in which gaming balls are paid out to a tray when they enter a predetermined winning slot.

Figure 1 is a perspective view showing the exterior configuration of a gaming machine according to this embodiment. This gaming machine comprises an outer frame 2 that forms the exterior surface of the gaming machine, a gaming board 6 that is provided inside the gaming machine and forms a gaming area 4 in which gaming balls move, an inner frame 7 that holds the gaming board 6, a glass unit 8 that makes the gaming board 6 visible but inaccessible to players, and a front frame 10 to which the glass unit 8 is attached. The inner frame 7 is attached to the outer frame 2 via a hinge mechanism so that it can be opened and closed. The front frame 10 is also attached to the inner frame 7 via a hinge mechanism so that it can be opened and closed. The inner frame 7 (and front frame 10) can be opened and closed between a closed position (closed state) that blocks the opening of the outer frame 2 and an open position (open state) that opens the opening of the outer frame 2.

The portion of the front frame 10 surrounding the glass unit 8 is made of a translucent material that transmits light, and inside this portion made of translucent material are multiple front frame lamps 12 that output special lights to add excitement to the game. In addition, speakers 14 (sound output means) are provided on the left and right sides of the lower part of the front frame 10 to output special sounds to add excitement to the game.

A grip unit 20 (handle) is provided on the lower right side of the front frame 10. When a player rotates the grip unit 20 clockwise toward the gaming machine, a launcher (not shown) installed inside the gaming machine is activated, launching gaming balls into the gaming area 4. The launcher in this embodiment is capable of launching 99 gaming balls per minute (1.65 balls per second).

The front frame 10 is provided with a performance button 26 (performance operation means), and when the player operates the performance button 26, the performance performed by the gaming machine changes.

As shown in FIG. 2, a dedicated unit 400 (game value lending device, specified device) is provided on the side (left side) of the gaming machine 1 as a device for lending game value, and is connected to the gaming machine 1. The front of the dedicated unit 400 is provided with a bill insertion slot 406 into which bills can be inserted, a card insertion/ejection slot 402 into which a card (game value management medium) can be inserted/ejected, a lending button (lending operation means) 403, a replay button (lending operation means) 404, and a card return button 405. The card is used to manage the number of game values owned by the player. In other words, the card makes it possible to keep track of the number of game values owned by the player. The card may also be capable of storing a prepaid balance. Management of the number of play values by card may be performed by storing the number of play values on the card itself, or by storing the number of play values in a predetermined management device installed in an amusement facility or the like, and linking the number of play values stored in the management device with identification information stored on the card (such as the player's ID or each card's unique identification number).

In the dedicated unit 400, an operation (pressing operation) on the loan button 403 is accepted as a loan operation (game value transfer operation) for transferring game value to the gaming machine 1. When the loan button 403 is pressed, a predetermined number (e.g., 125) of game value is credited to the gaming machine 1 by consuming a stored value stored as a prepaid balance on a bill inserted into the bill insertion slot 406 or a card. In addition, in the dedicated unit 400, an operation (pressing operation) on the replay button 404 is accepted as a loan operation (game value transfer operation) for transferring game value to the gaming machine 1. When the replay button 404 is pressed, a predetermined number (e.g., 125) of game value is credited to the gaming machine 1 by consuming a game value owned by the player and managed by the card (game value linked to the card). That is, in this embodiment, an operation on the lending button 403 or replay button 404, which serve as lending operation means, is accepted as a lending operation (game value transfer operation), and based on the lending operation, a predetermined amount of game value is transferred (lent) from the dedicated unit 400 to the gaming machine 1.

As shown in FIG. 1, a game value number display device (game ball number display device) 211 and a count button (count operation means) 212 are provided on the left side of the front frame 10 (the dedicated unit 400 side). Based on the lending operation on the dedicated unit 400, in the gaming machine 1, a value equivalent to a predetermined number of game values is stored in the game value number memory area of the frame control board 201 described below. Hereinafter, the value (stored value) indicated by the game value number memory area will be referred to as the "number of balls in possession" (number of balls in possession). The number of balls in possession can be said to be the number of game values available for play. The number of balls in possession is displayed on the game value number display device 211. The game value number display device 211 has a 6-digit 7-segment display, and the number of balls in possession is displayed by the 7-segment display.

The gaming machine 1 is equipped with a frame control board 201 (see Figure 5), which controls the value (number of held balls) stored in the game value number memory area. The frame control board 201 decreases the number of held balls when a game ball is detected. The frame control board 201 also increases the number of held balls when prize balls are paid out. The frame control board 201 also increases the number of held balls when a foul ball is detected. When game value is transferred from the dedicated unit 400 to the gaming machine 1, the frame control board 201 increases the number of held balls by the amount of game value being transferred. When game value is transferred from the gaming machine 1 to the dedicated unit 400, the frame control board 201 decreases the number of held balls by the amount of game value being transferred. The frame control board 201 also controls the display of the number of held balls on the game value number display device 211, and changes the display content of the game value number display device 211 according to the increase or decrease in the number of held balls.

The counting button 212 is operated when sending (returning, transferring) all or part of the number of balls held (the game value stored in the game value number memory area) to the dedicated unit 400. The counting button 212 has a pressing portion (operation portion) that is designed to be pressed. When the player wants to end play, for example, the player operates (presses) the counting button 212 as a counting operation (return operation). When the counting button 212 is operated, a predetermined number of game values are transferred from the gaming machine 1 to the dedicated unit 400. After the game value has been transferred to the dedicated unit 400, when the card return button 405 of the dedicated unit 400 is operated (pressed), a card that allows the number of game values owned by the player to be determined is ejected from the dedicated unit 400 (card insertion/ejection port 402).

Figure 3 is a front view showing the external configuration of the gaming board 6. The gaming board 6 is provided with a circular outer rail 28, and the area surrounded by the outer rail 28 is the gaming area 4 where the gaming balls move. Furthermore, an arc-shaped inner rail 30 is provided at the left end of the gaming area 4, running along the outer rail 28. The outer rail 28 and inner rail 30 guide gaming balls launched from a launcher (not shown) located below the gaming board 6 into the gaming area 4.

In the center of the game board 6, there is a liquid crystal display 32 (effect display device, display means) that displays effect images and other images to enhance the game, and a performance unit 36 that includes a display frame 34 formed to surround the liquid crystal display 32. Above the center of the liquid crystal display 32, there is a lighting device 38 (lighting means) that constitutes the performance unit 36 and outputs effect lights and other images to enhance the game.

In this embodiment, game balls cannot pass in front of the LCD display 32, and game balls launched from the launching device fall through the game area 4a on the left side of the LCD display 32 or the game area 4b on the right side. Furthermore, numerous game pegs (not shown) are nailed into the game area 4 so as to intersect with the surface of the game board 6, allowing the direction of movement of game balls moving through the game area 4 to change randomly.

In addition, an opening 40 is formed on the left side of the display frame 34, through which game balls falling through the game area 4a on the left side of the LCD display 32 can pass. Game balls that pass through this opening 40 pass through a passage 42 provided in the display frame 34 and fall onto a stage 44 provided below the LCD display 32. The top surface of this stage 44 is smoothly curved, and a gap is formed between the stage 44 and the glass unit 8, allowing game balls to fall downward from the stage 44. Game balls that fall from the passage 42 onto the stage 44 move back and forth across the stage 44 before falling downward from near the center of the stage 44.

A first start opening 46 (first area) is provided below the center of the stage 44, through which game balls (including game balls that have fallen downward from near the center of the stage 44) can enter. A first start opening switch 100 (see Figure 5) is disposed within the first start opening 46, detecting game balls that have entered the first start opening 46. When the first start opening switch 100 detects a game ball (entering the first start opening 46), it outputs a detection signal to the main control board 200. Based on the detection signal input from the first start opening switch 100, the main control board 200 executes a first special symbol lottery (first lottery) as a special symbol lottery. Based on the detection signal input from the first start opening switch 100, the main control board 200 executes the payout of a prize ball (e.g., one ball). Game balls that have entered the first start opening 46 are collected inside the gaming machine.

To the left of the first starting opening 46 in the game area 4, multiple (three) general winning openings 47 (upper left general winning opening 47a, middle left general winning opening 47b, and lower left general winning opening 47c) are provided. The game board 6 is also provided with a general winning opening switch 101 (see Figure 5) that detects game balls that enter the upper left general winning opening 47a, middle left general winning opening 47b, or lower left general winning opening 47c. When the general winning opening switch 101 detects a game ball (entering the upper left general winning opening 47a, middle left general winning opening 47b, or lower left general winning opening 47c), it outputs a detection signal to the main control board 200. The main control board 200 then pays out prize balls (e.g., three balls) based on the detection signal input from the general winning opening switch 101. One general prize opening switch 101 may be provided for each of the upper left general prize opening 47a, the middle left general prize opening 47b, and the lower left general prize opening 47c, or one may be provided for multiple (e.g., three) general prize openings 47. Furthermore, in addition to the upper left general prize opening 47a, the middle left general prize opening 47b, and the lower left general prize opening 47c, general prize opening switches corresponding to these general prize openings may also be provided.

In the gaming area 4b to the right of the LCD display 32, there is a pass gate 48 through which gaming balls pass without being collected inside the gaming machine. A gate switch 102 (see Figure 5) that detects the passage of a gaming ball is also provided within the pass gate 48. When the gate switch 102 detects a gaming ball (passing through the pass gate 48), it outputs a detection signal to the main control board 200. Based on the detection signal input from the gate switch 102, the main control board 200 executes a normal symbol lottery to determine whether a normal win has been won.

In the game area 4b to the right of the LCD display 32, a second start opening 49 (second area) is provided below the passing gate 48. A second start opening switch 103 (see Figure 5) is provided within the second start opening 49 to detect game balls that have entered the second start opening 49. When the second start opening switch 103 detects a game ball (entering the second start opening 49), it outputs a detection signal to the main control board 200. Based on the detection signal input from the second start opening switch 103, the main control board 200 executes a second special symbol lottery (second lottery) as a special symbol lottery. Based on the detection signal input from the second start opening switch 103, the main control board 200 also executes the payout of a prize ball (e.g., one ball). Game balls that have entered the second start opening 49 are collected inside the gaming machine.

The second starting opening 49 is provided with a normal role device 54 (first movable object) that can move between a reduced state (closed state) that makes it difficult for game balls to enter the second starting opening 49 (a state in which game balls have difficulty entering the second starting opening 49), and an expanded state (open state) that makes it easy for game balls to enter (a state in which game balls can easily enter the second starting opening 49). The normal role device 54 has a built-in drive device such as a solenoid, and is controlled to expand under specified conditions when a normal win is won in the normal symbol lottery.

In addition, a large prize opening 50 (third area, predetermined area) is provided in the game area 4b to the right of the LCD display 32. A count switch 104 (see Figure 5) is disposed within the large prize opening 50 to detect game balls that enter the large prize opening 50. When the count switch 104 detects a game ball (entry of a game ball into the large prize opening 50), it outputs a detection signal to the main control board 200. The main control board 200 then pays out prize balls (e.g., 15 balls) based on the detection signal input from the count switch 104. The main control board 200 also counts the number of game balls that have entered the large prize opening 50 based on the detection signal input from the count switch 104. Game balls that enter the large prize opening 50 are then collected inside the gaming machine.

The large prize opening 50 is provided with a special device 56 (second movable object, specific movable object) that can move between a closed state (non-entry state) in which game balls cannot enter the large prize opening 50, and an open state (entry state) in which game balls can enter. The special device 56 has a built-in drive device such as a solenoid, and is controlled to open under specified conditions in the special game state that begins when a large prize is won in the special pattern lottery (first special pattern lottery or second special pattern lottery). The special device 56 is also controlled to open under specified conditions in the small prize game state that begins when a small prize is won in the special pattern lottery (second special pattern lottery).

The large prize opening 50 is provided with a specific area (not shown), a discharge area (not shown), and a distribution means (not shown) that distributes game balls that enter the large prize opening 50 to either the specific area or the discharge area. A specific area switch 107 (see Figure 5) is disposed in the specific area. The specific area switch 107 outputs a detection signal to the main control board 200 based on the detection of a game ball passing through the specific area (a game ball passing through the specific area). The distribution means can be switched between a specific area passing state, in which game balls that enter the large prize opening 50 are distributed to the specific area, and a non-specific area passing state, in which game balls that enter the large prize opening 50 are distributed to the discharge area. In other words, when the distribution means is switched to the specific area passing state, game balls that enter the large prize opening 50 are distributed to the specific area. This prevents game balls that enter the large prize opening 50 from passing through the discharge area. On the other hand, when the distribution means is displaced to the non-specific area passing state, gaming balls that enter the large prize opening 50 are distributed to the discharge area. This prevents gaming balls that enter the large prize opening 50 from passing through the specific area. The distribution means is displaced by the specific area solenoid. A gaming ball that enters the large prize opening 50 is first detected by the count switch 104, and then distributed by the distribution means to either the specific area or the discharge area. After passing through that area, the gaming ball is discharged to the discharge path. At this time, gaming balls distributed to the specific area are detected by the specific area switch 107.

At the bottom of the play area 4, an outlet 62 is provided, which collects game balls that fall through the play area 4 without entering any of the winning openings 46, 47, 49, or 50 and are then guided into the game machine. Inside the game machine, a discharge path (not shown) is provided through which game balls collected (discharged) from the play area 4 pass. This game machine is configured so that all game balls launched into the play area 4 (all game balls collected from the play area 4) pass through the discharge path. That is, game balls launched into the play area 4 are collected from the play area 4 and flow into the discharge path by entering one of the winning openings 46, 47, 49, or 50 or passing through the outlet 62. Specifically, game balls that enter each winning opening 46, 47, 49, or 50 are detected by switches 100, 101, 103, and 104 disposed within the winning opening and then guided to the discharge path. Furthermore, game balls collected from the outlet 62 are guided to the discharge path. An out switch 106 (see Figure 5) is disposed in the discharge path. When the out switch 106 detects a game ball passing through the discharge path (a game ball being discharged from the game area 4), it outputs a detection signal to the main control board 200. Furthermore, the main control board 200 counts the number of game balls discharged from the game area 4 based on the detection signal input from the out switch 106.

The game ball launching device is configured so that the launch output of the game balls can be changed by adjusting the amount of rotation of the grip unit 20 (handle) shown in Figure 1; when the amount of rotation of the grip unit 20 is small, the game balls are launched so that they fall in the game area 4a (first game area 4a, left-hitting area) on the left side of the LCD display 32; when the amount of rotation of the grip unit 20 is large, the game balls are launched so that they fall in the game area 4b (second game area 4b, right-hitting area) on the right side of the LCD display 32.

The player adjusts the amount of rotation of the grip unit 20 depending on the game situation, and launches the game ball so that it falls through the left-side game area 4a or passes through the opening 40, passage 42, and stage 44 to win in the first starting hole 46 (left-hand hit), or so that it falls through the right-side game area 4b and passes through the passing gate 48 or wins in the second starting hole 49 or wins in the big winning hole 50 (right-hand hit). In this embodiment, left-hand hits are sometimes referred to as the first game method, and right-hand hits are sometimes referred to as the second game method.

In the gaming machine of this embodiment, when a gaming ball falls through the left-hand gaming area 4a, it does not pass through the passing gate 48 and does not enter (win) the second starting opening 49 or the large winning opening 50. Furthermore, when a gaming ball falls through the right-hand gaming area 4b, it does not enter the first starting opening 46 or the general winning opening 47.

As shown in Figure 3, a status display unit 70 is provided at the bottom right of the gaming board 6, outside the playing area 4, which indicates various states of the gaming machine by turning on and off lamps, etc.

Figure 4 is a front view showing the external configuration of the status display unit 70. The status display unit 70 is provided with a normal symbol display unit 72, a normal hold display unit 74, a first special symbol display unit 76, a first special hold display unit 78, a second special symbol display unit 81, a second special hold display unit 82, and a game status display unit 84.

The normal symbol display unit 72 is composed of two lamps, and when a normal symbol lottery is held, the two lamps are flashed to display a variable normal symbol, and the normal symbol is displayed stationary by turning the two lamps on or off, thereby displaying the result of the normal symbol lottery.

The normal hold display unit 74 is made up of two lamps, and displays the normal hold number corresponding to the number of reserved random numbers for the normal symbol lottery when the random numbers for the normal symbol lottery are reserved because a normal symbol lottery cannot be held even if the random numbers for the normal symbol lottery are obtained, such as when the normal symbol is already in a changing or stopped display when the gaming ball passes through the passing gate 48. By combining the lighting, extinguishing, or flashing of the two lamps, a normal hold number of 0 to 4 is displayed.

The first special symbol display unit 76 is composed of a 7-segment display, and when a first special symbol lottery is held when a gaming ball enters the first starting hole 46, the 7-segment display flashes to display the first special symbol in a variable manner, and the 7-segment display lights up in one of several different modes to display the first special symbol in a static manner, thereby displaying the result of the first special symbol lottery.

The first special reserve display unit 78 is composed of two lamps, and displays the first special reserve number corresponding to the number of reserved first special random number values when, for example, the first or second special pattern is already being displayed in a variable or stationary state when the gaming ball enters the first starting hole 46, and the special pattern lottery random number value (lottery information) cannot be performed even after the special pattern lottery random number value has been obtained, and the special pattern lottery random number value is reserved as the first special random number value. A first special reserve number of 0 to 4 is displayed by combining the lighting, extinguishing, or flashing of the two lamps.

The second special symbol display unit 81 is composed of a 7-segment display, and when a game ball enters the second starting hole 49 and a second special symbol lottery is held, the 7-segment display flashes to display the second special symbol in a variable manner, and the 7-segment display lights up in one of several different modes to display the second special symbol in a static manner, thereby displaying the result of the second special symbol lottery.

The second special reserve display unit 82 is composed of two lamps, and displays the second special reserve number corresponding to the number of reserved second special random number values when, for example, the first special pattern or second special pattern is already being displayed in a changing or stopped state when the gaming ball enters the second starting hole 49, and the special pattern lottery random number value is reserved as a second special random number value because a special pattern lottery cannot be performed even if the special pattern lottery random number value is obtained. The second special reserve number, which can range from 0 to 4, is displayed by combining the lighting, extinguishing, or flashing of the two lamps.

The game status display unit 84 is composed of six lamps, and displays the type of game status currently set by combining the lighting, extinguishing, or flashing of the six lamps. Details will be described later, but in this embodiment, as shown in FIG. 8, multiple game statuses can be set, including a normal status, a slightly time-saving status, a time-saving status, and a special game status. Compared to the normal status and the slightly time-saving status, the time required for the first special symbol or second special symbol to fluctuate is shortened in the time-saving status, and the opportunity to execute the special symbol lottery occurs more frequently.

Figure 5 is a functional block diagram of the gaming machine of this embodiment. The gaming machine of this embodiment is controlled by a control board including a main control board 200 (main control means), a sub-control board 202 (sub-control means), and a frame control board 201. The functions of the main control board 200, the sub-control board 202, and the frame control board 201 are realized by hardware such as various processors (CPU, DSP, etc.), ASICs (gate arrays, etc.), ROMs (an example of information storage media), or RAMs, or by software consisting of a given program pre-stored in ROMs, etc.

The main control board 200 receives input signals from input means such as the gate switch 102, first start port switch 100, second start port switch 103, general winning port switch 101, count switch 104, out switch 106, and specific area switch 107, performs various calculations to execute the game, and controls the operation of output means such as the normal device 54 and special device 56 based on the calculation results.

The sub-control board 202 receives signals sent from the main control board 200 and input signals from the effect button switch 150, performs various calculations to execute effects that match the progress of the game, and controls the operation of effect devices such as the front frame lamp 12, speaker 14, LCD display 32, and lighting device 38 based on the calculation results.

The frame control board 201 receives signals sent from the main control board 200 and input signals from the counting button 212, controls the number of balls held (number of game balls), and controls the game value number display device 211, etc. The frame control board 201 is capable of bidirectional communication with the main control board 200.

The main control board 200 is configured to include a random number generation means 210, a normal symbol lottery means 220, a normal display control means 222, a normal accessory control means 224, a special symbol lottery means 230 (lottery means), a special display control means 240, a game state transition control means 250 (state control means), a special game execution means 260, a payout control means 270, a communication control means 280, and a main memory 290.

The random number generation means 210 is a means for generating random numbers for use in lotteries, and is realized by a random number generator that generates hardware random numbers, or a program that generates software random numbers. Software random numbers can be generated, for example, based on the count value of an increment counter (a counter that counts numbers so that they cycle through a specified count range). Note that in this embodiment, "random number values" include not only values that are generated randomly in the mathematical sense, but also values that, even if their generation is regular, can actually function as random numbers because their acquisition timing is irregular.

Based on the detection signal input from the gate switch 102, which detects each game ball passing through the passage gate 48, the normal symbol lottery means 220 obtains a normal symbol lottery random number value from the random number generation means 210 and stores it in the normal random number storage means 2912 of the main memory 290. The normal symbol lottery is then performed to determine whether or not a normal win has been won based on the normal symbol lottery random number value read from the normal random number storage means 2912.

In detail, the normal random number memory means 2912 has four normal reserve memory areas, normal reserve memory area 1 to normal reserve memory area 4, as memory areas for storing the acquired random number values for the normal pattern lottery, and one normal reserve memory area is provided as a memory area for storing the random number values for the normal pattern lottery that are read from normal reserve memory area 1 and used to draw the normal pattern until the changing and stopping display of the normal pattern ends.
Then, when normal pattern lottery means 220 acquires the random number value for the normal pattern lottery from random number generating means 210, if the random number value for the normal pattern lottery is not stored in any of normal reserve memory areas 1 to 4, it first stores the acquired random number value for the normal pattern lottery in normal reserve memory area 1. Then, at the time the random number value for the normal pattern lottery is stored in normal reserve memory area 1, if the normal pattern is not being displayed variably or stationarily, that is, if the random number value for the normal pattern lottery is not stored in the normal reserve memory area and control to open normal role device 54 is not being executed, it immediately reads out the random number value for the normal pattern lottery from normal reserve memory area 1 and performs a normal pattern lottery, and stores the random number value for the normal pattern lottery used in the normal pattern lottery in the normal reserve memory area. On the other hand, when the normal symbol is being displayed in a variable or stationary manner, that is, when the random number value for the normal symbol lottery is stored in the normal reserve memory area or when control to open the normal device 54 is being executed, the random number value for the normal symbol lottery is reserved in the normal reserve memory area 1.

Then, when a random number value for the normal symbol lottery is reserved in normal reserve memory area 1 and a detection signal is input from gate switch 102 to acquire a random number value for the normal symbol lottery, normal reserve memory means 220 stores the random number value for the normal symbol lottery in the normal reserve memory area with the smallest ordinal number among normal reserve memory areas 1 to 4 in which a random number value for the normal symbol lottery is not reserved, on the condition that the number of random number values for the normal symbol lottery reserved in normal reserve memory area 1 to normal reserve memory area 4 is less than four, i.e., on the condition that the normal reserve number is less than four.

Then, when the variable display and stationary display of the normal symbols have ended, the normal symbol lottery means 220 erases the random number value for the normal symbol lottery stored in the normal reserve memory area. If a random number value for the normal symbol lottery is reserved in normal reserve memory area 1, and if control to open the normal device 54 is not being executed, it reads the random number value for the normal symbol lottery from normal reserve memory area 1, performs a normal symbol lottery, and stores the random number value for the normal symbol lottery obtained after the normal symbol lottery in the normal reserve memory area. Here, if a random number value for the normal symbol lottery remains in normal reserve memory area 2 or later, the remaining random number value for the normal symbol lottery is moved from the original normal reserve memory area to the normal reserve memory area with the next smaller ordinal number. For example, if a random number value for the normal symbol lottery remains in normal reserve memory area 2 to normal reserve memory area 3, it is moved to normal reserve memory area 1 to normal reserve memory area 2.

In this way, in the normal random number storage means 2912, the random number values for normal symbol lottery for which a normal symbol lottery has been performed are reserved in the normal reserve memory area, up to a maximum of one, and the random number values for normal symbol lottery for which a normal symbol lottery has not been performed are reserved in normal reserve memory area 1 to normal reserve memory area 4, up to a maximum of four.

The normal symbol lottery means 220 performs normal symbol lottery processing, such as determining whether a normal symbol will win.

The normal win determination process is a process for determining whether a "normal win" has been won. In the normal win determination process, the normal symbol lottery means 220 selects, depending on the game state, which normal symbol lottery table to reference when performing the random number determination process, from among the multiple types of normal symbol lottery tables stored in the lottery table storage means 2910 of the main memory 290. Here, each normal symbol lottery table associates a "normal win" or a "lose" with each of the 100 normal symbol lottery random number values from 0 to 99. The normal symbol lottery means 220 then references the selected normal symbol lottery table to determine whether one normal symbol lottery random number value read from the normal random number storage means 2912 is associated with a normal win, thereby determining whether a "normal win" has been won.

The normal symbol lottery table selected when the game state is in the time-saving state (excluding the slight time-saving state, the same applies below) is set to have a higher probability of winning a "normal win" compared to the normal symbol lottery table selected when the game state is not in the time-saving state. In other words, the normal symbol lottery held when the game state is in the time-saving state has a higher probability of winning a "normal win" compared to the normal symbol lottery held when the game state is not in the time-saving state.

The normal display control means 222 controls the display of the status display unit 70 based on the results of the normal symbol lottery, and performs normal symbol display control processing and normal hold display control processing.

In the normal symbol display control process, the normal symbol display control means 222 causes the two lamps on the normal symbol display unit 72 to flash until a predetermined variation time has elapsed, causing the normal symbol to be displayed in a variable manner, and then causes the normal symbol to be displayed in a static manner by turning on or off the two lamps on the normal symbol display unit 72 depending on whether a "normal symbol win" has been won in the normal symbol win determination process, thereby causing the normal symbol display unit 72 to display the result of the normal symbol lottery.

In this embodiment, the normal pattern variation time is determined according to the game state at the time the normal pattern lottery is performed. Specifically, when the game state is in the time-saving state, the normal pattern variation time is set shorter than when the game state is not in the time-saving state. For example, when the game state is not in the time-saving state at the time the normal pattern lottery is performed, the normal pattern variation time is set to a first time (e.g., 20 seconds), and when the game state is in the time-saving state at the time the normal pattern lottery is performed, the normal pattern variation time is set to a second time (e.g., 1 second) that is shorter than the first time. Therefore, when the game state is in the time-saving state, the opportunity to perform the normal pattern lottery occurs more frequently.

In the normal hold display control process, the normal display control means 222 displays 0 to 4 normal hold numbers by turning on, off, or blinking the two lamps of the normal hold display unit 74 in combination, depending on the number of random numbers for normal symbol lottery stored in the normal random number storage means 2912.

The normal device control means 224 is a means for controlling the normal device 54 based on the result of the normal symbol lottery. When the gaming state is not in the time-saving state, the normal device control means 224 controls the normal device 54 to operate so that the normal device 54 expands and then returns to the reduced state until time A (e.g., 0.1 seconds) has elapsed, triggered by the normal symbol being stopped and displayed in a manner indicating a "normal win." Furthermore, when the gaming state is in the time-saving state, the normal device control means 224 controls the normal device 54 to operate so that the normal device 54 expands and then returns to the reduced state until time B (e.g., 6 seconds) longer than time A has elapsed, triggered by the normal symbol being stopped and displayed in a manner indicating a "normal win."

Therefore, when a "normal win" is obtained in the normal symbol lottery, if the game state is not in the time-saving state, the normal device 54 operates so that the ease with which the game ball can enter the second start hole 49 is hardly increased. However, if the game state is in the time-saving state, the normal device 54 operates so that the ease with which the game ball can enter the second start hole 49 is increased. In this embodiment, in the time-saving state, the operation of the normal device 54 is controlled so that the game ball can enter the second start hole 49 more easily than in the normal state and the slight time-saving state. Therefore, the time-saving state is a game state that is more advantageous to the player than the normal state and the slight time-saving state.

In this embodiment, the control of the operation of the normal device 54 differs between the normal state and the short-time-saving state. In the short-time-saving state, the opening time of the normal device 54 (the time during which it is in an expanded state) is set slightly longer than in the normal state. In the short-time-saving state, it is sufficient that one or more of the winning probability of the normal symbol lottery, the normal symbol fluctuation time, or the opening time of the normal device 54 is different from that of the normal state. For example, the winning probability of the normal symbol lottery and the opening time of the normal device 54 may be the same in the short-time-saving state and the normal state, but the normal symbol fluctuation time may be different. In this case, the normal symbol fluctuation time may be slightly shorter in the short-time-saving state than in the normal state.

The special symbol lottery means 230 (lottery means) acquires a random number value for special symbol lottery from the random number generation means 210 based on a detection signal input from the first start port switch 100, which detects each gaming ball entering the first start port 46, and stores the value as a first special random number value in the special random number storage means 2914 of the main memory 290. Furthermore, the special symbol lottery means 230 acquires a random number value for special symbol lottery from the random number generation means 210 based on a detection signal input from the second start port switch 103, which detects each gaming ball entering the second start port 49, and stores the value as a second special random number value in the special random number storage means 2914. The special symbol lottery means 230 uses the first or second special random number value read from the special random number storage means 2914 to perform a special symbol lottery that determines whether or not a jackpot has been won.

The special random number storage means 2914 has four first special reserve memory areas, first special reserve memory area 1 to first special reserve memory area 4, which are memory areas for storing the acquired first special random number values, and one first special reserve memory area which is used to store the first special random number value read from first special reserve memory area 1 and used in the special pattern lottery until the variable display and stationary display of the first special pattern ends.

When the special symbol lottery means 230 acquires a random number value for the special symbol lottery based on the detection signal input from the first start switch 100, if the first special random number value is not stored in any of the first special reserve memory areas 1 to 4, it first stores the acquired random number value for the special symbol lottery as the first special random number value in the first special reserve memory area 1. Then, if the first special symbol is not being displayed in a variable or stationary manner at the time the first special random number value is stored in the first special reserve memory area 1, i.e., the first special random number value is not stored in the first special reserve memory area, the game state is not a special game state, and a small win game is not being executed, it immediately reads the first special random number value from the first special reserve memory area 1, performs a special symbol lottery, and stores the first special random number value used for the special symbol lottery in the first special reserve memory area. On the other hand, if the first special symbol is being displayed in a variable or stationary state, i.e., if the first special random number value is stored in the first special reserve memory area, or the game state is a special game state, or a small win game is being played, the first special random number value is reserved in the first special reserve memory area 1.

If a detection signal is input from the first start switch 100 and a random number value for the special symbol lottery is acquired while a first special random number value is reserved in the first special reserve memory area 1, the special symbol lottery means 230 stores the first special random number value in the first special reserve memory area 1 to the first special reserve memory area 4 that has the smallest ordinal number and is not reserving the first special random number value, on the condition that the number of first special random number values reserved in the first special reserve memory areas 1 to 4 is less than four, i.e., the first special reserve number is less than four.

The special random number storage means 2914 has four second special reserve memory areas, second special reserve memory area 1 to second special reserve memory area 4, which are memory areas for storing the acquired second special random number values, and one second special reserve memory area which is used to store the second special random number value read from second special reserve memory area 1 and used in the special pattern lottery until the variable and stationary display of the second special pattern ends.

When the special symbol lottery means 230 acquires a random number value for the special symbol lottery based on the detection signal input from the second start switch 103, if a second special random number value is not stored in any of second special reserve memory areas 1 to 4, it first stores the acquired random number value for the special symbol lottery as a second special random number value in second special reserve memory area 1. Then, if the second special symbol is not being displayed in a variable or stationary manner at the time the second special random number value is stored in second special reserve memory area 1, i.e., if a second special random number value is not stored in the second special reserve memory area, the game state is not a special game state, and a small win game is not being executed, it immediately reads the second special random number value from second special reserve memory area 1, performs a special symbol lottery, and stores the second special random number value used for the special symbol lottery in the second special reserve memory area. On the other hand, if the second special symbol is being displayed in a variable or stationary state, i.e., if the second special random number value is stored in the second special reserve memory area, or the game state is a special game state, or a small win game is being played, the second special random number value is reserved in the second special reserve memory area 1.

If a second special random number value is reserved in the second special reserve memory area 1 and a detection signal is input from the second start switch 103 to obtain a random number value for the special symbol lottery, the special symbol lottery means 230 stores the second special random number value in the second special reserve memory area with the smallest ordinal number among the second special reserve memory areas 1 to 4 in which the second special random number value is not reserved, on the condition that the number of second special random number values reserved in the second special reserve memory areas 1 to 4 is less than four, i.e., the second special reserve number is less than four.

When the variable display and static display of the first special symbol has ended, the special symbol lottery means 230 erases the first special random number value stored in the first special reserve memory area. If the first special random number value is stored in the first special reserve memory area 1, the special symbol lottery means 230 reads the first special random number value from the first special reserve memory area 1, performs a special symbol lottery, and stores the first special random number value used in the special symbol lottery in the first special reserve memory area, provided that the game state is not a special game state and a small win game is not being executed. Furthermore, when the variable display and static display of the second special symbol has ended, the special symbol lottery means 230 erases the second special random number value stored in the second special reserve memory area. Then, if a second special random number value is stored in the second special reserve memory area 1, and provided that the game state is not a special game state and a small win game is not being executed, the second special random number value is read from the second special reserve memory area 1, a special symbol lottery is performed, and the second special random number value used in the special symbol lottery is stored in the second special reserve memory area. In this embodiment, because the first special random number value and the second special random number value are consumed in parallel, the second special symbol variable display may start while the first special symbol variable display is in progress, or the first special symbol variable display may start while the second special symbol variable display is in progress.

In addition, if the first special random number value is stored in the first special reserve memory area 1, the first special random number value may be read from the first special reserve memory area 1 and a special symbol lottery may be conducted, provided that the second special random number value is not stored in any of the second special reserve memory areas 1 to 4. If the second special random number value is stored in any of the second special reserve memory areas 1 to 4, the second special random number value may be read from the second special reserve memory area 1 and a special symbol lottery may be conducted, even if the first special random number value is stored in any of the first special reserve memory areas 1 to 4. In other words, the second special random number value may be consumed preferentially over the first special random number value. Furthermore, regardless of whether it is the first or second special random number value, the first or second special random number value may be read in the order stored in the special random number memory means 2914 and a special symbol lottery may be conducted. In other words, the first special random number value or the second special random number value may be consumed in the order in which the gaming ball enters the first start opening 46 or the second start opening 49.

If the first special random number value remains in the first special reserve memory area 2 or later when the first special random number value is read from the first special reserve memory area 1, or if the second special random number value remains in the second special reserve memory area 2 or later when the second special random number value is read from the second special reserve memory area 1, the remaining first special random number value or second special random number value is moved from the original special reserve memory area to the special reserve memory area with the next smaller ordinal number. For example, if a first special random number value remains in each of the first special reserve memory areas 2 to 4 when the first special random number value is read from the first special reserve memory area 1, the first special random number value stored in each of the first special reserve memory areas 2 to 4 is moved to each of the first special reserve memory areas 1 to 3; if a second special random number value remains in each of the second special reserve memory areas 2 to 3 when the second special random number value is read from the second special reserve memory area 1, the second special random number value stored in each of the second special reserve memory areas 2 to 3 is moved to each of the second special reserve memory areas 1 to 2.

In the special random number storage means 2914, first special random number values for which no special symbol lottery has been performed are reserved up to a maximum of four in the first special reservation memory area 1 to the first special reservation memory area 4. Also, second special random number values for which no special symbol lottery has been performed are reserved up to a maximum of four in the second special reservation memory area 1 to the second special reservation memory area 4.

Next, the details of the special symbol lottery will be explained. Based on the detection signal input from the first start port switch 100 or the second start port switch 103, the special symbol lottery means 230 acquires multiple types of random number values, such as a jackpot determination random number value and a pattern determination random number value, as random number values for the special symbol lottery, and stores these multiple types of random number values in the special random number storage means 2914 as first special random number values or second special random number values. The special symbol lottery means 230 then performs jackpot determination processing, pattern determination processing, etc. as part of the special symbol lottery.

The jackpot determination process reads out one jackpot determination random number value included in the first or second special random number value stored in the first special reserve memory area 1 or second special reserve memory area 1 of the special random number memory means 2914, and determines whether or not a jackpot has occurred. Here, one jackpot determination random number value is obtained from 65,536 jackpot determination random number values ranging from 0 to 65,535 based on the detection signal input from the first start port switch 100 or second start port switch 103, and is stored in the special random number memory means 2914 as the first or second special random number value.

In the jackpot determination process, the special symbol lottery means 230 selects which of the multiple types of jackpot lottery tables stored in the lottery table storage means 2910 of the main memory 290 to refer to when performing the random number determination process, depending on whether the single jackpot determination random number value that was read out was stored as the first special random number value or the second special random number value.

In this embodiment, the lottery table storage means 2910 stores jackpot lottery table A shown in FIG. 6(a) and jackpot lottery table B shown in FIG. 6(b). In each jackpot lottery table, jackpots and other outcomes are associated with each of the 65,536 jackpot determination random number values from 0 to 65,535.

Jackpot lottery table A is selected when performing the jackpot determination process for the first special random number value. The correspondence between each determination result and the jackpot determination random number value is set so that a "jackpot" is won with a probability of 1/350 (187/65536) and a "C time reduction" is won with a probability of 349/350 (65349/65536). The special symbol lottery means 230 determines whether a "jackpot" or a "C time reduction" has been won by referencing jackpot lottery table A and determining whether the jackpot determination random number value read from the first reserved memory area 1 corresponds to a "jackpot" or a "C time reduction." In this embodiment, the first special symbol lottery always results in a win for either a "jackpot" or a "C time reduction." Note that, in this embodiment, the probability of winning a "jackpot" or a "C time reduction" in the first special symbol lottery does not change depending on the game state. In the first special symbol lottery, there are cases where a winner (jackpot) is won or where a winner is not won, and the latter case (which may be called a miss) includes winning the C time reduction (C time reduction 1 or C time reduction 2, described below). Note that "not winning" may also include not winning the time reduction either (in other words, a complete miss).

Jackpot lottery table B is selected when performing the jackpot determination process for the second special random number value. The correspondence between each determination result and the jackpot determination random number value is set so that a "jackpot" is won with a probability of 1/350 (187/65536) and a "minor jackpot" is won with a probability of 1/139.8 (469/65536). The special symbol lottery means 230 determines whether a "jackpot" or "minor jackpot" has been won by referencing jackpot lottery table B and determining whether the jackpot determination random number value read from the second reserved memory area 1 corresponds to a "jackpot" or a "minor jackpot." Note that in this embodiment, the probability of winning a "jackpot" or a "minor jackpot" in the second special symbol lottery does not change depending on the game status. In the second special symbol lottery, there are cases where a jackpot (jackpot or minor jackpot) is won or where a jackpot is not won. Please note that the latter "if you do not win" does not include cases where you win the C time reduction option without winning the prize.

The pattern determination process is performed when a "jackpot," "C time reduction," or "small jackpot" is won in the jackpot determination process. The pattern determination process reads one pattern determination random number value included in the first or second special random number value stored in the first or second special reserve memory area 1 of the special random number storage means 2914, and determines which of multiple jackpot patterns the jackpot pattern (jackpot type) will be if a "jackpot" is won; determines which of multiple time reduction patterns the time reduction pattern (C time reduction type) will be if a "C time reduction" is won; and determines which of multiple small jackpot patterns the small jackpot pattern (small jackpot type) will be if a "small jackpot" is won. Here, one pattern determination random number value is obtained from 200 pattern determination random number values between 0 and 199 based on the detection signal input from the first start port switch 100 and the second start port switch 103, and is stored in the special random number storage means 2914 as a first special random number value or a second special random number value.

In the pattern determination process, the special pattern lottery means 230 selects which of the multiple pattern lottery tables stored in the lottery table storage means 2910 to refer to when performing the random number determination process, depending on whether the single pattern determination random number value that was read out was stored as a first special random number value or a second special random number value.

In this embodiment, the lottery table storage means 2910 stores pattern lottery table A shown in FIG. 7(a), pattern lottery table B shown in FIG. 7(b), pattern lottery table C shown in FIG. 7(c), and pattern lottery table D shown in FIG. 7(d). In each pattern lottery table, a predetermined pattern is associated with each pattern determination random number value.

The symbol lottery table A shown in FIG. 7(a) is selected when a "jackpot" is won and one read-out symbol determination random number value is stored as the first special random number value. The correspondence between each symbol and the symbol determination random number value is set so that "Jackpot 1" (10R time reduction 10000) is won with a probability of 0.005/100, "Jackpot 2" (7R time reduction 110) is won with a probability of 59.997/100, and "Jackpot 3" (7R time reduction 0) is won with a probability of 39.998/100. The special symbol lottery means 230 refers to the symbol lottery table A and determines which of the multiple types of jackpot symbols the read-out symbol determination random number value corresponds to, thereby determining which of the multiple types of jackpot symbols has been won.

The pattern lottery table B shown in Figure 7(b) is selected when "C Time Reduction" is won and one of the read pattern determination random number values is stored as the first special random number value, and the correspondence between each pattern and the pattern determination random number value is set so that "C Time Reduction 1" (slight time reduction 1329) is won with a probability of 80.5/100 (approximately 80%), and "C Time Reduction 2" (time reduction 1329) is won with a probability of 19.5/100 (approximately 20%). The special pattern lottery means 230 refers to the pattern lottery table B and determines which of the multiple types of time-saving patterns the read pattern determination random number value corresponds to, thereby determining which of the multiple types of time-saving patterns has been won.

The symbol lottery table C shown in Figure 7(c) is selected when a "jackpot" is won and one read-out symbol determination random number value is stored as the second special random number value, and the correspondence between each symbol and the symbol determination random number value is set so that "Jackpot 4" (10R time reduction 10000) is won with a probability of 12.8/100, and "Jackpot 5" (10R time reduction 110) is won with a probability of 87.2/100. The special symbol lottery means 230 refers to the symbol lottery table C and determines which of the multiple types of jackpot symbols the read-out symbol determination random number value corresponds to, thereby determining which of the multiple types of jackpot symbols has been won.

The pattern lottery table D shown in Figure 7(d) is selected when a "small win" is won and one of the read pattern determination random number values is stored as the second special random number value, and the correspondence between each pattern and the pattern determination random number value is set so that "small win 1" (10R time reduction 10000) is won with a 50/100 probability, and "small win 2" is won with a 50/100 probability (10R time reduction 110). The special pattern lottery means 230 refers to the pattern lottery table D and determines which of the multiple types of small win patterns the read pattern determination random number value corresponds to, thereby determining which of the multiple types of small win pattern has been won.

The special game execution means 260 is a means for executing a special game based on the results of the special symbol lottery, and performs processing for executing the special game. Furthermore, the special game execution means 260 is a means for executing a small win game based on the result of a "small win" in the special symbol lottery, and performs processing for executing the small win game. Note that the term "special game" may also include a small win game.

The special game state is initiated upon winning a "jackpot" in the special symbol lottery (first special symbol lottery or second special symbol lottery) and ends when a predetermined number of rounds (number of executions) of special game (jackpot game) have been played depending on the type (category) of the jackpot symbol. When the special game state is initiated upon winning "jackpot 1," "jackpot 4," or "jackpot 5" in the special symbol lottery, the special game state ends once 10 rounds of special game play (rounds 1 through 10) have been played. When the special game state is initiated upon winning "jackpot 2" or "jackpot 3" in the special symbol lottery, the special game state ends once 7 rounds of special game play (rounds 1 through 7) have been played. Details will be explained later, but if a "jackpot" is won in the special symbol lottery, at the end of the special game state, a predetermined number of time-saving cycles corresponding to the jackpot symbol will be set and the time-saving state will begin, or a predetermined number of minute time-saving cycles corresponding to the jackpot symbol will be set and the minute time-saving state will begin.

The small win game state is initiated upon winning a "small win" in the special pattern lottery (second special pattern lottery) and ends when a predetermined number of small win games have been played (one in this embodiment). During small win games, the special device 56 opens, allowing game balls to enter the large prize opening 50, and the distribution means is shifted from a non-specific area passing state to a specific area passing state. Specifically, during small win games, the distribution means is shifted from a non-specific area passing state to a specific area passing state so that game balls that enter the large prize opening 50 during the small win game can easily (possibly) pass through the specific area. As a result, if either "small win 1" or "small win 2" is won in the second special pattern lottery, game balls can easily (possibly) pass through the specific area in the small win game state. Then, if the passage of a gaming ball through a specific area is detected during the small win gaming state (if the passage of a gaming ball that entered the large prize opening 50 through a specific area is detected during the execution of a small win gaming state), a special gaming state is initiated upon the end of the small win gaming state.

If "Small Win 1" is won in the second special pattern lottery and the passage of the gaming ball through a specific area is detected during the small win gaming state, the number of special games (round games) is set to 9. As a result, 10 rounds will be played, with the small win game being the first round game. The special gaming state ends once 10 rounds of special games have been played. Furthermore, if "Small Win 2" is won in the second special pattern lottery and the passage of the gaming ball through a specific area is detected during the small win gaming state, the number of special games (round games) is set to 9. As a result, 10 rounds will be played, with the small win game being the first round game. The special gaming state ends once 10 rounds of special games have been played. As will be described in more detail below, at the end of the special gaming state, a predetermined number of time-saving games corresponding to the small win pattern is set, and the time-saving game state begins. Furthermore, if the passage of the gaming ball through a specific area is not detected during the small win gaming state (if the passage of the gaming ball that entered the large prize opening 50 through a specific area is not detected during the execution of the small win gaming state), the special gaming state will not be initiated, and the normal state will be initiated.

In this embodiment, during the special game of each round (including small win games), when the opening timer in the main memory 290 counts a predetermined time (29 seconds) after the special feature 56 is opened, or when the value of the large prize counter (not shown) in the main memory 290, which adds a value equivalent to one game ball (e.g., 1) when the count switch 104 detects the entry of one game ball, reaches an upper limit value (e.g., 10), the condition for ending the special game is met, and the special feature drive device is controlled to close the special feature 56.

The special display control means 240 performs first special pattern display control processing, second special pattern display control processing, first special hold display control processing, and second special hold display control processing based on the results of the special pattern lottery.

The first special symbol display control process is performed when the first special random number value is read from the first special reserve memory area 1 and a special symbol lottery is conducted. The special display control means 240 causes the first special symbol to fluctuate by flashing the 7-segment display of the first special symbol display unit 76 until the fluctuating time has elapsed, and then causes the first special symbol to be displayed statically by lighting up the 7-segment display of the first special symbol display unit 76 in a predetermined manner.

In this embodiment, the display mode of the 7-segment display is predetermined to correspond to each of the big win symbols, time-saving symbols, and small win symbols.
The special display control means 240 causes the first special pattern to be displayed in a stopped state by lighting up the 7-segment display of the first special pattern display unit 76 in a manner corresponding to whether or not a ``jackpot'' or ``C time reduction'' has been won in the jackpot determination process, and in a manner corresponding to the jackpot pattern determined in the pattern determination process if a ``jackpot'' has been won in the jackpot determination process, and in a manner corresponding to the time reduction pattern determined in the pattern determination process if ``C time reduction'' has been won in the jackpot determination process, and causes the first special pattern display unit 76 to display the result of the special pattern lottery.

The second special symbol display control process is performed when a second special random number value is read from the second special reserve memory area 1 and a special symbol lottery is conducted. The special display control means 240 causes the second special symbol to fluctuate by flashing the 7-segment display of the second special symbol display unit 81 until the fluctuating time has elapsed, and then causes the second special symbol to be displayed stationary by lighting up the 7-segment display of the second special symbol display unit 81 in a predetermined manner.

The special display control means 240 causes the second special pattern to be displayed in a static state by lighting up the 7-segment display of the second special pattern display unit 81 in a manner corresponding to whether a "big hit" or "small hit" has been won in the big hit determination process, in a manner corresponding to the big hit pattern determined in the pattern determination process if a "big hit" has been won in the big hit determination process, and in a manner corresponding to the small hit pattern determined in the pattern determination process if a "small hit" has been won in the big hit determination process, and causes the second special pattern display unit 81 to display the results of the special pattern lottery.

In the first special hold display control process, the special display control means 240 displays a first special hold number of 0 to 4 by combining turning on, off, or blinking the two lamps of the first special hold display unit 78, depending on the number of first special random number values stored in the special random number storage means 2914.

In the second special hold display control process, the special display control means 240 displays 0 to 4 second special hold numbers by combining turning on, off, or blinking the two lamps of the second special hold display unit 82, depending on the number of second special random number values stored in the special random number storage means 2914.

In this embodiment, if a "jackpot" is won in the special pattern lottery (first special pattern lottery or second special pattern lottery), a special game state is initiated in which it is possible (easy) for a game ball to enter the large prize opening 50. Furthermore, if a "small prize" is won in the second special pattern lottery, a small prize game state is initiated in which it is possible (easy) for a game ball to enter the large prize opening 50. In the small prize game state, if a game ball that has entered the large prize opening 50 is detected passing through a specific area, a special game state is initiated in which it is possible (easy) for a game ball to enter the large prize opening 50. By having a game ball enter the large prize opening 50, a player can win many prize balls. In this embodiment, the probability of transitioning to the special game state based on the second special pattern lottery is higher than the probability of transitioning to the special game state based on the first special pattern lottery. Specifically, in the first special symbol lottery, a "small win" is not set as a lottery result, and the game will transition to the special game state only if a "big win" is won. On the other hand, in the second special symbol lottery, a "big win" and a "small win" are set as lottery results, and the game will transition to the special game state if a "big win" is won, and if a "small win" is won and the game ball is detected passing through a specific area in the small win game state, the game will transition to the special game state.

In this embodiment, the probability of transitioning to the special game state is higher when an opportunity for the second special symbol lottery is won than when an opportunity for the first special symbol lottery is won. As mentioned above, in order to win an opportunity for the second special symbol lottery, it is necessary to win a "normal win" in the normal symbol lottery and to cause the game ball to enter (advance) into the second start opening 49 when the normal device 54 (normal electric device) is in the open state (open state). Furthermore, the ease with which the game ball can enter (ease of making the ball enter) the second start opening 49 varies depending on the game state.

As shown in Figure 8, the game state transition control means 250 performs game state transition control processing to transition the game state between each game state based on the establishment of predetermined conditions (transition conditions).

(Normal state)
The normal state (normal game state) is a game state corresponding to the initial state among multiple game states. As described above, in the normal state, the probability of winning a "normal hit" in the normal symbol lottery is lower than in the time-saving state. Furthermore, even if a "normal hit" is won in the normal symbol lottery, the normal device 54 operates so as to barely increase the likelihood of the game ball entering the second starting hole 49. Therefore, in the normal state, it is difficult (impossible) to get the game ball into the second starting hole 49. In other words, it is difficult (impossible) to get an opportunity to draw the second special symbol. In the normal state, it is more advantageous for the player to hit the ball left-handed to get the game ball into the first starting hole 46 in order to get an opportunity to draw the first special symbol than to hit the ball right-handed. In other words, the normal state is a game state in which left-handed hitting is recommended.

As shown in Figure 8, a transition to the special game state occurs when a "jackpot" is won in the special pattern lottery (first special pattern lottery) in the normal state. As shown in Figure 7(a), if "jackpot 1" is won in the special pattern lottery, the number of time-saving times is set to 10,000 at the end of the special game state, and a transition to the time-saving state occurs upon the end of the special game state. Furthermore, if "jackpot 2" is won in the special pattern lottery, the number of time-saving times is set to 110 at the end of the special game state, and a transition to the time-saving state occurs upon the end of the special game state. Furthermore, if "jackpot 3" is won in the special pattern lottery, the number of time-saving times (micro-time-saving times) is set to 1,329 at the end of the special game state, and a transition to the micro-time-saving state occurs upon the end of the special game state.

Also, as shown in Figure 7(b), in the normal state, if "C Time Reduction 1" is won in the special pattern lottery (first special pattern lottery) and the first special pattern is stopped and displayed in a manner corresponding to "C Time Reduction 1" (when the first special pattern is confirmed), the stopped display (confirmation) will trigger a time-saving count (1,329 micro-time-saving count) corresponding to the time-saving pattern, and a transition to the micro-time-saving state. Also, in the normal state, if "C Time Reduction 2" is won in the special pattern lottery (first special pattern lottery) and the first special pattern is stopped and displayed in a manner corresponding to "C Time Reduction 2" (when the first special pattern is confirmed), the stopped display (confirmation) will trigger a time-saving count (1,329 micro-time-saving count) corresponding to the time-saving pattern, and a transition to the time-saving state.

In this embodiment, the first special symbol lottery in normal mode always results in either a "jackpot" or a "C time reduction," and based on the first special symbol lottery being executed in normal mode, the game will transition to either a slight time reduction state, a time reduction state, or a special game state.

The time-saving symbol "C Time-saving 2" does not trigger a transition to a game state (special game state or small win game state) that makes it easier for the game ball to enter the large prize slot 50, and is a time-saving symbol that allows a transition to the time-saving state without passing through the special game state or small win game state. Furthermore, if "C Time-saving 1" or "C Time-saving 2" is won in the first special symbol lottery in a game state other than the normal state and the first special symbol is displayed in a stopped state, the stopped display will not trigger a transition to the time-saving state or the slight time-saving state. This "not transitioning" includes the fact that the specified number of time-saving times (slight time-saving number of times) will not be reset if the player is already in that game state.

(Slight time saving state)
As described above, in the slight time-saving state (second specific game state), the probability of winning a "normal win" in the normal symbol lottery is lower than in the time-saving state (or is equivalent to the time-saving state). Furthermore, even if a "normal win" is won in the normal symbol lottery, the normal device 54 operates to barely increase the likelihood of the game ball entering the second starting hole 49. Therefore, in the slight time-saving state, at least some of the functions constituting the time-saving state are activated, making it slightly easier for the ball to enter the second starting hole 49 compared to the normal state. However, even if the player hits the ball right, it is difficult (impossible) for the game ball to enter the second starting hole 49. In other words, it is difficult (impossible) to obtain an opportunity to enter the second special symbol lottery. In the slight time-saving state, it is more advantageous for the player to hit the ball left so that the game ball enters the first starting hole 46 in order to obtain an opportunity to enter the first special symbol lottery than to hit the ball right. In other words, the slight time-saving state is a gaming state in which left-handed shots should be made.

As shown in Figure 8, a transition to the special game state occurs when a "jackpot" is won in the special pattern lottery (first special pattern lottery) during the slight time-saving state. As shown in Figure 7(a), if "jackpot 1" is won in the special pattern lottery, the number of time-saving times is set to 10,000 at the end of the special game state, and a transition to the slight time-saving state occurs upon the end of the special game state. Furthermore, if "jackpot 2" is won in the special pattern lottery, the number of time-saving times is set to 110 at the end of the special game state, and a transition to the slight time-saving state occurs upon the end of the special game state. Furthermore, if "jackpot 3" is won in the special pattern lottery, the number of time-saving times (slight time-saving times) is set to 1,329 at the end of the special game state, and a transition to the slight time-saving state occurs upon the end of the special game state.

When the number of times the first special symbol has been displayed in a variable manner during the variable time-saving state reaches 1,329, the game state transition control means 250 determines that the conditions for terminating the variable time-saving state have been met, terminates the variable time-saving state, and transitions to the normal state. In this embodiment, when the special game state ends based on winning "Jackpot 3" in the special symbol lottery (first special symbol lottery), the number of variable time-saving periods is set to the value stored in the variable time-saving counter 2916 of the main memory 290. Furthermore, if "C Variable Time-saving Period 1" is won in the special symbol lottery (first special symbol lottery) during the normal state and the first special symbol is displayed in a static manner corresponding to "C Variable Time-saving Period 1," the number of variable time-saving periods is set to the value stored in the variable time-saving counter 2916 in response to the static display. In the variable time-saving state, "1" is subtracted from the value stored in the variable time-saving counter 2916 each time the first special symbol is displayed in a variable manner. When the value stored in the minute time-saving counter 2916 reaches "0," the minute time-saving end condition is met, the minute time-saving state ends, and the normal state begins. Note that in this embodiment, the minute time-saving end condition is met when the value stored in the minute time-saving counter 2916 is decremented and reaches a predetermined value of "0," but this is not limiting; the minute time-saving end condition may also be met when the value stored in the minute time-saving counter 2916 is incremented and reaches a predetermined value (for example, "1329").

In the slight time-saving state, if "C Time-saving" ("C Time-saving 1" or "C Time-saving 2") is won in the special pattern lottery (first special pattern lottery) and the first special pattern is stopped and displayed in a manner corresponding to "C Time-saving 1" or "C Time-saving 2," that stopped display will not trigger the start (setting) of the slight time-saving state or the time-saving state (no new number of time-saving periods will be set). In other words, the game state at the time of the winning will continue. Note that in the slight time-saving state, if "C Time-saving 1" or "C Time-saving 2" is won as a result of the first special pattern lottery and the first special pattern is stopped and displayed in a manner corresponding to "C Time-saving 1" or "C Time-saving 2," that stopped display may be configured to trigger the setting of a new number of time-saving periods.

(Time-saving mode)
As described above, in the time-saving state (first specific game state), the probability of winning a "normal win" in the normal symbol lottery is higher than in the normal state or the slight time-saving state. Furthermore, if a "normal win" is won in the normal symbol lottery, the normal device 54 operates to increase the likelihood of the game ball entering the second starting hole 49. Therefore, in the time-saving state, it is easier to get the game ball into the second starting hole 49 than in the normal state or the slight time-saving state. In other words, it is easier to obtain an opportunity to win the second special symbol lottery. In the time-saving state, it is more advantageous for the player to hit the ball to the right so that the game ball passes through the passing gate 48 in order to obtain an opportunity to win the second special symbol lottery than to hit the ball to the left. In other words, the time-saving state is a game state in which right-handed hits are recommended.

As shown in Figure 8, if a "big win" or "small win" is won in the special pattern lottery (second special pattern lottery) during the time-saving state, the game will transition to the special game state (including via the small win game state). As shown in Figure 7 (c), if "big win 4" is won in the special pattern lottery, the number of time-saving times is set to 10,000 at the end of the special game state, and the game will transition to the time-saving state upon the end of the special game state. Furthermore, if "big win 5" is won in the special pattern lottery, the number of time-saving times is set to 110 at the end of the special game state, and the game will transition to the time-saving state upon the end of the special game state. Furthermore, if "small win 1" is won in the special pattern lottery and the game ball is detected passing through a specific area during the small win game state, the number of time-saving times is set to 10,000 at the end of the special game state, and the game will transition to the time-saving state upon the end of the special game state. Additionally, if "Small Win 2" is won in the special symbol lottery and the game ball is detected passing through a specific area during the small win game state, the number of time-saving times will be set to 110 at the end of the special game state, and the game will transition to the time-saving state upon the end of the special game state.

When the number of times the second special symbol is displayed variably in the time-saving state reaches 110 (or 10,000), the game state transition control means 250 determines that the time-saving state termination condition (predetermined condition) is met, terminates the time-saving state, and transitions to the normal state. In this embodiment, when the special game state ends, the number of time-saving times corresponding to the type of winning symbol is set in the value stored in the time-saving counter 2915 of the main memory 290, and each time the second special symbol is displayed variably in the time-saving state, "1" is subtracted from the value stored in the time-saving counter 2915. Then, when the value of the time-saving counter 2915 reaches "0," the time-saving termination condition is met, the time-saving state ends, and the normal state begins. In this embodiment, the time-saving end condition is met when the stored value of the time-saving counter 2915 is subtracted and reaches a predetermined value of "0", but this is not limited to this, and the time-saving end condition may be met when the stored value of the time-saving counter 2915 is added and reaches a predetermined value of "110" (or "10000").
In addition, in this embodiment, the time-saving counter 2915 and the minute time-saving counter 2916 are provided, but this is not limited to this, and they may be managed (controlled) by either one of the counters.

In the time-saving state, if "C Time-saving" ("C Time-saving 1" or "C Time-saving 2") is won in the special pattern lottery (first special pattern lottery) and the first special pattern is stopped and displayed in a manner corresponding to "C Time-saving 1" or "C Time-saving 2," that stopped display will not trigger the initiation (setting) of a micro-time-saving state or time-saving state (no new number of time-saving periods will be set). In other words, the game state at the time of the winning is continued. Note that in the time-saving state, if "C Time-saving 1" or "C Time-saving 2" is won as a result of the first special pattern lottery and the first special pattern is stopped and displayed in a manner corresponding to "C Time-saving 1" or "C Time-saving 2," a new number of time-saving periods may be set in response to that stopped display.

Referring back to Figure 5, the payout control means 270 controls the (electronic) payout of a number of game balls equivalent to a predetermined number of prize balls for each detection signal based on the input of a detection signal from the first start port switch 100, a detection signal from the second start port switch 103, a detection signal from the general winning port switch 101, and a detection signal from the count switch 104.

The communication control means 280 controls the transmission of various commands generated in response to the results of various calculations performed on the main control board 200 to the sub-control board 202 and frame control board 201. In this embodiment, the main control board 200 and the sub-control board 202 are connected in a manner that allows only one-way communication from the main control board 200 to the sub-control board 202, and prevents the sub-control board 202 from transmitting information to the main control board 200.

Next, we will explain the sub-control board 202. The sub-control board 202 is configured to include a performance control means 300 and a sub-memory 302.

The performance control means 300 controls the performance devices based on various commands sent from the main control board 200, input signals from the performance button switch 150, and performance data stored in the performance data storage means 303 of the sub-memory 302, and controls the performance devices to perform effects such as turning on or blinking the front frame lamp 12 or lighting device 38, displaying performance images on the LCD display 32, controlling the audio device to output performance sounds from the speaker 14, and driving the performance object drive device to operate the performance objects, thereby causing the performance devices to perform effects that add excitement to or assist the game.

The performance data storage means 303 stores a large amount of performance image data for displaying images on the LCD display 32. The performance control means 300 draws images in the frame buffer of the sub-memory 302 for each frame (1/30 seconds) based on this performance image data, and displays the drawn images on the LCD display 32, thereby playing and displaying a moving image on the LCD display 32.

The effect control means 300 executes an effect in which an effect pattern (demo pattern) is displayed on the liquid crystal display 32 in accordance with (corresponding to) the varying and stationary display of the first special pattern in the first special pattern display section 76, or in accordance with (corresponding to) the varying and stationary display of the second special pattern in the second special pattern display section 81, and is capable of announcing the results of the first special pattern lottery or the second special pattern lottery. In the slight time-saving state, the effect control means 300 displays on the liquid crystal display 32 an effect pattern corresponding to the varying and stationary display of the first special pattern, and in the time-saving state, displays on the liquid crystal display 32 an effect pattern corresponding to the varying and stationary display of the second special pattern.

The display of the effect symbols in the micro-time-saving mode will be explained. Figure 9(a) shows the state before the first special symbol begins to change display. The effect symbols displayed in the display area 32a of the LCD display 32 are left effect symbol 350, middle effect symbol 352, and right effect symbol 354. The left effect symbol 350 is displayed on the left side of the display area 32a of the LCD display 32, the middle effect symbol 352 is displayed in the center of the display area 32a of the LCD display 32, and the right effect symbol 354 is displayed on the right side of the display area 32a of the LCD display 32. The left effect symbol 350, middle effect symbol 352, and right effect symbol 354 each form nine different effect symbol sequences representing the numbers "1" to "9." Note that each effect symbol representing the numbers "1" to "9" may include decorative elements such as characters in addition to the numbers.

As shown in Figure 9(b), the display of the effect patterns (variable display effect) begins based on the start of the display of the first special pattern. The downward arrow in the figure indicates that the effect patterns are being displayed vertically at high speed (scrolling).

As shown in Figure 9(c), the effect pattern is displayed as a static display based on the static display of the first special pattern. The effect pattern is displayed as a static display in a manner that corresponds to the result of the first special pattern lottery. For example, if a "jackpot" is won in the first special pattern lottery, the effect pattern is displayed as a static display in a manner that corresponds to the jackpot pattern determined in the pattern determination process. Although not shown, even in the time-saving state, the effect pattern is displayed as a dynamic display or static display in accordance with the dynamic display and static display of the second special pattern, just as in the slight time-saving state (as shown in Figures 9(a), 9(b), and 9(c)).

In addition, the presentation control means 300 executes a presentation (hold presentation) in which an image indicating the first special hold number or the second special hold number is displayed on the liquid crystal display 32 based on the first special hold number (first special random number value stored (held) in the special random number storage means 2914) or the second special hold number (second special random number value stored (held) in the special random number storage means 2914) in the main control board 200. As shown in FIG. 9(a), etc., four hold display areas (display areas), namely, the first hold display area 411 to the fourth hold display area 414, are provided below the display area of the liquid crystal display 32, corresponding to the first special hold memory area 1 to the first special hold memory area 4 or the second special hold memory area 1 to the second special hold memory area 4 of the special random number storage means 2914.

Figure 9(a) shows a hold effect executed in the slight time-saving state, where a first special random number value is stored in the first special hold memory area 1 to the first special hold memory area 3, and a first hold image 420 (three first hold images 420) is displayed in the first hold display area 411 to the third hold display area 413. Figure 9(d) shows a hold effect executed in the time-saving state, where a second special random number value is stored in the second special hold memory area 1 to the second special hold memory area 2, and a second hold image 422 (two second hold images 422) is displayed in the first hold display area 411 to the second hold display area 412.

In addition, in the hold effect, one hold display area 430 is displayed in the area to the left of the first hold display area 411 at the bottom of the display area 32a of the LCD display 32, corresponding to the special hold memory area of the special random number memory means 2914. When a first special random number value is read from the first special hold memory area 1 and stored in the special hold memory area, the hold display area 430 displays a first hold image 420 (Figure 9 (b)). When a second special random number value is read from the second special hold memory area 1 and stored in the special hold memory area, the second hold image 422 is displayed.

In this embodiment, in the normal state, if "Jackpot 1" is won in the special pattern lottery (first special pattern lottery), if "Jackpot 2" is won in the special pattern lottery (first special pattern lottery), or if "C Time Reduction 2" is won in the special pattern lottery (first special pattern lottery), the game will transition to the time-shortened state. In contrast, in the slight time-shortened state, if "Jackpot 1" is won in the special pattern lottery (first special pattern lottery), or if "Jackpot 2" is won in the special pattern lottery (first special pattern lottery), the game will transition to the time-shortened state. For this reason, the normal state has a higher probability of transitioning to the time-shortened state (a game state that is advantageous to the player) than the slight time-shortened state, making it advantageous to the player. In other words, the normal state has a higher probability of transitioning to the time-shortened state when "C Time-Shortened 2" is won, compared to the slight time-shortened state, making it more advantageous for the player. In this embodiment of the gaming machine, when RAM clearing (a process that initializes at least a portion of the RAM area of the main memory 290) is performed, the gaming state is set to the normal state. The normal state is what is known as the "morning state."

As described above, the normal state and the slight time-saving state (left-hit time-saving state) are game states in which left-handed hits are more advantageous than right-handed hits, and the time-saving state (right-hit time-saving state) is a game state in which right-handed hits are more advantageous than left-handed hits. In the time-saving state, it is easier to get the game ball to enter the second starting hole 49 than in the normal state and the slight time-saving state, and the second special pattern lottery based on the game ball entering the second starting hole 49 is more likely to determine a transition to the special game state than the first special pattern lottery. In other words, the time-saving state has a higher probability of determining a transition to the special game state than the normal state and the slight time-saving state. Note that in this embodiment, the time-saving state and the slight time-saving state, in which it is easier to get the ball to enter the second starting hole 49 than in the normal state, may be referred to as a high base state, and the normal state may be referred to as a low base state.

Hereinafter, the CPU of the main control board 200 will be referred to as the main CPU. The ROM of the main memory 290 will be referred to as the main ROM, and the RAM of the main memory 290 will be referred to as the main RAM. As shown in FIG. 5, the main control board 200 includes a clock generation circuit 402, an input port 404, an output port 405, a performance display device 406, a RAM clear switch 407, and a setting key switch 408. The performance display device 406 is a device capable of displaying a base (base ratio) calculated by dividing the number of prize balls paid out based on the entry of game balls into a designated ball entry port (winning port) by the number of outs (the number of game balls detected by the out switch 106), which indicates the number of game balls fired into the game area. Furthermore, when the power is turned on (recovered from a power outage) with the RAM clear switch 407 pressed, a RAM clear (RAM clear process) is executed, and at least a portion of the information stored in the main RAM is initialized (reset).

In addition, the gaming machine of this embodiment is equipped with multiple types of sensors, each capable of detecting abnormalities, etc. These multiple types of sensors include a front frame open sensor 507 and an inner frame open sensor 508. The front frame open sensor 507 can detect the opening of the front frame 10 relative to the inner frame 7. The inner frame open sensor 508 can detect the opening of the inner frame 7 relative to the outer frame 2.

Figure 10 is an address map of the memory area used by the main CPU. As shown in Figure 10, the memory area used by the CPU is composed of a memory area allocated to the main ROM (0000H to 2FFFH) and a memory area allocated to the main RAM (F000H to F3FFH).

In Figure 10, addresses for specifying memory areas are shown in hexadecimal (hereinafter, "H" indicates hexadecimal). The main ROM (ROM memory area) is composed of a used area m1 (0000H to 1A7AH) and a non-used area m2 (2000H to 2BFFH). The used area m1 is composed of a program area, an unused area, and a data area. The program area stores a program (program code) for controlling the progress of the game. The data area stores data (program data) for controlling the progress of the game. Note that the used area m1 may not be composed of an unused area. The non-used area m2 is composed of a program area and a data area. The program area stores a program (program code) for executing processing related to tests specified in the Gaming Machine Regulations and a program (program code) for controlling the display of the performance display device 406 (specifically, calculating the base ratio). The data area stores data (program data) for executing processes related to tests stipulated by gaming machine regulations, and data (program data) for controlling the display of the performance display device 406.

The main RAM (RAM memory area) is composed of a used area M1 (F000H-F1FFH) and a non-used area M2 (F300H-F3FFH). The used area M1 is composed of a work area and a stack area. The work area is used as an area for temporarily storing various data during execution of a program (a program for controlling the progress of a game) stored in the used area m1. On the other hand, the stack area is used as an area for temporarily saving various data during execution of a program (a program for controlling the progress of a game) stored in the used area m1. Note that the used area M1 may not be composed of an unused area. Specifically, the work area is composed of a setting value area, a gaming machine status flag area, a checksum area, a backup valid flag area, an error-related area, a normal game-related area 1, and a normal game-related area 2. The setting value area stores setting values. The gaming machine status flag area stores gaming machine status flags. The checksum area stores a checksum. The backup valid flag area stores a backup valid flag. The error-related area stores information related to errors. The normal game-related area 1 stores subcommand pointers and the like. The normal game-related area 2 stores input/output data for the main control board 200, data for arithmetic processing, various counters (random number counters, timer counters, etc.), and flags for managing lottery results and game status. The unused area M2 includes a work area and a stack area. The work area is used as an area for temporarily storing various data during execution of a program stored in the unused area M2 (a program for executing a process related to a test defined by the Gaming Machine Rules or a program for controlling the display of the performance display device 406). Meanwhile, the stack area is used as an area for temporarily saving various data during execution of a program stored in the unused area M2 (a program for executing a process related to a test defined by the Gaming Machine Rules or a program for controlling the display of the performance display device 406). Specifically, the work area includes a performance display-related area. The performance display related area is used as an area to temporarily store various data while the program for controlling the display of the performance display device 406 is running.

Returning to Figure 5, the clock generation circuit 402 generates a clock (synchronization signal) at a predetermined clock frequency (e.g., 12 MHz) and outputs this clock to the main CPU and the random number generation means 210.

The input port 404 is composed of multiple input ports (in this embodiment, input ports 0 to 3). Input port 0 receives detection signals from the front frame open sensor 507 and the inner frame open sensor 508. Input port 1 receives a RAM clear signal from the RAM clear switch 407 and a detection signal from the setting key switch 408. Input port 2 receives detection signals from the count switch 104, the general winning port switch 101, and the out switch 106. Input port 3 receives detection signals from the first start port switch 100, the second start port switch 103, the gate switch 102, and the specific area switch 107.

Each input port (input port 0 to input port 3) has a reception memory area corresponding to each switch/sensor (detection signal). A single bit of data indicating the reception status of the detection signal from that switch/sensor is set in the reception memory area corresponding to each switch/sensor. Specifically, a "1" (ON state) is set in the reception memory area corresponding to each switch/sensor when a detection signal from that switch/sensor is being input (high level), and a "0" (OFF state) is set when a detection signal from that switch/sensor is not being input (low level).

The output port 405 is configured to include multiple output ports (output ports 0 to 4 in this embodiment). Output port 0 outputs a signal (data signal) for controlling the illumination of the status display unit 70. Output port 1 outputs a signal (common signal) for controlling the illumination of the status display unit 70 and the performance display device 406. Output port 2 outputs an external signal. The external signal output from output port 2 is input to the hall computer. Output port 3 outputs a control signal for controlling the operation of the solenoid associated with the normal device 54, a control signal for controlling the operation of the solenoid associated with the special device 56, a control signal for controlling the specific area solenoid associated with the distribution means, and the like. Output port 4 outputs a signal (data signal) for controlling the illumination of the performance display device 406.

The output port 405 is composed of command output port 1 and command output port 2. The main CPU sends control commands (sub-commands) to the sub-control board 202 from command output port 1, and sends control commands (dispense commands) to the frame control board 201 from command output port 2.

In addition, in this embodiment, the frame control board 201 is equipped with a frame control memory 203, which is configured to include an MY counter 221 and a game ball count counter 222 (held ball count counter, game value count storage area). The frame control board 201 controls the awarding of game value.

The frame control board 201 controls the stored value of the MY counter 221. After power is turned on, the frame control board 201 updates the stored value of the MY counter 221 based on the maximum difference in the number of balls in the game value (MY: the increase in game value from the point when the game value decreased the most after power was turned on). The stored value of the MY counter 221 is updated based on the value related to the acquisition of game value (prize balls) and the value related to the use of game value. The stored value of the MY counter 221 is reset to "0" when a power outage occurs (or when power is restored).

The frame control board 201 also controls the stored values (number of game balls, number of balls in hand) of the game ball counter 222. The frame control board 201 decreases the number of balls in hand when a game ball is detected and increases the number of balls in hand when a prize ball is paid out. The frame control board 201 also increases the number of balls in hand when a foul ball is detected. When game value is transferred from the dedicated unit 400 to the gaming machine based on a lending operation, the frame control board 201 also increases the number of balls in hand by the amount of game value to be transferred. When game value is transferred from the gaming machine to the dedicated unit 400 based on operation of the counting button 212, the frame control board 201 also decreases the number of balls in hand by the amount of game value to be transferred. The frame control board 201 also controls the display of the number of balls in hand on the game value number display device 211 (Figure 1), and changes the display content of the game value number display device 211 according to the increase or decrease in the number of balls in hand.

The frame control board 201 also has a game ball count clear switch (not shown) that can be pressed. When the gaming machine is powered on (restored after a power outage) with the game ball count clear switch pressed, the game ball count is cleared, and the number of game balls stored in the RAM of the frame control memory 203 (the value stored in the game ball count counter 222) is reset to "0."

The frame control board 201 also has a ball removal switch (not shown) that can be pressed. When the power is turned on with the ball removal switch pressed (when power is restored after a power outage), the gaming machine transitions to the ball removal state. When performing maintenance on the gaming machine, the gaming balls inside the gaming machine can be removed by transitioning the gaming machine to the ball removal state.

As will be explained in more detail below, the frame control board 201 is capable of transmitting information related to the stored value of the MY counter 221 to the main control board 200. The main control board 200 manages whether or not to activate the complete function based on the stored value of the MY counter 221. The main control board 200 can activate the complete function when the stored value of the MY counter 221 becomes equal to or greater than the specific value "95000" (when the specific value is reached).

When the main control board 200 decides to activate the complete function, it transitions the gaming machine to a state in which game play cannot proceed (a game restriction state, a game stop state), and sends a command indicating the activation of the complete function to the sub-control board 202. Based on receiving this command, the presentation control means 300 can execute a presentation (described later using Figure 22) to notify players that the complete function is in operation. The main control board 200 cancels the activation of the complete function based on the execution of a RAM clear (power interruption recovery accompanied by a RAM clear) as a recovery operation (cancellation operation).

The gaming machine of this embodiment can set one of multiple types of gaming machine states as the gaming machine state. As described above, the main RAM is provided with a gaming machine state flag area. In the gaming machine state flag area, a value corresponding to one of multiple types of gaming machine states is stored (set) as the gaming machine state flag. In the gaming machine of this embodiment, the gaming machine state corresponding to the value stored in the gaming machine state flag area is set. Figure 11 shows the gaming machine state flags.

(00H: playable state)
The playable state is a gaming machine state in which the game can proceed (the game is proceeding).

(01H: setting change status)
The setting change state is a gaming machine state in which the setting values stored in the setting value area of the main RAM can be changed. The setting change state is set when the setting change conditions are met. In this embodiment, the setting change conditions are met when a detection signal is input from the inner frame open sensor 508, a detection signal is input from the setting key switch 408, and a detection signal is input from the RAM clear switch 407 upon power-on. That is, when the inner frame 7 is opened, the setting key switch 408 is rotated to the ON position, and the RAM clear switch 407 is pressed, the gaming machine transitions to the setting change state. In the setting change state, gameplay cannot proceed (game is stopped). In the setting change state, the setting values stored in the setting value area can be changed each time the RAM clear switch 407 is pressed. In the setting change state, when the setting key switch 408 is rotated to the OFF position, the setting values stored in the setting value area are confirmed, the setting change state ends, and the gaming state transitions to a playable state.

(02H: setting confirmation status)
The setting confirmation state is a gaming machine state in which the setting values stored in the setting value area of the main RAM can be confirmed. The setting confirmation state is established when the setting confirmation condition is met. In this embodiment, the setting confirmation condition is established when, at power-on, a detection signal is input from the inner frame open sensor 508, a detection signal is input from the setting key switch 408, and a detection signal is not input from the RAM clear switch 407. That is, at power-on, the setting confirmation state is established when the inner frame 7 is open, the setting key switch 408 is rotated to the ON state, and the RAM clear switch 407 is not pressed. In the setting confirmation state, game play cannot proceed (game is stopped). In the setting confirmation state, the setting values stored in the setting value area cannot be changed. In the setting confirmation state, the setting confirmation state ends when the setting key switch 408 is rotated to the OFF state, and the game transitions to a playable state.

(03H: Setting error)
The setting abnormality state is a gaming machine state in which a setting abnormality has occurred. The setting abnormality state is set when it is determined that the setting value set in the setting value area is not within a specified range in a playable state. In the setting abnormality state, the game cannot proceed (the game is stopped).

(04H: RAM abnormal state)
The RAM abnormal state (RWM abnormal state) is a state of the gaming machine in which a RAM abnormality has occurred. The RAM abnormal state is set when a read/write abnormality in the main RAM is detected when the power is turned on. In the RAM abnormal state, the game cannot proceed (the game is stopped).

(05H: Backup abnormal state)
The backup abnormality state is a gaming machine state in which a backup abnormality has occurred. The backup abnormality state is set when a backup abnormality (specifically, an abnormality in the backup valid flag or an abnormality in the checksum) of the main RAM is detected when the power is turned on. In the backup abnormality state, the game cannot proceed (the game is stopped).

(06H: fraud detected)
The fraud detection state is a gaming machine state in which fraud has been detected. The fraud detection state is set when an error related to fraud, such as a radio wave error or a magnetic error, is detected. In the fraud detection state, the game cannot proceed (the game is stopped).

(07H: Complete function active)
The complete function operating state is a gaming machine state in which the game is stopped and the game stoppage is notified. In the complete function operating state, the game cannot be progressed (the game is stopped).

Next, we will explain the game control process that the main CPU executes based on the program stored in the main ROM.

(Power-on processing)
The power-on process (CPU initialization process) executed by the main CPU will now be described. FIG. 12 is a flowchart showing the power-on process. When the power is turned on, the main CPU starts the power-on process shown in FIG. 12. The power-on process is based on a program for controlling the progress of the game. In other words, the power-on process is based on a program stored in the use area m1 (program area) of the main ROM.

The main CPU executes the CPU initial setting process (S1-1). During the CPU initial setting process, the startup program is read from the main ROM and settings necessary for executing various processes, such as register settings, are performed.

Next, the main CPU executes a specific input port verification process at power-on (step S1-2). This process determines whether the value set in the reception memory area of a specific input port (e.g., input port 0 and input port 1) corresponding to a specific switch (sensor) is "1" (ON state). If the value is ON, a value indicating that the switch (sensor) is ON (e.g., "1") is stored in a specific area of main RAM (ON state memory area). If the value is not ON, a value indicating that the switch (sensor) is OFF (e.g., "0") is stored in a specific area of main RAM (ON state memory area). The specific switches (sensors) include the RAM clear switch 407, setting key switch 408, inner frame open sensor 508, and ball removal switch.

Next, the main CPU executes RAM access permission processing (step S1-3). This RAM access permission processing executes the processing required to permit access to the work area of the main RAM.

Next, the main CPU executes a gaming machine status flag acquisition process (step S1-4). In the gaming machine status flag acquisition process, the gaming machine status flag is acquired. Specifically, in the gaming machine status flag acquisition process, the value (gaming machine status flag) stored in the gaming machine status flag area of the main RAM is stored (loaded) into the D register.

Next, the main CPU determines whether the backup valid flag is normal (step S1-5). Here, if the value stored in the backup valid flag area of the main RAM (backup valid flag) is a predetermined valid value, it determines that the backup valid flag is normal; if the value stored in the backup valid flag area is not a predetermined valid value, it determines that the backup valid flag is abnormal.

Next, if the main CPU determines that the backup valid flag is normal, it proceeds to processing in step S1-6. On the other hand, if it determines that the backup valid flag is abnormal, it proceeds to processing in step S1-16.

Next, the main CPU executes a checksum calculation process (step S1-6). In the checksum calculation process, a checksum is calculated based on the backup information.

Next, the main CPU determines whether the checksum calculated in step S1-6 is normal (step S1-7). Specifically, it determines whether the calculated checksum value matches the checksum value stored at the time of power outage.

If the main CPU determines that the checksums are normal (match), it proceeds to step S1-8. On the other hand, if it determines that the checksums are abnormal (do not match), it proceeds to step S1-16.

Next, the main CPU executes a process to set areas to be cleared when the power is turned on (step S1-8). In this process, the areas to be cleared (initialized) in the main RAM's used area M1 are set to include areas other than the set value area and the gaming machine status flag area (specifically, the checksum area, backup valid flag area, error-related area, normal game-related area 1, normal game-related area 2, and stack area).

Next, the main CPU determines whether the RAM clear switch 407 is in the ON state (step S1-9). Based on the information stored in step S1-2, the main CPU determines whether the RAM clear switch 407 is in the ON state.

If the main CPU determines that the RAM clear switch 407 is not in the ON state, it proceeds to processing in step S1-10. On the other hand, if it determines that the RAM clear switch 407 is in the ON state, it proceeds to processing in step S1-19.

Next, the main CPU determines whether a playable state has been set (step S1-10). Here, it determines whether a playable state has been set based on the gaming machine state flag stored in the D register.

If the main CPU determines that a playable state has been set, it proceeds to processing step S1-11. On the other hand, if it determines that a playable state has not been set, it proceeds to processing step S1-13.

Next, the main CPU determines whether the setting confirmation condition is met (step S1-11). The "setting confirmation condition" is met when the game is set to a playable state, the RAM clear switch 407 is not in the ON state, the setting key switch 408 is in the ON state, and the inner frame open sensor 508 is in the ON state.

If the main CPU determines that the setting confirmation condition is met, it proceeds to step S1-12. On the other hand, if it determines that the setting confirmation condition is not met, it proceeds to step S1-13.

Next, the main CPU executes a setting confirmation state setting process (step S1-12). In the setting confirmation state setting process, a value corresponding to the setting value confirmation state is set as the gaming machine state flag in the D register.

(Step S1-13)
Next, the main CPU executes a process for setting an area to be cleared when the power is restored (step S1-13). In the process for setting an area to be cleared when the power is restored, the area to be cleared (initialized) in the main RAM usage area M1 is set to include the set value area, the gaming machine status flag area, the normal game-related area 2, and the stack area, but includes the other areas (specifically, the checksum area, the backup valid flag area, the error-related area, and the normal game-related area 1).

Next, the main CPU executes power-on initialization processing (step S1-14). During power-on initialization processing, the range of main RAM's used area M1 set in step S1-13 is cleared (initialized).

Next, the main CPU executes a power recovery subcommand setting process (step S1-15). In the power recovery subcommand setting process, a subcommand specifying that power has been restored from a power outage (power recovery command) is stored in the subcommand output request buffer in the main RAM. After step S1-15, the process proceeds to step S1-29.

(Step S1-16)
The main CPU executes a backup abnormal state setting process (step S1-16) in which a value corresponding to the backup abnormal state is set as the gaming machine state flag in the D register.

Next, the main CPU executes a non-used area read/write check process (step S1-17). In the non-used area read/write check process, the non-used area M2 of the main RAM is cleared (initialized) and a read/write check is performed.

Next, the main CPU executes a process to set areas to be cleared in the event of an abnormality (step S1-18). In this process, all areas (specifically, the set value area, gaming machine status flag area, checksum area, backup valid flag area, error-related area, normal game-related area 1, normal game-related area 2, and stack area) are set as the range to be cleared (initialized) in the main RAM's used area M1.

(Step S1-19)
The main CPU executes a used area read/write check process (step S1-19). In the used area read/write check process, all areas (the range set in step S1-18) of the used area M1 of the main RAM are cleared (initialized) and a read/write check is performed. Specifically, in the used area read/write check process, all areas (specifically, the set value area, the gaming machine status flag area, the checksum area, the backup valid flag area, the error-related area, the normal game-related area 1, the normal game-related area 2, and the stack area) of the used area M1 of the main RAM are cleared (initialized).

Next, the main CPU determines whether the results of the read/write check are normal (step S1-20).

If the main CPU determines that the results of the read/write check are abnormal, it executes a RAM abnormal state setting process (step S1-21). In the RAM abnormal state setting process, a value corresponding to a RAM abnormal state is set as the gaming machine state flag in the D register. After processing step S1-21, the process proceeds to step S1-26. If the main CPU determines that the results of the read/write check are normal in step S1-20, it determines whether a playable state has been set (step S1-22).

If the main CPU determines that the playable state has been set, it executes a playable state setting process (step S1-23). In the playable state setting process, a value corresponding to the playable state is set as the gaming machine state flag in the D register. After processing step S1-23, the process proceeds to step S1-24. If the main CPU determines in step S1-22 that the playable state has not been set, the process proceeds to step S1-24.

(Step S1-24)
The main CPU determines whether the setting change condition is met (step S1-24). The "setting change condition" is met when the RAM clear switch 407 is in the ON state, the setting key switch 408 is in the ON state, and the inner frame open sensor 508 is in the ON state.

If the main CPU determines that the setting change condition is met, it executes a setting change state setting process (step S1-25). In the setting change state setting process, a value corresponding to the setting change state is set as the gaming machine state flag in the D register. On the other hand, if the main CPU determines that the setting change condition is not met, it proceeds to step S1-26.

(Step S1-26)
The main CPU executes a RAM clear initialization process (step S1-26). In the RAM clear initialization process, the main RAM is initialized. In the RAM clear initialization process, the range set in step S1-8 within the main RAM usage area M1 is cleared (initialized). Specifically, in the RAM clear initialization process, the remaining areas of the main RAM usage area M1, excluding the setting value area and the gaming machine status flag area, are cleared (initialized) (specifically, the checksum area, backup valid flag area, error-related area, normal game-related area 1, normal game-related area 2, and stack area).

Next, the main CPU executes a RAM clear subcommand setting process (step S1-27). In the RAM clear subcommand setting process, a subcommand specifying that a RAM clear has been executed (RAM clear designation command) is stored in the subcommand output request buffer of the main RAM.

Next, the main CPU executes the complete function initialization process (step S1-28). In the complete function initialization process, the activation state of the complete function is cancelled based on the execution of the RAM clear (or setting change).

(Step S1-29)
Next, the main CPU executes a power-on setting process (step S1-29), which includes a process for setting the main control chip ID and a process for outputting manufacturer code information.

Next, the main CPU executes a gaming machine status flag save process (step S1-30). In the gaming machine status flag save process, the gaming machine status flag set in the D register is stored (saved) in the gaming machine status flag area of the main RAM.

Next, the main CPU executes port input processing (step S1-31). In this port input processing, the state of each switch (sensor) is acquired. The main RAM has an ON-state memory area corresponding to each switch (sensor) connected to input port 404 (input port 0 to input port 3). In this port input processing, the ON-state is determined for each switch (sensor) connected to input port 404 (input port 0 to input port 3). An ON-state refers to a state in which a detection signal has changed from a low level (no detection signal input) to a high level (detection signal input). The main CPU determines whether each switch (sensor) is in the ON-state based on the information stored in the reception memory area corresponding to each switch (sensor). If the ON-state is determined to be present for a switch (sensor), the main CPU sets "1" to the ON-state memory area corresponding to that switch (sensor). On the other hand, if the ON-state is not determined for a switch (sensor), the main CPU sets "0" to the ON-state memory area corresponding to that switch (sensor).

Next, the main CPU executes the interrupt setting process (step S1-32). In the interrupt setting process, a value equivalent to the timer interrupt period (e.g., 4 ms) is set in the timer circuit.

(Main loop processing)
After the process of step S1-32, the main CPU proceeds to the main loop process, which is based on a program for controlling the progress of the game.

The main CPU executes interrupt disable processing (step S2-1). This disables interrupts, which disables interrupts from other processes. As a result, execution of timer interrupt processing and the like is prohibited while the interrupt disable state is set.

Next, the main CPU executes a subcommand transmission process (performance control command transmission process) (step S2-2). In the subcommand transmission process, the subcommands stored in the subcommand output request buffer of the main RAM are output to the transmission data register of the output port 405. The subcommands input to the transmission data register are stored in a FIFO buffer, and the subcommands stored in the FIFO buffer are transmitted to the sub-control board 202 in a predetermined order by the transmission shift register.

Next, the main CPU executes the interrupt permission process (step S2-3). The interrupt permission process cancels the interrupt prohibition state. As a result, the period from when the interrupt permission process of step S2-3 is executed until when the interrupt prohibition process of step S2-1 is executed becomes the "interrupt permission period," during which execution of the timer interrupt process is permitted.

(Timer interrupt processing)
The clock generation circuit 402 generates an interrupt request signal at a predetermined interrupt period (4 ms). The main CPU executes timer interrupt processing based on the generation of the interrupt request signal during an "interrupt permission period." Figure 13 is a flowchart showing an example of timer interrupt processing.

The main CPU executes dynamic port output processing (step S3-1). This processing involves outputting signals (lighting control information) for controlling the lighting of the status display unit 70 and performance display device 406.

Next, the main CPU executes port input processing (step S3-2). The main CPU updates the information in the ON status storage area in the main RAM based on input information from each operating device, switch, sensor, etc.

Next, the main CPU executes a gaming machine status flag acquisition process (step S3-3). In the gaming machine status flag acquisition process, the gaming machine status flag stored in the gaming machine status flag area of the main RAM is acquired. Specifically, the value stored in the gaming machine status flag area of the main RAM is acquired.

The main CPU then determines whether an error related to game suspension has occurred based on the value acquired in step S3-3 (step S3-4). Specifically, if the acquired value is "03H" for a setting abnormality, "04H" for a RAM abnormality, "05H" for a backup abnormality, "06H" for a fraud detection state, or "07H" for a complete function activation state, it determines that an error related to game suspension has occurred. If it is determined in step S3-4 that an error related to game suspension has occurred, it proceeds to processing in step S3-12. On the other hand, if it is determined in step S3-4 that an error related to game suspension has not occurred, it proceeds to processing in step S3-5.

Next, the main CPU determines whether the setting is being changed or confirmed based on the value acquired in step S3-3 (step S3-5). Specifically, if the acquired value is either "01H" for the setting change state or "02H" for the setting confirmation state, it determines that the setting is being changed or confirmed. If it is determined in step S3-5 that the setting is being changed or confirmed, it proceeds to processing in step S3-12. On the other hand, if it is determined in step S3-5 that the setting is not being changed or confirmed (neither), it proceeds to processing in step S3-6.

Next, the main CPU executes ball entry/exit count processing (step S3-6). Ball entry/exit count processing counts the number of balls that enter the big prize slot 50 in order to control the rounds of big prize games and small prize games.

Next, the main CPU executes a timer update process (step S3-7). This process updates various timers. This process updates the values of various timers used for time control, such as the time it takes for special symbols to fluctuate and the elapsed time of rounds during a jackpot.

Next, the main CPU executes the ball entrance switch management process (step S3-8). In the ball entrance switch management process, it executes processing according to the information (whether or not an ON state is detected) of various switches at this interruption stored in step S3-2. The main CPU checks whether there has been a change in the information (whether or not an ON state is detected) of switches such as the prize entrance, and performs, for example, a determination of whether or not a prize has been won, whether or not a prize for a prize entrance related to an electric device is valid, and storage of a reserve (special random number value).

Next, the main CPU executes the special game management process (step S3-9). The special game management process controls the special symbol lottery, special symbol fluctuation, and special electric devices (jackpot games, small jackpot games).

Next, the main CPU executes the normal game management process (step S3-10). The normal game management process controls the normal symbol lottery, normal symbol variation, and normal electric device.

Next, the main CPU executes a launch position designation management process (step S3-11). The launch position designation management process executes processing related to the designation of the launch position. For example, when a game state changes from one that designates the launch of the game ball into the left game area 4a (left hit) to one that designates the launch of the game ball into the right game area 4b (right hit) (at the time of state change), the main CPU sets (sets) a presentation control command (presentation control information) that designates a right hit (according to the game state).

(Step S3-12)
Next, the main CPU executes a state management process (step S3-12), in which it determines whether an abnormality (error) has occurred and performs processing according to the determination result.

Next, the main CPU executes a main control state generation process (step S3-13). The main control state generation process involves setting control information for external signal output, etc. External signals include external signals related to game states such as special games (jackpots, small jackpots) and time-saving states.

Next, the main CPU executes the complete command set process (step S3-14). The complete command set process will be described later.

Next, the main CPU executes a gaming machine status flag setting process (step S3-15). The gaming machine status flag setting process will be described later.

Next, the main CPU executes a main command reception process (step S3-16). In the main command reception process, it performs processes related to communication with the dedicated unit 400. For example, it performs processes related to control and information communication related to firing, ball lending, counting, clearing the number of game balls, etc. It also manages errors related to the dedicated unit 400 and sets performance control commands.

Next, the main CPU executes the frame control management process (step S3-17). In the frame control management process, it controls the frame control board 201. For example, it performs a process to check the status of the frame control board 201. It also performs a process related to sending frame control information commands. It also performs a process related to the performance display device 406. It also performs a process related to prize balls (for example, setting payout information and external output information).

Next, the main CPU performs an LED display setting process (step S3-18). In the LED display setting process, lighting pattern data (commands) to be displayed on each display unit (special symbol indicator light, normal symbol indicator light, status indicator light, etc.) in the status display unit 70 is generated and set (configured).

Next, the main CPU performs specific port output processing (step S3-19). This processing primarily involves configuring the signal output to the drive sources (solenoids) of the special electric device (special device 56) and the regular electric device (regular device 54). It also generates information related to the front frame open sensor 507 and inner frame open sensor 508, which are output from the same output port.

Next, the main CPU performs the easy-to-score state confirmation signal setting process (step S3-20). In the easy-to-score state confirmation signal setting process, settings are made to output an external signal regarding the operating status of the normal electric device (normal device 54).

Next, the main CPU performs test signal output processing (step S3-21). Test signal output processing is performed to output a test signal. Note that this processing is based on a program stored in the unused area m2 of the main ROM.

Next, the main CPU performs a ball payout information calculation process (step S3-22). The ball payout information calculation process is a process that calculates information related to the display of the performance display device 406. Note that this process is based on a program stored in the unused area m2 of the main ROM.

Next, the main CPU performs an MY determination counter check process (step S3-23). The MY determination counter check process will be described later. Note that this process is based on a program stored in the unused area m2 of the main ROM.

Next, the main CPU performs a complete management phase setting process (step S3-24). The complete management phase setting process will be described later. Note that this process is based on a program stored in the unused area m2 of the main ROM.

Next, the main CPU performs interrupt permission processing (step S3-25). In the interrupt permission processing, an interrupt is permitted. This interrupt permission is provided so that the process can proceed to power interruption processing upon receiving a signal indicating the detection of a power interruption (power interruption signal).

(MY Determination Counter Check Process)
The main CPU executes the MY determination counter confirmation process (step S3-23 in FIG. 13). The main RAM (usage area M1) is provided with a complete function operation management phase (storage area) that controls the operation of the complete function. The MY determination counter confirmation process is a process for updating the complete function operation management phase. The frame control board 201 is capable of transmitting information related to the stored value of the MY counter 221 to the main control board 200. Specifically, it transmits to the main control board 200 a value (MY information) obtained by dividing the stored value of the MY counter 221 by 1000. The main CPU of the main control board 200 updates the value of the complete function operation management phase (each operation state designation value of the complete function) based on the MY information received from the frame control board 201. FIG. 14 shows the possible values of the complete function operation management phase.

If the value received from the frame control board 201 is less than 90 (5AH) based on the fact that the stored value of the MY counter 221 is less than 90,000, the main CPU stores "00H" (the complete function deactivation state designation value) in the complete function activation management phase. In other words, if the stored value of the MY counter 221 is less than the first threshold value "90,000", "00H" is stored in the complete function activation management phase.

If the value received from the frame control board 201 is 90 (5AH) based on the fact that the stored value of the MY counter 221 is between 90000 and 90999, the main CPU stores "01H" (complete function activation warning 1 state designation value) in the complete function activation management phase. In other words, if the stored value of the MY counter 221 is equal to or greater than the first threshold value "90000" and less than the second threshold value "91000", "01H" is stored in the complete function activation management phase.

If the value received from the frame control board 201 is 91 (5BH) based on the fact that the stored value of the MY counter 221 is between 91000 and 91999, the main CPU stores "02H" (complete function activation warning 2 state designation value) in the complete function activation management phase. In other words, if the stored value of the MY counter 221 is greater than or equal to the second threshold value "91000" and less than the third threshold value "92000", "02H" is stored in the complete function activation management phase.

If the value received from the frame control board 201 is 92 (5CH) based on the fact that the stored value of the MY counter 221 is between 92000 and 92999, the main CPU stores "03H" (complete function activation warning 3 state designation value) in the complete function activation management phase. In other words, if the stored value of the MY counter 221 is equal to or greater than the third threshold value "92000" and less than the fourth threshold value "93000", "03H" is stored in the complete function activation management phase.

If the value received from the frame control board 201 is 93 (5DH) based on the fact that the stored value of the MY counter 221 is between 93000 and 93999, the main CPU stores "04H" (complete function activation warning 4 state designation value) in the complete function activation management phase. In other words, if the stored value of the MY counter 221 is equal to or greater than the fourth threshold value "93000" and less than the fifth threshold value "94000", "04H" is stored in the complete function activation management phase.

If the value received from the frame control board 201 is 94 (5EH) based on the fact that the stored value of the MY counter 221 is between 94000 and 94999, the main CPU stores "05H" (complete function activation warning 5 state designation value) in the complete function activation management phase. In other words, if the stored value of the MY counter 221 is equal to or greater than the fifth threshold value "94000" and less than the specific value "95000", "05H" is stored in the complete function activation management phase.

If the value received from the frame control board 201 is 95 (5FH) based on the fact that the stored value of the MY counter 221 is 95,000 or greater, the main CPU stores "06H" (the complete function activation notice state designation value) in the complete function activation management phase. In other words, if the stored value of the MY counter 221 is the specific value "95,000" or greater, "06H" is stored in the complete function activation management phase.

In this embodiment, in the MY determination counter confirmation process, "00H" to "06H" can be stored in the complete function operation management phase. "07H" (complete function operation state designation value) is not stored in the MY determination counter confirmation process, but can be stored in the complete management phase setting process described below.

The value of the complete function activation management phase is updated (starts to increase) when the stored value of the MY counter 221 exceeds 90,000 (becomes 90,000 or greater), and thereafter the value increases (is updated) every time the stored value of the MY counter 221 increases by 1,000 (in units of 1,000 shots).

In this embodiment, the value of the complete function operation management phase is configured to increase (increment) each time the stored value of the MY counter 221 increases by "1000", but this is not limited thereto, and the value of the complete function operation management phase may be configured to decrease (decrement) each time the stored value of the MY counter 221 increases by "1000".

FIG. 15 is a flowchart showing an example of the MY determination counter checking process.
The main CPU acquires the value (current MY information) of the MY determination counter information storage buffer (step S4-1).

Next, the main CPU obtains the value of the MY determination counter information comparison buffer (previous MY information) (step S4-2).

Next, the main CPU compares the current MY information with the previous MY information to determine whether there has been a change (step S4-3). Whether there has been a change can be determined, for example, by subtracting the current MY information from the previous MY information and determining whether the result is 0 (no change).

If it is determined in step S4-3 that there has been a change, the process proceeds to step S4-4. On the other hand, if it is determined that there has not been a change, the MY determination counter confirmation process ends.

Next, the main CPU stores the value of the MY determination counter information storage buffer (the value acquired in step S4-1) in the MY determination counter information comparison buffer (step S4-4). That is, if the value of the MY determination counter information storage buffer, which is the current MY information, changes from the value of the MY determination counter information comparison buffer, which is the previous MY information, the current MY information that has changed is stored in the MY determination counter information comparison buffer as the previous MY information, so that it can be used as comparison data from the next time onwards.

Next, the main CPU obtains the gaming machine status flag (step S4-5).

Next, the main CPU determines whether the gaming machine status flag obtained in step S4-5 is "00H" (playable state) (step S4-6).

If it is determined in step S4-6 that the gaming machine status flag is "00H," the process proceeds to step S4-7. On the other hand, if it is determined that the gaming machine status flag is not "00H," the MY determination counter confirmation process ends.

Next, the main CPU acquires the complete function activation management phase (step S4-7).

Next, the main CPU determines whether the complete function activation management phase obtained in step S4-7 is "06H" (complete function activation notice state designation value) (step S4-8).

If it is determined in step S4-8 that the complete function activation management phase is not "06H," processing proceeds to step S4-9. On the other hand, if it is determined that the complete function activation management phase is "06H," the MY determination counter confirmation process ends. If "06H" is (already) stored in the complete function activation management phase, the complete function activation management phase is not updated. Even if the power is intentionally turned off and the MY counter 221 is cleared, the value of "06H" in the complete function activation management phase is maintained, and the complete function will transition to an activated state after power is turned on (details of the process related to the activation of the complete function will be described later).

Next, the main CPU obtains the value of the MY determination counter information storage buffer (current MY information) (step S4-9).

Next, the main CPU sets the value (95) of the first address of the MY determination counter judgment table as comparison data (step S4-10). Figure 16 shows the MY determination counter judgment table, with "95" stored in the first address, "94" stored in the second address, "93" stored in the third address, "92" stored in the fourth address, "91" stored in the fifth address, and "90" stored in the sixth address.

Next, the main CPU sets the number of judgments (06H) (step S4-11).

Next, the main CPU compares the current MY information (current MY data) with the comparison data and determines whether the difference corresponds to the judgment value (0) (step S4-12).

If it is determined in step S4-12 that the value does not correspond to the judgment value "0", the process proceeds to step S4-13. On the other hand, if it is determined that the value corresponds to the judgment value "0", the process proceeds to step S4-16.

Next, the main CPU subtracts "1" from the number of determinations (step S4-13).

Next, the main CPU determines whether the number of judgments is "00H" (step S4-14).

If it is determined in step S4-14 that the number of judgments is not "00H", the process proceeds to step S4-15. On the other hand, if it is determined that the number of judgments is "00H", the process proceeds to step S4-16.

Next, the main CPU updates the reference address in the MY determination counter judgment table and sets the value of the next address as comparison data (step S4-15). After processing step S4-15, processing returns to step S4-12. That is, in the processing from step S4-12 to step S4-15, the current MY information (the value of the MY counter 221 received from the frame control board 201 divided by 1000) is repeatedly judged until it matches the value stored in the MY determination counter judgment table, while repeatedly updating the number of judgments.

(Step S4-16)
The main CPU acquires the complete function operation management phase (step S4-16).

Next, the main CPU determines whether the value obtained in step S4-16 matches (is equal to) the number of judgments (step S4-17).

If it is determined in step S4-17 that there is a match, the MY determination counter confirmation process ends. On the other hand, if it is determined that there is no match, the process proceeds to step S4-18.

Next, the main CPU stores the number of judgments as the value of the latest complete function activation management phase in the complete function activation management phase memory area (step S4-18).

Here, some specific examples of the processing from step S4-9 onwards will be described.
First, a description will be given of the case where current MY information "95" is acquired in step S4-9. Current MY information "95" occurs when the value of the MY counter 221 is between 95,000 and 95,999. Since the value of the MY counter 221 has reached 95,000, the complete function should be activated. When current MY information "95" is acquired in step S4-9, comparison data "95" is set in step S4-10. Next, the number of judgments "06H" is set in step S4-11. Next, the difference is determined to be "0" (corresponding to the judgment value) in step S4-12. If the complete function activation management phase acquired in step S4-16 is "05H," it is determined in step S4-17 that there is no match, and the number of judgments "06H" (the value designated for the complete function activation notice state) is stored in the complete function activation management phase in step S4-18. However, if the complete function operation management phase stored at the timing of the previous interrupt obtained in step S4-16 is "06H", the process of S4-18 is omitted and the MY determination counter confirmation process is terminated.

Next, we will explain the case where a prize ball is won and the value of the MY counter 221 exceeds 93,000, and the current MY information "93" is obtained in step S4-9. In step S4-10, the comparison data "95" is set. Next, in step S4-11, the number of judgments "06H" is set. Next, in step S4-12, it is determined that the difference is not "0" (does not correspond to the judgment value). Next, in step S4-13, the number of judgments becomes "05H". Next, in step S4-14, it is determined that the number of judgments is not "00H", and in step S4-15, the comparison data "94" is set. Next, in step S4-12, it is determined that the difference is not "0" (does not correspond to the judgment value). Next, in step S4-13, the number of judgments becomes "04H". Next, in step S4-14, it is determined that the number of judgments is not "00H", and in step S4-15, the comparison data "93" is set. Next, in step S4-12, it is determined that the difference is "0" (corresponding to the judgment value). If the complete function activation management phase obtained in step S4-16 is "03H", it is determined in step S4-17 that there is no match, and in step S4-18, the number of judgments "04H" (complete function activation warning 4 state specified value) is stored in the complete function activation management phase.

Next, we will explain the case where, when the value of the MY counter 221 falls below 90,000 due to the launch of a gaming ball, the current MY information "89" is obtained in step S4-9. In step S4-10, the comparison data "95" is set. Next, in step S4-11, the number of judgments "06H" is set. Next, in step S4-12, it is determined that the difference is not "0" (does not correspond to the judgment value). Next, in step S4-13, the number of judgments becomes "05H". Next, in step S4-14, it is determined that the number of judgments is not "00H", and in step S4-15, the comparison data "94" is set. Next, in step S4-12, it is determined that the difference is not "0" (does not correspond to the judgment value). Next, in step S4-13, the number of judgments becomes "04H". Next, in step S4-14, it is determined that the number of judgments is not "00H", and in step S4-15, the comparison data "93" is set. Next, in step S4-12, it is determined that the difference is not "0" (does not correspond to the judgment value). Next, in step S4-13, the number of judgments becomes "03H". Next, in step S4-14, it is determined that the number of judgments is not "00H", and in step S4-15, the comparison data "92" is set. Next, in step S4-12, it is determined that the difference is not "0" (does not correspond to the judgment value). Next, in step S4-13, the number of judgments becomes "02H". Next, in step S4-14, it is determined that the number of judgments is not "00H", and in step S4-15, the comparison data "91" is set. Next, in step S4-12, it is determined that the difference is not "0" (does not correspond to the judgment value). Next, in step S4-13, the number of judgments becomes "01H". Next, in step S4-14, it is determined that the number of judgments is not "00H", and in step S4-15, the comparison data is set to "90". Next, in step S4-12, it is determined that the difference is not "0" (does not correspond to the judgment value). Next, in step S4-13, the number of judgments becomes "00H". Next, in step S4-14, it is determined that the number of judgments is "00H". If the complete function activation management phase obtained in step S4-16 is "01H", it is determined in step S4-17 that there is no match, and in step S4-18, the number of judgments "00H" (the complete function activation deactivation state designated value) is stored in the complete function activation management phase.

(Complete management phase setting process)
The main CPU performs a complete management phase setting process (step S3-24 in FIG. 13). The complete management phase setting process is a process for determining whether or not to store "07H" in the complete function operation management phase. In the complete management phase setting process, the main CPU determines whether or not the operation conditions of the complete function are met, and also determines whether or not the control state of the special symbol is during special play (during small win play or big win play). When the main CPU determines that the operation conditions of the complete function are met and the control state of the special symbol is not during special play, it stores "07H" (complete function operation state designated value) in the complete function operation management phase.

FIG. 17 is a flowchart illustrating an example of the complete management phase setting process.
The main CPU acquires the complete function operation management phase (step S5-1).

Next, the main CPU determines whether the complete function activation management phase obtained in step S5-1 is "06H" (complete function activation notice state designation value), which is the value set when the stored value of the MY counter 221 reaches or exceeds "95000," the value at which the complete function should be activated (step S5-2).

If it is determined in step S5-2 that the complete function activation management phase is "06H," the process proceeds to step S5-3. On the other hand, if it is determined that the complete function activation management phase is not "06H," the complete management phase setting process ends.

Next, the main CPU acquires the special game management phase (step S5-3). The main RAM (usage area M1) is provided with a special game management phase (storage area). The main CPU executes the special game management process (step S3-9 in Figure 13) and updates the value of the special game management phase. The value of the special game management phase indicates the control status of the special symbol. Figure 18 shows the possible values of the special game management phase.

When the special symbol is stopped (non-winning game is in progress), the main CPU stores "00H" (special symbol change waiting state designation value) in the special game management phase.
When the special symbol is being displayed in a variable manner, the main CPU stores "01H" (special symbol variable state designation value) in the special game management phase.
When it is the fixed time (confirmed time) of the special symbol after the variable display of the special symbol, the main CPU stores "02H" (special symbol stop symbol display state designation value) in the special game management phase.
When the main CPU is in the start demo for small win game, it stores "03H" (small win big prize opening start wait state designation value) in the special game management phase.
When the large prize opening 50 for a small win game is open (including the temporary closing time of the large prize opening 50 during the opening operation), the main CPU stores "04H" (small win first large prize opening opening control state designation value) in the special game management phase.
When the large prize opening 50 for a small prize game has been closed (ball sweeping time), the main CPU stores "05H" (small prize first large prize opening closure valid state designation value) in the special game management phase.
When the main CPU is in the end demo for the small win game, it stores "06H" (small win big prize slot end wait state designation value) in the special game management phase.
When the main CPU is in the start demo for the jackpot game, it stores "07H" (the designated value for the start wait state of the jackpot big prize entry port) in the special game management phase.
When the next round of play related to the jackpot game is about to start, the main CPU stores "08H" (a value designated for the state before the opening of the jackpot winning hole) in the special game management phase.
When a round of play related to a jackpot game is in progress, the main CPU stores "09H" (a designated value for the jackpot large prize opening control state) in the special game management phase.
When the round of play related to the jackpot game has ended (ball sweeping time), the main CPU stores "0AH" (designated value for the jackpot big prize opening closure valid state) in the special game management phase.
When the main CPU is in the end demo related to the jackpot game, it stores "0BH" (a designated value for the end wait state of the jackpot big prize entry port) in the special game management phase.

Returning to Figure 17, the main CPU determines whether the special game management phase acquired in step S5-3 is between "03H" and "0BH" (whether it is 03H or greater) (step S5-4). "03H" to "0BH" indicates a situation in which a small win game or a big win game is being played, i.e., a situation in which a special game is being played.

If it is determined in step S5-4 that the special game management phase is not between "03H" and "0BH" (if it is determined that neither a small win nor a big win is occurring), the process proceeds to step S5-5. On the other hand, if it is determined that the special game management phase is between "03H" and "0BH" (if it is determined that either a small win or a big win is occurring), the complete management phase setting process ends.

Next, the main CPU stores "07H" (complete function activation state designation value) in the complete function activation management phase (step S5-5).

In this embodiment, even if the complete function activation management phase becomes "06H," if a special game is being played (if the special game management phase is any of "03H" to "0BH"), "07H" is not stored in the complete function activation management phase. In other words, if the complete function activation management phase becomes "06H" and a special game is not being played (if the special game management phase is any of "00H" to "02H"), "07H" is stored in the complete function activation management phase. When "07H" is stored in the complete function activation management phase, the gaming machine status flag setting process described below sets the gaming machine status flag to "07H" and the complete function is activated.

Let's consider a case where the MY counter 221 has a stored value of "94999," which is less than the specific value "95000," the complete function activation management phase is "05H," a game ball enters the general prize slot 47, and three prize balls are paid out. In this case, the MY counter 221 has a stored value of 95000 or greater, and the main CPU receives "95 (5FH)" related to the stored value of the MY counter 221 from the frame control board 201. In the MY determination counter confirmation process, the main CPU stores "06H" in the complete function activation management phase. In the complete management phase setting process, the main CPU determines that the complete function activation management phase is "06H" and that the special game management phase is not one of "03H" to "0BH," and stores "07H" in the complete function activation management phase. Then, in the gaming machine status flag setting process described below, the main CPU sets the gaming machine status flag to "07H." This activates the complete function. When the value stored in the MY counter 221 reaches the specific value "95000" based on a game ball entering the general winning port 47, the complete function is activated immediately.

Note that while the special symbol is changing and being displayed, the special game management phase is "01H." Therefore, even if the special symbol is changing due to a winning change, if the stored value of the MY counter 221 reaches the specific value "95000" due to a game ball entering the general winning slot 47 or other starting slot, or due to the addition (return) of game balls due to the occurrence of a foul ball, the complete function will be activated (without the special game being executed).

(Complete command set processing)
The main CPU performs complete command set processing (step S3-14 in FIG. 13). The complete command set processing is a process for setting a performance control command for issuing a pre-warning of the activation of the complete function and for issuing a notification related to the activation of the complete function. The main CPU checks whether there has been a change (update) in the complete function activation management phase, and sets a performance control command if there is a difference between the value at the previous interrupt and the value at the current interrupt. FIG. 19 is a flowchart showing an example of the complete command set processing.

The main CPU acquires the gaming machine status flag (see Figure 11) (step S6-1).

Next, the main CPU determines whether the gaming machine status flag obtained in step S6-1 is "00H" (playable state) (step S6-2).

If it is determined in step S6-2 that the gaming machine status flag is "00H," the process proceeds to step S6-3. On the other hand, if it is determined that the gaming machine status flag is not "00H," the complete command set process ends.

Next, the main CPU acquires the complete function activation management phase (step S6-3).

Next, the main CPU obtains the value of the buffer (complete function-related command management buffer) that stores information from the previous command transmission (step S6-4). This value can be considered the value of the complete function operation management phase from the previous command transmission.

Next, the main CPU determines whether the value obtained in step S6-3 matches the value obtained in step S6-4 (step S6-5).

If it is determined in step S6-5 that there is no match, the process proceeds to step S6-6. On the other hand, if it is determined that there is a match, the complete command set process ends.

Next, the main CPU stores the value obtained in step S6-3 in the complete function-related command management buffer (a specified buffer storage area) (step S6-6).

Next, the main CPU executes the performance control command set process (steps S6-7). In the performance control command set process, the performance control command related to the current (current) value of the complete function activation management phase is stored in the sub-command output request buffer of the main RAM. Based on this, the performance control command is sent to the sub-control board 202.

After exceeding the first value "90000", the stored value of the MY counter 221 may decrease as the game progresses, before reaching the specific value "95000". For example, after reaching "93000", it may decrease to "91500", and then reach "93000" again. In other words, the value of the complete function activation management phase may increase or decrease between "00H" and "05H". In this embodiment, a change (update) in the value of the complete function activation management phase (increase or decrease) triggers the transmission of a performance control command to the sub-control board 202. Furthermore, once the stored value of the MY counter 221 reaches the specific value "95000" and the value of the complete function activation management phase reaches "06H" or higher, the value of the complete function activation management phase will not fall below that value (for example, will not change from "06H" to "05H") (if YES is returned in step S4-8 after step S4-7 in FIG. 15).

(Gaming machine status flag processing)
The main CPU performs a gaming machine status flag setting process (step S3-15 in FIG. 13). In the gaming machine status flag setting process, settings related to the operation of the complete function, etc. are performed. FIG. 20 is a flowchart showing an example of the gaming machine status flag setting process.

The main CPU obtains the gaming machine status flag (see Figure 11) (step S7-1).

Next, the main CPU determines whether the gaming machine status flag obtained in step S7-1 is "04H" (RAM abnormal state) (step S7-2).

If it is determined in step S7-2 that the gaming machine status flag is "04H," the gaming machine status flag setting process is terminated. On the other hand, if it is determined that the gaming machine status flag is not "04H," the process proceeds to step S7-3.

Next, the main CPU determines whether the gaming machine status flag obtained in step S7-1 is either "01H" (setting change status) or "02H" (setting confirmation status) (step S7-3).

If it is determined in step S7-3 that the gaming machine status flag is either "01H" or "02H," the gaming machine status flag setting process is terminated. On the other hand, if it is determined that the gaming machine status flag is neither "01H" nor "02H" (neither "01H" nor "02H"), the process proceeds to step S7-4.

Next, the main CPU acquires the complete function activation management phase (step S7-4).

Next, the main CPU determines whether the value acquired in step S7-4 is "07H" (complete function activation state designation value) (step S7-5).

If it is determined in step S7-5 that the complete function activation management phase is "07H", the process proceeds to step S7-6. On the other hand, if it is determined that the complete function activation management phase is not "07H", the gaming machine status flag setting process is terminated.

Next, the main CPU stores "07H" (complete function activated) as the gaming machine status flag in the gaming machine status flag area of the main RAM (step S7-6). As a result, in the processing of step S3-4 of the timer interrupt processing, it is determined that an error related to game stop has occurred based on the gaming machine status flag ("07H") indicating the complete function activated state, various gaming processes are restricted, and the gaming machine status is set to "complete function activated."

As shown in Figure 17, in this embodiment, whether or not to store "07H" in the complete function activation management phase is determined based on whether or not the complete function activation management phase is "06H" and whether or not the special game management phase is "03H" to "0BH" (i.e., whether or not the complete function is activated is determined). This configuration simplifies the processing (program) and reduces the processing load.

In addition, in this embodiment, the process of storing "07H" in the complete function activation management phase is executed only in one module (the complete management phase setting process), and the process of storing "07H" in the complete function activation management phase (the process of setting information (flags, values) related to game stoppage when the activation conditions for the complete function are met) is not executed in other modules (for example, the special game management process or the prize ball process). This configuration prevents the program from becoming too complex (the program is simplified) and reduces the program size.

(Warning effect when complete function is activated)
As described above, the main control board 200 can activate the complete function when the stored value of the MY counter 221 reaches the specific value "95000." If the stored value of the MY counter 221 is equal to or greater than the first value (first threshold value) "90000" during the period before (just before, just before) the stored value of the MY counter 221 reaches the specific value "95000," the presentation control means 300 can execute a complete function activation warning presentation (specific presentation) that notifies the player of the number of game values (amount of game values) that can be acquired until the complete function is activated.

The main control board 200 generates stage information (management data) indicating which stage the value belongs to, divided into predetermined amounts (predetermined number: 1000) between the first value "90000" and the specific value "95000", based on information related to the stored value of the MY counter 221. This is explained in detail below.

When the information related to the stored value of the MY counter 221 (MY information) is "90" (when it changes to "90"), the main control board 200 generates "01H" (see Figure 14) as first-stage information and stores it in the complete function activation management phase. Furthermore, when the value of the complete function activation management phase is updated from a predetermined value ("00H" or "02H") to "01H", the main control board 200 sends a first performance control command (first performance control information) related to the value "01H" to the sub-control board 202 (see step S6-7 in Figure 19). Here, the performance control command sent to the sub-control board 202 may be configured, for example, as a combination of first information indicating the type of command (in this case, performance designation information related to the activation of the complete function) and second information, which is the value of the complete function activation management phase ("01H" in the first performance control command).

When the information related to the stored value of the MY counter 221 is "91", the main control board 200 generates "02H" (see Figure 14) as second-stage information and stores it in the complete function activation management phase. Furthermore, when the value of the complete function activation management phase is updated from a predetermined value ("01H" or "03H") to "02H", the main control board 200 sends a second performance control command (second performance control information) related to the value "02H" to the sub-control board 202.

When the information related to the stored value of the MY counter 221 is "92," the main control board 200 generates "03H" (see Figure 14) as third stage information and stores it in the complete function activation management phase. Furthermore, when the value of the complete function activation management phase is updated from a predetermined value ("02H" or "04H") to "03H," the main control board 200 sends a third performance control command (third performance control information) related to the value "03H" to the sub-control board 202.

When the information related to the stored value of the MY counter 221 is "93," the main control board 200 generates "04H" (see Figure 14) as fourth stage information and stores it in the complete function activation management phase. Furthermore, when the value of the complete function activation management phase is updated from a predetermined value ("03H" or "05H") to "04H," the main control board 200 sends a fourth performance control command (fourth performance control information) related to the value "04H" to the sub-control board 202.

When the information related to the stored value of the MY counter 221 is "94," the main control board 200 generates "05H" (see Figure 14) as fifth stage information and stores it in the complete function activation management phase. Furthermore, when the value of the complete function activation management phase is updated from a predetermined value ("04H") to "05H," the main control board 200 sends a fifth performance control command (fifth performance control information) related to the value "05H" to the sub-control board 202.

Based on receiving the first performance control command, the performance control means 300 executes the complete function activation warning performance shown in Fig. 21(a). In this performance, the text "Approximately 5000 shots remaining until the complete function is activated" (activation warning display) is displayed on the liquid crystal display 32, and a voice (activation warning audio) saying "Approximately 5000 shots remaining until the complete function is activated" is output from the speaker 14. The performance control means 300 outputs the activation warning audio once. Furthermore, the performance control means 300 continues the activation warning display until it receives the next performance control command (second performance control command).
In this embodiment, if the information related to the stored value of the MY counter 221 is less than "90," the main control board 200 generates "00H" (see FIG. 14) as the zeroth stage information and stores it in the complete function activation management phase. Furthermore, when the value of the complete function activation management phase is updated from "01H" to "00H," the main control board 200 transmits a zeroth performance control command (zeroth performance control information) related to the value "00H" to the sub-control board 202. If the performance control means 300 receives the zeroth performance control command while the activation warning display "Approximately 5,000 shots remaining until the complete function is activated" is displayed based on the reception of the first performance control command (FIG. 21(a)), the performance control means 300 terminates the activation warning display (i.e., terminates the complete function activation warning display).
Furthermore, the mode of the complete function activation warning display shown in Figure 21 shows a mode in which only the activation warning display is displayed on the liquid crystal display 32, but the activation warning display is actually a text image that is displayed superimposed (in front) on an effect image such as a preview effect or a jackpot effect, and the activation warning display is configured to be able to be displayed by appropriately switching the display position, display size, transparency, etc. according to the effect situation (according to the effect currently being executed).

Based on receiving the second performance control command, the performance control means 300 executes the complete function activation warning performance shown in Figure 21 (b). In this performance, the text "Approximately 4000 shots remaining until the complete function is activated" (activation warning display) is displayed on the LCD display 32, and a voice (activation warning audio) stating "Approximately 4000 shots remaining until the complete function is activated" is output from the speaker 14. The performance control means 300 outputs the activation warning audio once. The performance control means 300 also continues the activation warning display until it receives the next performance control command (third performance control command or first performance control command).

Based on receiving the third performance control command, the performance control means 300 executes the complete function activation warning performance shown in Figure 21 (c). In this performance, the text "Approximately 3000 shots remaining until the complete function is activated" (activation warning display) is displayed on the LCD display 32, and a voice (activation warning audio) stating "Approximately 3000 shots remaining until the complete function is activated" is output from the speaker 14. The performance control means 300 outputs the activation warning audio once. The performance control means 300 also continues the activation warning display until it receives the next performance control command (the fourth performance control command or the second performance control command).

Based on receiving the fourth performance control command, the performance control means 300 executes the complete function activation warning performance shown in Figure 21 (d). In this performance, the text "Approximately 2000 shots remaining until the complete function is activated" (activation warning display) is displayed on the LCD display 32, and a voice (activation warning audio) stating "Approximately 2000 shots remaining until the complete function is activated" is output from the speaker 14. The performance control means 300 outputs the activation warning audio once. The performance control means 300 also continues the activation warning display until it receives the next performance control command (the fifth performance control command or the third performance control command).

Based on receiving the fifth performance control command, the performance control means 300 executes the complete function activation warning performance shown in Figure 21 (e). In this performance, the text "Approximately 1000 shots remaining until the complete function is activated" (activation warning display) is displayed on the LCD display 32, and a voice (activation warning audio) stating "Approximately 1000 shots remaining until the complete function is activated" is output from the speaker 14. The performance control means 300 outputs the activation warning audio once. The performance control means 300 also continues the activation warning display until it receives the next performance control command (the sixth performance control command or the fourth performance control command, described below).

In this way, the performance control means 300 is able to execute a complete function activation warning performance in a mode (performance mode) that corresponds to the (type of) performance control command received. Note that in this embodiment, a performance control command based on stage information is sent to the sub-control board 202, and the stage information is used for the performance, but this is not limited to this. The stage information (value of the complete function activation management phase) may also be used, for example, for processing related to external signal output for testing.

For example, if the presentation control means 300 is executing the complete function activation warning presentation shown in FIG. 21(c) upon receiving the third presentation control command, and the stored value in the MY counter 221 begins to decrease and the second presentation control command is received, the presentation control means 300 executes the complete function activation warning presentation shown in FIG. 21(b). At this time, upon receiving the second presentation control command, a voice (activation warning voice) stating "Approximately 4000 shots remaining until the complete function is activated" is output. In this embodiment, when the stored value in the MY counter 221 decreases (when the complete function is getting closer to activation), the executed complete function activation warning presentation is switched from a higher-level presentation to a lower-level presentation. Here, the presentation that notifies the player that fewer play values can be acquired before the complete function is activated is considered to be a higher-level presentation.

When a lower-level effect is switched to a higher-level effect (when an effect control command related to a higher-level effect is received), the activation warning display is updated and an activation warning sound is output. In this embodiment, the activation warning display is updated and an activation warning sound is output even when a higher-level effect is switched to a lower-level effect (when an effect control command related to a lower-level effect is received). Note that when a higher-level effect is switched to a lower-level effect, the activation warning display may be updated but the activation warning sound may not be output. In this case, excessive notification (output) of the activation warning sound can be prevented, and the player's impression that their ball count has decreased can be reduced.

Let us consider a special situation where the value stored in the MY counter 221 reaches "92000," the text (activation warning display) saying "Approximately 3000 shots remaining until the complete function is activated" is displayed, and the voice (activation warning voice) saying "Approximately 3000 shots remaining until the complete function is activated" is output, as shown in Figure 21(c). While the activation warning voice is being output, the value stored in the MY counter 221 (balls held) decreases to "91998," and immediately thereafter the value stored in the MY counter 221 reaches "92000." While the effect control means 300 is executing a complete function activation warning effect based on the complete function activation management phase being updated to "03H" and receiving a third effect control command, the effect control means 300 receives a second effect control command based on the complete function activation management phase being updated to "02H," and immediately thereafter receives a third effect control command based on the complete function activation management phase being updated to "03H."

The presentation control means 300 may be configured to, upon receiving a presentation control command (here, the third presentation control command) related to a complete function activation warning presentation, not execute the complete function activation warning presentation based on the subsequent presentation control command (cancel the processing based on the subsequent presentation control command) if a subsequent presentation control command (here, the second presentation control command or the third presentation control command) is received while the complete function activation warning presentation corresponding to the presentation control command is being executed (while the activation warning audio is being output). For example, if a subsequent presentation control command is received while the activation warning audio stating "Approximately 3,000 shots remaining until the complete function is activated" is being output, the output of the activation warning audio based on that command will not be executed (started). In other words, the output of the activation warning audio currently being executed is output to the end without interruption. This prevents the ongoing presentation from being interrupted or the presentation from switching frequently, minimizing the player's impression of discomfort or annoyance.

In addition, the system may be configured so that, upon receiving a subsequent performance control command, the output of the active activation warning sound is interrupted and a new activation warning sound is started (the performance is updated). In this case, the active performance is updated to the new performance, thereby improving the reliability of the notification.

Furthermore, when the performance control means 300 starts a complete function activation warning performance based on receiving a performance control command (e.g., a third performance control command) related to a complete function activation warning performance, it may be configured not to execute a complete function activation warning performance based on the reception of a subsequent performance control command until a predetermined time (e.g., a predetermined time longer than the output time of a single activation warning sound: approximately 5 seconds) has elapsed since the start of the complete function activation warning performance. In this case, it may be configured to execute a complete function activation warning performance based on the subsequent performance control command based on the elapse of the predetermined time.

When the information related to the stored value of the MY counter 221 is "95," the main control board 200 stores "06H" (sixth stage information) in the complete function activation management phase (see Figure 14). Furthermore, when the value of the complete function activation management phase is updated from "05H" to "06H," the main control board 200 sends a sixth presentation control command related to the value "06H" to the sub-control board 202. Furthermore, when the complete function activation management phase is "06H" and a special game is not being played, the main control board 200 stores "07H" (seventh stage information) in the complete function activation management phase. Furthermore, when the value of the complete function activation management phase is updated from "06H" to "07H," the main control board 200 activates the complete function and sends a seventh presentation control command related to the value "07H" to the sub-control board 202.

When the sub-control board 202 receives a sixth presentation control command related to the complete function activation management phase "06H" from the main control board 200, it determines whether it has received information (commands) from the main control board 200 indicating that special play is in progress (a big win game or a small win game is in progress). The main control board 200 is capable of transmitting information (commands) related to the special play management phase (Figure 18) to the sub-control board 202. If the sub-control board 202 (presentation control means 300) determines that it has received information indicating that special play is in progress, it executes the complete function activation notice presentation described below. On the other hand, if it determines that it has not received information indicating that special play is in progress (a special game is not in progress), it waits to receive a seventh presentation control command, and executes a complete function activation presentation based on the reception of the seventh presentation control command.

(Complete function activation effect)
Upon receiving the seventh effect control command, the effect control means 300 can execute an effect (complete function activation effect) shown in FIG. 22(a) to notify the player that the complete function is activated. In this effect, for example, the LCD display 32 displays a black background, the words "Complete function activated" (in white), and the words "The maximum payout limit for one day has been reached. Play ends for today." A sound (activation sound) stating "The maximum payout limit for one day has been reached. Play ends for today" is output from the speaker 14. The effect control means 300 continues the activation display until power is cut off. The effect control means 300 also outputs the activation sound three times (for approximately 21 seconds). The number of times the activation sound is output (three times) is greater than the number of times the activation warning sound and the activation notice sound (described later) are output (once). When the complete function is activated, the progress of the game as a pachinko gaming machine, such as the lottery for special symbols, is restricted, so unlike the above-mentioned complete function activation warning presentation, a dedicated image similar to an important error screen is displayed on the liquid crystal display 32. Also, when the complete function is activated, it is not released by simply turning off the power, but requires RAM clearing, so if the power is turned on without RAM clearing, the same image will be displayed even after the power is turned on.

In this embodiment, the gaming machine can execute specific functions from a menu screen, etc., and can display a QR code (registered trademark) as code information on the LCD display 32. By reading the QR code (registered trademark) using an information terminal, a player can store game history information, etc. on an external server and check the game history information, etc. stored on the external server on the information terminal. When the seventh effect control command is received while a specific function is being executed (the specific function is set to ON), the effect control means 300 can execute the complete function activation effect shown in FIG. 22(b). In this embodiment, the manner (type) of the complete function activation effect executed differs depending on whether or not a specific function is being executed. When a specific function is being executed, more displays are displayed than when the specific function is not being executed. Specifically, a QR code (registered trademark) and the text "Click here to save data related to the specific function" are also displayed. However, if the power is cut off while the QR code (registered trademark) shown in Figure 22(b) is being displayed and the power is turned on without clearing the RAM, the code data storage area of the sub-control board 202 will be initialized, and the image display (operation display) shown in Figure 22(a) will be displayed, indicating that play is restricted.

(Complete function activation notice)
When the presentation control means 300 receives the sixth presentation control command related to the complete function activation management phase "06H" and information indicating that a special game is being played, it executes the complete function activation notice presentation shown in FIG. 23 . In this presentation, the text "The complete function will be activated and game play will stop after a win ends" (the activation notice display) is displayed on the LCD display 32, and a voice "The complete function will be activated and game play will stop after a win ends" (the activation notice voice) is output from the speaker 14. The presentation control means 300 outputs the activation notice voice once. The presentation control means 300 also continues the activation notice display until the special game ends (until the seventh presentation control command is received). Then, upon the end of the special game (based on the activation of the complete function), the presentation control means 300 executes the complete function activation presentation (FIG. 22(a) or FIG. 22(b)).

In this embodiment, the effect that is executed when the stored value of the MY counter 221 reaches the specific value "95000" differs depending on whether or not special play is in progress. If special play is not in progress, a complete function activation effect (Figure 22(a) or Figure 22(b)) is executed. On the other hand, if special play is in progress, a complete function activation notice effect (Figure 23) is executed, and upon completion of the special play, a complete function activation effect (Figure 22(a) or Figure 22(b)) is executed.

In this embodiment, once the value of the MY counter 221 exceeds "95,000," the complete function activation management phase becomes "06H." Therefore, no matter how much the number (value) of the MY counter 221 is subsequently reduced, the complete function activation management phase remains at "06H." Therefore, after the complete function activation notification effect shown in FIG. 23 is executed, control to cancel the effect (e.g., cancellation, switching to a complete function activation warning effect based on the fifth effect control information, etc.) is not executed. Therefore, in the complete function activation notification effect shown in FIG. 23, a warning message such as "Game will be stopped after the end of a win even if MY falls below 95,000" may also be displayed to inform the player that firing a ball to prevent it from entering the large prize slot 50, etc., in an attempt to reduce the information (value) of the MY counter 221 during a winning game will result in a loss. In this embodiment, once the complete function activation management phase reaches "06H" and it is determined that a special game is being played, and the complete function activation notice effect shown in FIG. 23 begins, the effect continues even if the value of the MY counter 221 falls below "95000." Even if the value of the MY counter 221 is less than "95000" when the special game ends, because the value of the MY counter 221 has already reached "95000" (because the complete function activation management phase is "06H"), the complete function activation management phase is updated to "07H" upon the end of the special game, and the complete function is activated.

(Game control means 410)
The main control board 200 is equipped with a game limiting means 410 (see FIG. 5). The game limiting means 410 can execute a game limiting process (activation of a complete function) that limits (stops) the progress of at least a portion of a game when the stored value of the MY counter 221, which is updated based on the granting (payout) of game value, reaches a specific value of "95,000." Limiting the progress of at least a portion of a game does not necessarily mean that the progress of all games does not have to be limited (games are completely limited); for example, while the game limiting process is being executed, some processing in the timer interrupt process (FIG. 13) may be executed.

In this embodiment, the special symbol lottery means 230 executes a first special symbol lottery or a second special symbol lottery upon a predetermined trigger (triggered by a gaming ball entering the first starting port 46 or the second starting port 49). If a predetermined result (winning a "big hit" or a "small hit") is obtained in the first special symbol lottery or the second special symbol lottery, the special game execution means 260 can execute a special game (big hit game or small hit game) that is advantageous to the player until a termination condition is met. Special games include a small hit game (first special game) based on winning a "small hit" (obtaining a specific result), and a big hit game (second special game) based on the fulfillment of a specific condition in the small hit game (first special game) (detection of a gaming ball entering the big winning port 50 passing through a specific area). The big win game (second special game) can be executed consecutively to the small win game (first special game) after the end conditions of the small win game (first special game) are met, and if specific conditions are met during the small win game (first special game), the game will transition directly from the small win game end demo (special game management phase "06H" set) to the big win game start demo (special game management phase "07H").

The frame control board 201 controls the awarding of game value and updates the stored value of the MY counter 221 (specific memory area). As mentioned above, in the complete management phase setting process (step S3-24), the game control means 410 (main CPU) skips the process of setting the complete function activation state designated value "07H" in the complete function activation management phase while a special game is being played, preventing the complete function from being activated until the special game is completed. Therefore, when the stored value of the MY counter 221 reaches the specific value "95000" while a jackpot game (second special game) is being played, the game restriction means 410 executes the game restriction process (activates the complete function) upon the completion of the currently playing jackpot game (second special game). Furthermore, when a small win game (first special game) is being played, if the value stored in the MY counter 221 reaches the specific value "95000" due to the winning ball during the small win and the specific condition is met (the game ball that entered the large win slot 50 is detected passing through a specific area), the game limiting means 410 will not execute game limiting processing upon the end of the small win game (first special game), but will execute game limiting processing (activate the complete function) upon the end of the subsequently played large win game (second special game).

In addition, if the stored value of the MY counter 221 reaches the specific value "95000" while a small win game (first special game) is being played and the specific condition is not met, the game limiting means 410 will execute game limiting processing (activate the complete function) upon the end of the small win game (first special game).

In this embodiment, the complete function does not activate while the special electric device (special device 56) is operating. When a jackpot game (e.g., 9 rounds) is played based on the fulfillment of the specific conditions after the end of a small jackpot game (e.g., 1 round), if the complete function activates at the end of the small jackpot game (when the operation of the special electric device associated with the small jackpot finishes), the player will not be able to obtain the prize balls that they would have won in the subsequent jackpot game, which can cause the player to feel a great sense of loss. In this embodiment, the end of the small jackpot game does not trigger the complete function to activate, but the end of the subsequent jackpot game triggers the complete function to activate. This allows the player to obtain the prize balls from the jackpot game, minimizing the player's sense of loss. In other words, it provides the player with a sense of satisfaction.

The gaming machine of this embodiment is
A lottery means (special symbol lottery means 230) for performing a lottery at a predetermined opportunity;
a game value providing means (frame control board 201) for controlling the provision of game value;
a special game execution means (special game execution means 260) that can execute a special game advantageous to a player until a termination condition is met when a predetermined result is obtained in the lottery;
and a game limiting means (game limiting means 410) capable of executing a game limiting process to limit the progress of at least a part of the game when the stored value of a specific storage area (MY counter 221) that is updated based on the granting of game value reaches a specific value,
The special game execution means
As the special game, a first special game based on a specific result being obtained in the lottery, and a second special game based on a specific condition being established in the first special game can be executed;
The second special game can be executed consecutively to the first special game after the completion of the termination condition of the first special game,
The game limiting means
When the storage value of the specific storage area reaches the specific value while the second special game is being played, the game limiting process is executed upon the completion of the second special game being played;
When the memory value of the specific memory area reaches the specific value and the specific condition is met while the first special game is being played, the game limiting process is not executed upon the completion of the first special game, but is executed upon the completion of the second special game that is subsequently played.

If, while the first special game is being played, the storage value in the specific storage area reaches the specific value and the specific condition is met, and the game limiting process is executed upon the completion of the first special game, the player will not be able to obtain the profit that would have been obtained in the subsequent second special game, which may cause the player to feel a great sense of loss. In this embodiment, while the first special game is being played, if the storage value in the specific storage area reaches the specific value and the specific condition is met, the game limiting process is not executed upon the completion of the first special game, but is executed upon the completion of the subsequently played second special game. This allows the player to obtain the profit from the second special game, thereby minimizing the player's sense of loss.

In addition, in the gaming machine of this embodiment,
The game limiting means
When the memory value of the specific memory area reaches the specific value and the specific condition is not met while the first special game is being played, the game restriction process is executed upon the end of the first special game.

In addition, in the gaming machine of this embodiment,
A performance control means (performance control means 300) is provided to control the execution of the performance,
The performance control means
If the special game is being played when the storage value of the specific storage area reaches the specific value, a notification (complete function activation notice) is given to indicate that the game control process will be executed after the special game ends. This allows the player to understand that although the storage value of the specific area has reached the specific value, he or she can still earn profits until the special game currently being played ends. This gives the player a sense of security.

The gaming machine of this embodiment is
A main control means (main control board 200) that controls the progress of the game;
a game value providing means (frame control board 201) for controlling the provision of game value;
a game limiting means (game limiting means 410) capable of executing a game limiting process for limiting the progress of at least a part of a game when a memory value in a specific memory area (MY counter 221) that is updated based on the granting of a game value reaches a specific value;
and a presentation control means (presentation control means 300) capable of executing a specific presentation that notifies the player of the number of game values that can be acquired before the game limiting process is executed when the storage value of the specific storage area is equal to or greater than a first value that is smaller than the specific value,
The main control means
generating stage information indicating to which stage the specific value belongs, among a plurality of stages divided by a predetermined amount (for example, 1000) between the first value and the specific value, based on information relating to the storage value of the specific storage area;
When the stage information is updated to a different value, performance control information relating to the value is transmitted to the performance control means,
The performance control means is capable of executing the specific performance in a manner corresponding to the received performance control information.

The memory value of the specific memory area is updated (each time) based on the awarding of game value, but if, for example, each timer interrupt process determines whether the memory value is equal to or greater than the first value, and if it is equal to or greater than the first value, determines which of multiple types of the specific presentation to execute, and transmits information related to the determined specific presentation to the presentation control means, the processing becomes complex and the processing load increases.
In this embodiment, the stage information indicating which stage the value belongs to is generated based on information related to the stored value in the specific storage area, where the range from the first value to the specific value is divided into a plurality of stages each having a predetermined amount (for example, 1000), and when the stage information is updated to a different value (only when the stage information is updated to a different value), performance control information related to the value is transmitted to the performance control means, and the performance control means executes the specific performance in a manner corresponding to the received performance control information. In this way, by managing which stage the value belongs to and configuring the performance control information to be transmitted only when the stage is changed, processing can be simplified and the processing load can be reduced.

In addition, in the gaming machine of this embodiment,
The presentation control means is capable of executing, as the specific presentation, a display presentation (activation warning display) relating to the number of game values that can be acquired before the game restriction process is executed, and an audio output presentation (activation warning audio) relating to the number of game values that can be acquired before the game restriction process is executed, and even when the presentation control information is received based on the stage information being updated to a lower value, the means is capable of executing the display presentation and the audio output presentation according to the value.
As the game progresses, the stored value in the specific storage area may decrease, and the stage information may be updated to a lower value, but even in that case, the display effect and the audio output effect according to the value are executed. When the execution of the game limiting process is getting further away, appropriate effects are executed accordingly, so that the player can grasp the exact number of game values that can be obtained before the game limiting process is executed (that the execution of the game limiting process is getting further away).

In this embodiment, the main control board 200 generates stage information indicating which stage the stored value of the MY counter 221 belongs to, divided into predetermined intervals (1,000) between the first value "90,000" and the specific value "95,000." However, this is not limited to this. For example, the main control board 200 may be configured to generate stage information indicating which stage the stored value of the MY counter 221 belongs to, divided into predetermined intervals (500) between the first value "90,000" and the specific value "95,000." For example, when the stored value of the MY counter 221 reaches "90,500," a display control command may be sent, and a notification (complete function activation warning display) stating "Approximately 4,500 shots remaining until the complete function is activated" may be executed. In other words, the complete function activation warning display may be executed (updated) each time the stored value of the MY counter 221 increases (or decreases) by "500."

In this embodiment, the predetermined amount is set to "1000," and the frame control board 201 transmits to the main control board 200 the value obtained by dividing the stored value of the MY counter 221 by 1000 (e.g., "91") as information related to the stored value of the MY counter 221. On the other hand, if the predetermined amount is set to "500," the frame control board 201 transmits to the main control board 200 the value obtained by dividing the stored value of the MY counter 221 by 100 (e.g., "905") as information related to the stored value of the MY counter 221. If the predetermined amount is "1000", the determination (calculation) can be made based on a two-digit value (e.g., "91" or "92") obtained by dividing the value stored in the MY counter 221 by 1000 (for example, step S4-12 in FIG. 15). However, if the predetermined amount is "500", the determination (calculation) must be made based on a three-digit value (e.g., "905" or "910") obtained by dividing the value stored in the MY counter 221 by 100. Therefore, if the predetermined amount is "1000", the processing load can be reduced by the fewer digits.

The present invention is not limited to the above-described embodiments, and various modifications can be made without departing from the spirit of the invention. For example, the various controls are not limited to those of the above-described embodiments. Furthermore, the present invention allows for free combinations, modifications to each component, or the omission of components, all within the scope of the invention.

201 Frame control board (game value granting means)
221 MY counter (specific storage area)
230 Special pattern lottery means (lottery means)
260 Special game execution means 410 Game restriction means

Claims (1)

lottery means for conducting a lottery at a predetermined opportunity;
a game value providing means for controlling the provision of game values;
a special game execution means for executing a special game advantageous to a player until a termination condition is met when a predetermined result is obtained in the lottery;
a game limiting means capable of executing a game limiting process for limiting the progress of at least a part of a game when a storage value in a specific storage area, which is updated based on the granting of a game value, reaches a specific value;
a performance control means for controlling the execution of the performance;
The special game execution means
As the special game, a first special game based on a specific result being obtained in the lottery;
A second special game can be executed based on the establishment of a specific condition in the first special game,
The second special game can be executed consecutively to the first special game after the completion of the termination condition of the first special game,
The game limiting means
When the storage value of the specific storage area reaches the specific value while the second special game is being played, the game limiting process is executed upon the completion of the second special game being played;
When the storage value of the specific storage area reaches the specific value and the specific condition is met under the condition that the first special game is being executed, the game limiting process is not executed upon the completion of the first special game, and the game limiting process is executed upon the completion of the second special game that is subsequently executed;
the special game execution means stores information relating to the execution state of the special game in a predetermined storage area, and the information stored in the predetermined storage area includes information relating to the execution of the first special game and information relating to the execution of the second special game, and the information relating to the execution of the first special game has a smaller value than the information relating to the execution of the second special game;
the information relating to the execution of the first special game includes a first value indicating a state at the end of the first special game, the information relating to the execution of the second special game includes a second value indicating a state at the start of the second special game, and the first value and the second value are consecutive values;
the special game execution means, when the first special game is ended under the circumstances where the specific condition is established, sets the second value by updating one value in the predetermined storage area;
When the stored value in the specific storage area reaches the specific value and the specific condition is met under the condition that the first special game is being executed, the game limiting means does not execute the game limiting process based on the fact that the information stored in the predetermined storage area is the second value,
The performance control means
If the special game is being executed when the storage value of the specific storage area reaches the specific value, a first effect is performed to notify the player that the game limiting process will be executed after the special game ends, and if the game limiting process is executed based on the end of the special game, a second effect is performed to notify the player that the game limiting process will be executed;
In the first effect, a first sound is output to notify that the game limiting process will be executed after the special game ends, and in the second effect, a second sound is output to notify that the game limiting process will be executed.
A gaming machine in which the number of times the second sound is output is greater than the number of times the first sound is output.