JP7706766B2 - Gaming Machines - Google Patents

Description

The present invention relates to gaming machines.

In the gaming machine, when a game ball enters the start hole, a special pattern is displayed in a changing manner on the pattern display, and when the jackpot pattern is displayed as a still pattern indicating the result of the jackpot lottery, a jackpot game is played in which the normally closed jackpot opening is opened, and a large number of prize balls can be won by the game ball entering the jackpot opening during the jackpot game.

When the special symbols are displayed in a dynamic manner, the game effects are produced by the images (including videos) displayed on the image display, the sounds output from the speakers, and the lighting/flashing of light sources such as lamps (see, for example, Patent Document 1).

JP 2019-155132 A

Conventionally, there is still room for improvement in game presentation in order to increase the interest of the game.
An object of the present invention is to provide a gaming machine capable of executing game presentations that can increase the enjoyment of the game.

The present invention has the following configuration. Note that the reference symbols are merely examples of the correspondence with the components shown in the drawings to facilitate understanding of the present invention, and are not intended to limit the technical scope of the present invention.
The gaming machine (1) of the present invention comprises a game control means (110m) for controlling the progress of the game, an operation means (7) operated by a player, and a performance execution means (130m) capable of executing a performance display on a display means (16) according to the progress of the game and a performance operation of a performance device (17) between a retreat position and an advance position , and the game control means (110m) is a value derived based on the amount of game value granted to a player according to the progress of the game and the amount of game value used, and the game value is the value that has decreased the most when the game result is obtained after the power is turned on. and a game stop means for stopping the variation of the special symbols and stopping the progress of the game when a specific condition is satisfied in which the specific value updated by the game information update means reaches a predetermined value . The effect execution means (130m) performs predetermined operation effects (16h, 16H1, 16AH, 16VH, 16GH, 16H2) suggesting an operation mode of the operation means (7) and a predetermined notification effect (CK, CY, CS) according to the specific value . and a reel effect in which the reel effecting device performs a reel effecting operation , and in a first event in the progress of a game, after executing a first operation effect, a second operation effect and a third operation effect are executed, and in a second event in the progress of a game, a fourth operation effect is executed without executing either the second operation effect or the third operation effect, and when the specific condition is satisfied during the execution of the fourth operation effect, a first notification effect (CS) notifying the stop of the progress of the game becomes visible to the player, and the fourth operation effect becomes invisible to the player, and the specific condition is satisfied during the execution of the second operation effect. If a certain condition is satisfied, the second operation performance is continued and a second notification performance (CY) different from the first notification performance is executed, and the second operation performance and the second notification performance become visible to the player, and if the certain condition is satisfied while the reel performance is being performed during the execution of the first operation performance, the first notification performance becomes visible to the player, and the reel is returned to the retracted position using specific operation data different from the operation data used when the reel performance is normally executed, and the first operation performance becomes invisible to the player .

The present invention makes it possible to increase the enjoyment of games.

FIG. 2 is a front view of the gaming machine according to the present embodiment. 2 is an oblique view of the rear side of the gaming machine. A cross-sectional view of the second large prize winning device. 2 is a block diagram showing the configuration of a control system of the gaming machine. FIG. 2 is a diagram for explaining details of a performance indicator. FIG. 2 is a block diagram of an image control unit. FIG. 13 is a diagram showing a big win determination table. FIG. 13 is a diagram showing a special symbol determination table. FIG. 13 is a diagram showing a first type big win game control table. A figure showing a big prize opening opening control table for a first type big prize game. 1A is a diagram showing a small win game control table, (b) a large prize opening opening/closing control table for small win games, and (c) a specific area opening/closing control table for small win games. A figure showing a second type jackpot game control table. A figure showing a big prize opening opening control table for a second type big prize game. FIG. 13 is a diagram showing a game status setting table. A figure showing a fluctuation pattern determination table for a non-time-saving gaming state. A figure showing a fluctuation pattern determination table for a non-time-saving game state (remaining reservation of the second special pattern). A figure showing a fluctuation pattern determination table for a time-saving gaming state. A figure showing a fluctuation pattern determination table for the time-saving game state (final time-saving fluctuation). This figure shows (a) a winning judgment table for normal patterns, (b) a stopping pattern determination table for normal patterns, (c) a variable pattern determination table for normal patterns, and (d) a table for determining the opening mode of the second starting hole. 4 is a flowchart of main processing by a main control board. 13 is a flowchart of an RWM clear process by the main control board. 13 is a flowchart of a timer interrupt process by the main control board. 4 is a flowchart of an input control process by a main control board. A flowchart of the first start hole detection switch input processing by the main control board. A flowchart of the second start hole detection switch input processing by the main control board. 13 is a flowchart of gate detection switch input processing by the main control board. 13 is a flowchart of specific area detection switch input processing by the main control board. 13 is a flowchart of a reference value counter update process performed by the main control board. 13 is a flowchart of special chart special electricity control processing by the main control board. 13 is a flowchart of the special pattern memory determination process by the main control board. 13 is a flowchart of the jackpot determination process by the main control board. 13 is a flowchart of the special chart variation pattern determination process by the main control board. 13 is a flowchart of special pattern change processing by the main control board. 13 is a flowchart of special pattern stopping processing by the main control board. 13 is a flowchart of a round start flag determination process by the main control board. 13 is a flowchart of a round start process by the main control board. 13 is a flowchart of jackpot game processing by the main control board. 13 is a flowchart of small win game processing by the main control board. 13 is a flowchart of the second type jackpot game transition process. 13 is a flowchart of the jackpot game ending processing by the main control board. 4 is a flowchart of the normal power control processing by the main control board. 13 is a flowchart of normal pattern change processing by the main control board. 13 is a flowchart of auxiliary game processing by the main control board. 13 is a flowchart of a performance display data setting process by the main control board. 4 is a flowchart of an abnormality determination process performed by a main control board. 13 is a flowchart of a magnetic error determination process performed by the main control board. 13 is a flowchart of a radio wave error determination process performed by the main control board. 13 is a flowchart of a complete function operation determination process performed by the main control board. This is a slump graph showing the relationship between the difference in balls and the reference value counter. This is a slump graph showing the relationship between the difference in balls and the reference value counter. 11 is a diagram showing an example of the types of signals output from a report terminal board. FIG. 13 is a flowchart of main processing by the performance control unit. 13 is a flowchart of timer interrupt processing by the performance control unit. 13 is a flowchart of a command analysis process performed by the performance control unit. 13 is a flowchart of a command analysis process performed by the performance control unit. 13 is a flowchart of a variable performance pattern determination process performed by the performance control unit. 13 is a flowchart of processing by the performance control unit while waiting for the operation of the role-linking device. 13 is a flowchart of the role combination device operation performance selection process performed by the performance control unit. 13 is a flowchart of a complete function pre-activation notification process. 13 is a flowchart of a complete function activation notification process. 11 is an explanatory diagram regarding a notification form and an execution period of a notification regarding a complete function. FIG. A figure showing whether or not to continue the execution of the complete function operation warning (preview) when an error occurs during the execution of the complete function operation warning (preview). 13 is a flowchart of a main process performed by an image control unit. 13 is a flowchart of an image pattern setting process performed by an image control unit. 13A and 13B are diagrams illustrating an example of a complete function activation warning notification image. 13A and 13B are diagrams illustrating an example of a complete function activation warning notification image. 13A to 13C are diagrams illustrating an example of a display of a complete function activation advance notification image. 13A and 13B are diagrams illustrating an example of a display of a complete function activation notification image. This figure shows an example of the operation presentation executed when a jackpot is hit in normal mode. This figure shows examples of operation presentations that are executed when a small win is achieved in time-saving mode and when a big win is achieved via a small win. A figure showing an example of the operation presentation executed when a jackpot is achieved in the time-saving mode. A figure showing an example of the operation presentation executed when transitioning from the time-saving mode to the normal mode. This is a timing chart when the complete function activation condition is met while the jackpot symbol is stopped and displayed. A figure showing an example of the presentation when the complete function activation conditions are met while the jackpot pattern is displayed stopped. This is a timing chart when the conditions for activating the complete function are met while a small winning symbol is stopped and displayed. This is a diagram showing an example of the presentation when the complete function activation conditions are met while a small winning pattern is displayed in a stopped state. A figure showing an example of a presentation when the conditions for activating the complete function are met during the opening game. A figure showing an example of a presentation when the conditions for activating the complete function are met during the opening game. 13 is a timing chart showing a case where the complete function activation condition is met during a round of play. A figure showing an example of a presentation when the conditions for activating the complete function are met during a round of play. A figure showing an example of the presentation when the complete function activation conditions are met while the left-hit image is displayed.

The present embodiment will be described in detail below with reference to the drawings.

(Configuration of gaming machine)
First, the configuration of the gaming machine 1 will be specifically described with reference to Figures 1 and 2. Figure 1 is an example of a front view of the gaming machine 1 in this embodiment. Figure 2 is a perspective view of the rear side of the gaming machine 1 in this embodiment.

In the pachinko gaming machine as gaming machine 1, an opening/closing frame 2B (inner frame) is attached so as to be freely opened and closed to an outer frame 2A attached to the island structure of the gaming hall, and an opening/closing door 3 is attached so as to be freely opened and closed to the opening/closing frame 2B. A window 3a is formed in the opening/closing door 3, and a transparent plate 3b is attached to the window 3a. The left end of the opening/closing door 3 is supported on the left end of the opening/closing frame 2B so as to be freely rotatable about a vertical axis, and a key cylinder 3c that locks the opening/closing door 3 to the opening/closing frame 2 is attached to the right end of the opening/closing door 3. A game board 4 is attached to the opening/closing frame 2B, and a game area 4a through which game balls can flow is formed between the game board 4 and the transparent plate 3b in front of it, and this game area 4a is opened and closed by the opening/closing door 3.

The opening and closing door 3 is provided with a frame lighting device 27 having multiple decorative lamps (LEDs), and a storage tray 5 (receiving tray) for storing game balls below the window 3a. The storage tray 5 is provided with a performance button device 6A and a selection button device 6B arranged on the left and right, which function as input devices for performing decision operations and selection operations related to various performances.

The audio output devices 9 are provided in two locations above the opening and closing door 3, and output background music (BGM), sound effects (SE), etc. to create sound effects using music and voice.

The multiple decorative lamps (LEDs) of the frame lighting device 27 are provided on the periphery of the window 3a, and the lighting effects are created by changing the direction of light irradiation and the color of light emitted from each of the multiple decorative lamps (LEDs). The frame lighting device 27 also has an alarm lamp (LED) that is controlled to light up/blink when the opening and closing door 3 is opened or a payout abnormality occurs in which game balls cannot be paid out from the payout device 100 (see Figure 2).

The effect button device 6A is provided with an effect button 6a capable of performing a decision operation (operation input) and button operation effects, an effect button detection switch 6b (see FIG. 4) for detecting the operation of the effect button 6a, a button drive motor 6c (see FIG. 4) for changing the effect button 6a between a normal state and a protruding state positioned higher than the normal state, a button vibration motor 6d (see FIG. 4) for changing the effect button 6a between a normal state and a vibration state in which the effect button 6a vibrates in a predetermined manner, and a button light-emitting LED 6e (see FIG. 4) for changing the effect button 6a between a light-off state and a light-emitting state in which the effect button 6a emits light in a predetermined manner. The player can input predetermined information to the gaming machine 1 by operating the effect button 6a.

The selection button device 6B is provided with cross key buttons 6f (hereafter referred to as cross key) (up button, down button, right button, left button) as selection buttons that can perform operations such as selection, and a cross key detection switch 6g (see FIG. 4) for detecting the operation of the cross key, and the player can input predetermined information to the gaming machine 1 by operating the cross key.

A launch handle 7 is attached to the lower right side of the storage tray 5. When the launch handle 7 is rotated, a game ball introduced from the storage tray 5 to the launch position is launched, and if multiple game balls are stored in the storage tray 5, the multiple game balls are launched continuously at intervals of approximately 0.6 seconds. The launched game balls are guided by a guide rail 8 and introduced to the upper part of the play area 4a. The launch of the game balls can be temporarily stopped by the player operating a launch stop button (not shown) provided on the launch handle 7.

As shown in FIG. 1, the game area 4a is provided with a number of obstacle nails K, a windmill F, a first starting opening 10, a starting opening device 11 having an opening/closing second starting opening 11a, a gate 12, a large prize opening device 13 having an opening/closing large prize opening 13a, a specific prize opening device 14 having an opening/closing specific prize opening 14a, and multiple general prize openings 21 arranged as shown.

The first start gate 10, gate 12, and general winning gate 21 are respectively equipped with a first start gate switch 10a, a gate detection switch 12a, and a general winning gate switch 21a for detecting entered game balls (see FIG. 4). In this embodiment, the terms "entering the ball" and "winning" are intended to include "passing through."

The start port device 11 has a second start port 11a, an opening/closing member 11b that opens and closes the second start port 11a, a second start port detection switch 11c that detects a game ball that has entered the second start port 11a, and a second start port opening/closing solenoid 11d that drives the opening/closing member 11b to open and close. The second start port 11a can be operated by the opening/closing member 11b and the second start port opening/closing solenoid 11d to a closed state in which it is difficult or impossible for a game ball to enter, and an open state in which it is easy for a game ball to enter.

The first large prize opening device 13 has a first large prize opening 13a, an opening/closing member 13b that opens and closes the first large prize opening 13a, a first large prize opening detection switch 13c that detects a game ball that has entered the first large prize opening 13a, and a first large prize opening opening/closing solenoid 13d that drives the opening/closing member 13b to open and close. The first large prize opening 13a can be operated by the opening/closing member 13b and the first large prize opening opening/closing solenoid 13d to be in a closed state in which it is difficult or impossible for a game ball to enter, and an open state in which it is easy for a game ball to enter.

The second large prize opening device 14 has a second large prize opening 14a, an opening/closing member 14b that opens and closes the second large prize opening 14a, a second large prize opening detection switch 14c that detects a game ball that has entered the second large prize opening 14a, and a second large prize opening opening/closing solenoid 14d that drives the opening/closing member 14b to open and close. The second large prize opening 14a can be operated by the opening/closing member 14b and the second large prize opening opening/closing solenoid 14d to a closed state in which it is difficult or impossible for a game ball to enter, and an open state in which it is easy for a game ball to enter.

As shown in FIG. 3, inside the second large prize opening 14a, there are provided a second large prize opening detection switch 14c, a specific area 14e through which game balls can pass, a specific area detection switch 14f that detects game balls that have passed through the specific area 14e, a non-specific area 14g through which game balls other than the specific area 14e can pass, and a sorting device 22 that can be operated between an initial state and an operating state so that a game ball that has entered the second large prize opening 14a passes through either the specific area 14e or the non-specific area 14g.

The sorting device 22 has a sorting member 22a and a sorting solenoid 22b that drives the sorting member 22a, and when the sorting device 22 is in the initial state, the sorting member 22a is in a position where it can guide a game ball that has won in the second large prize opening 14a to a non-specific area 14g, and when the sorting device 22 is in the operating state, the sorting member 22a is in a position where it can guide a game ball that has won in the second large prize opening 14a to a specific area 14e.
When the game ball that has entered the second large prize opening 14a passes through the specific area 14e, a large prize game (a second type large prize game) that is an extension of the small prize game described below is executed.

In the gaming machine 1 of this embodiment, when the player rotates the launch handle 7 to launch the game ball into the game area 4a, the player can adjust the launch strength of the game ball by the amount of rotation (rotation angle) of the launch handle 7, allowing the player to select between a so-called "left hit" and a "right hit." In a "left hit," the game ball falls through the left game area 4a1 located to the left of the center device 15, and in a "right hit," the game ball passes through a right hit passage formed above the center device 15, moves to the right game area 4a2 located to the right of the center device 15, and falls downstream of the right game area 4a2.

When a game ball shot into the game area 4a enters one of the multiple winning holes 10, 11a, 13a, 14a, 21, a set number of game balls (several to a dozen or so) for each winning hole 10, 11a, 13a, 14a, 21 are paid out as prize balls to the storage tray 5.

If a game ball launched into the game area 4a does not enter any of the multiple winning holes 10, 11a, 13a, 14a, 21, it is ultimately discharged outside the game area 4a from a discharge port 28 formed at the most downstream part of the game area 4a.

A first game information display device 19 that displays game information related to the progress of the game is provided on the lower left outside of the game area 4 a , and the first game information display device 19 is controlled by the main control board 110 .
The first game information display device 19 has a plurality of LEDs (light-emitting parts) arranged in four inclined rows along the outer guide rail 8 and the left and bottom ends of the game board 4. These multiple (32) LEDs (light-emitting parts) constitute a first special symbol first display 19a, a second special symbol first display 19b, a normal symbol first display 19c, a first special symbol reserved first display 19d, a second special symbol reserved second display 19e, a normal symbol reserved first display 19f, a right-hit first display 19j, and a setting display 19k.

The first special pattern first display 19 a is a variable display for displaying (informing) the result of a first special pattern lottery that is held on the condition that a gaming ball enters the first starting hole 10 .
The second special pattern first display 19b is a variable display for displaying (informing) the result of a second special pattern lottery which is conducted on the condition that a gaming ball enters the second starting hole 11a.
The first normal symbol display 19 c is a variable display for displaying (informing) the result of a normal symbol lottery that is conducted on the condition that a gaming ball passes through the gate 12 .

The first special pattern lottery involves obtaining special pattern determination information when a gaming ball enters the first starting hole 10, making a jackpot determination as to whether it is a "jackpot", a "small jackpot", or a "miss" based on the obtained special pattern determination information, and then making a first special pattern determination based on the result of that determination to determine the first special pattern to be stopped and displayed on the first special pattern first display 19a.

When the first special pattern lottery is held, the first special pattern first display 19a displays the first special pattern in a variable manner, and after a predetermined time has elapsed, the first special pattern showing the result of the lottery is displayed stationary. In other words, the stationary display of the first special pattern serves as a notification of the result of the lottery.

The second special pattern lottery involves obtaining special pattern determination information when a gaming ball enters the second starting hole 11a, making a jackpot determination as to whether it is a "jackpot", a "small jackpot", or a "miss" based on the obtained special pattern determination information, and then making a second special pattern determination based on the result of that determination to determine the second special pattern to be stopped and displayed on the second special pattern first display 19b.

When the second special pattern lottery is held, the second special pattern is displayed on the first second special pattern display 19b, and after a predetermined time has elapsed, the second special pattern, which indicates the result of the lottery, is displayed stationary. In other words, the stationary display of the second special pattern serves as a notification of the result of the lottery.

The first special pattern first display 19a and the second special pattern first display 19b are each composed of multiple LEDs, and the LEDs of the corresponding display blink at a predetermined interval or in a predetermined sequence when each special pattern is displayed in a variable manner. When a special pattern is displayed in a stationary manner, one or more LEDs light up in a manner indicating the result of each special pattern lottery (hereinafter, the first special pattern lottery and the second special pattern lottery may be collectively referred to as "special pattern lottery") (a manner indicating the type of special pattern). In other words, the type of jackpot can also be determined by the lighting manner of the LEDs of the first special pattern first display 19a and the second special pattern first display 19b.

If the special pattern lottery determines that a "jackpot (first type jackpot)" has occurred, a jackpot game (special game) will be played in which a round game in which the first large prize opening 13a is opened in a predetermined manner is played a predetermined number of times (e.g., 2 times, 6 times, 9 times).

The maximum number of times the first large prize opening 13a can be opened and the maximum opening time for each round of play are preset, but if a certain number of game balls (e.g., 10 balls) enter the first large prize opening 13a, even if the maximum number of times and maximum opening time are not reached, one round of play ends. In other words, the "big prize game (special game)" is an advantageous game state for players who are more likely to win prize balls.

When the special symbol lottery determines that a "small win" has occurred, a small win game is played in which the second large winning port 14a is opened in a predetermined manner.
When the game ball that has entered the second large prize opening 14a passes through the specific area 14e, a jackpot is awarded (a second type of jackpot), and a jackpot game (special game) is played in which a round game in which the first large prize opening 13a is opened in a predetermined manner is played a predetermined number of times (for example, 9 times, 6 times, or 3 times).

The normal symbol lottery involves obtaining normal symbol determination information when the game ball passes through the gate 12, making a hit determination as to whether or not there is a "win" based on the obtained normal symbol determination information, and making a normal symbol determination based on the result of the determination to determine the normal symbol to be displayed in a stopped state on the first normal symbol display 19c.

When a normal pattern lottery is held, the normal pattern first display 19c displays a varying normal pattern, and after a predetermined time has elapsed, the normal pattern is displayed stationary to indicate the result of the lottery. In other words, the stationary display of the normal pattern serves as a notification of the result of the lottery.

The first normal symbol display 19c is composed of one or more LEDs, and the LEDs flash at a specified interval or sequence when displaying the normal symbol in a variable manner. When displaying a stationary normal symbol, one or more LEDs light up in a manner that indicates the result of the normal symbol lottery (a manner that indicates the type of normal symbol). In other words, the type of win, which will be described later, can also be determined by the lighting mode of the LEDs of the first normal symbol display 19c.

When a "win" is determined in the normal pattern lottery, a winning game (auxiliary game) is played in which the second starting hole 14a goes to the second state (open state) and then to the first state (closed state).
The maximum number of times and maximum opening time of the second start hole 14a in a winning game (auxiliary game) are determined in advance, but if a predetermined number of game balls (e.g., 10 balls) enter the second start hole 14a even before the maximum number of times and maximum opening time are reached, the winning game (auxiliary game) ends. In other words, the "winning game (auxiliary game)" is a game state in which the variable display of the second special symbol is likely to be executed (the starting condition is likely to be established).

The first special symbol reservation first display 19d is composed of multiple LEDs and is intended to display the number of rights (hereinafter referred to as "first reservations") to hold a first special symbol lottery that are stored when a gaming ball enters the first starting hole 10, and lights up or flashes in a manner that indicates the number of first reservations. In this embodiment, a maximum of four first reservations can be stored.

The second special symbol reservation first display 19e is composed of multiple LEDs and is intended to display the number of rights (hereinafter referred to as "second reservations") to hold a second special symbol lottery that are stored when a gaming ball enters the second starting hole 11a, and lights up or flashes in a manner indicating the number of second reservations. In this embodiment, a maximum of four second reservations can be stored. In the following explanation, the term "number of first reservations" may be expressed as "first reservation number" and the term "number of second reservations" may be expressed as "second reservation number."

The first normal symbol reserved display 19f is composed of multiple LEDs, and is intended to display the number of rights (hereinafter referred to as "normal symbol reserved") to perform a hit judgment for a normal symbol (displaying the variation of the normal symbol) that is stored when the game ball passes through the gate 12, and lights up or flashes in a manner indicating the number of normal symbol reserved. In this embodiment, a maximum of four normal symbol reserved items can be stored. In the following explanation, the term "number of normal symbol reserved items" may be expressed as "number of normal symbol reserved items."

The right-hit first indicator 19j is composed of one LED (light-emitting element) and is intended to indicate whether or not a so-called "right hit" in which the game ball is fired into the right-side game area 4a2 is recommended. When the game state is the "time-saving game state", when a small win game is being played, or when a big win game is being played, in other words, when a "right hit" is recommended, the LED is lit, and when a right hit is not recommended (in other words, a so-called "left hit" is recommended), the LED is turned off.

The first special symbol first display 19a and/or the second special symbol first display 19b can also be configured with a 7-segment LED. For example, if the special symbol lottery is won, a static "7" is displayed, and if it is lost, a static "-" is displayed, and during the changing display, the light is turned off and the "-" is alternately displayed. Note that the changing display of the special symbol starts from the state where the previous static display was displayed, so starting from the LED being turned off makes it easier to grasp that the changing display has started.

A center device 15 is attached to the approximate center of the game board 4. The center device 15 is provided with a frame (decorative frame) 15a that restricts the entry of game balls into the center device 15. This frame 15a is fitted into an opening (not shown) formed in the game board 4, and a warp device 15b is provided on the left side of the frame 15a, which can introduce game balls flowing down the game area 4a into the frame 15a. A center stage 15c on which game balls can roll is provided at the bottom of the frame 15a, and game balls introduced into the frame 15a by the warp device 15b roll on the center stage 15c via the warp passage of the warp device 15b and flow downward to the bottom of the frame 15a.

An image display device 16 (main liquid crystal display) made of a liquid crystal display is provided at the center back side of the performance space 15A defined inside the frame body 15a of the center role 15. In addition, image display devices (sub-liquid crystal displays) made of liquid crystal displays may also be provided on both the left and right sides of the opening and closing frame 2B (inner frame).

At the top of the presentation space 15A, a first movable presentation member 17A (presentation device) modeled after a "sword" and a second movable presentation member 17B (presentation device) modeled after a "signboard" with the title of the gaming machine 1 are provided, with the second movable presentation member 17B being positioned forward of the first movable presentation member 17A.

On the right side of the performance space 15A, a third movable performance member 17C (performance prop) is provided, which resembles a "sword" larger than the "sword" of the first movable performance member 17A.

The first movable performance member 17A is composed of a sheath that resembles a sheath and a blade that is housed in the sheath. The blade can be moved left and right by being driven by a board drive device 17 equipped with a stepping motor, and when the blade is housed in the sheath, it can move leftward to perform a performance in which the blade is pulled out of the sheath.

The second movable performance member 17B can be moved up and down by being driven by the board drive device 17, and can perform a performance action in which it moves down from the upper side of the performance space 15A and appears in front of the display unit (display screen) of the image display device 16. An image display unit 18 is provided on the front of the second movable performance member 17B.

The third movable performance member 17C is composed of a sheath that resembles a sheath and a blade that is housed in the sheath. The blade can be moved up and down by being driven by the board drive device 17, and can perform a performance in which the blade moves upward from a state in which it is housed in the sheath, and the blade is pulled out of the sheath.

Furthermore, the third movable performance member 17C can be tilted around its lower end as a fulcrum by being driven by the board drive device 17, and can perform a performance in which the blade is drawn from the sheath and tilts toward the front of the central area of the display unit of the image display device 16, mimicking the act of slashing an opponent with the sword.

The first movable performance member 17A, the second movable performance member 17B, and the third movable performance member 17C are provided with a board lighting device 23 having multiple LEDs, which allows for a lighting effect in which the blade, logo, etc., are illuminated in a predetermined manner during standby or while a performance operation is being performed.

The display section (display screen) of the image display device 16 performs display effects that display various effect images (including videos) according to the progress (development) of the game. The display effects include customer waiting effects that are displayed when the special pattern variable display is not being executed on the special pattern first display devices 19a and 19b, variable effects that include a variable display of the performance pattern 16a that corresponds to the variable display of the special pattern on the special pattern first display devices 19a and 19b, a big win effect that is displayed during the execution of a big win game, and a small win effect that is displayed during the execution of a small win game.

In the variable display displayed on the display unit (display screen) of the image display device 16, three display patterns 16a (left pattern, center pattern, right pattern) are displayed in a variable manner that scrolls vertically. Note that the manner in which the display patterns 16a are displayed in a variable manner is not limited to this, and they may rotate (spin) on the spot, or scroll horizontally.

The performance pattern 16a is composed of, for example, an identification section consisting of code information of numbers or letters indicating "1" to "9" or "one" to "nine," or is composed of an identification section and a decorative section consisting of predetermined decorative information (accompanying information) such as a character image (for example, an animal character such as a cat or a dog) or a decorative frame image that is associated with the identification section (nearby).
The display of the effect pattern 16a is performed in response to the display of the special patterns executed by the first special pattern first display 19a and the second special pattern first display 19b. That is, the display of the effect pattern 16a is started in response to the start of the display of the special patterns, and the display of the effect pattern 16a is stopped in response to the stop of the display of the special patterns.

When the performance symbols 16a are displayed in a stopped state, the performance symbols 16a are stopped for a predetermined period of time in a predetermined state (miss state, small win state, big win state, etc.) that indicates the result of the big win determination. For example, a big win state is a combination of the same performance symbols 16a such as "777", a small win state is a combination of performance symbols 16a with a pattern such as "357", and a miss state is a combination of performance symbols 16a other than the big win state and small win state.

During the variable presentation, the display unit (display screen) of the image display device 16 displays various presentation images (including videos) such as reach presentations, background images, character images, etc. according to the results of the jackpot determination while the presentation pattern 16a is being displayed, thereby increasing the player's anticipation of the occurrence of a jackpot.

The display unit (display screen) of the image display device 16 is provided with a first hold icon display area 16b for displaying a number of first hold icons (e.g., "◎") corresponding to the first hold number (U1), a second hold icon display area 16c for displaying a number of second hold icons (e.g., "◎") corresponding to the second hold number (U2), and a variable icon display area 16d for displaying a variable icon (e.g., "◎" with a larger display size than the hold icon) corresponding to the variable display of the special pattern (performance pattern 16a) currently being executed.

The display unit (display screen) of the image display device 16 is formed with a first reserved number display area 16e for displaying a first reserved number indicating the current first reserved number (U1), a second reserved number display area 16f for displaying a second reserved number indicating the current second reserved number (U2), and a special pattern display area TZ for displaying a special pattern that changes in response to the changing display of the special pattern and the changing display of the performance pattern 16a.

The special symbols are composed only of the numbers "1" to "9", and are displayed, for example, as reduced symbols that are smaller than the normal display size of the effect symbols 16a. The changing display of the special symbols in the special symbol display area TZ is continuously performed in a constant display mode (a display mode in which the numbers are switched in sequence) from the time the changing display of the special symbols and the changing display of the effect symbols starts until they are stopped, and is always displayed in a visible state without disappearing from the screen of the display unit or being blocked by the performance operation of the movable performance members 17A to 17C.

On the other hand, the display of the change in the performance pattern 16a may become invisible on the screen depending on the progress of the performance. Therefore, the display of the change in the special pattern corresponds to the display of the change in the performance pattern 16a, and as it continues to be displayed in a visible state regardless of the progress of the performance, it also functions as a display of the change in the performance pattern.

The first hold icon display area 16b is divided into a first display section, a second display section, a third display section, and a fourth display section from the side closest to the variable icon display area 16d, and the first display section to the fourth display section display a number of first hold icons corresponding to the first hold number (U1).

The second hold icon display area 16c is divided into a first display section, a second display section, a third display section, and a fourth display section from the side closest to the variable icon display area 16d, and the first display section to the fourth display section display a number of second hold icons corresponding to the second hold number (U2).

Like the special symbols, the display of the reserved numbers in the first and second reserved number display areas 16e and 16f will never disappear from the screen of the display unit of the image display device 16 or be blocked by the performance action of the movable performance member 17, i.e., they will always be displayed in a visible state regardless of the progress of the performance.

As shown in FIG. 2, on the back side of the opening/closing frame 2B and the game board 4, there are a payout device 100 for paying out game balls based on the establishment of predetermined payout conditions (prize balls, ball loans), a game ball storage section 101 for storing game balls supplied from island equipment and the like and supplying them to the payout device 100, a main control device 110A incorporating a main control board 110 that comprehensively controls the progress of the game, and a payout control board 120 that controls the payout device 100 in response to payout control commands from the main control board 110. The control device 120A, the performance control unit 130 that controls the performance in response to the performance control command from the main control board 110, the performance control device 130A that incorporates the image control unit 140 and the lamp control unit 150, the power supply device 160A that incorporates the power supply board 160 that supplies power supply voltage to the various control devices 110A to 130A, the game information output terminal board 90 for outputting game information (game signal) to the outside of the gaming machine 1 (information collection device such as a hall computer), etc. are provided. In addition, the power supply board 160 is provided with a power plug 161 for supplying power to the gaming machine 1, and a power switch (not shown).

In addition, a cover member 90 with a door that opens and closes in the left-right direction on one side is provided around a rotation axis on the left or right side to cover the upper part of the main control device 110A and the entire performance control device 130A from the rear, and the performance control device 130A is provided with a changeover switch that is covered by the cover member 90 to change adjustment modes related to adjusting the volume of the performance sound output from the audio output device 9 and the light amount (light emission intensity) of the image display devices 16, 18 and various lighting devices (board lighting device 23, frame lighting device 27).

(Control configuration of gaming machine 1)
Next, a specific description will be given of the control configuration of the gaming machine 1. Fig. 4 is an overall block diagram of the gaming machine 1 in this embodiment.
The control configuration of this embodiment includes a main control board 110 that provides overall control of the progress of the game (basic operations), a payout control board 120 that controls the payout of game balls based on receiving a payout control command from the main control board 110, a presentation control board 130 that controls presentation related to the game based on receiving a presentation control command from the main control board 110, and a power supply board 160 that supplies power to the main control board 110, the payout control board 120, and the presentation control board 130.

The communication between the main control board 110 and the payout control board 120 is configured to allow commands to be sent and received in both directions, while the communication between the main control board 110 and the performance control board 130 is configured to allow commands to be sent in only one direction, from the main control board 110 to the performance control board 130.

On the front side of the main control board 110, there are mounted a main control unit 110m consisting of a one-chip microcomputer for controlling the game, an RWM clear switch 58c for inputting a signal to clear the memory contents of the main RAM 110c of the main control unit 110m or to update the setting value which is the stage of the advantageous degree of the game (differentiating the advantageous degree of the game), a setting key switch 58d for inputting a signal to move to a state where the setting value can be changed or a state where the setting value can be confirmed by operating the setting key, and a performance display 111 for displaying performance information and setting values that allow the actual performance of the gaming machine to be grasped.

The performance indicator 111 is used to display the setting values and performance information (usually base values) described below, and consists of four seven-segment indicators with decimal points arranged side by side. The two seven-segment indicators corresponding to the upper two digits form an identification segment for indicating the type of performance information (data type), and the two seven-segment indicators corresponding to the lower two digits form a numeric segment for displaying numerical information showing the numerical values of the setting values and performance information.

The main control unit 110m includes a main CPU 110a that performs calculation processing, a main ROM 110b that stores game control programs and the like, a main RAM 110c that serves as a work area during calculation processing, and input/output ports.

The input port of the main control unit 110m includes a general prize opening detection switch 14a, a gate detection switch 12a, a first start opening detection switch 10a, a second start opening detection switch 11c, a second start opening opening opening solenoid 11d, a first large prize opening detection switch 13c, a first large prize opening opening opening solenoid 13d, a second large prize opening detection switch 14c, a second large prize opening opening opening solenoid 14d, a specific area detection switch 14f, a distribution solenoid 22b, a magnetic detection sensor 58a, a radio wave detection sensor 58b, a prize confirmation detection The switch 58e, the vibration detection switch 58f, the first special symbol first display 19a, the second special symbol first display 19b, the normal symbol first display 19c, the first special symbol reserved first display 19d, the second special symbol reserved first display 19e, the normal symbol reserved first display 19f, the right-hit first display 19j, the setting display (not shown), the game information output terminal board 112, the RWM clear switch 58c, the setting key switch 58d, the performance display 111, the payout control board 120, and the performance control board 130 are connected.

The main CPU 110a receives an operating clock from a crystal oscillator, reads out the game control program stored in the main RAM 110b, and performs calculation processing related to the game while using the main RAM 110c as a work area. This allows it to perform control processing in response to detection signals from various input devices (detection switches, detection sensors, etc.), control processing for controlling various output devices (solenoids and various displays 19a to 19f, etc.), control processing for sending and receiving various control commands, and control processing for sending game information to the outside of the gaming machine 1 (hall computer, etc.) via the game information output terminal board.

The memory area of the main control unit 110m includes a memory area allocated to the main ROM 110b and a memory area allocated to the main RAM 110c.

The memory areas of the main ROM 110b are, in order, a game ROM area in which programs and data related to the progress of the game are stored, an information ROM area in which programs and data related to the performance display of the gaming machine are stored, an unused area of 16 bytes or more in which access is prohibited and "0" is stored, a ROM comment area in which data such as the program title and version are stored, a vector table area in which the start address of the timer interrupt processing is set, and a HW parameter area in which parameters such as the start address and end address of the access prohibited area are set.

The memory area of the main RAM 110c is arranged in the following order: a game RWM area used as a work area when executing a game program, and an information RWM area used as a work area when executing an information program.

The payout control board 120 includes a payout control unit 121 that drives the payout device 100 to control the payout of game balls, and a launch control unit 122 that drives the launch device 26 to control the launch of game balls.
The payout control unit 121 includes a payout CPU 121a that performs calculation processing, a payout ROM 121b in which a payout program and the like are stored, a payout RAM 121c that serves as a work area during calculation processing, and input/output ports.

The input/output port of the payout control unit 121 is connected to an open detection switch 31a for the opening/closing door 3, a tray full detection switch 32a, a payout ball detection switch 100a for detecting game balls being paid out from the payout device 100, a payout motor 100b for paying out game balls from the payout device 100, and a ball presence detection switch 101a for detecting that game balls are stored in the game ball storage unit 101.

The payout CPU 121a receives an operating clock from the crystal oscillator, reads out the payout control program stored in the payout ROM 121b, and performs calculation processing related to the payout of game balls while using the payout RAM 121c as a work area. This allows it to perform control processing for paying out game balls from the payout device 100 in response to a payout control command from the main control board 110, control processing for sending a command based on the result of the calculation processing to the main control board 110, etc.

The firing control unit 122 is equipped with a control circuit and an input/output port. The input/output port of the firing control unit 122 is connected to the ball feed solenoid 43, the touch sensor 7a, the firing volume 7b, and the firing solenoid 26a.

When the launch control unit 122 detects that the player's hand is touching the launch handle 7 based on a touch signal input from the touch sensor 7a, it allows current to flow to the ball feed solenoid 43 and the launch solenoid 26a, and when it detects a change in the rotation angle of the launch handle 7 based on a detection signal from the launch volume 7b, it drives the ball feed solenoid 43 and also drives the launch solenoid 26a to launch game balls (99.9 balls/min) with a launch strength that corresponds to the rotation angle of the launch handle 7.

The performance control board 130 is equipped with a performance control unit 130m that performs overall control of the progress of the performance based on the performance control commands received from the main control board 110, an image control unit 140 that performs control processing of image display and audio output based on the performance control commands received from the performance control unit 130m, and a lamp control unit 150 that performs control processing of various light-emitting components (LEDs, etc.) and various driving sources (solenoids, motors, etc.) based on the performance control commands received from the performance control unit 130m.

The performance control unit 130m includes a sub-CPU 130a that performs calculation processing, a sub-ROM 130b in which a performance control program is stored, a sub-RAM 130c that serves as a work area during calculation processing, and an input port.
The input/output ports of the performance control unit 130m are connected to the performance button detection switch 6b, the cross key detection switch 6g, the first special pattern second display 20a, the second special pattern second display 20b, the normal pattern second display 20c, the first special pattern reserved second display 20d, the second special pattern second display 20e, the normal pattern reserved second display 20f, and the right-hit second display 20g.

The sub-CPU 130a of the performance control unit 130m receives an operating clock from a crystal oscillator, reads out the performance control program stored in the sub-ROM 130b, and performs calculation processing related to the performance while using the sub-RAM 130c as a work area. This allows it to perform control processing to determine the performance mode of the variable performance, control processing to send performance control commands based on the determination results to the image control unit 140 and the lamp control unit 150, control processing in response to detection signals from various input devices (detection switches, etc.), control processing to control various output devices (lighting devices, drive motors, and various displays 20a to 20g), etc.

(performance indicator)
5(a) to 5(c) are diagrams for explaining the control of the performance indicator 111. FIG.
The performance indicator 111 displays the base value B in the low probability non-time-saving game state (normal game state). The base value B in a specific section is calculated by dividing the total number of winning balls paid out in the section by the number of outs (the total number of game balls shot).

Figure 5 (a) is a diagram for explaining the various counters (base calculation prize ball counter, base calculation out counter, total out counter) used to control the display of the performance display 111. Each of the above counters is provided, for example, in the game RWM area of the main RAM 110c.

The base calculation prize ball counter counts the number of prize balls in a specific section. Specifically, when a game ball enters the general prize opening 21, a value "5" is added to the base calculation prize ball counter.
In addition, when a game ball enters the first large winning hole 13a or the second large winning hole 14a, the value "15" is added to the prize ball counter for base calculation. Similarly, when a game ball enters the first start hole 10 or the second start hole 11a, the value "3" is added to the prize ball counter for base calculation.
The out counter for calculating the base counts the number of outs in a specific section. Specifically, each time a game ball is detected by an out ball detection switch (not shown), the out counter for calculating the base count is incremented by one.

The main CPU 110a calculates the base value B for a specific section by multiplying the result of dividing the value of the base calculation prize ball counter by the value of the base calculation OUT counter by the value "100". However, the base calculation OUT counter and the base calculation prize ball counter are not incremented except in the low probability non-time-saving game state. In the above configuration, the base value B in the low probability non-time-saving game state is calculated within the specific section.
In this embodiment, the period during which the base calculation out counter and the base calculation prize ball counter are incremented is referred to as the "counting period", and the period other than the counting period may be referred to as the "non-counting period".

The main CPU 110a stores (stores) the base value B of a predetermined section each time the section ends. In this embodiment, the base value B is stored each time 60,000 outs are counted. Specifically, the total out counter counts the number of outs (hereinafter sometimes referred to as the "total number of outs") from when the power was first turned on to the present.

The main CPU 110a calculates and stores a base value B from the current values of the base calculation prize ball counter and the base calculation out counter each time the value "60,000" is added to the total out counter.
In addition, each time the value "60,000" is added to the total out counter, the prize ball counter for base calculation and the out counter for base calculation are initialized.

FIG. 5B is a diagram for explaining the base value B displayed on the performance display 111.
In the specific example of Figure 5 (b), it is assumed that 60,000 outs are counted in section 3, then 60,000 outs are counted in section 2, then 60,000 outs are counted in section 1, and section L begins. The number of outs in section L is less than 60,000 (0 to 59,999). It is also assumed that the base value B in section 3 is "B3", the base value B in section 2 is "B2", the base value B in section 1 is "B1", and the base value B in section L is "BL".

In the above specific example, in section L, the base value BL for section L (real time), the base value B1 for section 1 (the previous section), the base value B2 for section 2 (the section two times back), and the base value B3 for section 3 (the section three times back) are displayed on the base display 111. Specifically, the base display 111 switches between and displays four base values B in the order of base value BL, base value B1, base value B2, and base value B3. The base value B for each section is switched and displayed, for example, approximately every five seconds. In this embodiment, the base value B is continuously displayed on the base display 114, including the period during which play is possible.

When one interval ends (when 60,000 outs have been counted), the base value B of that interval is saved as the base value B of the previous interval, and the base value B of the oldest interval is discarded. For example, in the specific example of FIG. 5(b), when the number of outs in interval L reaches 60,000, the base value BL of interval L is stored as the base value B1 of interval 1, the base value B1 of interval 1 is stored as the base value B2 of interval 2, the base value B2 of interval 2 is stored as the base value B3 of interval 3, and the base value 3 of the oldest interval 3 is discarded.

FIG. 5C is a diagram for explaining a specific example of the performance indicator 111.
As shown in FIG. 5C, the base display 111 includes a first display unit 111x and a second display unit 111y.
The first display unit 111x is composed of two 7-segment displays (including digital points) and displays identification information (bL, b1, b2, b3) that can identify which section's base value B is being displayed on the second display unit 111y.

The second display unit 111y is composed of two seven-segment displays (including digital points) and displays the base value B. For example, if the base value is greater than "100,""99." is displayed on the second display unit 111y. The performance indicator 111 switches and displays the base value B of each section on the second display unit 111y in the order of section L, section 1, section 2, and section 3 approximately every five seconds.

As shown in FIG. 5(b), during the period when the base value BL of section L is displayed, the identification information "bL" is displayed on the first display section 111x. Furthermore, during the period when the base value B1 of section 1 is displayed, the identification information "b1" is displayed on the first display section 111x, during the period when the base value B2 of section 2 is displayed, the identification information "b2" is displayed on the first display section 111x, and during the period when the base value B3 of section 3 is displayed, the identification information "b3" is displayed on the first display section 111x.

However, if the total number of outs is less than 60,000, the base value to be displayed on the second display unit 111y cannot be calculated during the period when the identification information "b1" is displayed on the first display unit 111x. Similarly, if the total number of outs is less than 60,000, the base value to be displayed with the identification information "b2" and the base value to be displayed with the identification information "b3" cannot be calculated. Taking the above into consideration, if the total number of outs is less than 60,000, during the period when the identification information "b1" to "b3" are displayed on the first display unit 111x, each identification information is displayed flashing, and the special symbol "- -" is displayed lit on the second display unit 111y.

When the total number of outs is 60,000 or more but less than 120,000, the base value B1 that displays the identification information "b1" is calculated, but the base value B2 that displays the identification information "b2" and the base value B3 that displays the identification information "b3" cannot be calculated. Taking the above into consideration, when the total number of outs is 60,000 or more but less than 120,000, during the period when the identification information "b1" is displayed on the first display unit 111x, the identification information is displayed in a lit state and the base value B1 is displayed in a lit state, and during the period when the identification information "b2" or the identification information "b3" is displayed, each identification information is displayed in a flashing state and the special symbol "- -" is displayed in a lit state on the second display unit 111y.

Similarly, when the total number of outs is 120,000 or more but less than 180,000, a base value B1 that displays the identification information "b1" and a base value B2 that displays the identification information "b2" are calculated, but a base value B3 that displays the identification information "b3" cannot be calculated. Taking the above into consideration, when the total number of outs is 120,000 or more but less than 180,000, during the period when the identification information "b1" or the identification information "b2" is displayed on the first display unit 111x, the identification information is displayed in a lit state and the base values (B1, B2) are displayed in a lit state, and during the period when the identification information "b3" is displayed, the identification information is displayed in a flashing state and the special symbol "- -" is displayed in a lit state on the second display unit 111y.

(Configuration of image control unit)
The configuration of the image control unit 140 will be described.
FIG. 6 is a block diagram showing the configuration of the image control unit 140. As shown in FIG.
The image control unit 140 includes a general CPU 141, a general RAM 142, a general ROM 143, a CGROM 144, a crystal oscillator 145, a VRAM 146, and a VDP (Video Display Processor) 200 (drawing control unit) for controlling the image display of the image display device 16 and the sound of the sound output device 9. The VDP 200 includes a sound control circuit 300 for controlling the sound output of the gaming machine 1.

Based on a performance pattern designation command (described later) received from the performance control unit 130m, the overall CPU 141 instructs the VDP 200 to display image data stored in the CGROM 144 on the image display device 16. Such instructions are made by setting data in the control register 201 of the VDP 200 and outputting a display list consisting of a group of drawing control commands.

When the overall CPU 141 receives a V-blank interrupt signal or a drawing end signal from the VDP 200, it performs appropriate interrupt processing. The overall CPU 141 also instructs the audio control circuit 300 included in the VDP 200 to output music and audio based on specified audio data to the audio output device 9 based on the performance pattern designation command received from the performance control unit 130m.

The general RAM 142 is built in the general CPU 141 , and functions as a work area for data during arithmetic processing by the general CPU 141 , and temporarily stores data read out from the general ROM 143 .
The overall ROM 143 is composed of a mask ROM, and stores therein the control processing program of the overall CPU 141, pattern arrangement information that associates the pattern numbers of the performance patterns 16a with the types of the performance patterns 16a, a display list generation program for generating a display list, animation patterns for displaying animations of performance patterns, animation scene information, etc.

An animation pattern is referenced when displaying the animation of a production pattern, and stores the combination of animation scene information contained in that production pattern and the display order of each animation scene information. In addition, the animation scene information stores information such as the wait frame (display time), target data (sprite identification number, source address, etc.), parameters (sprite display position, destination address, etc.), drawing method, etc.

CGROM 144 is made up of flash memory, EEPROM, EPROM, mask ROM, etc., and stores compressed image data (sprites, movies) etc. consisting of a collection of pixel information for a given range of pixels (e.g., 32 x 32 pixels). The pixel information consists of color number information that specifies a color number for each pixel, and an alpha value that indicates the transparency of the image.

CGROM 144 stores uncompressed palette data that associates color number information that specifies a color number with display color information for actually displaying the color. Note that CGROM 144 may be configured to compress only a portion of the image data, rather than compressing all of it. Also, various well-known compression methods such as MPEG4 can be used as a movie compression method. CGROM 144 also stores a large amount of audio data.

The crystal oscillator 145 outputs a pulse signal to the clock generation circuit 205 of the VDP 200, and by dividing the frequency of this pulse signal, the clock generation circuit 205 generates a system clock for the VDP 200 to perform control, a synchronization signal for synchronizing with the image display device 16, etc.

The VRAM 146 is composed of an SRAM that can write or read image data at high speed. The VRAM 146 has a display list memory area 146a that temporarily stores the display list output from the general CPU 141, an expansion memory area 146b that stores image data expanded by the expansion circuit 206, and a first frame buffer 146c and a second frame buffer 146d for drawing or displaying images. Palette data is also stored in the VRAM 146. The first and second frame buffers 146c and 146d alternate between being a "drawing frame buffer" and a "display frame buffer" each time drawing begins.

The VDP 200 is a so-called image processor, which reads image data from either the first frame buffer 146c or the second frame buffer 146d based on instructions from the overall CPU 141, generates a video signal (such as an RGB signal) based on the read image data, and outputs it to the image display device 16. Furthermore, in the gaming machine 1 of this embodiment, the VDP 200 is not merely an image processor, but also has an audio output function.

The VDP 200 includes a control register 201 , a CG bus I/F 202 , a CPU I/F 203 , a clock generation circuit 205 , an expansion circuit 206 , a drawing circuit 207 , a display circuit 208 , a memory controller 209 and an audio control circuit 300 .
The control register 201 is a register for the VDP 200 to control drawing and display, and drawing control and display control are performed by writing and reading data to and from the control register 201. The general CPU 141 can write and read data to and from the control register 201 via the CPU I/F 203.

The control register 201 has six types of registers: a system control register that performs basic settings required for the operation of the VDP 200; a data transfer register that performs settings required for data transfer; a drawing register that performs settings for controlling drawing; a bus interface register that performs settings required for bus access; a decompression register that performs settings required for decompressing compressed images; and a display register that performs settings for controlling the display.

The CG bus I/F 202 is an interface circuit for communication with the CG ROM 144 , and image data from the CG ROM 144 is input to the VDP 200 via the CG bus I/F 202 .
The CPU I/F 203 is an interface circuit for communication with the general CPU 141 , and via the CPU I/F 203 the general CPU 141 outputs a display list to the VDP 200 , accesses a control register, or inputs various interrupt signals from the VDP 200 .

The data transfer circuit 204 transfers data between various devices. Specifically, it transfers data between the general CPU 141 and the VRAM 146, between the CGROM 144 and the VRAM 146, and between various storage areas of the VRAM 146 (including the frame buffer).
The clock generation circuit 205 receives a pulse signal from the crystal oscillator 145 and generates a system clock that determines the arithmetic processing speed of the VDP 200. It also generates a clock for generating a synchronization signal and outputs the synchronization signal to the image display device 16 via the display circuit 208.

The decompression circuit 206 is a circuit for decompressing the image data compressed in the CGROM 144, and stores the decompressed image data in the decompression memory area 146b.
The drawing circuit 207 is a circuit that performs sequence control using a display list that is made up of a group of drawing control commands.

The display circuit 208 is a circuit that generates an RGB signal (analog signal) indicating the color data of an image as a video signal from image data (digital signal) stored in a "display frame buffer" in the VRAM 146, and outputs the generated video signal (RGB signal) to the image display device 16. Furthermore, the display circuit 208 also outputs a synchronization signal (vertical synchronization signal, horizontal synchronization signal, etc.) for synchronizing the first image display device 16 to the image display device 16. Note that, in this embodiment, the circuit is configured to output an RGB signal obtained by converting a digital signal into an analog signal as a video signal to the image display device 16, but the video signal may be output as a digital signal as is.

When the memory controller 209 receives an instruction to switch the frame buffer from the general CPU 141, it controls switching between the "drawing frame buffer" and the "display frame buffer."
The audio control circuit 300 reads out a specified program based on commands sent from the performance control board 130 and controls the audio output in the audio output device 9.
The audio control circuit 300 outputs music and audio using audio data stored in the CGROM 144. In this case, the CGROM 144 includes a sound source ROM for storing audio data. The audio control circuit 300 may not be included in the VDP 200, but may be provided independently within the image control unit 140.

As shown in FIG. 4, the lamp control unit 150 includes a lamp CPU 150a that performs calculation processing, a lamp ROM 150b that stores the lamp control program, a lamp RAM 150c that serves as a work area during calculation processing, and input/output ports.

The input/output ports of the lamp control unit 150 are connected to the board drive device 17, the board lighting device 23, the frame lighting device 27, the button drive motor 6c, the button vibration motor 6d, and the button light emitting LED 6e.
The lamp CPU 150a receives an operating clock from a crystal oscillator, reads out a lamp control program stored in the lamp ROM 150b, and performs calculation processing related to the performance while using the lamp RAM 150c as a work area. This controls the board drive device 17, the board lighting device 23, the frame lighting device 27, the button drive motor 6c, the button vibration motor 6d, and the button light emitting LED 6e.

The power supply board 160 generates the main power supply (operating power supply) required for the operation of the gaming machine 1 from the power supply voltage supplied from the power plug 161, and supplies the main power supply to the gaming machine 1 (main control board 110, payout control board 120, performance control board 130, various electronic components). The power supply board 160 is equipped with a power interruption detection circuit 162 that detects whether a power interruption (power outage) has occurred and outputs a power interruption detection signal to the main control board 110 based on the occurrence of a power interruption (power outage), and a backup power supply circuit 163 that supplies backup power to the main control board 110 in the event of a power interruption (power outage).

The power interruption detection circuit 162 monitors the power supply voltage supplied to the gaming machine 1, and when the power supply voltage falls below a predetermined value, outputs a power interruption detection signal to the main control board 110. More specifically, when the power interruption detection signal becomes high level, the main CPU 110a becomes operable, and when the power interruption detection signal becomes low level, the main CPU 110a becomes inoperative.

The backup power circuit 163 is equipped with a capacitor that stores electricity when the gaming machine 1 is energized, and in the event of a power outage (blackout), the backup power supply voltage stored in the capacitor is supplied to the main RAM 110c of the main control board 110. This allows the stored contents of the main RAM 110c and the payout RAM 121c to be retained even in the event of a power outage (blackout), and after recovery from the power outage (blackout), the game control state can be restored to the state before the power outage (blackout). In addition, a backup power source may be supplied to the payout control board 120 and the performance control board 130.

Next, various tables stored in the main ROM 110b will be described in detail with reference to FIGS.
(Big hit determination table)
Figure 7(a) is a jackpot determination table for a first special pattern triggered by the entry of a gaming ball into the first starting hole 10, and Figure 7(b) is a jackpot determination table for a second special pattern triggered by the entry of a gaming ball into the second starting hole 11a.

As shown in Figures 7(a) and 7(b), the jackpot determination value for determining the random number value for jackpot determination obtained when the game ball enters the first start hole 10 or the second start hole 11a is associated with the win/lose result, and the jackpot determination value is assigned so as to obtain the win/lose ratio shown in Figure 7.

The main CPU 110a refers to the jackpot determination table for the first special symbol shown in FIG. 7(a) or the jackpot determination table for the second special symbol shown in FIG. 7(b) and determines whether the result is a "jackpot," "small jackpot," or "miss" based on the obtained random value for jackpot determination. Note that the jackpot determination table for the first special symbol shown in FIG. 7(a) and the jackpot determination table for the second special symbol shown in FIG. 7(b) have the same probability of winning a jackpot, but the probability of winning a small jackpot and the probability of missing are different.

(Special symbol determination table)
FIG. 8(a) is a big win special pattern determination table which is referred to in order to determine the stopping pattern of the special pattern when a big win is won, FIG. 8(b) is a small win special pattern determination table which is referred to in order to determine the stopping pattern of the special pattern when a small win is won, and FIG. 8(c) is a losing special pattern determination table which is referred to in order to determine the stopping pattern of the special pattern when a loss occurs.

As shown in FIG. 8(a), the jackpot special symbol determination table is divided into tables according to the type of starting hole into which the game ball entered. Each table is associated with a special symbol determination value for determining the random number value for special symbol determination obtained when the game ball enters the first starting hole 10 or the second starting hole 11a, a special symbol (special symbol stop data), and a performance symbol designation command sent to the performance control board 130 as information indicating the type of special symbol, and the special symbol determination value is set to obtain the special symbol selection rate (%) shown in FIG. 8(a).

As shown in FIG. 8(b), the small win special symbol determination table is divided into tables according to the type of starting hole into which the game ball entered. Each table is associated with a special symbol determination value for determining the random number value for special symbol determination obtained when the game ball enters the first starting hole 10 or the second starting hole 11a, a special symbol (special symbol stop data), and a performance symbol designation command sent to the performance control board 130 as information indicating the type of special symbol, and the special symbol determination value is set to achieve the special symbol selection rate (%) shown in FIG. 8(b). Note that multiple special symbols may be associated with the special symbol determination value so that multiple small win special symbols can be determined even in a small win.

As shown in FIG. 8(c), the losing special symbol determination table is divided into tables according to the type of starting hole into which the game ball entered. Each table is associated with a special symbol determination value for determining the special symbol determination value obtained when the game ball enters the first starting hole 10 or the second starting hole 11a, a special symbol (special symbol stop data), and a performance symbol designation command sent to the performance control board 130 as information indicating the type of special symbol, and the special symbol determination value is set to the special symbol selection rate (%) shown in FIG. 8(c). Note that multiple special symbols may be associated with the special symbol determination values so that multiple losing special symbols can be determined even in the case of a loss.

The main CPU 110a refers to the special pattern determination table shown in Figures 8(a) to (c) and determines the type of special pattern (special pattern stop data) based on the type of starting hole into which the game ball has entered and the random number value for determining the special pattern.
When the special symbol starts to change, the main CPU 110a determines a performance symbol designation command as information indicating the type of special symbol based on the determined type of special symbol (special symbol stop data). Here, the performance symbol designation command is composed of 2 bytes of data, and is composed of 1 byte of MODE data to identify the classification of the control command and 1 byte of DATA data indicating the content of the control command to be executed. This is the same for the variation pattern designation command etc. described later.

As described below, the type of special symbol (special symbol stop data) determines the type of big win game, the type of small win game, and the game state after the big win game ends. In other words, it can be said that the type of special symbol determines the type of big win game or small win game, and the game state after the big win game ends.

(Type 1 Jackpot Game Control Table)
FIG. 9 is a diagram showing a first type jackpot game control table for determining the progress of the jackpot state (special game state) when a jackpot is won.
The first type of jackpot game control table corresponds to the type of special pattern (special pattern stop data), the opening time, an opening designation command to be sent to the performance control board 130 when the opening starts, a large prize opening opening opening/closing control table for determining the opening/closing mode of the first large prize opening 13a, the ending time, and an ending designation command to be sent to the performance control board 130 when the ending starts.

The main CPU 110a refers to the first type jackpot game control table shown in FIG. 9 and determines the opening time, the big prize opening control table, and the ending time based on the special chart stop data. Note that since the number of rounds in the big prize state (special game state) is determined by determining the type of the big prize opening table, FIG. 9 additionally lists the number of rounds in the first type jackpot state (special game state), etc.

(First-class big win game opening/closing control table)
FIG. 10 is a diagram showing a big prize opening opening control table for a first type big prize game which is referred to when a big prize is won.
The first-type big prize opening opening control table for the first-type big prize game is divided into tables for each table number (TBL. No.). Each table is associated with a round number (R) indicating the number of rounds of the big prize game (special game state), the type of the big prize opening to be opened or closed, a special electric operation number (K) indicating the number of times the first big prize opening 13a is opened during one round, an opening time (s) of the first big prize opening 13a, and a closing time (s) for closing the first big prize opening 13a between or during rounds.

The main CPU 110a identifies the opening/closing mode (opening/closing pattern) of the first large prize opening 13a by referring to the large prize opening opening/closing control table for the first type of jackpot game shown in FIG. 10, executes the first type of jackpot game based on the large prize opening opening/closing control table 1 for the first type of jackpot game (TBL.No01), executes the first type of jackpot game based on the large prize opening opening/closing control table 2 for the first type of jackpot game (TBL.No02), and executes the first type of jackpot game based on the large prize opening opening/closing control table 3 for the first type of jackpot game (TBL.No03).

According to the large prize opening opening control table 1 (TBL.No = 01) for the first type jackpot game, the opening/closing member 13b is operated to open the first large prize opening 13a for up to 29.0 seconds per round from round 1 to round 9, in order to execute the first type jackpot game. However, if a specified number (10) of game balls enter the first large prize opening 13a before the opening time has elapsed, one round of play will end. And when the ninth round of play is completed, the first type jackpot game will end.

According to the large prize opening opening control table 2 (TBL.No = 02) for the first type jackpot game, the opening/closing member 13b is operated to open the first large prize opening 13a for up to 29.0 seconds per round from round 1 to round 6, in order to execute the first type jackpot game. However, if a specified number (10) of game balls enter the first large prize opening 13a before the opening time has elapsed, one round of play will end. And when the sixth round of play has ended, the first type jackpot game will end.

According to the large prize opening opening control table 3 for the first type jackpot game (TBL.No = 03), the opening and closing member 13b is operated to execute the first type jackpot game in which the first large prize opening 13a is opened for up to 29.0 seconds per round from round 1 to round 3. However, if a specified number (10) of game balls enter the first large prize opening 13a before the opening time has elapsed, one round of play ends. And when the third round of play ends, the first type jackpot game ends.

(Small Win Game Control Table)
FIG. 11A is a diagram showing a small win game control table for determining the progress of the small win state (special game state) when a small win is won.
The small win game control table corresponds to the type of special pattern (special pattern stop data), opening time, an opening designation command to be sent to the performance control board 130 when the opening starts, a large prize opening opening opening/closing control table for determining the opening/closing mode of the second large prize opening 14a, an ending time, and an ending designation command to be sent to the performance control board 130 when the ending starts.

The main CPU 110a refers to the small win game control table shown in FIG. 11(a) and determines the opening time, the large win opening opening control table, and the ending time based on the special chart stop data.

(Big prize opening/closing control table for small prize games)
11(b) is a diagram showing a control table for opening and closing the large prize winning hole for small prize games, which is referred to when a small prize is won. The control table for opening and closing the large prize winning hole for small prize games is divided into tables for each table number (TBL.No). Each table is associated with the type of the large prize winning hole to be opened and closed during a small prize game, the special electric operation number (K) indicating the number of times the second large prize winning hole 14a is opened during a small prize game, the opening time (s) of the second large prize winning hole 14a, and the closing time (s) for closing the second large prize winning hole 14a during a small prize game.

The main CPU 110a refers to the large prize opening opening/closing control table for small prize games shown in FIG. 11(b) to determine the opening/closing mode (opening/closing pattern) of the second large prize opening 14a, and executes the small prize game based on the large prize opening opening/closing control table for small prize games 4 (TBL. No. 04).

According to the large prize opening opening control table 4 for small prize games (TBL.No = 04), the opening and closing member 14b is operated to execute a small prize game in which the second large prize opening 14a is opened for 1.8 seconds. However, if a specified number (10 balls) of game balls enter the second large prize opening 14a before the opening time has elapsed, the small prize game ends.

(Specific area opening/closing control table for small win games)
11C is a diagram showing a specific area opening/closing control table for small win games, which is referred to when a small win is won. In this specific area opening/closing control table for small win games, the elapsed time (s) from the opening of the second large prize opening 14a, the opening time (s) of the specific area 14e, and the closing time (s) of the specific area 14e are associated with each other.

When a small win game is executed and the elapsed time (s) from the opening of the second large prize opening 14a shown in the small win game specific area opening/closing control table in FIG. 11(c) has elapsed, the main CPU 110a operates the distribution member 22a to open the specific area 14e for 0.8 seconds.

(Type 2 Jackpot Game Control Table)
FIG. 12 is a diagram showing a second type jackpot game control table for determining the progress of the jackpot game state (special game state) after the end of a small jackpot game when the game ball passes through a specific area 14e during a small jackpot game.
The second type jackpot game control table corresponds to the type of special pattern (special pattern stop data), a large prize opening opening/closing control table for determining the opening/closing mode of the first large prize opening 13a, and an ending time (s) and an ending designation command to be sent to the performance control board 130 when the ending starts.

The main CPU 110a refers to the second type jackpot game control table shown in FIG. 12 and determines the jackpot opening/closing control table and the ending time (s) based on the special game stop data. Note that since the number of rounds in the jackpot state (special game state) is determined by determining the type of jackpot opening/closing control table, FIG. 11 additionally lists the number of rounds in the second type jackpot state (special game state).

(Big prize opening/closing control table for second type big prize game)
FIG. 13 is a diagram showing a big prize opening opening control table for a second type big prize game which is referred to when the gaming ball passes through the specific area 14e in a small prize game.
The large prize opening opening control table for type 2 jackpot game associates with a round number (R) indicating the number of rounds of a jackpot game (special game state), the type of large prize opening to be opened or closed, a special electric operation number (K) indicating the number of times the first large prize opening 13a is opened during one round, the opening time (s) of the first large prize opening 13a, and the closing time (s) for closing the first large prize opening 13a between rounds or during a round.

The main CPU 110a refers to the large prize opening opening/closing control table for the second type jackpot game shown in FIG. 13 to determine the opening/closing mode (opening/closing pattern) of the first large prize opening 13a, and executes the second type jackpot game based on the large prize opening opening/closing control table 4 for the second type jackpot game (TBL. No. 04).

According to the large prize opening opening control table 4 (TBL.No = 04) for the second type jackpot game, the opening and closing member 13b is operated to open the first large prize opening 13a for up to 29.0 seconds per round from round 2 to round 6, in order to execute the second type jackpot game. However, if a specified number (10 balls) of game balls enter the first large prize opening 13a before the opening time has elapsed, one round of play ends. Then, when the sixth round of play ends, the second type jackpot game ends. The small prize game is the first round of play in the jackpot game.

(Game Status Setting Table)
14 is a game state setting table for determining the game state after the end of a big win game (special game state). In this game state setting table, the special symbol stop data, the winning state indicating the game state when the big win or small win is won, the time-saving game flag indicating the time-saving game state, and the time-saving game count (J) indicating the number of times the special symbol can be displayed in the time-saving game state are associated with each other.
Here, the "state at the time of winning" is information indicating the gaming state at the time of winning a big win or a small win. The gaming state is configured as either a non-time-saving gaming state or a time-saving gaming state.
The "non-time-saving game state" or the "time-saving game state" is a game state related to the operation of the opening/closing member 11b of the second starting port 11a, and will be described in detail in FIG. 19 below.

The main CPU 10a refers to the game state setting table shown in FIG. 14 and determines the time-saving game state and the number of time-saving times (J) based on the special chart stop data at the end of the jackpot game and the winning state.

When a jackpot is won during a non-time-saving play state and the special symbol stop data for the first special symbol is 01, the number of time-saving play times (J) is set to "99," and when the first special symbol stop data is 02 or 03, the number of time-saving play times (J) is set to "1."
When the jackpot is won during the time-saving game state and the special symbol stop data for the second special symbol is any of 04 to 06, the time-saving game count (J) is set to "99". Note that the time-saving game count (J) shown in FIG. 14 is not limited to the count in this embodiment and can be set appropriately.

(Special pattern variation table)
15 to 18 are diagrams showing a special symbol variation pattern determination table for determining the variation pattern of the special symbols.
FIG. 15 is a special symbol variation pattern determination table to be referred to when displaying the variation of the special symbol based on the winning of the game ball into the first start hole 10 or the second start hole 11a in the non-time-reduction game state.

Figure 16 shows a special symbol variation pattern determination table that is referenced when displaying the variation of special symbols based on the second reserved number (U2) (maximum 4 symbols) in a non-time-saving play state after the time-saving play state ends, when the second reserved number (U2) is not "0" at the time when the stop display following the variation display of the last special symbol in the previous time-saving play state ends.

FIG. 17 is a special symbol variation pattern determination table that is referred to when displaying the variation of the special symbol based on the winning of a gaming ball into the second starting hole 11a in the time-saving gaming state.
FIG. 18 is a special symbol change pattern determination table that is referred to when displaying the change in the special symbol that is the final change based on the entry of a gaming ball into the second starting hole 11a in the time-saving gaming state.

The variation pattern determination table in Figures 15 to 18 associates the type of special symbol, special symbol stop data, random number value for reach determination (reach selection rate (%)), number of reserved special symbols (reserved balls) (U1 or U2), random number value for special symbol variation (special symbol variation pattern selection rate (%)), special symbol variation pattern, special symbol variation time (s), and variation pattern designation command, and the random number value for reach determination (reach selection rate (%)) and the random number value for special symbol variation (special symbol variation pattern selection rate (%)) are set so as to achieve each selection rate (%).

The special symbol fluctuation pattern is capable of identifying at least the type of special symbol (first special symbol, second special symbol), the jackpot determination result, and the time period during which the special symbol fluctuates. In addition, if the jackpot determination result is a miss, the random number value for reach determination is referenced, but in the case of a jackpot, a reach occurs except in special cases, so the random number value for reach determination is not referenced. Note that although a maximum of "4" may be stored as the reserved number of special symbols (U1 or U2), "4" is not set as the reserved number of special symbols, because the fluctuation pattern is determined after subtracting "1" from the reserved number of special symbols.

In the fluctuation pattern determination table for special symbols in non-time-saving game mode shown in Figures 15 and 16, the average fluctuation time of the special symbols is set to be shorter as the reserved number of special symbols (U1 or U2) increases (reserved number = 2 or 3). For example, in the table in Figure 15, the fluctuation time of fluctuation pattern 01 (normal fluctuation) is set to 10 seconds, and the fluctuation time of fluctuation pattern 02 (reduced fluctuation) is set to 3 seconds.

In the variation pattern determination table for special symbols in time-saving game mode shown in FIG. 16, if the reserved number of special symbols (U1 or U2) is 0, the variation time of the special symbols is set to be long, and if the reserved number of special symbols (U1 or U2) is not 0 (reserved number = 1 to 3), the variation time of the special symbols is set to be short. In the table in FIG. 16, the variation time of variation pattern 27 (long variation) is set to 15 seconds, and the variation time of variation pattern 28 (shortened variation) is set to 3 seconds.

When the main CPU 110a refers to the special symbol variation pattern determination table of Figures 15 to 18, it determines the special symbol variation pattern (including the special symbol variation time) based on the type of special symbol (starting hole), the special symbol stop data, the reach determination random number value (reach selection rate (%)), the number of reserved special symbols (number of reserved balls) (U1 or U2), and the special symbol variation random number value (special symbol variation pattern selection rate (%)). Then, based on the determined special symbol variation pattern, a special symbol variation pattern designation command is generated, and information on the special symbol variation pattern is sent to the performance control board 130.

Here, the special symbol variation pattern specification command is composed of one byte of MODE data to identify the command classification, and one byte of DATA data that indicates the content (function) of the command.

The performance control board 130 determines the performance content of the performance pattern 16a, etc. based on the special pattern variation pattern (variation pattern designation command). For reference, the rightmost column of the special pattern variation pattern determination table shown in Figures 15 to 18 lists the performance content of the variable performance using the performance pattern 16a.

The "normal fluctuation", "shortened fluctuation", and "long fluctuation" are fluctuation effects in which the three performance patterns 16a fluctuate independently at high speed and stop without reaching a reach. The normal fluctuation, shortened fluctuation, and long fluctuation have different fluctuation times, with the fluctuation times being longer in the order of shortened fluctuation < normal fluctuation < long fluctuation.

"Reach" refers to a variation mode in which some of the combinations of three performance symbols 16a temporarily stop and the other performance symbols 16a change, giving the player a sense of anticipation of a big win. For example, if "777" is set as a combination of three performance symbols 16a, two performance symbols 16a temporarily stop at "7" and the remaining performance symbols 16a change. Note that "temporary stop" refers to a mode in which the three performance symbols 16a slightly swing or change slightly, giving the player the impression that the performance symbols 16a are stopped.

"Normal reach" refers to a reach in which the same effect pattern 16a is temporarily stopped in the left and right areas while the effect pattern 16a in the central area changes, and is the reach with the lowest expectation of winning the jackpot lottery (hereafter, jackpot expectation). Note that in this embodiment, a "normal reach" does not result in a jackpot, but it may be configured so that a jackpot can be won.

In addition, an "SP reach" is a super reach that occurs after a normal reach and has a higher chance of winning a jackpot than a normal reach. For example, of the three performance symbols 16a, the two left and right performance symbols 16a that are temporarily stopped are reduced in size and moved to the corners of the display screen of the image display device 16, and an SP reach performance is performed using almost the entire display screen of the image display device 16, giving the player high hopes for a jackpot.

The "SPSP reach" is a special reach that occurs after a normal reach or an SP reach, and has a higher chance of winning a jackpot than a super reach. For example, of the three performance symbols 16a, the two left and right performance symbols 16a that are temporarily stopped are reduced in size and moved to the corners of the display screen of the image display device 16, and an SPSP reach performance that has a higher chance of winning a jackpot than an "SP reach" is performed using almost the entire display screen of the image display device 16.

The "full rotation reach" is a reach that guarantees a jackpot. For example, when all three performance symbols 16a are the same, they move slowly, and a full rotation reach performance with a higher chance of winning than the "SPSP reach" is performed using almost the entire display screen of the image display device 16.

In the "chance effect" when a variable display based on the winning of a game ball into the second start port 11a is executed in the time-saving play state, for example, a battle effect is performed in which a friendly character fights an enemy character. For example, if a small prize is won, a victory effect is executed in which the friendly character has an advantage over the enemy character, and the effect pattern 16a is displayed stopped in a state suggesting a small prize win (for example, "333"). Then, in the subsequent small prize play, an operation effect (for example, a text image display of "Aim for the V!") is executed to encourage the game ball that won the second large prize port 14a to pass through the specific area 14e (V win).

When the game ball that entered the second large winning hole 14a during a small winning game passes through the specific area 14e, a second type of jackpot is awarded, and a jackpot notification image (for example, a letter image of the letter "V") is displayed to notify the player that a jackpot has been awarded.
On the other hand, unless the game ball that has entered the second big winning hole 14a in the small winning game passes through the specific area 14e, it does not become a second type big winning, and a big winning notification effect image that notifies the fact that a big winning has occurred is not displayed.

When a game ball that has entered the second large winning hole 14a passes through the specific area 14e, resulting in a second type jackpot, an operation effect is executed to encourage the game ball to pass through the gate 12 in the right-side game area 4a2 (for example, a text image display of "Aim for the gate!" and an arrow image display or an arrow image display only that points in the direction where the gate 12 is located). Then, when the game ball passes through the gate 12, a round of the second type jackpot game begins, but the game is controlled so that the round of the second type jackpot game does not begin unless the game ball passes through the gate 12. In other words, the gate 12 functions as a round start gate used to begin a round of the jackpot game (operation of the device for continuously operating the role).

In this way, when a second type jackpot is reached through a small jackpot during time-saving play, even if an opening game is executed, a round game will not start unless the game ball passes through the gate 12, so that the player can take a toilet break, etc.
In addition, the gate 12 serves both as a lottery gate used for the above-mentioned normal symbol lottery and as a round start gate used to start a round of play (operation of the device for continuously operating the reels) in a jackpot game.
Incidentally, the lottery gate and the round start gate may be provided separately.

When the second special symbol is displayed in the time-saving play state, a presentation is executed to inform the player of the number of remaining times the display will change in the time-saving play state (for example, the first time the second special symbol is displayed, the text "5 times remaining" is displayed).

In addition, in the "last chance effect" that is executed when the last variable display of the second special symbol is executed in the time-saving play state, an effect similar to the "chance effect" described above is executed. In this "last chance effect", an effect is executed that notifies the player that this is the last variable display in the time-saving play state (for example, the text display "Last Chance!").

In addition, in the non-time-saving play state after the time-saving play state ends, if the second reserved number (U2) is not "0" at the time when the stop display after the last variable display of the special symbol in the previous time-saving play state ends, a "revenge effect" is executed in which, for example, an ally character fights an enemy character different from the enemy character in the "chance effect".

For example, if a jackpot is won, a battle scene is played in which an ally character defeats an enemy character, and the performance pattern 16a is displayed in a stopped state in a manner that suggests a jackpot win.

For example, if a small win is won, a victory effect is executed in which the friendly character has an advantage over the enemy character, and the effect pattern 16a is displayed in a stopped state in a manner that suggests a small win. Then, in the subsequent small win game, an operation effect is executed (for example, the display of a text image saying "Aim for the V!") that encourages the game ball to pass through the specific area 14e (V win).

When the game ball that entered the second large winning hole 14a during a small win game passes through the specific area 14e and becomes a second type of jackpot, an image display notifying the player that a jackpot has been reached is displayed, and then an operation display (for example, the display of a text image saying "Aim for the gate!" and an arrow image, or just the display of an arrow image) is executed to encourage the player to pass the game ball through the gate 12 in the right-side game area 4a2.

In this way, in the "Chance Effect," "Last Chance Effect," and "Revenge Effect," effects are executed that will arouse the player's interest in whether or not they will win a small prize and whether or not the game ball that entered the second large prize opening 14a will subsequently pass through the specific area 14e, in order to make the player look forward to a "second type of big prize" if he or she wins a small prize.

FIG. 19 is a diagram showing a table relating to normal symbols and the opening and closing member 11b of the second starting hole 11a.
FIG. 19(a) is a diagram showing a winning determination table for normal symbols used in a winning lottery for normal symbols.
FIG. 19(b) is a diagram showing a stopping symbol determination table for normal symbols corresponding to the winning lottery result (winning determination result) for the normal symbols.
FIG. 19(c) is a diagram showing a normal symbol fluctuation pattern determination table for determining the normal symbol fluctuation time.
FIG. 19(d) is a diagram showing an opening mode determination table for the second starting opening, which is used to determine the opening mode of the opening/closing member in a winning state (auxiliary game) that occurs when a winning lottery for a normal pattern is won.

(Normal symbol hit determination table)
As shown in FIG. 19(a), the hit determination table associates the presence or absence of a time-saving game state, a random number value for hit determination obtained when the game ball passes through gate 12, and the result of the hit lottery.
The main CPU 110a refers to the win determination table shown in FIG. 19(a) and determines whether it is a "win" or a "miss" based on the current time-saving game state and the obtained random number value for win determination.

For example, according to the hit determination table shown in FIG. 19(a), in the non-time-saving play state, one hit determination random number value of "127" is determined as a hit, and in the time-saving play state, 128 hit determination random numbers from "0" to "127" are determined as hits. Therefore, the probability of being determined as a hit in the non-time-saving play state is 1/128, and the probability of being determined as a hit in the time-saving play state is 127/128.

(Normal symbol stop symbol determination table)
The stopping pattern determination table shown in Figure 19 (b) corresponds to the presence or absence of a time-saving game state, the lottery result of the winning lottery (winning determination result), a random number value for the winning pattern (normal pattern selection rate) obtained when the game ball passes through gate 12, the type of normal pattern (normal pattern stopping data), and a normal pattern designation command sent to the performance control board 130 as information indicating the type of normal pattern.

The main CPU 110a refers to the stopping pattern determination table shown in Figure 19 (b) and determines the normal pattern and normal pattern stopping data to be displayed on the normal pattern first display 19c based on the current time-saving game state, the lottery result of the winning lottery, and the obtained random number value for the winning pattern.
Then, when the normal symbol starts to change, a normal symbol designation command is determined as information indicating the type of normal symbol based on the determined type of normal symbol (normal symbol stop data) and is transmitted to the performance control board 130.

(Normal pattern variation pattern determination table)
The fluctuation pattern determination table shown in Figure 19 (c) corresponds to the presence or absence of a time-saving game state, the lottery result of the winning lottery, a random number value for determining the normal pattern fluctuation pattern obtained when the game ball passes through gate 12, the normal pattern fluctuation time, and a normal pattern fluctuation pattern designation command sent to the performance control board 130 as information indicating the normal pattern fluctuation time.

The main CPU 110a refers to the variation pattern determination table shown in FIG. 19(c) and determines the variation time of the normal symbol based on the current time-saving game state, the lottery result of the winning lottery, and the random number value for determining the normal symbol variation pattern. When the normal symbol starts to vary, a normal symbol variation pattern designation command is determined based on the determined variation time as information indicating the normal symbol variation time, and is sent to the performance control board 130.

According to the normal symbol fluctuation pattern determination table shown in FIG. 19(c), the fluctuation time of the time-saving game state (3 seconds or 5 seconds) is configured to be shorter than the fluctuation time of the non-time-saving game state (30 seconds or 40 seconds).

(Table for determining the opening mode of the second starting port)
The opening mode determination table shown in Figure 19 (d) corresponds to a normal pattern (normal pattern stop data), the maximum number of openings (s) of the second starting port 11a (opening/closing member 11b), the first opening time and closing time of the second starting port 11a (opening/closing member 11b), the interval time between the first closing time and the second opening time, and the second opening time and closing time.

The main CPU 110a refers to the opening mode determination table shown in FIG. 19(d) and determines the opening time, the maximum number of times the second start port 11a (opening/closing 11b) is opened, the first opening time, and the closing time based on the normal stop data.

In the opening mode determination table shown in FIG. 19(d), the opening mode based on normal stop data = 03 (normal pattern 3) is a more advantageous opening mode for the player than the opening mode based on normal stop data = 02 (normal pattern 2), and the opening mode based on normal stop data = 04 (normal pattern 4) is a more advantageous opening mode for the player than the opening mode based on normal stop data = 03 (normal pattern 3).

In the table of FIG. 19(d), the normal symbol associated with a win in the time-saving play state may have other normal symbol stop data (normal symbol) than normal symbol stop data = 04 (normal symbol 4) having an opening time (s) of 6 seconds, or may have, for example, normal symbol stop data (normal symbol) having an opening time (s) shorter than 6 seconds.

In addition, according to the stop symbol determination table in FIG. 19(b), the normal symbol stop data = 04 (normal symbol 4) that is most advantageous to the player when a win occurs in the time-saving play state is determined. As a result, in the time-saving play state, the second start hole 11a (opening/closing member 11b) operates to be more advantageous to the player than in the non-time-saving play state. Specifically, if a winning lottery is won in the time-saving play state, the second start hole 11a is opened for a longer period of time than if a winning lottery is won in the non-time-saving play state.

(Explanation of game state)
Next, the game state as the game progresses will be described.
The gaming states that the gaming machine 1 can take include a "non-time-saving gaming state" and a "time-saving gaming state" which are states related to the operation of the opening/closing member 11b that opens and closes the second starting port 11a.

The "non-time-saving game state" is a game state in which the average fluctuation time of the normal symbol corresponding to the winning lottery result, which is held on the condition that the game ball has passed through the gate 12, is set longer than in the "time-saving game state," and the opening time of the second starting hole 11a when a winning lottery result is likely to be set shorter than in the "time-saving game state."

For example, when a game ball passes through gate 12, a lottery is held to see if a normal symbol will win, and the normal symbol is displayed in a variable manner on the first normal symbol display 19c. The normal symbol is then displayed as a static symbol 30 seconds after the variable display begins. If the lottery results in a win, the second starting hole 11a is controlled to be in an open state for 0.2 seconds after the normal symbol is displayed as a static symbol.

In contrast, the "time-saving game state" is a game state in which the average fluctuation time of the normal symbol corresponding to the result of the lottery for the winning normal symbol, which is held on the condition that the game ball has passed through the gate 12, is set shorter than in the "non-time-saving game state," and the opening time of the second starting hole 11a when a winning lottery is won is set longer than in the "non-time-saving game state" (for example, 2.5 seconds).

Furthermore, in the "non-time-saving game state", the probability of winning in the lottery for the normal symbol is set to, for example, 1/128. In the "time-saving game state", the probability of winning in the lottery for the normal symbol is set to, for example, 127/128, which is higher than the probability of winning in the non-time-saving game state. Therefore, in the "time-saving game state", when the game ball passes through the gate 12, the second starting hole 11a is more easily controlled to the open state than in the "non-time-saving game state".
In this way, the "time-saving game state" is set to be more favorable than the "non-time-saving game state" in terms of the normal symbol variation time, the opening time of the second start hole 11a, and the winning probability of the normal symbol winning lottery.

Next, we will use a flowchart to explain how the game progresses on gaming machine 1.

(Main processing of the main control board)
20 is a flow chart for explaining the main processing executed by the main CPU 110a of the main control board 110. This main processing starts when the power of the gaming machine 1 is turned on, and is executed continuously while the main control board 110 is operating.

First, in step S1, the main CPU 110a prohibits all interrupts, and in step S2 performs initial CPU settings such as setting the built-in registers, and in step S3 performs processing to wait for the startup of other boards. Specifically, it waits for one second for the payout control board 120 and performance control board 130 to start up so that no commands from the main control board 110 are missed.

In step S4, the main CPU 110a permits access to the RWM area of the main RAM 110c, and in step S5, sends a launch permission command to the payout control board 120. This causes the payout control unit 121 to carry out processing to permit the launch device 26 to launch game balls.

In step S6, the main CPU 110a determines whether a backup flag indicating that power has been restored is "ON" in the game RWM area of the main RAM 110c. If the backup flag is "ON" (step S6; Yes), it is assumed that power has been restored and the process proceeds to step S7. If the backup flag is not "ON" (step S6; No), it is assumed that power has been turned on for the first time and the process proceeds to step S8.

In step S7, the main CPU 110a calculates a checksum (abnormality determination data) of the game RWM area (excluding the setting value area) of the main RAM 110c.
In step S8, the main CPU 110a judges whether or not a setting change operation has been performed. Specifically, it judges whether or not the setting key switch 58d and the RWM clear switch 58c are "ON". If a setting change operation has been performed (step S8; Yes), the process proceeds to step S9 to transition to the setting change mode, and if a setting change operation has not been performed (step S8; No), the process proceeds to step S10.

In step S9, the main CPU 110a performs a setting change process. Specifically, the current setting value saved in the setting value area of the game RWM area of the main RAM 110c is displayed on the performance display 111, and a setting change command is sent to the performance control board 130.

Furthermore, each time the RWM clear switch 58c is operated, the setting value is changed (updated) within the range of "1" to "4" and the updated setting value is displayed. When the setting confirmation operation is performed by turning the setting key switch 58d from "ON" to "OFF", the setting value is confirmed and the changed (updated) setting value is saved in the setting value area, the display of the setting value on the performance display 111 is terminated, and processing is performed to end the setting change mode.

In addition, the performance control board 130 that receives the setting change command performs processing to execute a setting change notification to notify that the setting value is being changed. Specifically, a setting change in progress screen indicating that the setting value is being changed is displayed on the image display device 16, and the board lighting device 23 and frame lighting device 27 are all lit up in a specified light color (e.g. white) throughout the setting change. In addition, a setting change notification sound indicating that the setting is being changed ("Setting change in progress") may be output from the audio output device 9.

In step S10, the main CPU 110a determines whether the checksum is normal. Specifically, it determines whether the checksum saved in the gaming RWM area matches the checksum calculated in step S7. If the checksum is normal (there is no abnormality in the data in the gaming RWM area), processing proceeds to step S11. If the checksum is not normal (there is an abnormality in the data in the gaming RWM area), processing proceeds to step S34 as it is not possible to return normally to the control state before the power was turned off. Note that if the backup flag is not "ON", that is, when the power is turned on for the first time, the checksum is determined to be abnormal.

In step S11, the main CPU 110a judges whether the setting value in the setting value area is an appropriate judgment (1 to 4). If it is judged that the setting value in the setting value area is within the appropriate range (step S11; Yes), the process proceeds to step S12, and if it is judged that the setting value in the setting value area is not within the appropriate range (step S11; No), the process proceeds to step S34.

In step S34, the main CPU 110a performs processing for an irrecoverable error (RWM abnormality). Specifically, it displays error information "E" indicating an irrecoverable error on an error indicator (not shown) provided on the power supply board 160, sends an irrecoverable error designation command to the performance control board 130 indicating that an irrecoverable error has occurred, sets interrupt inhibition to inhibit timer interrupts, clears the output port, and then outputs an irrecoverable error signal (security signal) indicating the occurrence of an irrecoverable error from the security signal terminal of the game information output terminal board 90, and waits until the power supply is completely cut off. As a result, the performance control board 130 performs processing to execute an irrecoverable error notification.

An "irrecoverable error (RWM abnormality)" is an RWM abnormality state in which game control is not performed (game control is not transferred) because the data in the game RWM area of the main RAM 110c is abnormal based on the checksum result, and the error cannot be cleared unless a setting change process is executed. Therefore, when an irrecoverable error occurs, the error will not be cleared even if the power switch provided on the power supply board 160 is turned "OFF" and then turned "ON" without a setting change operation, but will be cleared by turning the power switch "ON" with a setting change operation.
Incidentally, the "irrecoverable error" is not cleared unless a setting change process is executed, but it may also be cleared when an RWM clear is executed without a setting change process.

An "irrecoverable error notification (RWM abnormality notification)" is a notification to make the user aware that an irrecoverable error has occurred, and involves displaying an irrecoverable error screen ("This is an irrecoverable error. Please change the settings") on the display unit of the image display device 16, lighting the board lighting device 23 and frame lighting device 27 in a specified light color (e.g. red) until the power is turned off, and outputting an irrecoverable error sound ("This is an irrecoverable error" + buzzer sound) from the audio output device 9 indicating that an irrecoverable error has occurred until the power is turned off.

In step S12, the main CPU 110a determines whether the RWM clear switch 58c is "ON." If the RWM clear switch 58c is "ON" (step S12; Yes), the process proceeds to step S13. If the RWM clear switch 58c is not "ON" (step S12; No), the process proceeds to step S16.

In step S13, the main CPU 110a performs an RWM clear process.
In step S14, the main CPU 110a transmits a power-on command to the payout control board 120 and the performance control board 130, indicating that the game control state has been initialized (RWM cleared).
Next, in step S15, the main CPU 110a transmits a game state designation command to the performance control board 130, and proceeds to step S21. As a result, the performance control board 130 performs processing for executing a power-on notification.

The "power-on notification" is a notification to make the player aware that the game control state has been initialized, and involves lighting the board lighting device 23 and the frame lighting device 27 in a predetermined light color (e.g., red) for a predetermined period (e.g., 60 seconds) and outputting a power-on notification sound (voice + buzzer sound saying "RAM has been cleared") from the audio output device 9 for a predetermined period (e.g., 30 seconds) indicating that the RWM area has been initialized. Note that the power-on notification may also display an initialization image (text image of "RAM clear") on the image display device 16 to notify the player that the RWM has been cleared.

In step S16, the main CPU 110a determines whether a setting confirmation operation has been performed. Specifically, it determines whether the setting key switch 58d is "ON." If the setting key switch 58d is "ON" (step S16; Yes), the process proceeds to step S17 to transition to setting confirmation mode. If the setting key switch 58d is not "ON" (step S16; No), the process proceeds to step S18 to return the game control state to the state before the power was turned off.

In step S17, the main CPU 110a performs a setting confirmation process. Specifically, the current setting value stored and held in the setting value area of the gaming RWM area is displayed on one 7-segment LED of the performance display 111, and a setting confirmation command is transmitted to the performance control board 130.
Furthermore, when the setting key switch 58d is turned from "ON" to "OFF" to end the confirmation, the display of the setting value on the performance display 111 is terminated and a confirmation process is performed to end the setting confirmation mode.

In addition, the performance control board 130 that receives the setting confirmation command performs processing to execute a setting confirmation notification to notify that a setting confirmation is being performed. Specifically, a setting confirmation screen indicating that a setting confirmation is being performed is displayed on the image display device 16, and the board lighting device 23 and frame lighting device 27 are all lit up in a specified light color (e.g., white) during the setting confirmation. In addition, a setting confirmation notification sound indicating that a setting confirmation is being performed ("The setting value is being confirmed") may be output from the audio output device 9.

In step S18, the main CPU 110a clears (clears to 0) the backup flag and checksum set in the game RWM area, and sets the game RWM area when power is restored. This returns (restores) the game progress state (control state) to the state before the power was cut off, making it possible to resume play from the state before the power was cut off.

In step S19, the main CPU 110a determines whether the complete function activation flag is "ON" when the power is restored. If the complete function activation flag is "ON" (step S19; Yes), the process proceeds to the unrecoverable error (RWM abnormality) process in step S34 described above. If the complete function flag is not "ON" (step S19; No), the process proceeds to step S20.

Here, "activation of the complete function" refers to a function that stops functions related to game progress and notifies the user that functions related to game progress will be stopped when the upper limit of the number of balls that can be paid out in one day on the gaming machine reaches a predetermined value. Details of the activation of the complete function will be described later.

In step S20, the main CPU 110a clears (initializes) the counter value of the reference value counter (C) to 0. This means that the counter value of the reference value counter before the power failure is not carried over.

Here, the "reference value counter" is used to determine whether or not to execute the complete function operation, and whether or not to execute the complete function operation is determined based on whether or not the counter value of the updated reference value counter has reached a predetermined reference value. When the counter value of the reference value counter has reached the predetermined reference value, it is determined that the complete function operation condition has been met, and the complete function operation is executed. Details of the reference value counter will be described later.

In step S21, the main CPU 110a transmits a power restoration command to the presentation control board 130, indicating that the game control state has been restored and the game state before the power outage (power failure) occurred. This causes the presentation control board 130 to perform processing to end the setting confirmation notification, etc., which will be described later, and to execute a power restoration notification.

The "power restoration notification" is a notification to make the player aware that the game control state will return to the state before the power outage occurred, and involves displaying a power restoration image (a text image of "power restoration") on the image display device 16, lighting up the frame lighting device 27 and board lighting device 23 in a predetermined light color (e.g. red) for a predetermined period of time (e.g. 60 seconds), and outputting a power restoration notification sound ("power has been restored" + buzzer sound) from the audio output device 9 for a predetermined period of time (e.g. 30 seconds) indicating that power has been restored (from a power outage).

In step S22, the main CPU 110a transmits other commands (such as a special symbol storage command indicating the first special symbol reserved number (U1) and the second special symbol reserved number (U2), and a normal symbol storage command indicating the normal symbol reserved number (G)) to the performance control board 130. This allows the performance control board 130 to grasp the number of special symbols reserved and the number of normal symbols reserved, and also performs processing to display the first reserved icon and the second reserved icon on the image display device 16.

In step S23, the main CPU 110a transmits a setting value designation command to the performance control board 130. This allows the performance control board 130 to grasp the current setting value. This setting value designation command may be transmitted to the performance control board 130 before the power-on designation command or power-restoration designation command is transmitted. The setting value designation command may also be transmitted each time the display of the special pattern begins to change, or each time a jackpot game begins.

In step S24, the main CPU 110a starts a CTC (Counter Timer Circuit) for generating a timer interrupt (4 milliseconds), and in step S25, enables all interrupts.
In step S26, the main CPU 110a performs a process of updating the random number value for reach determination and the random number value for special pattern determination, which are used to determine the fluctuation mode (fluctuation time) of the special pattern, and in step S27, performs an initial value random number value update process to update the initial value random number value for jackpot determination, the initial value random number value for special pattern determination, the initial value random number value for hit determination, and the initial value random number value for normal pattern determination.

Next, in step S28, the main CPU 110a determines whether a power interruption (blackout) has occurred. Specifically, it determines whether a power interruption detection signal has been input from the power interruption detection circuit 162 of the power supply board 160, and if the power interruption detection signal has not been input (step S28; No), it proceeds to step S24, and if the power interruption detection signal has been input (step S28; Yes), it proceeds to step S27.

In step S29, the main CPU 110a sets an interrupt inhibition state to inhibit timer interrupts.
In step S30, the main CPU 110a performs a process of clearing the output port.
Next, in step S31, the main CPU 110a calculates a checksum (abnormality determination data) of the gaming RWM area (excluding the setting value area) of the main RAM 110c, and executes a process of saving the checksum in the gaming RWM area.

In step S32, the main CPU 110a performs a process to set the backup flag to "ON" in the game RWM area of the main RAM 110c. Next, in step S33, the main CPU 110a performs a process to prohibit RWM access and waits until the supply of power supply voltage is completely cut off.

(Main control board RWM clear processing)
FIG. 21 is a flowchart illustrating the RMW clear processing by the main control board 110.
In step S40, the main CPU 110a initializes (clears to 0) the game RWM area of the main RAM 110c except for the setting value area. This initializes the game progress state to the initial state (the state at the time of shipment of the gaming machine 1), and data (other than the setting value) in the game RWM area before the RWM is cleared is not carried over.

In step S41, the main CPU 110a initializes (clears to 0) the counter value of the reference value counter (C). This means that the counter value of the reference value counter (C) before the RWM is cleared is not carried over.

In step S42, the main CPU 110a determines whether the complete function activation flag is "ON." If the complete function activation flag is not "ON" (step S42; No), the process proceeds to step S44. If the complete function activation flag is "ON" (step S42; Yes), the process proceeds to step S41.

In step S43, the main CPU 110a sets the complete function activation flag to "OFF", and moves the process to step S44.
In step S44, the main CPU 110a transmits an RWM clear command to the performance control board 130.

According to this embodiment, whether or not to execute the process of turning off the complete function activation flag is determined depending on whether the complete function activation flag is ON in the RWM clear process, but this is not limited to the above. For example, the RWM clear process may be designed to always execute the process of turning off the complete function activation flag regardless of whether the complete function activation flag is ON or OFF. In this way, there is no need to branch the process depending on the state of the complete function activation flag, which has the effect of reducing the control capacity.

(Timer interrupt processing on the main control board)
FIG. 22 is a flowchart illustrating timer interrupt processing by the main control board 110.
A reset clock pulse generating circuit provided on the main control board 110 generates a clock pulse at a predetermined cycle (4 ms), thereby executing the timer interrupt process described below.

In step S101, the main CPU 110a saves the information stored in the register into the stack area.
In step S102, the main CPU 110a performs time control processing to update various timer counters such as updating the special symbol time counter, updating the special game timer counter such as the opening time of the special electric role (big prize opening 13a, 14a), updating the normal symbol time counter, updating the opening time counter of the normal electric role (second start opening 11a), etc. Specifically, the main CPU 110a performs processing to subtract "1" from the special symbol time counter, the special game timer counter, the normal symbol time counter, and the opening time counter of the normal electric role.

In step S103, the main CPU 110a performs random number update processing for the random number value for determining a jackpot, the random number value for determining a special symbol, the random number value for determining a special symbol variation pattern, the random number value for determining a win, the random number value for determining a normal symbol, and the random number value for determining a normal symbol variation pattern. Specifically, "1" is added to each random number counter to update the random number counter. If the result of the addition exceeds the maximum value of the random number range, the random number counter is returned to "0", and if the random number counter has completed one cycle, the random number is updated from the value of the initial random number at that time.

In step S104, the main CPU 110a performs an initial random number value update process for updating the initial random number value for determining a big win, the initial random number value for determining a special symbol, the initial random number value for determining a win, and the initial random number value for determining a normal symbol.
In step S105, the main CPU 110a performs an input control process. In the input control process, the main CPU 110a determines whether or not there is an input to each of the first start hole detection switch 10a, the second start hole detection switch 11c, the gate detection switch 12a, the first large prize hole detection switch 13c, the second large prize hole detection switch 14c, the specific area detection switch 14f, and the general prize hole detection switch 14a. The details of the input control process will be described later.

In step S106, the main CPU 110a performs a reference value counter update process to calculate and update the counter value of the reference value counter (C). The reference value counter update process will be described in detail later.
In step S107, the main CPU 110a performs special symbol special electric control processing to determine the special symbol determination information (random number for determining a big win, random number for determining a special symbol, random number for determining a reach, random number for determining a variation pattern) acquired based on the winning of the game ball into the first start hole 10 or the second start hole 11a, to display the variation of the first special symbol or the second special symbol, to open and close the first large winning hole 13a, to open and close the second large winning hole 14a, to set the game state, etc. The details of the special symbol special electric control processing will be described later.

In step S108, the main CPU 110a performs normal symbol and normal power control processing to determine the normal symbol determination information acquired based on the passage of the game ball through the gate 12, to display the normal symbol variations, and to open and close the opening and closing member 11b of the second starting hole 11a (auxiliary play).

In step S109, the main CPU 110a performs a payout control process. In the payout control process, the main CPU 110a performs a payout control process in which it references various prize ball counters stored in the main RAM 110c and performs processing to send payout number designation commands corresponding to various winning ports to the payout control board 120. As a result, the payout control board 120 executes processing to pay out prize balls from the payout device 100.

In step S110, the main CPU 110a performs an abnormality determination process. In the abnormality determination process, the main CPU 110a detects the occurrence of a magnetic error or a radio wave error based on the input signals from the magnetic detection sensor 58a and the radio wave detection sensor 58b, and if detected, transmits a magnetic anomaly error detection command or a radio wave anomaly error detection command to the performance control board 130.

In addition, if the main CPU 110a determines in the abnormality determination process that the counter value of the reference value counter (C) updated in the reference value counter update process of step S106 has reached a preset reference value, it sends a complete function activation command to the performance control board 130.

The main CPU 110a detects the door open state based on the detection signal from the open detection switch 31a, and if detected, sends a door open error detection command to the performance control board 130.

The main CPU 110a detects a blockage of game balls in the passageway that dispenses game balls from the game ball storage section based on a detection signal from the tray full detection switch 32a, and if detected, sends a tray full error detection command to the performance control board 130.

When the main CPU 110a detects that the error state has been cleared based on the state of the input signal and detection signal, the main CPU 110a sends an error clear command to the performance control board 130. Furthermore, the performance control board 130 again sends signals to the image control unit 140 and lamp control unit 150 to notify them of the error detection and error clearing.

Depending on the type of error that occurs in the gaming machine 1, the main CPU 110a will not transmit an error release signal. That is, an error release signal will be transmitted when the tray is full, the door is open, or the balls are jammed, but an error release signal will not be transmitted when unauthorized radio waves are detected.

In step S111, the main CPU 110a performs a game ball counting process (information program). Specifically, the main CPU 110a performs a process to count (collect) the number of payouts (number of paid-out balls) that are to be paid out as a result of game balls entering various winning holes, the number of outs (number of out balls) that are discharged from the game area 4a (fired into the game area), etc.

In step S112, the main CPU 110a performs a performance information calculation process (information program). Specifically, the main CPU 110a performs a process to calculate the performance information of the gaming machine from the payout number (number of paid out balls) and the number of outs (number of out balls) counted (collected) in the gaming ball counting process. The performance information calculation process will be described in detail later.

In step S113, the main CPU 110a performs a performance display data setting process (information program). Specifically, the main CPU 110a performs a process to set performance display data for displaying the performance information calculated in the performance information calculation process on the performance display device 111.

In step S114, the main CPU 110a performs data creation processing. Specifically, data creation processing is performed for the external output data (game information) output from the game information output terminal board 90, the drive control data output to the second start opening/closing solenoid 11d and the first large winning opening opening/closing solenoid 13d, the drive control data output to the second large winning opening opening/closing solenoid 14d, the drive control data output to the distribution solenoid 22b, various display control data output to the first special symbol first display 19a, the second special symbol first display 19b, the normal symbol first display 19c, the first special symbol reserved first display 19d, the second special symbol reserved first display 19e, and the normal symbol reserved first display 19f, the counter value of the reference value counter updated in the reference value counter update processing, and the like.

In step S115, the main CPU 110a performs a port output process to output signals such as the external output data, drive control data, and counter value data of the reference value counter created in step S114 above. The main CPU 110a also performs a display output process to output signals such as the display control data created in step S114. Furthermore, the main CPU 110a performs a command output process to output commands set in the transmission buffer of the main RAM 110c to other boards.

In step S116, the main CPU 110a restores the information saved in step S101 to the register of the main CPU 110a and ends this timer interrupt process.

(Input control processing)
FIG. 23 is a flowchart illustrating the input control process by the main control board 110.
First, in step S121, the main CPU 110a judges whether a detection signal has been input from the general winning opening detection switch 14a, i.e., whether a gaming ball has entered the general winning opening 14. When the main CPU 110a receives a detection signal from the general winning opening detection switch 14a, it adds predetermined data to a general winning opening counter used for winning balls to update it.

In step S122, the main CPU 110a determines whether a detection signal has been input from the first large prize opening detection switch 13c, i.e., whether a game ball has entered the first large prize opening 13a. When the main CPU 110a inputs a detection signal from the first large prize opening detection switch 13c, it updates the large prize opening prize ball counter used for prize balls by adding predetermined data, and also updates the counter in the large prize opening ball counter (C) memory area for counting the game balls that have entered the first large prize opening 13a by adding data.

In step S123, the main CPU 110a determines whether a detection signal has been input from the second large prize opening detection switch 14c, i.e., whether a game ball has entered the second large prize opening 14a. When the main CPU 110a receives a detection signal from the second large prize opening detection switch 14c, it updates the large prize opening prize ball counter used for prize balls by adding predetermined data, and also updates the counter in the large prize opening ball counter (C) memory area for counting the game balls that have entered the second large prize opening 14a by adding data.

In step S124, the main CPU 110a determines whether a detection signal has been input from the first start hole detection switch 10a, i.e., whether the game ball has entered the first start hole 10 or not.
In step S125, the main CPU 110a determines whether a detection signal has been input from the second start hole detection switch 11c, that is, whether the game ball has entered the second start hole 11b.

When the main CPU 110a receives a detection signal from the second start hole detection switch 11c, it performs the same second start hole detection switch input process as step S124 above. However, in this second start hole detection switch input process, it adds "1" to the second special symbol reserved number (U2) memory area, and stores the extracted random number value for jackpot determination, random number value for special symbol determination, and random number value for reach determination in the second special symbol memory area. In other words, the first start hole detection switch input process and the second start hole detection switch input process only differ in the memory areas that store various data, and all other processes are the same.

In step S126, the main CPU 110a determines whether a detection signal has been input from the gate detection switch 12a, that is, whether the gaming ball has passed through the gate 12 or not.
In step S127, the main CPU 110a determines whether or not a detection signal has been input from the specific area detection switch 14f, that is, whether or not the gaming ball that entered the second large prize opening 14a has passed through the specific area 14e.

In step S128, the main CPU 110a determines whether or not a detection signal has been input from an out ball detection switch (not shown) that detects an out ball that has been shot into the play area 4a and discharged from the play area 4a. If a detection signal has been input from the out ball detection switch, "1" is added to the out ball counter, and the counter value is updated.

In step S129, the main CPU 110a performs winning confirmation detection switch input processing. In this winning confirmation detection switch input processing, it determines whether a detection signal has been input from the winning confirmation detection switch 58e, subtracts "1" from the winning ball counter (D) to update it (D←D-1), and determines whether the value of the winning ball counter (D) is within a predetermined range of judgment values (lower limit value < D < upper limit value). If it is outside the range of judgment values, it sets an error designation command for abnormal winning in the performance transmission data storage area as an abnormal winning has occurred. If it is within the range of judgment values, the winning confirmation detection switch input processing ends.

As a result, an error designation command for abnormal winning is sent to the performance control board 130, and the sub-CPU 130a of the performance control board 130 that receives the error designation command for abnormal winning issues an abnormal winning error notification to notify the user that an abnormal winning error has occurred.

(First start port detection switch input processing)
Figure 24 is a flowchart explaining the first start hole detection switch input processing by the main control board 110.
In step S131, the main CPU 110a determines whether or not a detection signal has been input from the first start hole detection switch 10a. If a detection signal has been input from the first start hole detection switch 10a (step S131; Yes), the process proceeds to step S132. If a detection signal has not been input from the first start hole detection switch 10a (step S131; No), the first start hole detection switch input process is terminated.
In step S132, the main CPU 110a performs a process of updating the start hole prize ball counter used for prize balls by adding predetermined data to it.

Next, in step S133, the main CPU 110a determines whether the number of reserved items set in the first reserved number (U1) memory area is less than 4. If the number of reserved items set in the first reserved number (U1) memory area is less than 4 (step S133; Yes), the process proceeds to step S134, and if the number of reserved items set in the first reserved number (U1) memory area is not less than 4 (step S133; No), the first start hole detection switch input process ends.

In step S134, the main CPU 110a adds "1" to the first reservation number (U1) memory area and stores the result.
In step S135, the main CPU 110a acquires a random number value for determining a jackpot, searches through the available memory sections in the first special pattern memory area starting from the first memory section, and stores the acquired random number value for determining a jackpot in the available memory section.
In step S136, the main CPU 110a acquires a random number value for determining a special pattern, searches through available memory sections in the first special pattern memory area starting from the first memory section, and stores the acquired random number value for the special pattern in an available memory section.

In step S137, the main CPU 110a acquires random numbers for game play (random numbers for reaching a target and random numbers for determining a fluctuation pattern), searches through available memory sections in the first special symbol memory area, starting from the first memory section, and stores the acquired random numbers for game play (random numbers for reaching a target and random numbers for determining a fluctuation pattern) in an available memory section.

In step S138, the main CPU 110a performs a first pre-determination process. By referring to a pre-determination table (not shown) corresponding to the current game state, the main CPU 110a determines first start winning information for indicating the determination information of the first start hole in advance based on the random number values obtained in steps S135 to S137.
In step S139, the main CPU 110a sets a first start port winning designation command based on the first start winning information determined in the first pre-determination process in step S138 above in the performance transmission data storage area.

This allows the first start winning information to be sent to the performance control board 130 as a first start opening winning designation command, and the sub-CPU 130a of the performance control board 130 that receives the first start opening winning designation command can analyze the first start opening winning designation command and execute a look-ahead performance such as a continuous preview that executes a predetermined preview performance across one or more variable displays executed prior to the start of the variable display of the special pattern corresponding to the first start opening winning designation command, or a hold change preview that changes the display mode of the hold icon.

However, the first advance judgment process is determined based on the game state at the time when the game ball enters the first starting hole 10. Therefore, if the game state changes before the first reservation that was reserved due to the ball entering is processed, the result of the jackpot judgment process described below may differ from the result of the first advance judgment process.

In step S140, the main CPU 110a refers to the value stored in the first reserved number (U1) memory area, and sets the first special pattern storage designation command corresponding to the first reserved number (U1) updated in step S134 in the performance transmission data storage area.

In step S141, the main CPU 110a sets the first special symbol reserved display data in a predetermined processing area for displaying the first reserved number on the first special symbol reserved first display 19d (LED lighting or blinking), and ends the first start hole detection switch input processing for this time. As a result, if the first special symbol reserved display data is set in the predetermined processing area, display control data is created in the above step S114, and the created data is output in step S115, causing the first reserved number to be displayed on the first special symbol reserved first display 19d.

(Second start port detection switch input processing)
Figure 25 is a flowchart explaining the second start hole detection switch input processing by the main control board 110.
In step S151, the main CPU 110a judges whether or not a detection signal has been input from the second start hole detection switch 11c. If a detection signal has been input from the second start hole detection switch 11c (step S151; Yes), the process proceeds to step S152. If a detection signal has not been input from the second start hole detection switch 11c (step S151; No), the second start hole detection switch input process is terminated.

In step S152, the main CPU 110a performs a process of updating the start port prize ball counter used for prize balls by adding predetermined data to it.
Next, in step S153, the main CPU 110a adds "1" to the ball entry counter (D) indicating the number of game balls that have entered the second starting hole 11a, and updates it (D←D+1).

In step S154, the main CPU 110a determines whether or not auxiliary play is in progress. If auxiliary play is in progress (step S154; Yes), the process proceeds to step S159. If auxiliary play is not in progress (step S154; No), the process proceeds to step S155.

In step S155, the main CPU 110a adds "1" to the illegal ball entry counter (E) for monitoring illegal ball entries into the second starting hole 11a, and updates it (E←E+1).
In step S156, the main CPU 110a judges whether the value of the illegal ball entry counter is greater than a specified number (10). If it is greater than the specified number (step S156; Yes), the process proceeds to step S157, and if it is less than the specified number (step S156; No), the process proceeds to step S160.

In step S157, the main CPU 110a sets an illegal ball entry error designation command in the performance transmission data storage area, determining that an illegal ball entry error has occurred. This causes the illegal ball entry error designation command to be sent to the performance control board 130, and the sub-CPU 130a of the performance control board 130, which receives the illegal ball entry error designation command, issues an illegal ball entry error notification to notify the user that an illegal ball entry error has occurred.

In step S158, the main CPU 110a clears the value of the illegal ball entry counter (E) to "0".
In step S159, the main CPU 110a adds "1" to the second starting hole ball entry counter (L) to update it (L←L+1).

Next, in step S160, the main CPU 110a determines whether the number of reserved items set in the second reserved number (U2) memory area is less than 4. If the number of reserved items set in the second reserved number (U2) memory area is less than 4 (step S160; Yes), the process proceeds to step S154, and if the number of reserved items set in the second reserved number (U2) memory area is not less than 4 (step S160; No), the second start hole detection switch input process ends.

In step S161, the main CPU 110a adds "1" to the second special symbol reserved number (U2) memory area and stores the added number.
In step S162, the main CPU 110a acquires a random number value for determining a jackpot, searches through the available memory sections in the second special pattern memory area starting from the first memory section, and stores the acquired random number value for determining a jackpot in an available memory section.

In step S163, the main CPU 110a acquires a random number value for determining a special pattern, searches through the available memory sections in the second special pattern memory area starting from the first memory section, and stores the acquired random number value for the special pattern in the available memory section.
In step S164, the main CPU 110a acquires random number values for game use (random number values for reach determination and random number values for fluctuation pattern determination), searches through available memory units in the second special pattern memory area in order starting from the first memory unit, and stores the acquired random number values for game use (random number values for reach determination and random number values for fluctuation pattern determination) in an available memory unit.

In step S165, the main CPU 110a performs a second pre-determination process. By referring to a pre-determination table (not shown) corresponding to the current game state, the main CPU 110a determines second start winning information for indicating the determination information of the second start hole in advance based on the random number values obtained in steps S162 to S164.
In step S166, the main CPU 110a sets a second start port winning designation command based on the second start winning information determined in the second pre-determination process in step S165 in the performance transmission data storage area.

This allows the first start winning information to be sent to the performance control board 130 as a second start winning designation command, and the sub-CPU 130a of the performance control board 130 that receives the second start winning designation command can analyze the second start winning designation command and execute a look-ahead performance such as a continuous preview that executes a predetermined preview performance across one or more variable displays executed before the variable display of the special pattern corresponding to the second start winning designation command begins, or a hold change preview that changes the display mode of the hold icon.

However, the second advance judgment process is judged based on the game state at the time when the game ball enters the second starting hole 11a. Therefore, if the game state changes before the second reservation that was reserved due to the ball entering is processed, the result of the jackpot judgment process described below may differ from the result of the second advance judgment process.

In step S167, the main CPU 110a refers to the value stored in the second reserved number (U2) memory area, and sets the second special pattern storage designation command corresponding to the second reserved number (U2) updated in step S161 in the performance transmission data storage area.

In step S168, the main CPU 110a sets the second special symbol reserved display data in a predetermined processing area for displaying the second reserved number on the second special symbol reserved first display 19e (LED lighting or blinking), and ends the current second start hole detection switch input processing. As a result, if the second special symbol reserved display data is set in the predetermined processing area, display control data is created in step S114, and the created data is output in step S115, causing the second reserved number to be displayed on the second special symbol reserved first display 19e.

(Gate detection switch input processing)
FIG. 26 is a flowchart illustrating gate detection switch input processing by the main control board 110.

In step S171, the main CPU 110a determines whether or not a detection signal has been input from the gate detection switch 12a. If the main CPU 110a determines that a detection signal has been input from the gate detection switch 12a (step S171; Yes), the process proceeds to step S172. If the main CPU 110a determines that a detection signal has been input from the gate detection switch 12a (step S171; No), the main CPU 110a ends the current gate detection switch input process.

In step S172, the main CPUa determines whether the jackpot game flag is ON. If the main CPU110a determines that the jackpot game flag is ON (step S172; Yes), it transfers processing to step S178, and if it determines that the jackpot game flag is not ON (step S172; No), it transfers processing to step S173.

In step S173, the main CPU 110a determines whether the number of reserved normal symbols (G) is less than 4. If the main CPU 10a determines that the number of reserved normal symbols (G) is less than 4 (step S173; Yes), it stores the value obtained by adding "1" to the number of reserved normal symbols (G) stored in the number of reserved normal symbols (G) memory area as the new number of reserved normal symbols (G). In step S173, if the main CPU 110a determines that the number of reserved normal symbols (G) is not less than 4 (step S173; No), it ends the current gate detection switch input process.

In step S174, the main CPU 110a acquires a random number value for determining whether a win has been made, searches through the available memory sections in the normal symbol reserved memory area in order starting from the first memory section, and stores the acquired random number value for determining whether a win has been made in the available memory section.
In step S175, the main CPU 110a acquires a random number value for pattern determination, searches through available memory sections in the normal pattern reservation memory area starting from the first memory section, and stores the acquired random number value for pattern determination in an available memory section.

In step S176, the main CPU 110a acquires a random number value for determining the normal pattern variation pattern, searches through the available memory units in the normal pattern reserve memory area starting from the first memory unit, and stores the acquired random number value for determining the normal pattern variation pattern in an available memory unit. The random number value for winning determination, the random number value for pattern determination, and the random number value for determining the normal pattern variation pattern are stored in a predetermined memory unit in the normal pattern reserve memory area.

In step S177, the main CPU 110a refers to the value stored in the reserved normal symbol number (G) memory area, and sets the normal symbol storage designation command corresponding to the reserved normal symbol number (G) updated in step S174 in the performance transmission data storage area.

In step S178, the main CPU 110a sets normal symbol reserved display data in a predetermined processing area to cause the normal symbol reserved first display 19f to display the number of reserved normal symbols (LED lit or flashing), and ends this gate detection switch input process. As a result, if the normal symbol reserved display data is set in the predetermined processing area, display control data is created in step S114, and the created data is output in step S115, causing the number of reserved normal symbols to be displayed on the normal symbol reserved first display 19f.

When it is determined in step S172 that the big win game flag is ON, the main CPU 110a executes a round start flag determination process (FIG. 35) described later in step S179.
In step S180, the main CPU 110a executes a round start process, which will be described later, and ends the current gate detection switch input process.
In this way, even when a detection signal is input from the gate detection switch 12a, if the jackpot game flag is ON, the number of reserved normal symbols is not calculated and a random number value is not obtained.

(Specific area detection switch input processing)
FIG. 27 is a flowchart illustrating specific area detection switch input processing by the main control board 110.
In step S142, the main CPU 110a judges whether or not a detection signal from the specific area detection switch 14f has been input. If the main CPU 110a judges that a detection signal from the specific area detection switch 14f has been input (step S142; Yes), the process proceeds to step S143. If the main CPU 110a judges that a detection signal has not been input (step S142; No), the process ends the current specific area detection switch input process.

In step S143, the main CPU 110a turns on the specific area winning flag. This specific area winning flag is a flag that indicates that the gaming ball has passed through the specific area 14e.

In step S144, the main CPU 110a sets a specific area winning designation command, indicating that the gaming ball has passed through the specific area 14e, in the performance transmission data storage area, and ends this specific area detection switch input process.

(Reference value counter update process)
FIG. 28 is a flowchart illustrating the reference value counter update process by the main control board 110.
In step S145, the main CPU 110a judges whether or not the counter value of the out ball counter has been updated in the out ball detection switch input process in the above step S128. If the main CPU 110a judges that the counter value of the out ball counter has been updated (step S145; Yes), it proceeds to step S147, and if it judges that the counter value of the out ball counter has not been updated (step S145; No), it proceeds to step S146.

In step S146, the main CPU 110a determines whether any of the prize ball counters for the various prize winning ports (first start port 10, second start port 11a, first large prize winning port 13a, second large prize winning port 14a, general prize winning port 21) have been updated. If the main CPU 110a determines that none of the prize ball counters have been updated (step S146; No), it ends the current reference value counter update process, and if it determines that any of the prize ball counters have been updated (step S146; Yes), it proceeds to step S147.

In step S147, the main CPU 110a performs a calculation process for the reference value counter based on the updated counter value of the out ball counter and the updated counter value of the prize ball counter, and updates the counter value of the reference value counter. The reference value counter will be described in detail in Figures 49 and 50.

In step S148, the main CPU 110a sets a reference value counter update command indicating the updated counter value of the reference value counter in the performance transmission data storage area, and ends this reference value counter update process. If a reference value counter update command has been set in the performance transmission data storage area, data on the counter value of the reference value counter is created in step S114, and the created data is output in step S115.

(Special diagram special signal control processing)
Figure 29 is a flowchart explaining the special chart special electric control processing by the main control board 110.
In step S181, the main CPU 110a loads the value of the special picture special electric processing data, and in step S182, refers to a branch address from the loaded special picture special electric processing data.

In step S183, if the special symbol special electric processing data = 0 (step S183; Yes), the main CPU 110a transfers processing to the special symbol memory determination processing of step S184, and if the special symbol special electric processing data is not = 0 (step S183; No), the main CPU 110a transfers processing to step S185.

In step S185, if the special pattern special electric processing data = 1 (step S185; Yes), the main CPU 110a transfers processing to the special pattern change processing in step S186, and if the special pattern special electric processing data = 1 is not (step S185; No), in step S187 it determines whether the special pattern special electric processing data = 2.

In step S187, if the special symbol special electric processing data = 2 (step S187; Yes), the main CPU 110a transfers processing to the special symbol stop processing of step S188, and if the special symbol special electric processing data is not = 2 (step S187; No), the main CPU 110a transfers processing to step S189.

In step S189, if the special symbol special electric processing data = 3 (step S189; Yes), the main CPU 110a transfers processing to the jackpot game processing in step S190, and if the special symbol special electric processing data is not = 3 (step S189; No), the main CPU 110a transfers processing to step S191.

In step S191, if the special symbol special electric processing data is equal to 4 (step S191; Yes), the main CPU 110a transfers processing to the small win game processing in step S192, and if the special symbol special electric processing data is not equal to 4 (step S191; No), the main CPU 110a transfers processing to step S193.

In step S193, if the special chart special electricity processing data = 5 (step S193; Yes), the main CPU 110a transfers the process to the jackpot game end process in step S194, and if the special chart special electricity processing data is not = 5 (step S193; No), the main CPU 110a ends the current special chart special electricity control process.

(Special symbol memory determination process)
FIG. 30 is a flowchart illustrating the special symbol memory determination process by the main control board 110.
In step S202, the main CPU 110a judges whether or not the special symbol is being displayed. If the special symbol is being displayed, that is, if the special symbol time counter is not "0" (step S202; Yes), the main CPU 110a ends the current special symbol memory judgment process, and if the special symbol is not being displayed, that is, if the special symbol time counter is "0" (step S202; No), the main CPU 110a moves the process to step S203 and judges whether the second reserved number (U2) memory area is "1" or more.

In step S203, if the main CPU 110a determines that the second reserved number (U2) memory area is not "1" or more (step S203; No), it proceeds to step S204, and if the main CPU 110a determines that the second reserved number (U2) memory area is "1" or more (step S203; Yes), it proceeds to step S206. As a result, the second special symbol memory area is processed with priority over the first special symbol memory area.

In step S204, the main CPU 110a subtracts "1" from the value stored in the second reservation number (U2) memory area and stores the result.
In step S205, the main CPU 110a judges whether the first reserved number (U1) memory area is equal to or greater than "1". If the main CPU 110a judges that the first reserved number (U1) memory area is not equal to or greater than "1" (step S205; No), the process proceeds to step S215. If the main CPU 110a judges that the first reserved number (U1) memory area is equal to or greater than "1" (step S205; Yes), the process proceeds to step S206.

In step S206, the main CPU 110a subtracts "1" from the value stored in the first reservation number (U1) memory area and stores the result.
In step S207, the main CPU 110a performs a shift process of the data stored in the special symbol reserved memory area corresponding to the reserved number (U) memory area subtracted in steps S203 to S206. Specifically, the data stored in the first memory section to the fourth memory section in the first special symbol memory area or the second special symbol memory area is shifted to the previous memory section.

Here, the data stored in the first memory unit is shifted to the judgment memory area (0th memory unit). At this time, the data stored in the first memory unit is written to the judgment memory area (0th memory unit), and the data that has already been written to the judgment memory area (0th memory unit) is erased from the special pattern reserved memory area.

In step S208, the main CPU 110a executes a jackpot determination process based on the data (random number value for jackpot determination, random number value for special pattern determination) written in step S206 to the determination memory area (0th memory section) of the special pattern reserved memory area.

In step S209, the main CPU 110a sets a performance pattern designation command corresponding to the special symbol stop pattern data determined in step S208 in a performance transmission data storage area.
In step S210, the main CPU 110a performs a fluctuation pattern determination process. In the fluctuation pattern determination process, the main CPU 110a refers to the game RWM area of the main RAM 110c to determine a fluctuation pattern determination table based on the current game state. The main CPU 110a sets a fluctuation pattern designation command corresponding to the determined fluctuation pattern in the performance transmission data storage area.

In step S211, the game state at the start of the fluctuation is confirmed, and a game state designation command corresponding to the current game state is set in the transmission data storage area for presentation.
In step S212, the main CPU 110a starts the variable display of the special symbol on the first special symbol first display 19a or the second special symbol first display 19b. That is, the special symbol variable display data is set in the processing area. As a result, when the special symbol variable display data is set in the processing area, the display control data is created in the above step S114, and the created data is output in the above step S115, thereby starting the variable display on the first special symbol first display 19a or the second special symbol first display 19b.

In step S213, the main CPU 110a sets the variation time (counter value) based on the determined variation pattern in the special symbol time counter after starting the variation display of the special symbol in step S213. Note that the special symbol time counter is decremented every 4 ms in step S102.
In step S214, the main CPU 110a sets the special symbol special electric processing data to "1" and ends this special symbol memory determination process.

(Big hit determination process)
FIG. 31 is a flowchart explaining the jackpot determination process by the main control board 110.
In step S221, the main CPU 110a determines whether or not the random number value for determining a jackpot written in the determination memory area (0th memory section) of the special symbol reserved memory area in step S207 is a random number value for a "jackpot".

If the special pattern reserved memory area shifted in step S207 is a random number value memory area for determining a first special pattern, the main CPU 110a refers to the jackpot determination table for the first special pattern shown in FIG. 7(a), and if the special pattern reserved memory area shifted in step S207 is a second special pattern memory area, the main CPU 110a refers to the jackpot determination table for the second special pattern shown in FIG. 7(b) to determine whether the random number value for determining a jackpot is a "jackpot."

If the main CPU 110a determines that a jackpot has been reached (step S221; Yes), it transfers processing to step S222, and if it determines that a jackpot has not been reached (step S221; No), it transfers processing to step S225.

In step S222, the main CPU 110a performs a jackpot special pattern determination process in which it determines the type of special pattern (special pattern stop data) by determining the random number value for the jackpot special pattern written in the determination memory area (zeroth memory section) of the special pattern reserved memory area in step S207, and sets the determined special pattern stop data in the special pattern stop data memory area.

The main CPU 110a refers to the jackpot special symbol determination table shown in FIG. 8(a), and determines special symbol stop data indicating the type of special symbol to be stopped based on the random number value for the special symbol written in the judgment memory area (0th memory section), and sets the determined special symbol stop data in the special symbol stop data memory area.

The determined special symbol is used to determine whether or not a "jackpot" has occurred in the special symbol stop processing of FIG. 34, as described below, and is also used to determine the operation state of the first large prize winning port 13a in the jackpot game processing of FIG. 37, and is also used to determine the game state after the jackpot ends in the jackpot game end processing of FIG. 40.

In step S223, the main CPU 110a determines a performance pattern designation command based on the special chart stop data for the jackpot determined in step S222 above, and sets the determined performance pattern designation command in the performance transmission data storage area.

In step S224, the main CPU 110a determines the game state at the time of winning the jackpot from the information set in the game state storage area, sets the game state information indicating the game state at the time of winning the jackpot in the game state buffer, and ends this jackpot determination process. Specifically, the main CPU 110a sets 00H if the time-saving game flag is not set, and sets 01H if the time-saving game flag is set.

The reason why the game status at the time of winning the jackpot is set in the game status buffer separately from the game status memory area is that the time-saving game flag in the game status memory area is reset during the jackpot game, and therefore when determining a new game status at the end of the jackpot game based on the game status at the time of winning the jackpot after the jackpot game ends, it is not possible to refer to the game status memory area.
For this reason, by providing a game status buffer for storing game information indicating the game status at the time of winning the jackpot, separate from the game status memory area, it is possible to set a new game status after the end of the jackpot game (time-saving game status, number of time-saving games, etc.) based on the game status at the time of winning the jackpot by referring to the game information in the game status buffer after the end of the jackpot.

In step S225, the main CPU 110a judges whether the random number value for jackpot determination written in the judgment memory area (0th memory section) of the special symbol reserved memory area in step S207 is a random number value for a "small win". Specifically, if the special symbol reserved memory area shifted in step S207 is the first special symbol judgment random number value memory area, the main CPU 110a refers to the first special symbol jackpot determination table shown in FIG. 7(a) to determine whether the random number value for jackpot determination is a "small win" or not, and if the special symbol reserved memory area shifted in step S207 is the second special symbol memory area, the main CPU 110a refers to the second special symbol jackpot determination table shown in FIG. 7(b) to determine whether the random number value for jackpot determination is a "small win".

If the main CPU 110a determines that a small win has occurred (step S225; Yes), it transfers processing to step S226, and if it determines that a small win has not occurred (step S225; No), it transfers processing to step S228.

In step S226, the main CPU 110a determines the special symbol for the small win by referring to the small win special symbol determination table shown in FIG. 7(b), and sets the determined special symbol stop data for the small win in the special symbol stop data memory area.

The determined special symbol is used to determine whether or not a "small win" has occurred in the special symbol stop processing of FIG. 34, as described below, and is also used to determine the operation mode of the second large prize winning port 14a in the small win game processing of FIG. 38, and is also used to determine the game state after the big win ends in the big win game end processing of FIG. 40.

In step S227, the main CPU 110a determines a performance pattern designation command based on the special chart stop data for the small win determined in step S226 above, sets the determined performance pattern designation command in the performance transmission data storage area, and ends this big win determination process.

In step S228, the main CPU 110a determines the special symbol for a losing combination by referring to the losing special symbol determination table in FIG. 8(c), and sets the determined special symbol stop data for a losing combination in the special symbol stop data memory area.

In step S229, the main CPU 110a determines a performance pattern designation command based on the losing special symbol stop data determined in step S228 above, sets the determined performance pattern designation command in the performance transmission data storage area, and ends this jackpot determination process.

(Special chart variation pattern determination process)
FIG. 32 is a flowchart explaining the special chart variation pattern determination process by the main control board 110.
In step S231, the main CPU 110a checks the current (at the start of fluctuation) game state from the information set in the game state storage area. If the main CPU 110a checks that the current game state is a time-saving game state (step S231; Yes), it proceeds to step S232, and if the main CPU 110a checks that the current game state is not a time-saving game state (step S231; No), it proceeds to step S233.

In step S232, when the main CPU 110a is determining the variation pattern of the special symbol in the previous to last variation display in the time-saving play state, it selects the variation pattern determination table of the special symbol for the time-saving play state in FIG. 17, and when the main CPU 110a is determining the variation pattern of the special symbol in the last variation display in the time-saving play state, it selects the variation pattern determination table of the special symbol for the time-saving play state in FIG. 18.

In step S233, when the main CPU 110a determines the pattern of special symbols in the variable display other than the remaining reserved second special symbol after transition to the non-time-saving game state, it selects the table for determining the pattern of special symbols for the non-time-saving game state in FIG. 15, and when the main CPU 110a determines the pattern of special symbols in the variable display related to the remaining reserved second special symbol after transition to the non-time-saving game state, it selects the table for determining the pattern of special symbols for the non-time-saving game state in FIG. 16.

In step S234, the main CPU 110a compares the type of starting hole at the time of winning, the result of the jackpot determination based on that winning, the type of special pattern (special pattern stop pattern data), the random number value for reach determination and the random number value for special pattern variation stored in the 0th memory section of the special pattern memory area, the current number of reserved balls, and the selected variation pattern determination table to determine the variation pattern of the special pattern (special pattern variation pattern).

In step S235, the main CPU 110a sets the special symbol time counter to the variation time corresponding to the variation pattern of the special symbol determined in step S234. Note that the special symbol time counter is decremented by 1 every 4 ms in step S102.

In step S236, the main CPU 110a sets a variation pattern designation command corresponding to the variation pattern of the special symbol determined in step S239 in the performance transmission data storage area. As a result, the variation pattern designation command is sent to the performance control board 130.

(Special pattern variation processing)
FIG. 33 is a flowchart explaining the special pattern variation processing by the main control board 110.
In step S242, the main CPU 110a judges whether the variable time set in step S213 has ended (elapsed) or not (is the special symbol time counter = 0?). As a result, if it is judged that the variable time has not ended (elapsed) (step S242; No), the special symbol variable process is terminated, and if it is judged that the variable time has ended (elapsed) (step S242; Yes), the process proceeds to step S243.

In step S243, the main CPU 110a clears the set variable display data, and sets special symbol stop data in a predetermined processing area to stop the special symbol set in steps S222, S226, and S228 on the first special symbol first display 19a or the second special symbol first display 19b. This causes the special symbol to be stopped and displayed on the first special symbol first display 19a or the second special symbol first display 19b, and the player is notified of the jackpot determination result.

In step S244, the main CPU 110a determines whether or not a flag is ON in the time-saving flag storage area. If a flag is ON in the time-saving flag storage area, the current game state is a time-saving game state. If the main CPU 110a determines that the time-saving game flag is ON (step S244; Yes), it transfers processing to step S245, and if it determines that the time-saving game flag is OFF (step S244; No), it transfers processing to step S250.

In step S245, the main CPU 110a judges whether or not the stopped variable display is a variable display related to the first special pattern based on the entry of a gaming ball into the first starting hole 10. If the main CPU 110a judges that the variable display is related to the first special pattern (step S245; Yes), it moves the process to step S246, and if it judges that the variable display is not related to the first special pattern (the variable display based on the entry of a gaming ball into the second starting hole 11a has stopped) (step S245; No), it moves the process to step S247.

In step S246, the main CPU 110a subtracts "1" from the second time-shortened number of times (J2) stored in the second time-shortened number of times game (J2) storage area to update it (J2←J2-1).
In step S247, the main CPU 110a subtracts "1" from the first time-shortened number of times (J1) stored in the first time-shortened number of times (J1) memory area and the second time-shortened number of times (J2) stored in the second time-shortened number of times (J2) memory area to update them (J1←J1-1 & J2←J2-1).

In step S248, the main CPU 110a determines whether or not either the first time-shortened game count (J1) or the second time-shortened game count (J2) is "0." If the main CPU 110a determines that either the first time-shortened game count (J1) or the second time-shortened game count (J2) is "0" (step S248; Yes), it transfers processing to step S249. If the main CPU 110a determines that either the first time-shortened game count (J1) or the second time-shortened game count (J2) is not "0" (step S248; No), it transfers processing to step S250.

In step S249, the main CPU 110a turns off the time-saving play flag stored in the time-saving play flag storage area. If either the first time-saving play count (J1) or the second time-saving play count (J2) is "0", the variable display of the special symbol is performed the number of times that is possible in the time-saving play state, and the variable display of the special symbol in the time-saving play state ends.

In step S250, the main CPU 110a checks the current game conditions, and sets a game state designation command indicating that game state in the performance transmission data storage area.
In step S251, the main CPU 110a sets a special symbol determination command in the performance transmission data storage area. The special symbol determination command also includes information on the second time-saving game number (J2) updated in the above-mentioned step S246, or information on the first time-saving game number (J1) and the second time-saving game number (J2) updated in the above-mentioned step S247.

In step S252, the main CPU 110a sets the special symbol stop time in the special symbol time counter based on the variation pattern related to the current special symbol. The special symbol time counter is updated by subtracting 1 every 4 ms in step S102.

In step S253, the main CPU 110a sets the special symbol special signal processing data to "2" and ends this special symbol variation process.

(Special symbol stop processing)
FIG. 34 is a flowchart explaining the special symbol stopping processing by the main control board 110.
In step S261, the main CPU 110a judges whether the symbol stop time set in step S252 has ended (elapsed) or not (is the special symbol time counter = 0?). As a result, when the main CPU 110a judges that the symbol stop time has ended (elapsed) (step S261; Yes), it moves the process to step S262, and when it judges that the symbol stop time has not ended (elapsed) (step S261; No), it ends the current special symbol stop process.

In step S262, the main CPU 110a determines whether the special symbol stop data stored in the special symbol stop data storage area is related to a special jackpot symbol (special symbol stop data = 01 to 06). If the main CPU 110a determines that it is a special jackpot symbol (step S262; Yes), it proceeds to step S267, and if it determines that it is not a special jackpot symbol (step S262; No), it proceeds to step S263.

In step S263, the main CPU 110a judges whether the special symbol stop data stored in the special symbol stop data storage area is related to the small win special symbol (special symbol stop data = 07, 08). If the main CPU 110a judges that the special symbol is a small win special symbol (step S263; Yes), it moves the process to step S265, and if it judges that the special symbol is not a small win special symbol (step S263; No), it moves the process to step S264.
In step S264, the main CPU 110a sets the special symbol special power processing data to "0" and ends this special symbol stop processing.

In step S265, the main CPU 110a sets the special chart special electricity processing data to "4" and prepares to move to the small win game processing shown in FIG.
In step S266, the main CPU 110a performs a small win game preparation process. In this small win game preparation process, the small win game control table shown in Fig. 11(a) is referenced, and the small win game large win opening/closing control table for "TBL. No. 4" is determined as the small win game large win opening/closing control table shown in Fig. 11(b) based on the special chart stop data.

In step S267, the main CPU 110a sets the special chart special electricity processing data to "3" and prepares to move to the jackpot game processing shown in FIG.
In step S268, the main CPU 110a clears the data stored in the time-shortening game flag storage area, the first time-shortening game number (J1) storage area, and the second time-shortening game number (J2) storage area.

In step S269, the main CPU 110a performs a first-class jackpot game preparation process. In this first-class jackpot game preparation process, referring to the first-class jackpot game control table shown in FIG. 9, one of the first-class jackpot game large prize opening/closing control tables "TBL.No1", "TBL.No2", and "TBL.No3" is determined from the first-class jackpot game large prize opening/closing control table shown in FIG. 10 based on the special chart stop data, and set in the game RWM area of the main RAM 110c.

In step S270, the main CPU 110a indicates that the condition device has been activated and sets a condition device command (condition device activation start command) for performing the performance after the condition device is activated in the performance transmission data storage area, and terminates the current special pattern stop processing.
The condition device is constituted by the main CPU 110a, and more specifically, by the large prize opening operation control section of the main CPU 110a.
The condition device is activated when a specific combination of symbols (jackpot symbols) is displayed or when a game ball that has entered the second big prize opening 14a during a small prize game passes through the specific area 14e.

(Round start flag determination process)
FIG. 35 is a flowchart illustrating the round start flag determination process by the main control board 110.
In step S295, the main CPU 110a determines whether or not the round start flag is ON. If the main CPU 110a determines that the round start flag is ON (step S295; Yes), it ends the current round start flag determination process, and if it determines that the round start flag is not ON (step S295; No), it proceeds to step S296.

In step S296, the main CPU 110a performs a process of setting a round start flag to ON.
Next, in step S297, the main CPU 110a sets a combination device operation start command in the performance transmission data storage area of the main RAM 110c.
In step S298, the main CPU 110a performs a process of setting the combination device operation start flag to ON, and ends the current round start flag determination process.

The "round start flag" is a flag that is set to determine whether or not it is necessary to control the timing of starting a round of play in a jackpot game. In other words, the round start flag is used to set the gate detection switch 12a being ON as a condition for activating the consecutive role operation device (role consecutive device) when the condition device is activated.

The continuous reel operation device is partly configured by the main CPU 110a, specifically, by the large prize opening operation control unit of the main CPU 110a. The continuous reel operation device operates when the gate detection switch is turned ON after the condition device is activated.

(Round start process)
FIG. 36 is a flowchart illustrating the round start processing by the main control board 110.
First, in step S271, the main CPU 110a determines whether or not the combination device operation start flag is ON.
In step S272, if the winning combination device operation start flag is ON (step S271; Yes), the main CPU 110a transfers processing to step S272, and if the winning combination device operation start flag is not ON (step S271; No), the main CPU 110a terminates this opening processing.

In step S272, the main CPU 110a sets a round designation command in the performance transmission data storage area.
In step S273, the main CPU 110a turns off the combination device operation start flag, and ends the current round start process.

(Jackpot Game Processing)
FIG. 37 is a flowchart explaining the jackpot game processing by the main control board 110.
First, in step S275, the main CPU 110a judges whether the jackpot game flag is ON. If the main CPU 110a judges that the jackpot game flag is ON (step S275; Yes), the process proceeds to step S276. If the main CPU 110a judges that the jackpot game flag is not ON (step S275; No), the process ends the current jackpot game.

In step S276, the main CPU 110a determines whether or not the opening is in progress. If the main CPU 110a determines that the opening is in progress (step S276; Yes), it proceeds to step S277. If the main CPU 110a determines that the opening is not in progress (step S276; No), it proceeds to step S281. The opening (opening game) is the period from the start of the jackpot game to the start of the first round of play (the first opening of the first jackpot opening 13a).

In step S277, the main CPU 110a determines whether or not a preset opening time has elapsed. That is, the main CPU 110a determines whether or not the special game timer counter = 0, and if the special game timer counter = 0, determines that the opening time has elapsed.

If the main CPU 110a determines that the set opening time has elapsed (step S277; Yes), it transfers processing to step S278, and if it determines that the set opening time has not elapsed (step S277; No), it ends the current jackpot game processing.

In step S278, the main CPU 110a determines whether the round start flag is ON. If the main CPU 110a determines that the round start flag is not ON (step S278; No), it ends the current jackpot game processing, and if it determines that the round start flag is ON (step S278; Yes), it proceeds to step S279.

In step S279, the main CPU 110a performs a round play start process. Specifically, the main CPU 110a adds "1" to the value (round number (R)) stored in the round play count storage area and stores the result. Note that since no round play has been performed at the time of step S279, the main CPU 110a stores "1" in the round play count storage area.

In step S280, the main CPU 110a performs a process to open the large prize opening. Specifically, the main CPU 110a adds "1" to the value (special prize operation number (K)) stored in the special power operation number storage area and stores the result. The main CPU 110a then sets data to start energizing the first large prize opening opening/closing solenoid 13d in the game RWM area of the main RAM 110c in order to energize the first large prize opening opening opening solenoid 13a and open the first large prize opening 13a.

Here, the main CPU 110a refers to the large prize opening opening/closing control table and sets the opening time of the first large prize opening 13a (the operation time of the first large prize opening control device 13) in the special game timer counter based on the round number (R) and the special power operation number (K). Note that the special game timer counter is decremented every 4 ms in step S102.

For example, when the first round of a jackpot game is opened for the first time, the round game count storage area is set to "1" and the special signal activation number storage area is set to "1", so a round designation command indicating the first round of play is set in the performance transmission data storage area.

On the other hand, if "1" is not set in the special signal activation number storage area, the round designation command is not set in the performance transmission data storage area, and the current jackpot game processing ends. In other words, when K=1, this means the start of a round of play, so the main CPU 110a sends a round designation command only at the start of a round. When the performance control board 130 receives the round designation command, a display for performance purposes, such as "Round 1," is displayed on the image display device 16.

In step S281, the main CPU 110a determines whether the game is ending. If the main CPU 110a determines that the game is ending (step S281; Yes), it proceeds to step S291. If the main CPU 110a determines that the game is not ending (step S281; No), it proceeds to step S282. The ending (ending game) is the period from when all of the preset rounds of play have ended (when the final opening of the first large prize opening 13a has ended) until the end of the jackpot game.

In step S282, the main CPU 110a determines whether the first large prize opening 13a is open, i.e., whether the first large prize opening control device 13 is operating. If the main CPU 110a determines that the first large prize opening 13a is open (step S282; Yes), it proceeds to step S283, and if it determines that the first large prize opening 13a is not open (step S282; No), it proceeds to step S293.

In step S293, the main CPU 110a determines whether or not a preset closing time has elapsed. If the main CPU 110 determines that the closing time has elapsed (step S293; Yes), it moves the process to step S280, and if it determines that the closing time has not elapsed (step S293; No), it ends the current jackpot game process.

In step S283, the main CPU 110a determines whether or not the "opening end condition" for ending the opening of the first large prize opening 13a has been met. If the main CPU 110a determines that the "opening end condition" has been met (step S283; Yes), it proceeds to step 284, and if it determines that the "opening end condition" has not been met (step S283; No), it ends the current large prize game processing.

The "opening end condition" is when the counter value of the round winning counter reaches a specified number for a round of play (e.g., 10) or when the maximum opening time has elapsed (special play timer counter = 0).

In step S284, the main CPU 110a performs a large prize opening closing process. This large prize opening closing process sets the power stop data for the first large prize opening opening opening solenoid 16d in the game RWM area of the main RAM 110c in order to close the first large prize opening 13a that is currently open, and also references the large prize opening opening opening control table and sets the closing time of the first large prize opening 13a in the special game timer counter based on the current round number (R) and special power operation number (K). This causes the first large prize opening 13a to close.

In step S285, the main CPU 110a determines whether one round of play has ended. Specifically, one round of play ends when the special signal activation number (K) reaches the number of times set for that round of play or the counter value of the round winning counter reaches a specified number (e.g., 10), so it determines whether such conditions have been met.

If the main CPU 110a determines that one round of play has ended (step S285; Yes), it proceeds to step S286, and if it determines that one round has not ended (step S285; No), it ends the current jackpot play process.

In step S286, the main CPU 110a performs a reset process. Specifically, the main CPU 110a clears the special call activation number storage area and clears the counter value of the round winning counter.

In step S287, the main CPU 110a determines whether the jackpot game has ended, i.e., whether the value (round number (R)) stored in the round game count storage area is the number of round games executed in the jackpot game. If the main CPU 110a determines that the jackpot game has ended (step S287; Yes), it transfers processing to step S288, and if it determines that the jackpot game has not ended (step S287; No), it transfers processing to step S294.

In step S294, the main CPU 110a adds "1" to the current round number (R) stored in the round play count storage area, stores the added number, and ends the current jackpot play process.

In step S288, the main CPU 110a turns off the big win game flag.
In step S289, the main CPU 110a turns off the round start flag.

In step S290, the main CPU 110a performs ending processing. Specifically, the main CPU 110a checks the type of jackpot based on the special chart stop data, and sets an ending designation command associated with the type of jackpot to be sent to the performance control board 130 in the performance transmission data storage area. Next, the main CPU 110a sets the ending time corresponding to the type of jackpot in the special game timer counter.

In step S291, the main CPU 110a judges whether or not the set ending time has elapsed. If the main CPU 110a judges that the ending time has elapsed (step S291; Yes), the process proceeds to step S292. If the main CPU 110a judges that the ending time has not elapsed (step S291; No), the process ends the current big win game process.
In step S292, the main CPU 110a sets the special chart special electricity processing data to "5" and ends the current jackpot game processing.

(Small Win Game Processing)
FIG. 38 is a flowchart explaining the small win game processing by the main control board 110.
In step S299, the main CPU 110a judges whether or not the opening period is in progress. If the main CPU 110a judges that the opening period is in progress (step S299; Yes), the process proceeds to step S300. If the main CPU 110a judges that the opening period is not in progress (step S299; No), the process proceeds to step S303.

In step S300, the main CPU 110a determines whether a preset opening time has elapsed. That is, the main CPU 110a determines whether the special game timer counter is 0, and if the special game timer counter is 0, determines that the opening time has elapsed. If the main CPU 110a determines that the opening time has elapsed (step S300; Yes), it moves the process to step S301, and if it determines that the opening time has not elapsed (step S300; No), it ends the current small win game process.

In step S301, the main CPU 110a performs a large prize opening process. Specifically, the main CPU 110a first adds "1" to the value (special prize operation number (K)) stored in the special power operation number storage area and stores the result. The main CPU 110a then sets the power start data for the second large prize opening opening solenoid 14d to open the second large prize opening 14a, and sets the opening time for the second large prize opening 14a based on the current special power operation number (K) in the special game timer counter, referring to the large prize opening opening control table for small prize games determined in step S266 above.

In step S302, the main CPU 110a performs a specific area opening/closing control process. Specifically, the main CPU 110a controls the current supply to the distribution solenoid 22b based on the specific area opening/closing control table for small win games shown in FIG. 11(c). In this embodiment, the specific area 14e opens for 0.8 seconds when 1.0 second has elapsed since the second large prize opening 14a began to open.

In step S303, the main CPU 110a determines whether the specific area winning flag is ON. If the main CPU 110a determines that the specific area winning flag is ON (step S303; Yes), it proceeds to step S314. If the main CPU 110a determines that the specific area winning flag is not ON (step S303; No), it proceeds to step S304.

In step S314, the main CPU 110a indicates that the condition device has been activated and sets a condition device command (condition device activation start command) for performing the performance after the condition device is activated in the performance transmission data storage area.
In step S315, the main CPU 110a executes a process for transition to a second type big win game.

In step S304, the main CPU 110a determines whether the game is ending. If the main CPU 110a determines that the game is ending (step S304; Yes), the process proceeds to step S311. If the main CPU 110a determines that the game is not ending (step S304; No), the process proceeds to step S305. The ending is the period from the opening of the last second large prize opening 14a to the end of the small prize game.

In step S305, the main CPU 110a determines whether the second large prize opening 14a is open. If the main CPU 110a determines that the second large prize opening 14a is open (step S305; Yes), it proceeds to step S306. If the main CPU 110a determines that the second large prize opening 14a is not open (S305; No), it proceeds to step S313.

In step S306, the main CPU 110a judges whether or not the "opening end condition" for terminating the opening of the second large winning opening 14a has been satisfied. If the main CPU 110a judges that the "opening end condition" for terminating the opening of the second large winning opening 14a has been satisfied (step S306; Yes), it moves the process to step S307. If the main CPU 110a judges that the "opening end condition" for terminating the opening of the second large winning opening 14a has not been satisfied (step S306; No), it terminates the current small win game process. As this "opening end condition", the counter value of the round winning counter reaches a specified number (e.g., 10) or one opening time of the second large winning opening 14a has elapsed (special game timer counter = 0).

In step S307, the main CPU 110a performs a large prize opening closing process. Specifically, the main CPU 110a sets data to stop the power supply to the second large prize opening opening solenoid 14d in the game RWM area of the main RAM 110c in order to close the second large prize opening 14a, and sets the closing time of the second large prize opening 14a in the special game timer counter based on the current special power operation number (K) by referring to the small prize game large prize opening opening control table determined in step S266 above. This causes the second large prize opening 14a to close.

In step S308, the main CPU 110a judges whether or not the small win game ending condition is satisfied. If the main CPU 110a judges that the small win game ending condition is satisfied (step S308; Yes), the process proceeds to step S309. If the main CPU 110a judges that the small win game ending condition is not satisfied (step S308; No), the process ends the current small win game.
The condition for ending the small win game is that the special electric activation number (K) reaches a preset number of times the second large winning port 14a is opened, or the counter value of the round winning counter reaches a specified number (for example, 10).

In step S309, the main CPU 110a performs a small win game end process. Specifically, the main CPU 110a sets the special power activation number storage area to "0" and sets the counter value of the round winning counter to "0." In other words, the special power activation number storage area and the round winning counter are cleared.

In step S310, the main CPU 110a performs ending processing. Specifically, the main CPU 110a sets an ending designation command corresponding to the type of small win in the performance transmission data storage area based on the special chart stop data, and sets the ending time corresponding to the type of small win in the special game timer counter.

In step S311, the main CPU 110a judges whether the ending time set in step S310 has elapsed. If the main CPU 110a judges that the ending time has elapsed (step S311; Yes), the process proceeds to step S312. If the main CPU 110a judges that the ending time has not elapsed (step S311; No), the process ends the current small win game process.
In addition, the ending time is also determined by whether or not the special game timer counter is 0, like the opening time.
In step S312, the main CPU 110a sets the special chart special electricity processing data to "0" and ends the current small win game processing.

If the main CPU 110a determines in step S305 that the second large prize opening 14a is not open, it determines in step S313 whether or not a preset closing time has elapsed. If the main CPU 110 determines that the closing time has elapsed (step S313; Yes), it transfers the process to step S301, and if it determines that the closing time has not elapsed (step S313; No), it ends the current small prize game process.

(Second-class jackpot game transition process)
FIG. 39 is a flowchart explaining the second type jackpot game transition processing by the main control board 110.
In step S316, the main CPU 110a judges whether the ending is in progress. If the main CPU 110a judges that the ending is in progress (step S316; Yes), the process proceeds to step S321. If the main CPU 110a judges that the ending is not in progress (step S316; No), the process proceeds to step S317.

In step S317, the main CPU 110a determines whether the second large prize opening 14a is open. If the main CPU 110a determines that the second large prize opening 14a is open (step S317; Yes), it proceeds to step S318. If the main CPU 110a determines that the second large prize opening 14a is not open (step S317; No), it proceeds to step S319.

In step S318, the main CPU 110a sets data for stopping the power supply to the second large prize opening opening/closing solenoid 14d in the game RWM area of the main RAM 110c in order to close the second large prize opening 14a.
In step S319, the main CPU 110a performs a small win game end process. Specifically, the main CPU 110a sets the special power activation number storage area to "0" and sets the counter value (C) of the round winning counter to "0". That is, the special power activation number storage area and the round winning counter are cleared.

In step S320, the main CPU 110a performs ending processing. Specifically, the main CPU 110a sets an ending designation command corresponding to the type of small win in the performance transmission data storage area based on the special chart stop data, and sets the ending time corresponding to the type of small win in the special game timer counter.

In step S321, the main CPU 110a determines whether the ending time has elapsed. If the main CPU 110a determines that the ending time has elapsed (step S321; Yes), it moves the process to step S322, and if it determines that the ending time has not elapsed (step S321; No), it ends the current second type jackpot game transition process.

In step S322, the main CPU 110a sets the special picture special signal processing data to "3".
In step S323, the main CPU 110a performs a second-class jackpot game preparation process. In the second-class jackpot game preparation process, the second-class jackpot game control table shown in Fig. 12 is referenced, and the second-class jackpot game large prize opening/closing control table "TBL.No4" is determined as the second-class jackpot game large prize opening/closing control table shown in Fig. 13 based on the special chart stop data, and is set in the game RWM area of the main RAM 110c, and the main CPU 110a adds "1" to the value (round number (R)) stored in the round game count storage area and stores it.

The second type jackpot game is played on the condition that the game ball that entered the second large winning hole 14a during the small jackpot game passes through the specific area 14e (the condition for the game to occur is that it must pass through the small jackpot game). Therefore, the small jackpot game is considered to be the first round of the second type jackpot game.
In this manner, by setting "1" in the round play count storage area before the second type big win game is started, the small win game is treated equally to the first round game.
In step S324, the main CPU 110a turns off the specific area winning flag, and ends the current second type big win game transition process.

(Jackpot game end processing)
FIG. 40 is a flowchart explaining the jackpot game ending processing by the main control board 110.
In step S325, the main CPU 110a loads the special symbol stop data set in the special symbol stop data memory area and the game information in the game status buffer.

In step S326, the main CPU 110a performs a time-saving play flag setting process. Specifically, the main CPU 110a refers to the game state setting table shown in FIG. 14, and if the special chart stop data sets the time-saving play flag, it sets the time-saving play flag in the time-saving play flag storage area, and if the special chart stop data does not set the time-saving play flag, it does not set the time-saving play flag in the time-saving play flag storage area or clears the time-saving play flag storage area.

In step S327, the main CPU 110a performs a process of determining the number of time-saving games. Specifically, the main CPU 110a refers to the game state setting table shown in FIG. 14, and sets a predetermined number of times in the first time-saving game number (J1) memory area and the second time-saving game number (J2) memory area based on the special symbol stop data.
Here, in the case of any of the special chart stop data 01 to 08, "5" is set as the first time-shortened game number (J1) in the first time-shortened game number (J1) memory area, and "99" is set as the second time-shortened game number (J2) in the second time-shortened game number (J2) memory area.

In step S328, the main CPU 110a checks the game status, and sets a game status designation command in the transmission data storage area for presentation.
In step S329, the main CPU 110a prepares to move to the special symbol memory determination process shown in FIG. 30, and ends the current big win game end process.

(General map and general electricity control processing)
FIG. 41 is a flowchart illustrating the normal power control processing by the main control board 110.
First, in step S331, the main CPU 110a loads the value of the normal map/normal power processing data, and in step S332, calculates a branch address from the loaded normal map/normal power processing data.

In step S333, if the normal symbol normal power processing data = 0 (step S333; Yes), the main CPU 110a performs normal symbol variation processing in step S334 and ends the normal symbol normal power control processing for this time. If the normal symbol normal power processing data is not = 0 (step S333; No), it determines that the normal symbol normal power processing data = 1, performs auxiliary game processing in step S335, and ends the normal symbol normal power control processing for this time.

(Normal pattern change processing)
FIG. 42 is a flowchart explaining normal pattern change processing by the main control board 110.
First, in step S341, the main CPU 110a judges whether or not the normal symbol is being changed. If the normal symbol is being changed (the normal symbol time counter is not "0") (step S341; Yes), the process proceeds to step S358, and if the normal symbol is not being changed (step S341; No), the process proceeds to step S342.

In step S342, the main CPU 110a judges whether the value of the normal symbol reservation number (G) memory area storing the normal symbol reservation number is equal to or greater than 1. If it is judged that the value of the normal symbol reservation number (G) memory area is equal to or greater than 1 (S342; Yes), the process proceeds to step S343, and if it is judged that the value of the normal symbol reservation number (G) memory area is not equal to or greater than 1 (S342; No), the normal symbol variation process is terminated.
In step S343, the main CPU 110a subtracts "1" from the value stored in the normal symbol reserved number (G) memory area and updates it (G←G+1).

In step S344, the main CPU 110a performs a shift process of the data stored in the normal symbol reserved memory area corresponding to the normal symbol reserved number (G) memory area subtracted in step S343. Specifically, each data stored in the first memory section to the fourth memory section in the normal symbol memory area is shifted to the previous memory section. Here, the data stored in the first memory section is shifted to the judgment memory area (0th memory section). At this time, the data stored in the first memory section is written to the judgment memory area (0th memory section), and the data already written to the judgment memory area (0th memory section) is erased from the normal symbol reserved memory area. As a result, the random number value for winning judgment, the random number value for winning symbol judgment, and the random number value for normal symbol variation pattern judgment used in the previous game are erased.

In step S345, the main CPU 110a performs a win determination process. Specifically, the current time-saving game state and the win determination random number value stored in the 0th memory section of the normal symbol reserved memory area are compared with the normal symbol win determination table shown in FIG. 19(a) to determine whether or not a win has occurred.

In step S346, the main CPU 110a performs a normal symbol determination process. Specifically, the main CPU 110a checks whether the game is currently in a time-saving game mode, the result of the win determination in step S345, and the normal symbol stop random number stored in the 0th memory section of the normal symbol reservation memory area against the normal symbol stop symbol determination table shown in FIG. 19(b) to determine the type of normal symbol (normal symbol stop symbol data) and set it in the normal symbol stop symbol memory area.

In step S347, the main CPU 110a sets a regular symbol designation command corresponding to the regular symbol stop pattern data determined in step S346 in the performance transmission data storage area. This causes the regular symbol designation command to be sent to the performance control board 130.

In step S348, the main CPU 110a performs a normal symbol fluctuation pattern determination process. Specifically, the normal symbol fluctuation time (fluctuation pattern) is determined by checking whether the current game state is a time-saving game state, the result of the win determination in step S345, and the normal symbol fluctuation pattern random number value stored in the 0th memory section of the normal symbol reserve memory area against the normal symbol fluctuation pattern determination table shown in Figure 19 (c).

In step S349, the main CPU 110a sets a normal symbol fluctuation pattern designation command corresponding to the normal symbol fluctuation time (fluctuation pattern) determined in step S348 above in the performance transmission data storage area. As a result, the normal symbol fluctuation pattern designation command is sent to the performance control board 130.

In step S350, the main CPU 110a sets the normal symbol time counter to the normal symbol fluctuation time determined in step S349. Note that the normal symbol time counter is decremented by 1 every 4 ms in step S102.

In step S351, the main CPU 110a sets normal pattern variable display data in a predetermined processing area of the main RAM 110c to cause the normal pattern first display 19c to display the normal pattern variable (LED blinking). When the normal pattern variable display data is set in the predetermined processing area, display control data is created in the above step S110, and the created data is output in the above step S111, starting the variable display of the normal pattern first display 19c.

In step S352, the main CPU 110a sets a normal symbol storage command corresponding to the number of reserved normal symbols (G) in the performance transmission data storage area. This causes the normal symbol storage command to be sent to the performance control board 130.

In step S353, the main CPU 110a sets the above-mentioned normal symbol reserved display data in a predetermined processing area of the main RAM 110c, and ends this normal symbol variation process. As a result, when the normal symbol reserved display data is set in the predetermined processing area, display control data is created in the above step S114, and the created data is output in the above step S115, so that the number of normal symbols reserved is displayed on the normal symbol reserved first display 19f.

In step S354, the main CPU 110a determines whether the normal pattern change time has elapsed. Specifically, it determines whether the normal pattern time counter set in step S350 above has reached "0." If it is determined that the normal pattern change time has elapsed (S354; Yes), the process proceeds to step S355. If it is determined that the normal pattern change time has not elapsed (S354; No), the current normal pattern change process is terminated.

In step S355, the main CPU 110a sets normal symbol stop display data in a predetermined processing area to stop the normal symbol determined in step S346 on the first normal symbol display 19c. When the normal symbol stop display data is set in the predetermined processing area, display control data is created in step S110, and the created data is output in step S111, causing the normal symbol to stop on the first normal symbol display 19c and informing the player of the winning lottery result.

In step S356, the main CPU 110a sets a normal symbol determination command, which indicates the stop display of the normal symbol, in the performance transmission data storage area. As a result, the normal symbol determination command is transmitted to the performance control board 130.
In step S357, the main CPU 110a judges whether the stop symbol data of the normal symbol is a winning stop symbol. If it is a winning stop symbol (S357; Yes), the process proceeds to step S358. If it is not a winning stop symbol (S357; No), the normal symbol variation process is terminated.

In step S358, the main CPU 110a sets the normal game processing data to "1" and prepares to shift processing to the auxiliary game processing shown in FIG.
In step S359, the main CPU 110a performs auxiliary game start processing. In the auxiliary game start processing, the main CPU 110a first sets an opening mode determination table for the second start hole 11a in the main RAM 110c, and adds "1" to the number of openings (S) stored in the number of openings (S) memory area to update it (S←S+1). Here, since the second start hole 11a has not yet been opened even once, "1" is stored in the number of openings (S) memory area. Then, energization data is set to energize the second start hole opening/closing solenoid 11d to open the opening/closing member 11b of the second start hole 11a.

As a result, the opening/closing member 11b is converted from a closed state to an open state, and the second start opening 11a is opened. In addition, by referring to the second start opening opening mode determination table, the opening time of the second start opening 11a is set in the auxiliary game timer counter based on the current number of openings (S), and the normal pattern variation process is terminated. Note that the auxiliary game timer counter is decremented by 1 every 4 ms in the above step S102.

(Auxiliary Game Processing)
FIG. 43 is a flowchart explaining the auxiliary game processing by the main control board 110.
In step S361, the main CPU 110a determines whether the second start port 11a is open. Specifically, it determines whether the energization data for energizing the second start port opening/closing solenoid 11d is set. If it is determined that the second start port 11a is open (step S361; Yes), the process proceeds to step S362. If it is determined that the second start port 11a is not open (step S361; No), the process proceeds to step S367.

In step S362, the main CPU 110a determines whether the opening end condition for the second start port 11a has been met. Specifically, this occurs when the value of the second start port ball entry counter (L) reaches a specified number (10 balls) or the opening time for the current number of openings (S) has elapsed (the auxiliary game timer counter is "0"). If it is determined that the opening end condition has been met (step S362; Yes), the process proceeds to step S363. If it is determined that the opening end condition has not been met (step S362; No), the current auxiliary game process ends.

In step S363, the main CPU 110a performs a second start port closing process. Specifically, data is set to stop the current supply to the second start port opening/closing solenoid in order to convert the opening/closing member 11b of the second start port 11a to a closed state. This converts the opening/closing member 11b from an open state to a closed state, and the second start port 11a is closed. In addition, the second start port opening mode determination table set in step S359 above is referenced, and the closing time of the second start port 11a is set in the auxiliary game timer counter based on the current number of openings (S).

In step S364, the main CPU 110a determines whether the auxiliary game end condition has been met. The auxiliary game end condition is when the normal power operation number (D) becomes the preset number of times the second start port 11a has been opened, or when the value of the second start port ball entry counter (L) reaches a specified number (10 balls). If the main CPU 110a determines that the auxiliary game end condition has been met (step S364; Yes), it moves the process to step S365, and if it determines that the auxiliary game end condition has not been met (step S364; No), it ends the current auxiliary game process.

In step S365, the main CPU 110a performs auxiliary game termination processing. Specifically, it sets the number of times the second start hole 11a has been opened (S) memory area and the second start hole ball entry counter (L) memory area to "0" and clears the values in each memory area.

In step S366, the main CPU 110a sets the normal game processing data to "0" and ends this auxiliary game processing.
In step S367, the main CPU 110a judges whether the closing time of the second start port 11a has elapsed. Specifically, it judges whether the auxiliary game timer counter has reached "0". If it is judged that the closing time of the second start port 11a has elapsed (step S367; Yes), the process proceeds to step S368. If it is judged that the closing time of the second start port 11a has not elapsed (step S367; No), the current auxiliary game process is terminated.

In step S368, the main CPU 110a performs a second start port opening process. Specifically, it sets second start port opening/closing solenoid energization start data that energizes the second start port opening/closing solenoid 11d to open the opening/closing member 11b of the second start port 11a. This converts the opening/closing member 11b from a closed state to an open state, and the second start port 11a is opened. In addition, it references the second start port opening mode determination table set in step S359 above, and sets the opening time of the second start port 11a in the auxiliary game timer counter based on the current number of openings (S).

(Performance display data setting process)
FIG. 44 is a flowchart explaining the performance display data setting process (information program) by the main control board 110.
First, in step S470, the main CPU 110a judges whether or not a display switching time counter for judging whether or not to switch the performance information displayed on the performance indicator 111 is at the display switching value (0). If the main CPU 110a judges that the display switching time counter is at the display switching value (step S470; Yes), it transfers the process to step S471 assuming that the performance information (normal base value) displayed on the performance indicator 111 will be switched, and if the display switching value is not at the display switching value (step S470; No), it transfers the process to step S475 assuming that the performance information (normal base value) displayed on the performance indicator 111 will not be switched.

In step S471, the main CPU 110a determines whether a lighting confirmation flag for determining whether lighting confirmation of the performance indicator 111 has been completed has been saved in the information RWM area. If the main CPU 110a determines that the lighting confirmation flag has been saved (step S471; Yes), it transfers processing to step S473 to display the normal base value on the performance indicator 111, and if it determines that the lighting confirmation flag has not been saved (step S471; No), it transfers processing to step S472 to perform lighting confirmation of the performance indicator 111.

In step S472, the main CPU 110a determines display data for checking whether all segments (including digital points) of the four 7-segment devices that make up the performance indicator 111 are illuminated, and then proceeds to step S475.

In step S473, the main CPU 110a obtains the normal base value corresponding to the data selection counter value from the base memory area. Specifically, if the data selection counter value is "0", the normal base value saved in the first area of the base memory area is obtained; if the data selection counter value is "1", the normal base value saved in the second area of the base memory area is obtained; if the data selection counter value is "2", the normal base value saved in the third area of the base memory area is obtained; if the data selection counter value is "3", the normal base value saved in the fourth area of the base memory area is obtained.

In step S474, the main CPU 110a refers to a display data determination table (not shown) to determine the display data of the normal base value to be displayed on the performance display 111 based on the interval counter value, the number of normal outs indicated by the normal out count counter, and the acquired normal base value, and then proceeds to step S475.

In step S475, the main CPU 110a sets the determined display data in the output data area of the information RWM area as display information for the performance display 111. As a result, the display data set in the output data area of the information RWM area is referenced in the output control process (game control program) of step S114, and the normal base value corresponding to the display data is displayed on the performance display 111.

In step S476, the main CPU 110a adds "1" to the display switching time counter.
In step S477, the main CPU 110a judges whether the display switching time counter is greater than an upper limit (e.g., 5 seconds). If the main CPU 110a judges that the display switching time counter is greater than the upper limit (step S477; Yes), it transfers the process to step S478 assuming that the time for switching the performance information displayed on the performance indicator 111 has elapsed, and if it determines that the display switching time counter is not greater than the upper limit (step S477; No), it transfers the process to step S484 assuming that the time for switching the performance information displayed on the performance indicator 111 has not elapsed.

In step S478, the main CPU 110a clears (initializes) the display switching time counter to 0.
In step S479, the main CPU 110a judges whether or not the lighting confirmation flag is set in the information RWM area. If the main CPU 110a judges that the lighting confirmation flag is saved (step S479; Yes), the process proceeds to step S481. If the main CPU 110a judges that the lighting confirmation flag is not saved (step S479; No), the process proceeds to step S480.

In step S480, the main CPU 110a sets a lighting confirmed flag in the information RWM area, and moves the process to step S482.
In step S481, the main CPU 110a adds "1" to the data selection counter.

In step S482, the main CPU 110a determines whether the data selection counter is greater than an upper limit (e.g., 3). If the main CPU 110a determines that the data selection counter is greater than the upper limit (step S482; Yes), it proceeds to step S483, and if the main CPU 110a determines that the data selection counter is not greater than the upper limit (step S482; No), it ends the current performance display data setting process.

In step S483, the main CPU 110a clears (initializes) the data selection counter to 0.
In step S484, the main CPU 110a restores the registers.
In step S485, the main CPU 110a restores the game stack pointer that was saved in the information RWM area, and ends the current performance display data setting process.

In this way, after the gaming machine 1 is powered on and before the performance information (normal base value) is displayed, all four seven-segment segments of the performance display 111 are lit, making it possible to check whether the performance display 111 is malfunctioning and which segment is malfunctioning.

In addition, every time the display switching time (5 seconds) elapses, the performance information (normal base value) of the four play sections consisting of the current play section and the three previous play sections is displayed in sequence, making it possible to compare the performance information (normal base value) of the most recent four play sections, and to confirm the actual performance of the gaming machine and identify the possibility of fraudulent activity.

(Abnormality Judgment Processing)
FIG. 45 is a flowchart illustrating the abnormality determination process by the main control board 110.
First, in step S401, the main CPU 110a saves the game stack pointer to the information RWM area.
In step S402, the main CPU 110a sets an information stack pointer.
In step S403, the main CPU 110a saves the registers to the information RWM area.

In step S404, the main CPU 110a performs an illegal winning error determination process. Specifically, if a game ball enters the second start port 11a when the auxiliary game is not being played, or if a game ball enters the large winning ports 13a and 14a when the special game (large win game, small win game) is not being played, an illegal winning error designation command is set in the transmission buffer of the main RAM 110c as an illegal winning error having occurred. This causes the illegal winning error designation command to be sent to the performance control board 130, and processing is performed to execute an illegal winning error notification (display of an illegal winning error image on the image display device 16, output of an illegal winning error sound, and lighting of an illegal winning error lamp).

In step S405, the main CPU 110a performs an abnormal winning error determination process. Specifically, if the number of game balls that have won in the various winning ports (first start port 10, second start port 11a, first large winning port 13a, second large winning port 14a, general winning port 21) does not match the number of game balls discharged from the winning ball flow path through which the winning balls flow, an abnormal winning error designation command is set in the transmission buffer of the main RAM 110c, assuming that an abnormal winning error has occurred. This causes the abnormal winning error designation command to be sent to the performance control board 130, and processing is performed to execute an abnormal winning error notification (displaying an abnormal winning error image on the image display device, outputting an abnormal winning error sound, and lighting up the abnormal winning error lamp).

In step S406, the main CPU 110a performs a magnetic error determination process. Specifically, if the magnetic detection sensor 58a detects abnormal magnetism for a predetermined period of time, it sets a magnetic error designation command in the transmission buffer of the main RAM 110c as a magnetic error has occurred. This causes the magnetic error designation command to be sent to the performance control board 130, and processing is performed to execute a magnetic error notification (displaying a magnetic error image on the image display device 16, outputting a magnetic error sound, and lighting up the magnetic error lamp).

In step S407, the main CPU 110a performs radio error determination processing. Specifically, if the radio detection sensor 58b detects abnormal radio waves for a predetermined period of time, it sets a radio error designation command in the transmission buffer of the main RAM 110c as a radio error has occurred. This causes the radio error designation command to be sent to the performance control board 130, and processing is performed to execute a radio error notification (displaying a radio error image on the image display device 16, outputting a radio error sound, and lighting up the radio error lamp).

In step S408, the main CPU 110a performs vibration error determination processing. Specifically, when the vibration detection switch 58f detects that strong vibration is being applied to the gaming machine 1 for a predetermined period of time, it transmits a vibration error designation command to the transmission buffer of the main RAM 110c as a vibration error has occurred, and processing is performed to execute a vibration error notification (displaying a vibration error image on the image display device 16, outputting a vibration error sound, and lighting up the vibration error lamp).

In step S409, the main CPU 110a performs a complete function activation determination process.
"Complete function activation" refers to a performance that notifies the user that functions related to the progress of a game will be stopped and makes it possible to stop the functions related to the progress of a game when predetermined complete function activation conditions are met during a game.
"The complete function activation condition has been met" means that the counter value of the above-mentioned reference value counter has reached a predetermined upper limit of the number of balls that can be paid out in one day in the gaming machine.
"Functions related to the progress of the game" refers to the execution of various processes (input control processing, special chart and special electric control processing, etc.) in response to the entry of the game ball into the starting hole or the big prize hole and the passage of the game ball through the gate.
"Stopping functions related to the progress of the game" means closing the second starting opening 11a, the first large winning opening 13a, and the second large winning opening 14a to make it impossible for game balls to win, invalidating any winning that occurs when a game ball wins the first starting opening 10a or the general winning opening 21, and invalidating any passing of a game ball through the gate 12.
A specific description of the complete function operation will be given later in the complete function operation determination process of FIG.

In step S410, the main CPU 110a performs a door open error determination process. Specifically, when the open detection switch 31a changes from an OFF state to an ON state, it is determined that a door open error has occurred, and a door open error start command is set in the transmission buffer of the main RAM 110c, and when the open detection switch 31a changes from an ON state to an OFF state, it is determined that the door open error has been released, and a door open error end command is set in the transmission buffer of the main RAM 110c. As a result, the door open error start command and the door open error end command are sent to the performance control board 130, and processing is performed to execute a door open error notification (displaying a door open error image on the image display device 16, outputting a door open error sound, and lighting up a door open error lamp).

In step S411, the main CPU 110a performs a full plate error determination process. Specifically, when the full plate detection switch 32a changes from an OFF state to an ON state, it is determined that a full plate error has occurred and a full plate error start command is set in the transmission buffer of the main RAM 110c, and when the full plate detection switch 32a changes from an ON state to an OFF state, it is determined that the full plate error has been cleared and a full plate error end command is set in the transmission buffer of the main RAM 110c. This performs processing to execute a full plate error notification (displaying a full plate error image on the image display device 16 and outputting a full plate error sound).

In step S412, the main CPU 110a performs a payout status error determination process. Specifically, if the payout ball detection switch 100a detects that more payout balls than the planned payout balls are counted, if a ball jam occurs in the payout device 100, or if the ball presence detection switch 101a changes from OFF to ON, a payout status error is detected and a payout status error designation command is set in the transmission buffer of the main RAM 110c. This performs processing to execute a payout status error notification (displaying a payout status error image on the image display device 16, outputting a payout status error sound, and lighting up the payout status error lamp).

In step S413, the main CPU 110a performs an operation error determination process and ends this abnormality determination process. Specifically, if the RWM clear switch 58c or the setting key switch 58d is operated while the game progress is being controlled (after the initial setting process is completed), an operation error is assumed to have occurred and an operation error designation command is set in the transmission buffer of the main RAM 110c. This causes the operation error designation command to be sent to the performance control board 130, and processing is performed to execute an operation error notification (displaying an operation error image on the image display device 16, outputting an operation error sound, and lighting up an operation error lamp).

In this way, while the game progress is being controlled (after the initial setting process is completed), it is determined whether or not various errors (abnormalities) have occurred, and if an error does occur, a process is performed to notify the user of the error, thereby ensuring the security of the gaming machine 1.

In addition, by executing the abnormality determination process in the information program, it is possible to further separate the functions of the game program (program related to controlling the game progress) and the information program (program not related to controlling the game progress), which makes it easier to design programs and contributes to the creation of more interesting game programs.

(Magnetic error determination process)
FIG. 46 is a flowchart illustrating the magnetic error determination process by the main control board 110.
First, in step S460, the main CPU 110a judges whether or not a detection signal has been input from the magnetic detection sensor 58a. If the main CPU 110a judges that a detection signal has been input from the magnetic detection sensor 58a (step S460; Yes), the process proceeds to step S461, and if the main CPU 110a judges that a detection signal has not been input (step S460; No), the current magnetic error judgment process is terminated.

In step S461, the main CPU 110a adds "1" to a magnetic detection counter (M) for measuring the time (number of times) that a magnetic field exceeding a predetermined magnetic force is continuously detected, and updates the counter value (M←M+1).

In step S462, the main CPU 110a determines whether the value of the magnetic detection counter (M) is greater than the specified value (50). If it is determined that the value of the magnetic detection counter (M) is greater than the specified value (50) (step S462; Yes), the process proceeds to step S463. If it is determined that the magnetic detection counter (M) is equal to or less than the specified value (50) (step S462; No), the current magnetic error determination process is terminated. Note that since the magnetic error determination process is a process executed within a timer interrupt process that is executed every 4 ms, if the counter value of the magnetic detection counter (M) has reached the specified value, this means that a magnetic force exceeding a predetermined magnetic force has been detected continuously for 0.2 seconds.

In step S463, the main CPU 110a sets a magnetic anomaly error designation command in the performance transmission data storage area, assuming that a magnetic anomaly has occurred in which magnetism exceeding a predetermined magnetic force has been continuously detected. As a result, the sub-CPU 130a of the performance control board 130, which has received the magnetic anomaly error designation command, issues a magnetic anomaly notification to notify the user that a magnetic anomaly has occurred.

In step S464, the main CPU 110a sets external information data (output data) for outputting a security signal indicating that a security abnormality has occurred. This causes the security signal to be output from the seventh terminal of the game information output terminal board 112, allowing the external device (hall computer) to grasp (identify) that a security abnormality has occurred.

In step S465, the main CPU 110a clears to 0 the value of the magnetic detection counter (M), which measures the time during which a magnetic field exceeding a predetermined magnetic force is continuously detected, and ends the current magnetic error determination process. In this way, by clearing the value of the magnetic detection counter (M) to 0, even if the magnetic error determination process is next executed, a magnetic anomaly error designation command or security signal will not be sent immediately.

(Radio wave error determination process)
FIG. 47 is a flowchart illustrating the radio wave error determination process by the main control board 110.
First, in step S450, the main CPU 110a judges whether or not a detection signal has been input from the radio wave detection sensor 58b. If the main CPU 110a judges that a detection signal has been input from the radio wave detection sensor 58b (step S450; Yes), the process proceeds to step S451. If the main CPU 110a judges that a detection signal has been input from the radio wave detection sensor 58b (step S450; No), the process ends the current radio wave error judgment process.

In step S451, the main CPU 110a adds "1" to a radio wave detection counter (N) for measuring the time (number of times) that radio waves of a specified frequency are continuously detected, and updates the counter value (N←N+1).

In step S452, the main CPU 110a determines whether the value of the radio wave detection counter (N) is greater than the specified value (50). If the main CPU 110a determines that the value of the radio wave detection counter (N) is greater than the specified value (50) (step S452; Yes), it proceeds to step S453. If the main CPU 110a determines that the value of the radio wave detection counter (N) is equal to or less than the specified value (50) (step S452; No), it ends the current radio wave error determination process. Note that since the radio wave error determination process is a process executed within a timer interrupt process that is executed every 4 ms, if the radio wave detection counter (N) has reached the specified value, it means that radio waves of the specified frequency have been detected continuously for 0.2 seconds.

In step S453, the main CPU 110a sets a radio wave abnormality error designation command in the performance transmission data storage area, assuming that a radio wave abnormality has occurred in which radio waves of a specified frequency are continuously detected. As a result, the sub-CPU 130a of the performance control board 130, which has received the radio wave abnormality error designation command, issues a radio wave abnormality notification to notify the user that a radio wave abnormality has occurred.

In step S454, the main CPU 110a sets external information data (output data) for outputting a security signal indicating that a security abnormality has occurred. This causes the security signal to be output from the seventh terminal of the game information output terminal board 112, allowing the external device (hall computer) to grasp (identify) that a security abnormality has occurred.

In step S455, the main CPU 110a clears to 0 the value of the radio wave detection counter (N), which measures the time that radio waves of a specified frequency have been continuously detected, and ends the current radio wave error determination process. In this way, by clearing the value of the radio wave detection counter (N) to 0, even if the radio wave error determination process is next executed, a radio wave abnormality error designation command or security signal will not be sent immediately.

(Complete function operation determination process)
FIG. 48 is a flowchart illustrating the complete function activation determination process performed by the main control board 110.
The complete function activation determination process is a process for determining whether or not to activate the complete function based on whether or not the counter value of the reference value counter calculated and updated in step S106 has reached a predetermined reference value (a first reference value (C1) or a second reference value (C2)).

The "reference value counter" calculates the difference between the maximum and minimum number of balls dispensed from the gaming machine from when it was turned on until the present time. Specifically, it calculates the maximum gaming value acquired by the player, which indicates the maximum difference between the minimum number of balls dispensed at the time of update and the maximum number of balls dispensed afterwards (i.e., the range of increase from the lowest point, which is the minimum value, to the highest point, which is the maximum value), and calculates the upper limit of the number of balls that can be dispensed from the gaming machine in one day.

Specifically, for example, as shown in Fig. 49 (1), at the timing of T1, after the power is turned on, for example, the number of game balls released since the game started is "12000", while the number of game balls paid out by winning into the various winning holes (first starting hole 10, second starting hole 11a, general winning hole 21, etc.) is "2000", so the difference in balls is "-10000", and the minimum value of the balls dispensed is updated to "-10000". This updated minimum value of the balls dispensed becomes the lowest point, which is the reference point for the range of increase.
Therefore, at the timing T1, the amount of increase from the lowest point to the highest point is "0", so the counter value of the reference counter is "0".

As shown in Fig. 49 (2), at the time T2, a consecutive jackpot state occurs from the time T1, and for example, the number of game balls released from the time T1 is "5000", while the number of game balls paid out by winning into the various winning holes (first starting hole 10, second starting hole 11a, first large winning hole 13a, second large winning hole 14a, general winning hole 21, etc.) is "25000", so the difference in balls is "+10000", and the maximum value of balls that becomes the highest point is updated to "+10000". This maximum value of balls becomes the highest point because it was updated after the minimum value of balls that was updated at the time of T1.
Therefore, at the timing of T2, the increase from the lowest point to the highest point is "20000", so the counter value of the reference value counter is "20000".

As shown in FIG. 49 (3), at the timing of T3, if no big win occurs from the timing of T2, for example, the number of game balls launched from the timing of T2 is "23,000", while the number of game balls paid out by winning into various winning holes (such as the first starting hole 10, the second starting hole 11a, and the general winning hole 21) is "3,000", and then (after all the balls have been used up), "10,000" game balls are launched, while the number of game balls paid out by winning into various winning holes (such as the first starting hole 10, the second starting hole 11a, and the general winning hole 21) is "5,000", so the difference in balls is "-15,000", and the minimum value of the balls that becomes the lowest point is updated to "-15,000". This updated minimum value of the balls that is the lowest point that is the reference point for the rise range.
Therefore, at the timing of T3, the amount of increase from the lowest point to the highest point is "0", so the counter value of the reference value counter is "0".

As shown in Fig. 50 (4), at the timing of T4, a consecutive jackpot state occurs from the timing of T3, and for example, the number of game balls released from the timing of T3 is "7000", while the number of game balls paid out by winning into various winning holes (first starting hole 10, second starting hole 11a, first large winning hole 13a, second large winning hole 14a, general winning hole 21, etc.) is "47000", so the difference in balls is "+25000", and the maximum value of the balls dispensed is updated to "+25000". This maximum value of the balls dispensed is the highest point because it was updated after the minimum value of the balls dispensed updated at the timing of T3.
Therefore, at the time T4, the increase from the lowest point to the highest point is "40000", and the counter value of the reference value counter is therefore "40000".

As shown in Fig. 50 (5), at the timing of T5, the game balls are launched from the timing of T4, and the minimum value of the balls to be put out is not updated, and a consecutive win state occurs again. For example, the game balls launched from the timing of T4 are "21000", while the game balls paid out by winning into various winning holes (first starting hole 10, second starting hole 11a, first large winning hole 13a, second large winning hole 14a, general winning hole 21, etc.) are "76000", so the difference in balls is "+80000", and the maximum value of the balls to be put out is updated to "+80000". This maximum value of the balls to be put out is the highest point because it was updated after the minimum value of the balls to be put out, which was updated at the timing of T3.
Therefore, at the timing of T5, the increase from the lowest point to the highest point is "95000", and the counter value of the reference value counter is therefore "95000".

As shown in FIG. 48, in the complete function activation determination process, in step S421, the main CPU 110a determines whether the complete function activation flag is ON. If the main CPU 110a determines that the complete function activation flag is ON (step S421; Yes), the complete function activation has already been performed and so the current complete function determination process is terminated. If the main CPU 110a determines that the complete function activation flag is OFF (step S421; No), the process proceeds to step S422.

In step S422, the main CPU 110a determines whether the counter value of the reference value counter, which has been calculated and updated from when the gaming machine 1 was powered on to the present time, is equal to or greater than a preset first reference value (C1) (e.g., C1 = 90,000).

If the main CPU 110a determines that the value is not equal to or greater than the first reference value (C1) (step S422; No), it ends the current complete function determination process, and if it determines that the value is equal to or greater than the first reference value (C1) (step S422; Yes), it proceeds to step S423.

In step S423, the main CPU 110a determines whether the counter value of the reference value counter, which has been calculated and updated from when the gaming machine 1 was powered on to the present time, is equal to or greater than a second reference value (C2) (e.g., C2 = 95,000).

If the main CPU 110a determines that the value is equal to or greater than the second reference value (C2) (step S423; Yes), it transfers processing to step S425, assuming that the complete function activation condition is met, and if it determines that the value is not equal to or greater than the second reference value (C2) (step S423; No), it transfers processing to step S424.

In step S424, the main CPU 110a sets external information data (output data) for outputting a security signal indicating that a security abnormality has occurred. This causes the security signal to be output from the seventh terminal of the game information output terminal board 112, allowing the external device (hall computer) to grasp (identify) that a security abnormality has occurred.

In step S425, the main CPU 110a sets the complete function operation flag to ON to activate the complete function.
In step S426, the main CPU 110a sets a complete function activation command in the performance transmission data storage area. When the complete function activation command is set in the performance transmission data storage area, the complete function activation control data is created in the above step S114, and the created data is output in step S115, whereby the performance control board 130 performs processing to execute the complete function activation notification.

In step S427, the main CPU 110a performs a game stop process to stop functions related to the progress of the game.
In the game stop process, the second start opening 11a, the first large prize opening 13a, and the second large prize opening 14a are closed. Specifically, the second start opening opening solenoid power stop data is set to close the opening/closing member 11b of the second start opening 11a, the first large prize opening opening solenoid power stop data is set to close the opening/closing member 13b of the first large prize opening 13a, and the second large prize opening opening solenoid power stop data is set to close the opening/closing member 14b of the second large prize opening 14a.

In the game stop processing, if the right-hit first indicator 19j of the first game information display device 19 is lit, it is forcibly turned off.
In the game stop process, even if a game ball enters the first start hole 10 or the general winning hole 21, the winning is invalidated. Specifically, even if the first start hole detection switch 10a detects the entry of a game ball into the first start hole 10, a restriction (prohibition) process is performed in which the first start hole detection switch input process (FIG. 24) is not performed. Therefore, even if a game ball enters the first start hole 10, a jackpot determination is not performed, the number of reserved special figures is not increased, and prize balls are not paid out.

In the game stop process, even if the general winning opening detection switch 14a detects the entry of a game ball into the general winning opening 21, a restriction (prohibition) process is performed in which the general winning opening detection switch input process is not performed. Therefore, even if a game ball enters the general winning opening 21, a prize ball is not paid out.
In the game stop process, even if the gate detection switch 12a detects the passage of the game ball to the gate 12, a restriction (prohibition) process is performed that does not perform the gate detection switch input process (FIG. 26). Therefore, even if the game ball passes through the gate 21, a normal winning judgment is not performed, and the number of normal reserved games does not increase.
In addition, in the game stop processing, a launch stop processing may be performed to stop the launch of the game ball.

(Signal output from game information output terminal board)
FIG. 51 is a diagram showing an example of the types of signals transmitted from a game information output terminal board having multiple terminals to an external device (hall computer, ball dispensing machine, etc.).
Specifically, nine types of signals, namely, "starting hole winning signal,""pattern confirmation signal,""big win signal,""small win signal,""time-saving status signal,""unique information signal,""securitysignal,""prize ball expected signal," and "prize ball completion signal," are output via the game information output terminal board 112.

The "start hole winning signal" is continuously output from the first terminal of the game information output terminal board 112 each time a game ball wins the first start hole 10 or the second start hole 11a until a predetermined period of time (e.g., 128 ms) has elapsed.
The "pattern confirmation signal" is continuously output from the second terminal of the game information output terminal board 112 until a predetermined period (e.g., 128 ms) has elapsed each time the varying display of the first special pattern or the second special pattern is stopped.

The "jackpot signal" is output continuously from the third terminal of the game information output terminal board 112 throughout the period during which the jackpot game occurs, every time the jackpot game occurs.
The "small win signal" is output continuously from the fourth terminal of the game information output terminal board 112 throughout the period during which the small win game occurs, every time the small win game occurs.

The "time-shortened state signal" is output from the fifth terminal of the game information output terminal board 112 throughout the period during which the time-shortened game state occurs, each time the time-shortened game state occurs.
The "unique information signal" is continuously output from the sixth terminal of the game information output terminal board 112 every time the game machine 1 is powered on/powered back on, until a predetermined time (for example, 3000 ms) has elapsed.

The "security signal" is continuously output from the seventh terminal of the game information output terminal board 112 each time an error (RWM abnormality, magnetic abnormality, radio wave abnormality, illegal winning abnormality, abnormal winning) occurs until the error release condition is met.
In addition, the "security signal" is continuously output from the seventh terminal of the game information output terminal board 112 each time a complete function activation warning notification is executed until the complete function activation condition is met (reaching the second reference value).
The "complete function operation warning notification" is a notification that the execution of the complete function operation is approaching before the complete function operation is actually performed.

In this way, regardless of the type of error that occurs (RWM abnormality signal, magnetic abnormality signal, radio wave abnormality signal, illegal winning signal, abnormal winning signal), a security signal is output from the same terminal on the game information output terminal board.

In addition, when the complete function activation warning notification is executed, a security signal is output from the seventh terminal of the game information output terminal board 112, which is used when an error occurs.
In addition, the types of signals corresponding to various errors may be output from separate terminals of the game information output terminal board in a differentiated manner. For example, in the case of an RWM abnormality, security signal 1 corresponding to the RWM abnormality is output, and in the case of a magnetic abnormality, security signal 2 corresponding to the magnetic abnormality is output.

In addition, when the complete function is activated, a security signal may be output from the seventh terminal of the game information output terminal board 112 until the power to the gaming machine is turned off, or when the complete function is activated, a dedicated signal indicating that the complete function has been activated may be output from another terminal of the game information output terminal board 112 until the power to the gaming machine is turned off.

(Main processing of the production control section)
FIG. 52 is a flowchart explaining the main processing by the performance control unit 130m.
When a power supply voltage is supplied from the power supply board 160, a system reset occurs in the sub-CPU 130a of the performance control unit 130m, and the sub-CPU 130a performs the following main processing.

First, in step S510, the sub CPU 130a sets an interrupt inhibition to inhibit timer interrupt processing.
Next, in step S520, the sub CPU 130a performs an initialization process, in which the sub CPU 130a reads a main processing program from the sub ROM 130b in response to power-on, and initializes and sets flags and the like stored in the sub RAM 130c.

At this time, the sub-CPU 130a controls the image display devices 16, 18, the audio output device 9, the performance button device 6A (button drive motor 6c, button vibration motor 6d, button light-emitting LED 6e), the board drive device 17 (movable performance members 17A-17C, stepping motor), the board lighting device 23, the frame lighting device 27, etc. Then, after receiving an initialization OK signal in response to the initialization instruction signal from both the image control unit 140 and the lamp control unit 150, the process proceeds to step S530.

In step S530, the sub-CPU 130a sets interrupt permission to permit a timer interrupt.
In step S540, the sub-CPU 130a performs a random number update process for effects. In this process, the sub-CPU 130a updates various random numbers stored in the sub-RAM 130c. After this, the process of step S540 is repeated until a predetermined interrupt process is performed.

(Timer interrupt processing)
FIG. 53 is a flowchart explaining the timer interrupt processing by the performance control unit 130m.
Although not shown, a reset clock pulse generating circuit provided in the performance control unit 130m generates a clock pulse at a predetermined period (2 ms), loads a timer interrupt processing program, and executes the timer interrupt processing of the performance control unit 130m.

First, in step S601, the sub CPU 130a saves information stored in the register of the sub CPU 130a in a stack area.
In step S602, the sub-CPU 130a performs an update process of various timer counters used in the performance control unit 130m.

In step S603, the sub-CPU 130a performs a command analysis process. In this process, the sub-CPU 130a performs a process of analyzing the command stored in the reception buffer of the sub-RAM 130c. When the performance control unit 130m receives a command sent from the main control board 110, a command reception interrupt process of the performance control unit 130m (not shown) occurs, and the received command is stored in the reception buffer. Then, in step S603, the received command is analyzed.

In step S604, the sub-CPU 130a checks the detection signal of the effect button detection switch 6b, and performs effect input control processing for the effect button 6a.
In step S605, the sub-CPU 130a performs data creation processing of various display control data to be output to the second game information display device 20, which has the special pattern second display devices 20a, 20b, the normal pattern second display device 20c, the special pattern reserved second display devices 20d, 20e, the normal pattern reserved second display device 20f, and the right-hit second display device 20g.

In step S606, the sub-CPU 130a performs a command output process to transmit various data set in the transmission buffer of the sub-RAM 130c to the liquid crystal control unit 140 and the lamp control unit 150. In addition, the sub-CPU 130a performs a display output process to output a signal of the display control data created in step S605.
In step S607, the sub CPU 130a restores the information saved in step S601 to the register of the sub CPU 130a.

(Command analysis process)
54 and 55 are flowcharts explaining the command analysis process by the performance control unit 130m.
52, first, in step S610, the sub CPU 130a judges whether or not a command has been received. If the sub CPU 130a judges that a command has not been received (step S610; No), it ends the current command analysis process, and if it judges that a command has been received (step S610; Yes), it proceeds to step S611.

In step S611, the sub-CPU 130a determines whether the received command is a setting change command. If the sub-CPU 130a determines that the command is not a setting change command (step S611; No), it proceeds to step S613. If the sub-CPU 130a determines that the command is a setting change command (step S611; Yes), it proceeds to step S612.

In step S612, the sub-CPU 130a performs a setting change notification process. In this setting change notification process, a notification instruction command for starting the setting change notification is set in the transmission buffer of the sub-RAM 130c. This causes the notification instruction command to be sent to the image control unit 140 and the lamp control unit 150, and processing for executing the setting change notification is performed. When this process ends, the current command analysis process ends.

In step S613, the sub-CPU 130a determines whether the received command is an RWM clear command. If the sub-CPU 130a determines that the command is not an RWM clear command (step S613; No), it proceeds to step S615. If the sub-CPU 130a determines that the command is an RWM clear command (step S613; Yes), it proceeds to step S614.

In step S614, the sub-CPU 130a performs an RWM clear notification process. In this RWM clear notification process, a notification instruction command for starting the RWM clear preparation notification is set in the transmission buffer of the sub-RAM 130c. This causes the notification instruction command to be sent to the image control unit 140 and the lamp control unit 150, and processing is performed to execute the RWM clear preparation notification. When this process ends, the current command analysis process ends.

In step S615, the sub-CPU 130a determines whether the received command is a power-on/recovery command. If the sub-CPU 130a determines that the command is not a power-on/recovery command (step S615; No), it proceeds to step S617. If the sub-CPU 130a determines that the command is a power-on/recovery command (step S615; Yes), it proceeds to step S616.

In step S616, the sub-CPU 130a performs a power-on notification process. In this power-on notification process, if the received command is a power-on command, a notification instruction command for executing a power-on notification is set in the transmission buffer of the sub-RAM 130c, and if the received command is a power restoration command, a notification instruction command for executing a power restoration notification is set in the transmission buffer of the sub-RAM 130c. As a result, the notification instruction command is sent to the image control unit 140 and the lamp control unit 150, and processing is performed to execute a power-on notification or a power restoration notification. When this process ends, the current command analysis process ends.

In step S617, the sub-CPU 130a determines whether the received command is an error specification command. If the sub-CPU 130a determines that the command is not an error specification command (step S617; No), it proceeds to step S619. If the sub-CPU 130a determines that the command is an error specification command (step S617; Yes), it proceeds to step S616.

In step S618, the sub-CPU 130a performs an error notification process to notify that an error related to the security of the gaming machine 1 has occurred. In this error notification process, the type of error designation command is determined, and an error notification instruction command corresponding to the type of error that has occurred is set in the transmission buffer of the sub-RAM 130c. As a result, the error notification instruction command is transmitted to the image control unit 140 and the lamp control unit 150, and processing for executing the error notification process is performed. When this process ends, the current command analysis process ends.

In step S619, the sub-CPU 130a determines whether the received command is an error reset command. If the sub-CPU 130a determines that the received command is not an error reset command (step S619; No), it proceeds to step S621. If the sub-CPU 130a determines that the received command is an error reset command (step S619; Yes), it proceeds to step S620.

In step S620, the sub-CPU 130a performs an error notification cancel process to cancel the ongoing error notification. In this error notification cancel process, the type of error notification cancel command is determined, the error notification effect corresponding to the type of resolved error is cleared from the error notification effect storage area, and an error notification cancel command based on the resolved error notification effect is set in the transmission buffer of the sub-RAM 130c in order to send cancellation information for the resolved error notification effect to the image control unit 140 and the lamp control unit 150. When this process ends, the current command analysis process ends.

In step S621, the sub-CPU 130a determines whether the received command is a customer waiting state designation command. If the sub-CPU 130a determines that the received command is not a customer waiting state designation command (step S621; No), it transfers processing to step S623, and if it determines that the command is a customer waiting state designation command (step S621; Yes), it transfers processing to step S622.

In step S622, the sub-CPU 130a performs customer waiting performance processing. In this customer waiting performance processing, a customer waiting demo image or a power saving image is displayed on the image display device 30 or 60 seconds after the customer waiting state designation command is received. When this processing ends, the current command analysis processing ends.

In step S623, the sub-CPU 130a determines whether the received command is a game state designation command. If the sub-CPU 130a determines that the received command is not a game state designation command (step S623; No), it transfers processing to step S625, and if it determines that the command is a game state designation command (step S623; Yes), it transfers processing to step S624.

In step S624, the sub-CPU 130a performs a presentation mode setting process. In this presentation mode setting process, the game state stored in the sub-RAM 130c is updated to a game state corresponding to the game state designation command, and a presentation mode setting process is performed to set one of a plurality of presentation modes A to G related to the execution of variable presentations. When this process ends, the current command analysis process ends.

The presentation mode notifies the currently set game state. Specifically, when the game is in a low-probability non-time-saving game state (normal game state), a normal mode is set to notify the player that the current game state is in a low-probability non-time-saving game state, and when the game is in a low-probability time-saving game state, a time-saving mode is set to notify the player that the current game state is in a low-probability time-saving game state.

When setting a presentation mode corresponding to the current game state, for example, a presentation image notifying the current game information is displayed on the image display device 16, and/or the display mode of the reserved icon image, the variable icon image, the background image, the character image, and the presentation pattern image displayed on the image display device 16 is made different from the display mode in other presentation modes, thereby notifying the current game state (low probability non-time-saving game state, low probability time-saving game state, high probability time-saving game state).

For example, in normal mode, a background image with an image of a mountain, a presentation pattern image with a display mode consisting of numbers (identification section) and character images (decoration section) is displayed, while in time-saving mode, a background image with an image of the sea, and a presentation pattern image with a display mode consisting of only numbers (identification section) are displayed. Also, in time-saving mode, a right-hit promotion image that encourages the player to shoot the game ball toward the right-side area 4a2 of the game area 4a is displayed, while in normal mode, the right-hit promotion image is not displayed.

In step S625, the sub-CPU 130a determines whether the received command is a special symbol storage command. If the sub-CPU 130a determines that the received command is not a special symbol storage command (step S625; No), it proceeds to step S628. If the sub-CPU 130a determines that the received command is a special symbol storage command (step S625; Yes), it proceeds to step S626.

In step S626, the sub-CPU 130a performs a reserved memory update process. In this reserved memory update process, a process is performed to set a performance instruction command to update the reserved special pattern number stored in the sub-RAM 130c and increase or decrease the reserved icons displayed on the image display device 16 in the transmission buffer of the sub-RAM 130c. As a result, the performance instruction command is transmitted to the image control unit 140 and the lamp control unit 150, and a process is performed to increase or decrease the reserved icons displayed on the image display device 16. When this process is completed, the current command analysis process is terminated.

In step S627, the sub-CPU 130a determines whether the received command is a start port winning designation command. If the sub-CPU 130a determines that the received command is not a start port winning designation command (step S627; No), it proceeds to step S629. If the sub-CPU 130a determines that the received command is a start port winning designation command (step S627; Yes), it proceeds to step S628.

In step S628, the sub-CPU 130a performs a look-ahead performance determination process. In this look-ahead performance determination process, a predetermined performance is executed across the variable display (variable performance) of one or more special symbols, and a determination is made as to whether or not to execute a look-ahead performance that creates the expectation that a jackpot game will be executed (suggesting the possibility that a jackpot game will be executed), and the type of look-ahead performance to be executed is determined, and a process is performed to set a performance instruction command in the transmission buffer of the sub-RAM 130c in order to execute the look-ahead performance. As a result, the performance instruction command is transmitted to the image control unit 140 and the lamp control unit 150, and a process is performed to execute the look-ahead performance. When this process is completed, the current command analysis process is terminated.

Examples of look-ahead effects include icon change effects in which the reserved icon displayed on the image display device 16 or the icon is displayed in a special display mode different from the normal display mode, button vibration effects in which the effect button 6a vibrates for a predetermined period (e.g., one second), and look-ahead continuous preview effects in which a predetermined effect is executed during one or more changing displays (changing effects).

As shown in FIG. 55, in step S629, the sub-CPU 130a determines whether the received command is a special symbol designation command. If the sub-CPU 130a determines that the received command is not a special symbol designation command (step S629; No), it transfers processing to step S631, and if it determines that the command is a special symbol designation command (step S629; Yes), it transfers processing to step S630.

In step S630, the sub-CPU 130a performs a pattern determination process. In this pattern determination process, a process is performed to determine the performance patterns to be displayed on the image display device 16 as a result of the variable performance, that is, the arrangement (combination) of the performance patterns to be stopped on a predetermined pay line. When this process is completed, the current command analysis process is terminated.

In step S631, the sub-CPU 130a determines whether the received command is a variation pattern designation command. If the sub-CPU 130a determines that the received command is not a variation pattern designation command (step S631; No), it proceeds to step S635. If the sub-CPU 130a determines that the received command is a variation pattern designation command (step S631; Yes), it proceeds to step S632.

In step S632, the sub-CPU 130a performs a variable performance pattern determination process. In this variable performance pattern determination process, a variable performance pattern, which is the performance mode of the variable performance executed by the performance device (audio output device 9, board lighting device 23, frame lighting device 27) including the image display device 16, is determined based on the special chart variable pattern specified by the variable pattern designation command and the variable performance pattern determination table, and a process is performed to set a performance instruction command for executing the variable performance in the transmission buffer of the sub-RAM 130c. As a result, the performance instruction command is transmitted to the image control unit 140 and the lamp control unit 150, and processing is performed to execute the variable performance.

In step S633, the sub-CPU 130a performs a preview performance determination process. In this preview performance determination process, based on the variable performance pattern determined in step S623, it determines whether or not to execute a jackpot preview performance that creates anticipation of a jackpot game being played (suggesting that a jackpot game may be played), determines the type of jackpot preview performance to be executed, and performs a process of setting a performance instruction command for executing the jackpot preview performance in the transmission buffer of the sub-RAM 130c. As a result, the performance instruction command is transmitted to the image control unit 140 and the lamp control unit 150, and processing is performed to execute the jackpot preview performance.

In step S634, the sub-CPU 130a performs a look-ahead performance execution process. In this look-ahead performance execution process, a process is performed to set a performance instruction command for starting the look-ahead performance determined in the look-ahead performance determination process in step S628 or for changing the performance mode in the transmission buffer of the sub-RAM 130c. As a result, the performance instruction command is transmitted to the image control unit 140 and the lamp control unit 150, and processing is performed to execute the look-ahead performance. When this process ends, the current command analysis process ends.

In step S635, the sub-CPU 130a determines whether the received command is a pattern determination command. If the sub-CPU 130a determines that the received command is not a pattern determination command (step S635; No), it proceeds to step S637. If the sub-CPU 130a determines that the received command is a pattern determination command (step S635; Yes), it proceeds to step S636.

In step S636, the sub-CPU 130a performs a pattern change stop process. In this pattern change stop process, a process is performed to set a performance instruction command in the transmission buffer of the sub-RAM 130c to stop the display of the performance pattern that is in a temporarily stopped state and end the changing performance. As a result, the performance instruction command is sent to the image control unit 140 and the lamp control unit 150, and a process is performed to end the changing performance. When this process is completed, the current command analysis process is also completed.

In step S637, the sub-CPU 130a determines whether the received command is a conditional device command. If the sub-CPU 130a determines that the received command is not a conditional device command (step S637; No), it proceeds to step S639. If the sub-CPU 130a determines that the received command is a conditional device command (step S637; Yes), it proceeds to step S638.

In step S638, the sub-CPU 130a performs a waiting process for the combination device to activate. In this waiting process for the combination device to activate, a waiting operation presentation pattern is determined, which is the presentation mode of the combination device activation waiting presentation executed by the presentation device including the image display device 16, based on the information (information on winning the big prize or the small prize) obtained from the analysis result of the condition device command received in step S637, and a process is performed to set a presentation instruction command for executing the activation waiting presentation in the transmission buffer of the sub-RAM 130c. As a result, the presentation instruction command is transmitted to the image control unit 140 and the lamp control unit 150, and a process is performed to execute the combination device activation waiting presentation. When this process ends, the current command analysis process ends.

In step S639, the sub-CPU 130a determines whether the received command is a combination device operation start command. If the sub-CPU 130a determines that the received command is not a combination device operation start command (step S639; No), it moves the process to step S641, and if it determines that the command is a combination device operation start command (step S639; Yes), it moves the process to step S640.

In step S640, the sub-CPU 130a performs a combination device operation performance selection process. In this combination device operation performance selection process, a combination device operation performance pattern, which is the performance mode of the combination device operation performance executed by the performance device (sound output device 9, board lighting device 23, frame lighting device 27) including the image display device 16, is determined according to the contents obtained from the analysis result of the combination device operation start command received in step S639, and a performance instruction command for executing the combination device operation performance is set in the transmission buffer of the sub-RAM 130c. As a result, the performance instruction command is sent to the image control unit 140 and the lamp control unit 150, and a process for executing the combination device operation performance is performed. When this process ends, the current command analysis process ends.

In step S641, the sub-CPU 130a determines whether the received command is a special game system designation command. If the sub-CPU 130a determines that the command is not a special game system designation command (step S641; No), it transfers processing to step S643, and if it determines that the command is a special game system designation command (step S641; Yes), it transfers processing to step S642.

"Special game designation commands" include a jackpot opening designation command, a jackpot round designation command, a jackpot ending designation command, a small jackpot game designation command, etc.

In step S642, the sub-CPU 130a performs a special game effect determination process. In this special game effect determination process, in the case of an opening designation command, a process is performed to set a performance instruction command for determining an opening effect for a big win game or a small win game and executing the opening effect in the transmission buffer of the sub-RAM 130c.

In the case of a round designation command, a process is performed in which a presentation instruction command for determining the round presentation for the round game and executing the round presentation is set in the transmission buffer of the sub-RAM 130c.
In the case of an ending designation command, a process is performed in which a performance instruction command for determining the ending performance of the big win game and executing the ending performance is set in the transmission buffer of the sub-RAM 130c. As a result, the performance instruction command is transmitted to the image control unit 140 and the lamp control unit 150, and processing for executing the opening performance, round performance, and ending performance is performed. When this process is completed, the current command analysis process is completed.

In step S643, the sub-CPU 130a determines whether the received command is a specific area winning command. If the sub-CPU 130a determines that the received command is not a specific area winning command (step S643; No), it proceeds to step S645. If the sub-CPU 130a determines that the received command is a specific area winning command (step S643; Yes), it proceeds to step S644.

In step S644, the sub-CPU 130a performs a specific area winning presentation process. In this specific area winning presentation process, in order to notify that the game ball has passed through the specific area 14f of the second large winning port device 14 during a small win game, i.e., that a second type of large win game has been won, a specific area winning presentation pattern, which is the presentation mode of the specific area winning presentation executed by the presentation device (sound output device 9, board lighting device 23, frame lighting device 27) including the presentation image display device 16, is determined, and a presentation instruction command for executing the specific area winning presentation is set in the transmission buffer of the sub-RAM 130c. As a result, the presentation instruction command is transmitted to the image control unit 140 and the lamp control unit 150, and a process for executing the specific area winning presentation is performed. When this process ends, the current command analysis process ends.

In step S645, the sub-CPU 130a determines whether the received command is a reference counter value command. If the sub-CPU 130a determines that the received command is not a reference counter value command (step S645; No), it proceeds to step S647. If the sub-CPU 130a determines that the received command is a reference counter value command (step S645; Yes), it proceeds to step S646.

In step S646, the sub-CPU 130a performs a complete function pre-activation notification process. In this complete function pre-activation notification process, the counter value of the reference value counter and the current game situation are referenced to determine whether to execute a complete function activation warning notification or a complete function activation advance notification.

The "Complete function activation warning" notifies the player that the functions related to the progress of the game are about to stop before the complete function is activated, and also notifies the player of a quantitative change in the remaining value display of the reference value counter up to a predetermined reference value at which the complete function will be activated.

The "Complete function activation notice" notifies the player that a predetermined threshold value has been reached during a small win or big win game (the complete function activation condition has been met), which will cause the complete function to be activated, and also notifies the player that the functions related to the progress of the game will stop after the big win game has ended (the complete function activation will be executed).

In step S647, the sub-CPU 130a determines whether the received command is a complete function activation command. If the sub-CPU 130a determines that the received command is not a complete function activation command (step S647; No), it ends the current command analysis process, and if it determines that the command is a complete function activation command (step S647; Yes), it proceeds to step S648.

In step S648, the sub-CPU 130a performs a complete function activation notification process. In this complete function activation notification process, the current game situation is referenced to determine whether to execute a complete function activation notification.

(Variable performance pattern determination process)
FIG. 56 is a flowchart explaining the variable presentation pattern determination process performed by the presentation control unit 130m.
The sub-CPU 130a executes a variable performance pattern determination process when the variable pattern designation command transmitted from the main control board 110 is stored in the reception buffer. This variable performance pattern determination process determines a variable performance pattern that indicates how to control various performance devices (performance button device 6A, selection button device 6B, sound output device 9, board drive device 17, board lighting device 23, frame lighting device 27) including the image display devices 16 and 18 during the variable display of the special symbol.

In step S701, the sub-CPU 130a acquires the random number value for effect updated in step S540.
In step S702, the sub-CPU 130a refers to the current game state and the presentation mode, and refers to the variable presentation pattern determination table. The presentation mode is for informing the currently set game state.

In step S703, the sub-CPU 130a determines one of the multiple types of variable presentation patterns based on the variable presentation pattern determination table set in step S702 and the random number value for presentation obtained in step S701.

In step S704, the sub-CPU 130a sets a variable performance pattern designation command in the transmission data storage area to transmit the variable performance pattern determined in step S703 to the image control unit 140 and the lamp control unit 150. When the variable performance pattern designation command is sent to the image control unit 140 and the lamp control unit 150, the performance button device 6A, the audio output device 9, the image display devices 16 and 18, the board drive device 17, the board lighting device 23, and the frame lighting device 27 are controlled based on the variable performance pattern designation command.

In step S705, the sub-CPU 130a sets the variable performance time, which is the performance time corresponding to the variable performance pattern determined in step S703 above, to the variable performance timer counter in the sub-RAM 130c.

In step S706, the sub-CPU 130a sets the variable performance data corresponding to the variable performance pattern in the variable performance data storage area of the sub-RAM 130c. Note that the variable performance timer counter is decremented by 1 every 4 ms in step S602. The sub-CPU 130a can use the variable performance timer counter to determine the remaining time of the variable performance, in other words, the time that has elapsed since the variable performance started.

In step S707, the sub-CPU 130a performs pending icon display update processing. Specifically, based on the icon change scenario determined in the preview performance determination processing in step S633 above, it determines whether or not to change the display mode of the pending icon displayed on the image display device 16 and the display mode after the change, identifies a pending icon change designation command corresponding to this decision, and sets the identified pending icon change designation command in the transmission buffer of the sub-RAM 130c.

The pending icon change command set in the transmission buffer of the sub-RAM 130c is sent to the image control unit 140 in the data output process of step S606. Then, the display mode of the pending icon is changed by the image control unit 140.

In step S708, the sub-CPU 130a performs a process for determining the display mode of the variable icon. Specifically, based on the variable performance pattern determined in step S703, it determines whether or not to change the display mode of the variable icon displayed on the image display device 16 and the display mode after the change, identifies the variable icon designation command corresponding to this determination, and sets the identified variable icon designation command in the transmission buffer of the sub-RAM 130c.

The variable icon designation command set in the transmission buffer of the sub-RAM 130c is transmitted to the image control unit 140 in the data output process of step S606. The variable icon is then displayed by the image control unit 140 in a display mode that corresponds to the variable icon designation command.

In step S709, the sub-CPU 130a sets special symbol variable display data in a predetermined processing area to cause the first special symbol second display 20a or the second special symbol second display 20b to display the variable special symbol (blinking LED). When the special symbol variable display data is set in the predetermined processing area, display control data is created in step S605, and the created data is output in step S606, starting the variable display of the first special symbol second display 20a or the second special symbol second display 20b.

In step S710, the sub-CPU 130a sets a special symbol variable display designation command for variably displaying the special symbol in a transmission buffer of the sub-RAM 130c.
The special symbol variable display command set in the transmission buffer of the sub-RAM 130c is transmitted to the image control unit 140 in the data output process of step S606. Then, the image control unit 140 performs variable display of the special symbol in the special symbol display area TZ.

(Processing while waiting for the link device to operate)
FIG. 57 is a flowchart explaining the processing performed by the performance control unit 130m while waiting for the combination device to operate.
First, in step S801, the sub CPU 130a analyzes the received condition device command.
Next, in step S802, the sub-CPU 130a analyzes the received special symbol designation command and determines whether the type of win is a big win or a small win.

In step S803, the sub-CPU 130a selects an action waiting presentation pattern by an image to be displayed on the image display device 16 when the analysis result of the special symbol designation command indicates a big win.
For example, as the activation waiting presentation pattern, an operation presentation pattern (see Figure 69 (7), Figures 70 (5) to (7), Figure 71 (7)) that displays a gate passage promotion image that encourages the game ball to pass through gate 12, which triggers the start of a round of play, or an operation presentation pattern (see Figure 69 (7)) that encourages the game ball to be launched toward the right side area 4a2 of the game area 4a and displays an image that encourages the game ball to pass through gate 12, may be selected.

In step S804, the sub-CPU 130a reads out from the sub-ROM 130b image data and audio data to be used for the performance based on the selected activation waiting performance pattern, and sets this data together with an activation waiting performance command indicating the selected performance in the transmission buffer of the sub-RAM 130c, thereby terminating the current processing of waiting for the activation of the winning combination device.
In this way, when the type of winning is a big winning pattern, a predetermined image is displayed on the image display device 16 from after the fluctuation stop command is received until the winning combination device operation start command is received.

(Role-link device operation performance selection process)
FIG. 58 is a flowchart explaining the role combination device operation performance selection process by the performance control unit 130m.
First, in step S811, the sub-CPU 130a analyzes the received combination device operation start command.

Next, in step S812, the sub-CPU 130a analyzes the received special pattern designation command and determines whether the type of win is a big win or a small win.

In step S813, if the analysis result of the special symbol designation command indicates a big win, the sub-CPU 130a selects a winning combination device operation presentation pattern according to the content obtained from the analysis result of the winning combination device operation start command.
As a combination device operation presentation pattern, for example, a round presentation including an operation presentation pattern (see Figures 69 (8), 70 (8), and 71 (8)) that displays a large prize opening winning promotion image that encourages the game ball to win into the large prize opening is selected.

In step S814, the sub-CPU 130a reads from the sub-ROM 130b image data and audio data to be used for the performance of the selected combination device operation performance pattern, and sets this data together with a combination device operation performance command that indicates the selected performance in the transmission buffer of the sub-RAM 130c, and ends the current combination device operation performance selection process.

(Complete function pre-operation notification process)
FIG. 59 is a flowchart explaining the pre-activation notification process of the complete function by the performance control unit 130m.
In step S815, the sub-CPU 130a analyzes the reference value counter update command received in step S645 and determines whether the counter value of the updated reference value counter is greater than or equal to a first reference value (C1) (e.g., C1 = 90,000).

If the sub-CPU 130a determines that the value is not equal to or greater than the first reference value (C1) (step S815; No), the sub-CPU 130a transfers the process to step S822.
In step S822, the sub-CPU 130a judges whether or not the complete function activation warning effect is being executed. If the sub-CPU 130a judges that the complete function activation warning effect is not being executed (step S822; No), the sub-CPU 130a ends the current complete function activation pre-notification process, and if the sub-CPU 130a judges that the complete function activation warning effect is being executed (step S882; Yes), the process proceeds to step S823.

In step S823, the sub-CPU 130a sets a complete function activation warning effect end command to instruct the end of the complete function activation warning effect.

In step S816, the sub-CPU 130a determines whether the counter value of the updated reference value counter is greater than or equal to a second reference value (C2) (e.g., C2 = 95,000).

If the sub-CPU 130a determines that the second reference value (C2) is equal to or greater than the second reference value (Yes in step S816), it proceeds to step S819. If the sub-CPU 130a determines that the second reference value (C2) is not equal to or greater than the second reference value (No in step S816), it proceeds to step S817.

In step S817, if the counter value of the updated reference value counter is the first reference value (C1), the sub-CPU 130a selects a presentation pattern for a complete function operation warning notification, which is a presentation mode for a complete function operation warning notification executed by the presentation device including the image display device 16 (audio output device 9, board lighting device 23, frame lighting device 27), and proceeds to step S818.

In step S818, the sub-CPU 130a sets the complete function operation warning notification instruction command, which instructs the selected complete function operation warning notification, in the transmission buffer of the sub-RAM 130c. This causes the complete function operation warning notification instruction command to be sent to the image control unit 140 and the lamp control unit 150, and the image control unit 140 and the lamp control unit 150 read the image data, audio data, and lamp data used for the complete function operation warning notification from the image ROM (not shown), audio ROM (not shown), and lamp ROM 150b, and performs processing to execute the complete function operation warning notification.

In step S819, if the counter value of the updated reference value counter is the second reference value (C2), the sub-CPU 130a determines whether the current game situation is a small win game or a big win game. Specifically, the current game situation can be identified based on the information included in the various commands received in steps S623, S629, S635, S637, S639, S641, S643, etc.

If the sub-CPU 130a determines that a small win or a big win is not being played (step S819; No), it ends the current complete function pre-activation notification process, and if it determines that a small win or a big win is being played (step S819; Yes), it moves the process to step S820.

In step S820, the sub-CPU 130a selects a presentation pattern for the complete function activation notice, which is the presentation mode of the complete function activation notice executed by the presentation device including the image display device 16 (audio output device 9, board lighting device 23, frame lighting device 27), and proceeds to step S821.

In step S821, the sub-CPU 130a sets a complete function operation advance notification instruction command, which instructs the selected complete function operation advance notification, in the transmission buffer of the sub-RAM 130c. This causes the complete function operation advance notification instruction command to be sent to the image control unit 140 and the lamp control unit 150, and the image control unit 140 and the lamp control unit 150 read the image data, audio data, and lamp data used for the complete function operation advance notification from the image ROM (not shown), audio ROM (not shown), and lamp ROM 150b, and performs processing to execute the complete function operation advance notification.

(Complete function operation notification process)
FIG. 60 is a flowchart illustrating the complete function activation notification process by the performance control unit 130m.
In step S824, when the sub-CPU 130a receives the complete function activation command in step S647, it determines whether the current game situation is a small win game or a big win game. Specifically, the current game situation can be specified based on the information included in the various commands received in steps S623, S629, S635, S637, S639, S641, S643, etc.

If the sub-CPU 130a determines that a small win or a big win is being played (step S824; Yes), it ends the current complete function activation notification process, and if it determines that a small win or a big win is not being played (step S824; No), it proceeds to step S825.

In step S825, the sub-CPU 130a selects a presentation pattern for the complete function activation notification, which is the presentation mode of the complete function activation notification executed by the presentation device including the image display device 16 (audio output device 9, board lighting device 23, frame lighting device 27), and proceeds to step S826.

In step S826, the sub-CPU 130a sets the complete function operation notification instruction command, which instructs the selected complete function operation notification, in the transmission buffer of the sub-RAM 130c. This causes the complete function operation notification instruction command to be sent to the image control unit 140 and the lamp control unit 150, and the image control unit 140 and the lamp control unit 150 read the image data, audio data, and lamp data used for the complete function operation notification from the image ROM (not shown), audio ROM (not shown), and lamp ROM 150b, and performs processing to execute the complete function operation notification.

(Notification mode and execution period of notification regarding the complete function)
FIG. 61 is an explanatory diagram regarding the type, notification form, and execution period of the complete function.
As described above, notifications related to the complete function include a complete function activation warning notification, a complete function activation advance notification, and a complete function activation notification.

The complete function activation warning notification notifies the player that the execution of the complete function operation is approaching by displaying a notification image on the image display device 16, outputting sound effects from the speaker 9, and lighting up the lamps of the board lighting device 23 and the frame lighting device 27.
Specifically, the notification image displays the remaining value (5,000 remaining) of the reference value counter up to the second reference value (C2) at which the complete function will be activated, and then notifies of a quantitative change by updating and displaying the remaining value of the reference value counter in units of 100 each time the hundreds digit is updated.
The notification image is continuously displayed from the time when the first reference value is reached until the execution of the complete function activation notice starts, or from the time when the first reference value is reached until the execution of the complete function activation starts.

The sound effect is output when the first reference value is reached, and the lamp flashes for a certain period of time after the first reference value is reached. The output of the sound effect and the flashing of the lamp notify the user that the complete function activation warning state has been entered. Note that the output of the sound effect and the lighting of the lamp do not have to be executed.

The complete function activation notice is issued during a small win or big win game by displaying a notice image on the image display device 16, outputting sound effects from the speaker 9, and flashing the lamps of the board lighting device 23 and the frame lighting device 27, to notify the player that the complete function will be activated after the big win game ends and functions related to the progress of the game will be stopped.
Specifically, the notification image may display a message such as "The complete function will be activated after the big win game ends."
The notification image is continuously displayed from the time when the second reference value is reached until the end of the big win game.

The sound effect is different from the sound effect of the complete function operation warning notification, and is output when the second reference value is reached. The lamp flashes in a color different from the color of the lamp for the complete function operation warning notification, and flashes for a certain period of time after the second reference value is reached. The output of the sound effect and the flashing of the lamp notify that the state has switched from the complete function operation warning state to the complete function operation notice state. Note that it is not necessary to output the sound effect and turn on the lamp.

The complete function operation notification is issued during play other than a small win or a big win (while the pattern is changing, while waiting for customers, etc.) by displaying a notification image on the image display device 16, outputting sound effects and voice from the speaker 9, and flashing the lamps of the board lighting device 23 and the frame lighting device 27, to notify that the complete function has been activated and functions related to the progress of the game have been stopped.
Specifically, the notification image may display a message image such as "Complete! End of today!" or "The complete function has been activated. Today's game is over."
The notification image continues to be displayed from the time when the second reference value is reached until the RWM is cleared (with or without a change in settings).

The sound effect is different from the sound effect of the complete function activation warning notification and advance notification, and is output for a fixed period of time after the second reference value is reached. For example, the sound output is "Complete! Ends for today!" or "The complete function has been activated. Play ends for today.", and is output when the second reference value is reached.

The lamp flashes in a different color than the complete function activation warning and advance notice lamps, and continues to flash from the time the second reference value is reached until the RWM is cleared (with or without a setting change). The output of sound effects and voice and the flashing lamp notify the user that the complete function activation warning state or the complete function activation advance notice state has been switched to the complete function activation state.

The complete function operation notification is also executed by the performance indicator 111, and "Er. 5" is displayed as an error related to the game board.

In this way, when the counter value of the reference value counter from when the power is turned on to the present time during play or when not playing (waiting for customers) reaches the first reference value (90,000) (the complete function activation warning condition is met), a complete function activation warning is executed. After that, when the counter value of the reference value counter falls below the first reference value, the complete function activation warning state is released.

When the counter value of the reference value counter from when the power was turned on to the present time reaches the second reference value (95,000) during game play or when not playing (waiting for customers), the complete function is activated and functions related to the progress of the game are stopped.
However, if the second reference value is reached during a small win game or a big win game, the execution of the complete function operation is postponed until the big win game ends, and the complete function operation notice is executed. In other words, even if the second reference value is reached during a small win game or a big win game, the function related to the progress of the game is not stopped, so the prize balls for the game balls entering the big winning openings 13a and 14a are paid out.

Therefore, when the second reference value is reached during a small win game or a big win game, the complete function is activated after the big win game ends, and the function related to the progress of the game is stopped. In addition, when a second type big win is reached via a small win game, the complete function activation notice continues to be executed until the big win game ends, even if the small win game ends.
On the other hand, if the second reference value is reached during play other than a small win or a big win game or during non-play, the complete function is activated and functions related to the progress of the game are stopped regardless of whether the game is in progress.

(The conditions for the complete function to operate are met while the symbols are changing.)
When the conditions for activating the complete function are met (reaching the second reference value) during a losing variation, the losing variation is stopped and the complete function is immediately activated, and when the conditions for activating the complete function are met (reaching the second reference value) during the confirmed stopped display of the pattern related to the losing variation, the complete function is immediately activated.

When the complete function activation condition is met (reaching the second reference value) during a jackpot fluctuation, the jackpot fluctuation is stopped and the complete function is activated immediately, and when the complete function activation condition is met (reaching the second reference value) during a jackpot game, the complete function activation notice is executed and the complete function is activated after the jackpot ends, but the complete function activation notice is also executed if the complete function activation condition is met (reaching the second reference value) during the fixed stop display of the pattern related to the jackpot fluctuation. When the complete function activation condition is met (reaching the second reference value) during a jackpot fluctuation, the complete function is activated, but when the complete function activation condition is met (reaching the second reference value) during the fixed stop display of the pattern related to the jackpot fluctuation and during a jackpot game, the complete function activation notice is executed and the execution of the complete function is postponed until the end of the jackpot game.

In addition, if the complete function activation conditions are met (reaching the second reference value) during a small win fluctuation, the small win fluctuation is stopped and the complete function is activated immediately, and if the complete function activation conditions are met (reaching the second reference value) during a small win game, a complete function activation notice is executed and the complete function is activated after the small win ends, or after the big win game that was executed when the game ball entered the specific area 14e during the small win game ends. However, the complete function activation notice will also be executed if the complete function activation conditions are met (reaching the second reference value) during the fixed stop display of the pattern related to the small win fluctuation. If the complete function activation conditions are met (reaching the second reference value) during a small win fluctuation, the complete function is activated, but if the complete function activation conditions are met (reaching the second reference value) during the fixed stop display of the pattern related to the small win fluctuation, during a small win game, or during a big win game executed via a small win game, a complete function activation notice is executed and the execution of the complete function is postponed until the end of the small win game (or big win game).

Furthermore, if the complete function activation condition is met (reaching the second reference value) during the big win fluctuation or small win fluctuation display, a complete function activation notice may be executed.
In this way, when the condition for activating the complete function is met (reaching the second reference value) while the pattern is changing and being displayed (for example, during a reach), the timing of execution of the activation of the complete function differs depending on whether a jackpot is determined to be reached or not.

When the second reference value is reached during a small win or big win game, the completion function is put into standby mode, but if a game ball enters the big win opening 13a or 14a when the counter value of the reference value counter is "94999", the counter value of the reference value counter is updated to "95014" in response to the payout of "15" prize balls. Even if a payout is executed in response to the entry of a game ball into the big win opening 13a or 14a during a subsequent small win or big win game, the counter value of the reference value counter is not updated.

If a game ball enters the second start hole 11a when the counter value of the reference value counter is 94,999 balls during the display of changing patterns, even if the second reference value (95,000 balls) is reached, the functions related to the progress of the game will be stopped after the prize ball corresponding to the entry is paid out.

(The conditions for the complete function to operate are met during the performance of the gambling device)
When the complete function operation condition is satisfied (reaches the second reference value) during the execution of the role production by the movable performance members 17A to 17C and the complete function operation is executed, the role production is immediately stopped regardless of the position of the movable performance members 17A to 17c during the performance operation. After that, the movable performance members 17A to 17c are returned to the stop position (origin position) by a dedicated return operation at the time of execution of the complete function operation. The stop control of the role production and the dedicated return operation are immediately executed in response to the execution of the complete function operation. This makes it possible to avoid the inconvenience that, when a notification image regarding the operation of the complete function is displayed while the movable performance members 17A to 17C remain stopped at the operation position (performance position), the notification image is hidden by the movable performance members 17A to 17C, making it difficult for the player to recognize that the complete function operation is being executed.

On the other hand, for example, if the complete function activation condition is met (reaching the second reference value) while an audio effect or a lamp effect is being executed and the complete function is activated, the audio effect or lamp effect being executed will continue until the effect is completed. Note that, as with the gimmick effect, the audio effect or lamp effect being executed may also be immediately stopped in response to the execution of the complete function. In that case, the audio effect may be muted so that the audio related to the audio effect is inaudible to the player, while the playback control of the audio data may continue. At this time, the audio related to the activation of the complete function is output to the player at an audible volume.

(Menu operation with complete function active)
Even if the conditions for activating the complete function are met (reaching the second reference value) during play or when not playing (waiting for customers, when an error is being notified) and the complete function is activated, menu operations (displaying the menu screen, pachinko log, adjusting volume and brightness, etc.) can be performed by operating the effect button 6a or the selection button 6f.
Here, the "menu screen" is displayed in response to a player's operation or after a predetermined period of time has elapsed, and is provided to provide the player with various additional functions and non-game information.

"Pachilog" is a game in which information about the game's history is stored in the gaming machine.
"Volume/light adjustment" is a function that allows the player to customize the volume of the sound produced by the audio output device 9 as a presentation effect related to the game and the light output (light emission intensity) of the various lighting devices (board lighting device 18, frame lighting device 27) to their preferences.

In addition, after the complete function is activated, all menu operations (displaying the menu screen, pachinko log, adjusting the volume and light intensity, etc.) performed by operating the effect button 6a or the selection button 6f may be made unexecutable. Also, only some operations may be made unexecutable, such as making the effect button 6a operations (displaying the menu screen, pachinko log) unexecutable while the selection button 6f operations (adjusting the volume and light intensity) are executable.

(The condition for the complete function to operate is met when the reserved sequence is stored.)
When the completion function activation condition is established (reaching the second reference value) during a small win game or a big win game and reserved information (so-called reserved consecutive) in which a big win has been preliminarily determined to be a big win is stored, the big win game corresponding to the reserved consecutive is not executed after the end of the big win game. Also, during a small win game or a big win game, reserved consecutive performance suggesting that the reserved information includes a big win is not executed.

In addition, even if the complete function activation condition is met (reaching the second reference value) during a small win game or a big win game and reserved information (so-called reserved streak) that has previously determined that a big win has been won is stored, after the big win game ends, the complete function may not be activated and the big win game corresponding to the reserved streak may be played, and the complete function may be activated after the big win game corresponding to the reserved streak ends.

(Power outage occurs when the conditions for the complete function are met during a jackpot game.)
If the power is cut off due to a power outage while the complete function activation condition is met (the second reference value is reached) during a jackpot game, when the power is restored and the backup is restored, the functions related to the progress of the game are stopped after the restarted jackpot game ends. Note that the functions related to the progress of the game may be made to continue to be executed even after the restarted jackpot game ends.

(An error occurred while issuing a warning (advance notice) for the complete function.)
FIG. 62 is a diagram showing whether or not the execution of the complete function operation warning (preview) is continued when an error occurs during the execution of the complete function operation warning (preview).
(RWM abnormality occurs)
If an RWM abnormality occurs while a complete function operation warning or a complete function operation notice is being displayed, functions related to the progress of the game are stopped, and the currently executing complete function operation warning or currently executing complete function operation notice is terminated (it will not continue to be displayed).

More specifically, if the power supply to the gaming machine is cut off while a complete function activation warning or a complete function activation notice is being issued, and the backed-up checksum value is not normal when the power supply to the gaming machine is subsequently resumed, an RWM abnormality is detected, and unrecoverable error processing is performed in step S34 described above.

If an RWM abnormality is determined, the authenticity of the various backup contents, including the data related to the reference value counter, will no longer be referenced. In addition, since the RWM abnormality determination result and the irrecoverable error notification will not be released until the RWM is cleared (with or without a setting change), the data related to the reference value counter before the power supply is cut off will have to be cleared, and as a result, the notification of the complete function operation warning that was in progress before the power supply was cut off or the notification of the complete function operation notice that is in progress will end (will not continue to be displayed).

(Magnetic error occurs)
If a magnetic error occurs while a complete function activation warning notification is being executed, functions related to the progress of the game (for example, pattern change, detection of game balls by the detection switches of each winning port, energization of solenoids controlled by the main control board, operation of the launch device, etc.) are stopped and the notification image related to the magnetic error begins to be displayed, but since the data related to the reference value counter in the game RWM area of main RAM 110c is not cleared, the notification image of the complete function activation warning that is being executed continues to be displayed together with the notification image related to the magnetic error.

Similarly, if a magnetic error occurs during the execution of the notification of the complete function operation, the functions related to the progress of the game are stopped and the notification image related to the magnetic error begins to be displayed, but since the data related to the reference value counter in the game RWM area of main RAM 110c is not cleared, the notification image of the complete operation notification that is being executed continues to be displayed together with the notification image related to the magnetic error.

In addition, "stopping a function related to the progress of a game" may mean interrupting or ceasing a function related to the progress of a game.
If "stopping functions related to game progress" is a specification that equates to interrupting functions related to game progress, then once the magnetic error is cleared, the functions related to game progress will resume from the state immediately before the magnetic error occurred.
More specifically, for example, if a magnetic error occurs while a pattern change is being performed while a complete function operation warning is being issued, the pattern change is interrupted (counting of the pattern change time is temporarily stopped) while a complete function operation warning notification image and a notification image related to the magnetic error are displayed. After that, when the magnetic error is released, the pattern change is resumed from the state before the magnetic error occurred (counting of the pattern change time is resumed) while a complete operation warning notification image is displayed.

Furthermore, if the "stopping of functions related to game progress" is a specification that equates to the interruption of functions related to game progress, even if the magnetic error is cleared, the functions related to game progress will not resume from the state immediately before the magnetic error occurred.
More specifically, for example, if a magnetic error occurs while a pattern change is being performed while a complete function operation warning is being notified, the pattern change is stopped (counting of the pattern change time is stopped and discarded) while a complete function operation warning notification image and a notification image related to the magnetic error are displayed. After that, even if the magnetic error is released, the complete operation warning notification image continues to be displayed, but the pattern change does not resume from the state before the magnetic error occurred (counting of the pattern change time is not resumed).

(Occurrence of radio wave error or vibration error)
If a radio wave error or vibration error occurs during the execution of a complete function operation warning or a complete function operation notice, functions related to the progress of the game are not stopped, and data related to the reference value counter in the game RWM area of main RAM 110c is not cleared, so the notification image of the complete function operation warning or complete function operation notice being executed continues to be displayed.

(Main processing of the image control unit)
FIG. 63 is a flowchart illustrating the main processing by the image control unit 140.
In step S830, the general CPU 141 sets interrupt inhibition to inhibit timer interrupts.
In step S 831 , the general CPU 141 reads the main processing program from the general ROM 143 and performs an initialization process for initializing flags and the like stored in the general RAM 142 .

In step S832, the general CPU 141 sets interrupt permission to permit a timer interrupt.
In step S833, the overall CPU 141 performs a mode switching process to switch adjustment modes related to the adjustment of the volume (value) of the performance sound output from the audio output device 9 and the brightness (value) of the image display devices 16, 18 and various lighting devices (board lighting device 23, frame lighting device 27), for example, by referring to the state (switch position) of a change-over switch that can be operated by an arcade staff member.

In step S834, the overall CPU 141 refers to the receiving buffer of the overall RAM 142 to determine whether or not a performance instruction command has been received from the performance control unit 130m. If a performance instruction command has not been received (step S834; No), the process proceeds to step S836. If a performance instruction command has been received (step S834; Yes), the process proceeds to step S835.

In step S835, an animation pattern is determined from the animation group of the type corresponding to the received performance instruction command, and an animation pattern setting process is performed to set the animation pattern in a specified area of the general RAM 142.

The performance instruction commands are customer waiting performance commands that instruct the execution of customer waiting performances, icon display commands that instruct the addition of hold displays or changes to the display mode, variable performance pattern commands that instruct the execution of variable performances, pre-announcement performance commands that instruct the execution of pre-announcement performances, role link device operation waiting performance commands that instruct the execution of role link device operation waiting performances, role link device operation performance commands that instruct the execution of role link device operation performances, opening performance commands that instruct the execution of opening performances, round performance commands that instruct the execution of round performances, and ending performance commands that instruct the execution of ending performances. These include a command to display a specific area winning promotion effect that instructs the execution of a specific area winning promotion effect, a command for a specific area winning effect that instructs the execution of a specific area winning effect, a power on notification command that instructs the execution of a power on effect, a power restoration notification command that instructs the execution of a power restoration notification, an error notification command that instructs an error notification, a complete function operation warning effect command that instructs a complete function operation warning effect, a complete function operation notice effect command that instructs a complete function operation notice effect, and a complete function operation effect command that instructs a complete function operation effect.

An animation group is a group formed by bundling together one or more animation patterns, which are information that specifies (specifies) the type of objects that make up the effect image, the scene (timing) and wait frame (display time) in which the effect image is displayed, target data (sprite image identification number, source address, etc.), parameters (display position of the sprite image, destination address, etc.), drawing method, and information that specifies the image display device that displays the effect image.

Types of animation groups include, for example, a group of performance patterns for displaying animations of performance patterns 16a, a group of icons for displaying animations of reserved icons and the corresponding variable icons, a group of variable performances for displaying animations of variable performances such as backgrounds and characters, a group of preview performances for displaying animations such as previews, a group of condition device activation waiting performances for displaying animations while waiting for the condition device to be activated, a group of role link device operation performances for displaying animations of role link device operation performances, a group of jackpot performances for displaying animations of jackpot performances, a group of complete function activation warning performances for displaying animations of complete function activation warning performances, a group of complete function activation preview performances for displaying animations of complete function activation preview performances, and a group of complete function activation performances for displaying animations of complete function activation performances.

In step S836, the overall CPU 141 performs a sound setting process to determine and set a sound pattern from a sound group of a type corresponding to the received performance instruction command. Types of sound groups include, for example, a BGM group for producing a performance mode, a BGM group for producing a specific variable performance, an SE (sound effect (sound effects and voice sounds)) group associated with a specific performance, a BGM group for producing a jackpot game, an error sound group for notifying an error, etc.

In step S837, the overall CPU 141 determines whether or not there is a frame switching flag indicating that it is time to update the performance image or notification image displayed on the image display devices 16, 18 (draw a new performance image or notification image), and if there is no frame switching flag (step S837; No), the process proceeds to step S833, and if there is a frame switching flag (step S837; Yes), the frame switching flag is cleared in step S838.

In step S839, the overall CPU 141 generates a display list consisting of a group of drawing control commands, and performs processing to output the generated display list to the VDP 200. Here, the display list is image forming information for forming the performance images and notification images to be displayed on the image display devices 16 and 18, and is generated for each unit or multiple units of frames (frame update timing), and in this embodiment, the display list is generated for each frame.

Specifically, a display list for one frame corresponding to the current frame number is generated by setting drawing control commands according to the contents of the animation scene information (address) for each animation pattern, which is updated by the animation control process described below. Note that the drawing control commands are set in order from the animation pattern of the animation group with the lowest priority to the animation pattern of the animation group with the highest priority according to the priority (drawing order) set for the animation group to which each animation pattern belongs, but the reverse order may also be used.

In step S840, the general CPU 141 performs drawing command processing to instruct the VDP 200 to draw a performance image based on the display list output in step S839. By performing this drawing command processing, the VDP 200 generates image data on which a performance image based on the display list and a notification image, etc. are superimposed, and draws the image in the drawing frame buffer, and performs processing to display the performance image drawn in the display frame buffer on the image display devices 16 and 18.

In step S841, the overall CPU 141 generates a sound list consisting of a group of sound control commands, and performs processing to output the generated sound list to the audio control circuit 300. Here, the sound list is audio output information for specifying sounds (BGM, sound effects, error notification sounds, etc.) such as audio data and music data to be output from the audio output device 9, and is generated based on the drawing frame when outputting a new sound.

In step S842, the general CPU 141 performs sound output command processing to instruct the audio control circuit 300 to output sounds based on the sound list output in step S841. By performing this sound output command processing, the audio control circuit 300 outputs sounds based on the sound list from the audio output device 9.

Therefore, output of various sounds from the audio output device 9 is started so as to be synchronized (in sync) with the frame update timing by the VDP 200, and output from the audio output device 9 is ended so as to be synchronized (in sync) with the frame update timing. Note that output of various sounds from the audio output device 9 may be stopped so as not to be synchronized (in sync) with the frame update timing.

In step S843, the overall CPU 141 performs animation control processing to update the animation scene information (address) for each animation pattern that has been set in preparation for creating a display list for the next frame, and then proceeds to step S833, where it repeats the processing from step S834 to step S843 in a loop.

(Animation pattern setting process)
FIG. 64 is a flowchart illustrating the animation pattern setting process by the image control unit 140.
In step S860, the overall CPU 141 judges whether the received performance instruction command is a customer waiting performance command. If the overall CPU 141 judges that the performance instruction command is not a customer waiting performance command (step S860; No), the process proceeds to step S862. If the overall CPU 141 judges that the performance instruction command is a customer waiting performance command (step S860; Yes), the process proceeds to step S861.

In step S861, the overall CPU 141 performs a setting process for the customer waiting effect animation pattern, which is determined from a group of customer waiting effect animations for displaying customer waiting effect animations, and sets the customer waiting effect animation pattern in a specified area of the overall RAM 142.

In step S862, the overall CPU 141 determines whether the received performance instruction command is a command to display icons. If the overall CPU 141 determines that the command is not a command to display icons (step S862; No), it proceeds to step S864. If the overall CPU 141 determines that the command is a command to display icons (step S862; Yes), it proceeds to step S863.

In step S863, the central CPU 141 performs a process of setting the icon animation pattern by determining an icon animation pattern from a group of icons for displaying the animation of the pending icon and the animation of the variable icon, and setting the icon animation pattern in a specified area of the central RAM 142.

In step S864, the overall CPU 141 determines whether the received performance instruction command is a variable performance pattern command. If the overall CPU 141 determines that the command is not a variable performance pattern command (step S864; No), it proceeds to step S866. If the overall CPU 141 determines that the command is a variable performance pattern command (step S864; Yes), it proceeds to step S865.

In step S865, the overall CPU 141 performs a process of setting the animation pattern of the changeover effects, which is to determine an animation pattern of the changeover effects from a group of changeover effects for displaying background animation and character animation, and set the animation pattern in a specified area of the overall RAM 142.

In step S866, the overall CPU 141 determines whether the received effect instruction command is a command for a specific area winning promotion effect. If the overall CPU 141 determines that the command is not a command for a specific area winning promotion effect (step S866; No), it proceeds to step S868, and if it determines that the command is a command for a specific area winning promotion effect (step S866; Yes), it proceeds to step S867.

In step S867, the central CPU 141 performs a process of setting the animation pattern of the specific area winning promotion performance, which determines an animation pattern from a group of specific area winning promotion performances for displaying the animation of the specific area winning promotion performance and sets it in a specified area of the central RAM 142.

In step S868, the overall CPU 141 determines whether the received effect instruction command is a command for an effect waiting for the combination device to operate. If the overall CPU 141 determines that the command is not a command for an effect waiting for the combination device to operate (step S868; No), it moves the process to step S870, and if it determines that the command is a command for an effect waiting for the combination device to operate (step S868; Yes), it moves the process to step S869.

In step S869, the overall CPU 141 performs setting processing for the animation pattern of the waiting for the combination device to operate, which is to determine an animation pattern of the waiting for the combination device to operate from a group of waiting for the combination device to operate in order to display the waiting for the combination device to operate, and set it in a specified area of the overall RAM 142.

In step S870, the overall CPU 141 determines whether the received performance instruction command is a command for a combination device activation performance. If the overall CPU 141 determines that the command is not a combination device activation performance command (step S870; No), it moves the process to step S872, and if it determines that the command is a combination device activation performance command (step S870; Yes), it moves the process to step S871.

In step S871, the overall CPU 141 performs setting processing of the animation pattern of the winning combination device operation effect, which is determined from a group of winning combination device operation effects for displaying the winning combination device operation effect, and sets the animation pattern of the winning combination device operation effect in a specified area of the overall RAM 142.

In step S872, the overall CPU 141 determines whether the received performance instruction command is an opening performance command. If the overall CPU 141 determines that the command is not an opening performance command (step S872; No), it proceeds to step S874. If the overall CPU 141 determines that the command is an opening performance command (step S872; Yes), it proceeds to step S873.

In step S873, the central CPU 141 performs a setting process for the opening performance animation pattern, which determines an opening performance animation pattern from a group of opening performances for displaying the opening performance and sets the opening performance animation pattern in a specified area of the central RAM 142c.

In step S874, the overall CPU 141 determines whether the received performance instruction command is a round performance command. If the overall CPU 141 determines that the command is not a round performance command (step S874; No), it proceeds to step S876. If the overall CPU 141 determines that the command is a round performance command (step S874; Yes), it proceeds to step S875.

In step S875, the overall CPU 141 performs a process of setting the round performance animation pattern, which determines an animation pattern for the round performance from a group of round performances for displaying the round performance and sets the animation pattern in a predetermined area of the overall RAM 142.

In step S876, the overall CPU 141 determines whether the received performance instruction command is a command for an ending performance. If the overall CPU 141 determines that the command is not a command for an ending performance (step S876; No), it proceeds to step S878. If the overall CPU 141 determines that the command is a command for an ending performance (step S876; Yes), it proceeds to step S877.

In step S877, the overall CPU 141 performs an ending performance animation pattern determination process to determine an ending performance animation pattern from a group of ending performances for displaying the ending performance and set the pattern in a predetermined area of the overall RAM 142.

In step S878, the overall CPU 141 determines whether the received effect instruction command is a command for a specific area winning effect. If the overall CPU 141 determines that the command is not a command for a specific area winning effect (step S878; No), it proceeds to step S879. If the overall CPU 141 determines that the command is a command for a specific area winning effect (step S878; Yes), it proceeds to step S879.

In step S879, the overall CPU 141 performs a process of determining an animation pattern for a specific area winning effect from a group of specific area winning effects for displaying the specific area winning effect, and sets the animation pattern for the specific area winning effect in a predetermined area of the overall RAM 142.

In step S880, the overall CPU 141 determines whether the received performance instruction command is a power-on performance command. If the overall CPU 141 determines that the command is not a power-on notification command (step S880; No), it proceeds to step S882. If the overall CPU 141 determines that the command is a power-on notification command (step S880; Yes), it proceeds to step S881.

In step S881, the overall CPU 141 performs a power-on notification animation pattern setting process to determine a power-on notification animation pattern from a group of power-on notifications for displaying the power-on notification and set the power-on notification animation pattern in a specified area of the overall RAM 142.

In step S882, the overall CPU 141 determines whether the received performance instruction command is a power restoration notification command. If the overall CPU 141 determines that the received performance instruction command is not a power restoration notification command (step S882; No), it proceeds to step S884. If the overall CPU 141 determines that the received performance instruction command is a power restoration notification command (step S882; Yes), it proceeds to step S883.

In step S883, the overall CPU 141 performs a power restoration notification animation pattern setting process to determine a power-on notification animation pattern from a group of power restoration notifications for displaying the power restoration notification and set the pattern in a specified area of the overall RAM 142.

In step S884, the overall CPU 141 determines whether the received performance instruction command is an error notification command. If the overall CPU 141 determines that the command is not an error notification command (step S884; No), it proceeds to step S886. If the overall CPU 141 determines that the command is an error notification command (step S884; Yes), it proceeds to step S885.

In step S885, the overall CPU 141 performs an error notification animation pattern setting process to determine an error notification animation pattern from a group of error notifications for displaying the error notification and set it in a specified area of the overall RAM 142.

In step S886, the overall CPU 141 determines whether the received performance instruction command is a command for notifying a warning of a complete function operation. If the overall CPU 141 determines that the command is not a command for notifying a warning of a complete function operation (step S886; No), it proceeds to step S888. If the overall CPU 141 determines that the command is a command for notifying a warning of a complete function operation (step S886; Yes), it proceeds to step S887.

In step S887, the overall CPU 141 performs a process of setting the animation pattern of the complete function activation warning notification, which determines an animation pattern of the complete function activation warning notification from a group of complete function activation warning notifications for displaying the complete function activation warning notification, and sets the animation pattern in a predetermined area of the overall RAM 142.

In step S888, the overall CPU 141 determines whether the received performance instruction command is a command for a complete function activation advance notification. If the overall CPU 141 determines that the command is not a complete function activation advance notification command (step S888; No), it proceeds to step S890. If the overall CPU 141 determines that the command is a complete function activation advance notification command (step S888; Yes), it proceeds to step S889.

In step S889, the overall CPU 141 performs a setting process for the animation pattern of the complete function activation notice, which determines an animation pattern of the complete function activation notice from a group of complete function activation notices for displaying the complete function activation notice, and sets the animation pattern in a predetermined area of the overall RAM 142.

In step S890, the overall CPU 141 determines whether the received performance instruction command is a command to notify the completion function of operation. If the overall CPU 141 determines that the command is not a command to notify the completion function of operation (step S890; No), it ends the current animation pattern setting process, and if it determines that the command is a command to notify the completion function of operation (step S890; Yes), it proceeds to step S891.

In step S891, the overall CPU 141 performs a setting process for the animation pattern of the complete function activation notification, which determines an animation pattern of the complete function activation notification from a group of complete function activation notifications for displaying the complete function activation notification, and sets the animation pattern in a predetermined area of the overall RAM 142, and then ends the current animation pattern setting process.

(Example of notification image regarding the complete function)
FIG. 65 is a diagram showing an example of a complete function activation warning notification image CK.
As shown in Figures 65 (a) to (c), the complete function activation warning notification image CK is a quantitative change notification image that notifies of a quantitative change until a condition (complete function activation condition) for stopping a predetermined game-related function is reached.
The complete function operation warning notification image CK is composed of a text display and a display of the remaining value of the reference value counter up to the second reference value (C2) at which the complete function operation will be executed, and is updated in units of 100 each time the hundreds digit of the remaining value of the reference value counter is updated.

The complete function activation warning notification image CK will continue to be displayed after it starts to be displayed until the complete function activation notice or the complete function activation is started, and when the remaining value display of the reference value counter falls below 100, the entire image will flash or only the remaining value display of the reference value counter will flash.

The remaining value display of the reference value counter may be updated every 1 unit, every 1000 units, or every 500 units.
Also, the remaining value display of the reference value counter may be updated in units of 1000. For example, the remaining value display of the reference value counter may be displayed as "4001 to 5000 remaining until the complete function is activated," and then updated to "3001 to 4000 remaining until the complete function is activated." After that, when the remaining value display of the reference value counter reaches 1 to 1000, it flashes.

As shown in FIG. 65(a), if the complete function activation warning condition is met (reaching the first reference value) during the varying display of the three performance symbols, a complete function activation warning notification image CK is displayed.
The complete function activation warning notification image CK is displayed in a display area on the display section of the image display device 16 that does not overlap with the pending icon display area 16b, 16c, the variable icon display area 16d, the pending number display area 16e, 16f, the special pattern display area TZ, and the right-hit image 16h (when in time-saving play mode), while being displayed in a display area that overlaps with the variable performance display area 16a (background image, variable display image of performance pattern, preview performance image, etc.) and the display area for the stay performance mode name (display of "○○ mode").

Specifically, for example, the complete function activation warning notification image CK is displayed in front of the changing display image and background image of the currently displayed performance pattern 16a and in a display area near the upper end of the display unit, so that it is always visible regardless of the progress of the changing performance.
For example, even when a preview performance with high expectation of a big win is being performed or when a big win pattern is being temporarily stopped and displayed, a complete function operation warning notification image CK1 is always displayed in front of the preview performance image being performed or the big win pattern being temporarily stopped and displayed in a state where it can be seen.
Furthermore, the display size of the complete function activation warning notification image may be switched depending on the progress of the variable presentation.
For example, when a complete function activation warning condition is met during a variable performance with reach, the display size of the complete function activation warning notification image CK is smaller when the reach performance is being executed than when the variable display of the pattern is being displayed.

As shown in FIG. 65(b), when the complete function activation warning condition is met (reaching the first reference value) during a small win game or a big win game, a complete function activation warning notification image CK is displayed.
The complete function activation warning notification image CK is displayed in the display area that does not overlap with the reserved number display area 16e, 16f, the special pattern display area TZ, the round number display area 16g, the right hit image 16h display area, the number of won prize balls display area 16k, and the operation prompting image (for example, "Aim for the V", "Aim for the gate", "Right hit image (large)", etc.), while being displayed superimposed in front of the jackpot type notification image (display of "○○ BONUS"), the small jackpot performance image, and the jackpot performance image.

Specifically, for example, the complete function activation warning notification image CK is displayed in front of the big win performance image GS in a display area at the center of the display unit, and is always visible regardless of the progress of the big win performance.
In addition, the display size of the complete function activation warning notification image may be changed depending on the progress of the small win or big win presentation.

As shown in Figure 65 (c), if an error occurs while the complete function operation warning notification image is being displayed (complete function operation warning state), the complete function operation warning notification image and the error notification image will continue to be displayed in a visible state.
Specifically, for example, when a radio wave error occurs, the display size of the complete function operation warning notification image CK being displayed is reduced to be smaller than the display size of the radio wave error notification image EH, and a part of the complete function operation warning notification image CK and a part of the radio wave error notification image EH are displayed in an overlapping state so that they can be seen by each other. This makes it possible to avoid the inconvenience of being unable to see either the complete function operation warning notification image CK or the error notification image EH.

When adjusting the volume and light intensity while the complete function activation warning notification image is displayed, it is predefined that the complete function activation warning notification image and the volume and light intensity adjustment image are displayed in a positional relationship that does not overlap, or the complete function activation warning notification image may be displayed superimposed on top of the volume and light intensity adjustment image. This makes it possible to avoid the inconvenience of being unable to view either the complete function activation warning notification image or the volume and light intensity adjustment image.

The display size of the complete function activation warning notification image may be reduced to be smaller than the display size of the volume/light adjustment image, so that the complete function activation warning notification image is superimposed on a portion of the volume/light adjustment image.

In addition, if the complete function activation warning notification image is displayed while the machine is in a customer waiting state, or if the machine enters a customer waiting state while the complete function activation warning notification image is being displayed, the complete function activation warning notification image will be displayed in front of the customer waiting performance image and in the display area at the center of the display unit.

"Volume/Light Intensity Adjustment" is a function that allows players to customize the volume of the sound effects output from the audio output device 9 as game-related effects and the light intensity (light emission intensity) of the various lighting devices (board lighting device 18, frame lighting device 27) to their liking.

As shown in Fig. 66(a) and (b), the complete function activation warning notification image may be a notification image CK1 composed of text and a multi-level meter display showing the remaining value of the reference value counter. In this notification image CK1 composed of text and a meter display, for example, after the display starts with all the meter displays lit, the meter goes out one level every time the remaining value of the reference value counter decreases by 1000, or after the display starts with all the meter displays lit, the meter goes out one level every time the remaining value of the reference value counter increases by 1000, and when the remaining value of the reference value counter falls below 1000, the entire notification image or the meter flashes.

The notification image consisting of characters and a meter display is displayed in front of the variable display image of the currently displayed performance pattern and the background image, in a display area near the left end of the display section, and is always displayed in a visible state regardless of the progress of the variable performance.
Furthermore, the display size of the notification image of the complete function activation warning may be switched depending on the progress of the variable presentation.

FIG. 67 is an example of a complete function activation advance notification image CY.
The complete function operation warning notification image CY is an image consisting of text display only. When the complete function operation warning notification image CY starts to be displayed during a small win game, it continues to be displayed until the big win game executed via the small win game ends. Also, when the complete function operation warning notification image CY starts to be displayed during a big win game, it continues to be displayed until the big win game ends.

The complete function activation notice image CY is displayed in a display area on the display section of the image display device 16 that does not overlap with the reserved number display area 16e, 16f, the special pattern display area TZ, the number of rounds display area 16g, the display area for the right hit image 16h, the display area for the number of prize balls acquired 16k, and operation prompting images (e.g., "Aim for the V", "Aim for the gate"), while being displayed in a display area that overlaps with the jackpot type notice image (display of "○○ BONUS"), the small jackpot performance image, and the jackpot performance image GS.

Specifically, for example, the complete function operation advance notification image CY is displayed in front of the big win type notification image and the big win performance image GS and in the central part of the display section, and is always displayed in a visible state regardless of the progress of the big win performance.
Furthermore, since the notification image for the complete function activation is displayed in a transparent state, the big win presentation image can also be seen.
In addition, the display size of the notification image for the completion function operation notice may be changed depending on the progress of the small win or big win presentation.

FIG. 68 is an example of a complete function activation notification image CS.
The complete function activation notification image CS is an image consisting of text display only. After the completion function activation notification image CS starts to be displayed, it continues to be displayed until the RWM is cleared (with or without a setting change).
The complete function activation notification image CS is displayed on the entire screen of the display unit of the image display device 16 .
The complete function activation notification image CS may be an image that displays a two-dimensional barcode or the like in addition to the text.

In this way, the complete function activation warning notification image and the complete function activation advance notification image have a higher display priority than the variable performance image, small win performance image, big win performance image, and customer waiting performance image, so the player can reliably grasp information regarding the activation of the complete function during the variable performance, small win game, big win game, or customer waiting state.

The complete function activation warning image and the complete function activation advance notification image are displayed in parallel with the reserved number display, special symbol, round number display, and right-hit image without overlapping, so you can reliably grasp both information about the complete function and information about the game.

The complete function activation notification image is displayed on the entire screen of the display unit, so it can draw the player's attention and ensure that the complete function has been activated and that functions related to the progress of the game have stopped.

(Example of operation effects executed when a jackpot is hit in normal mode)
FIG. 69 shows an example of a jackpot variable presentation executed in normal mode.
As shown in Fig. 69 (1), in the normal mode, the scrolling display (high-speed fluctuation) of the three performance symbols 16a is started, and the variable display of the special symbol TZ is started. In addition, two first reserved icons are displayed in the first reserved icon display area 16b, and no second reserved icon is displayed in the second reserved icon display area 16c, and the reserved number "2" is displayed in the first reserved number display area 16e, and the reserved number "0" is displayed in the second reserved number display area 16f.

As shown in FIG. 69 (2), the "4 (rooster)" effect symbol 16a temporarily stops in the left and right areas, and a normal reach effect is executed. After that, a transition effect is executed in which the screen goes white. As shown in FIG. 69 (3), the left and right effect symbols 16a rotate and move to the display area near the top left and right ends of the screen, and only the "4" effect symbol 16a is displayed in a reduced size, and the SP reach effect begins. In the SP reach effect, for example, a mission effect is executed in which the effect button 6a is repeatedly pressed to attempt to destroy a panel. After the mission starts, if the panel is successfully destroyed, an SPSP reach effect development suggestion effect is executed, suggesting that the effect will develop into an SPSP reach effect.

As shown in FIG. 69 (4), the SPSP reach effect starts. In the SPSP reach effect, for example, a battle effect is executed in which an ally character uses an attack technique to defeat an enemy character. After the battle begins, a victory confirmation effect is executed in which the ally character defeats the enemy character and wins the battle, suggesting that a jackpot has been won, and then, as shown in FIG. 69 (5), the performance pattern 16a of the combination "444", which indicates a jackpot, is temporarily stopped and then confirmed, and the special pattern TZ is stopped and displayed in the combination display mode of "444".

In addition, when the "444" presentation pattern 16a is displayed as a confirmed stopped pattern, a first operation presentation is executed in which a first right-hit image 16h is displayed, encouraging the player to launch the game ball toward the right-side area 4a2 of the game area 4a.
The first right hit image 16h is an operation prompting image in which the text image of "right hit" is superimposed on an arrow image indicating the right direction. The first right hit image 16h is displayed in a display area near the upper right end of the display unit.

As shown in FIG. 69 (6), the opening performance OP of the jackpot game starts. In the opening performance OP, the word "BONUS" is displayed, indicating that a 3R jackpot game will be played, and a halo flash is displayed behind the word "BONUS", highlighting it. Furthermore, the special symbol TZ is displayed in a stopped state in the combination display mode of "444".

As shown in FIG. 69 (7), when the first right-hit image 16h starts to be displayed and continues to be displayed, the "BONUS" display disappears and a second operation presentation is executed in which a second right-hit image 16H1 is displayed to prompt the player to launch the game ball toward the right-side area 4a2 of the game area 4a and to prompt the player to pass the game ball through the gate 12.

The second right-hit image 16H1 is an operation promotion image that displays an arrow image indicating the right direction and a text image of "Right hit" and a text image of "Aim for the gate" superimposed on the front of the arrow image. The second right-hit image 16H1 is displayed in the display area at the center of the screen with a display size that is larger than the display size of the arrow image and text image of the first right-hit image 16h.

The operation mode of the launch handle 7 suggested by the second right-hit image 16H1 is the same as the operation mode of the launch handle 7 suggested by the first right-hit image 16h, but the display mode (display content, display size, etc.) of the second right-hit image 16H1 and the display mode of the first right-hit image 16h are different.

Note that the second right-hit image 16H1 is displayed after the "BONUS" display disappears, but the second right-hit image 16H1 may be displayed superimposed on top of the "BONUS" display after the "BONUS" display has been displayed for a predetermined period of time.

The second right-hit image may be displayed in such a way that only the text image "right hit" is superimposed on the front of the arrow image. The text image "aim for the gate" is displayed separately before and after the second right-hit image starts to be displayed.

When the game ball passes through the gate 12, the second right-hit image 16H1 disappears, and the first round of play begins as shown in FIG. 69 (8), and the round performance RD starts. In the round performance RD, the third operation performance is executed, which displays the big prize opening prize promotion image 16AH, which encourages the game ball to enter the big prize opening.

The big prize opening winning promotion image 16AH is an operation promotion image that displays a text image of "Aim for the attacker" to encourage the game ball to win the big prize opening.
The second right-hit image 16H1 is displayed in the display area at the center of the screen at a display size larger than the display size of the arrow image and character image of the first right-hit image 16h.

In addition, in the round performance RD, the text image "TOTAL 0015pt" indicating the number of game balls won (paid out) by the game ball entering the big prize slot during the round play is updated and the first right hit image 16h is continuously displayed.

After that, when the round game ends, an ending performance ED is started to notify the player that the 4R jackpot game has ended, as shown in Fig. 69 (9). In the ending performance, a text image of "TOTAL 00615pt" showing the number of game balls acquired (paid out) during the round game is displayed, and the first right hit image 16h is continuously displayed.
In addition, the right hit image 16h may be temporarily hidden during the ending performance ED, and then displayed again after the ending performance ends.

As shown in FIG. 69 (10), the text image "Entering RUSH" is displayed to notify the player of the entry into a time-saving mode corresponding to a low-probability time-saving game state, and a halo flash image is displayed from behind the text image, while the first right-hit image 16h continues to be displayed, and further, the special pattern TZ is displayed in a stopped state in the combination display mode of "444".

Furthermore, after the ending performance ED ends or when the notification of entry into the time-saving mode begins, a sixth operation performance may be executed in which a third right-hit image is displayed to encourage the player to launch the game ball toward the right-side area 4a2 of the game area 4a.
The third right-hit image is an operation prompting image that is displayed with an arrow image indicating the right direction and a text image of "right hit" superimposed on the front of the arrow image. The third right-hit image is displayed in the central area of the screen with a display size enlarged compared to the display size of the first right-hit image 16h.

In this way, in normal mode, when a jackpot (first jackpot) occurs, the first right-hit image 16h is displayed, and then the second right-hit image 16H1 is displayed while the first right-hit image 16h continues to be displayed. This makes it possible to reliably notify the player that the game state has switched from the normal game state to the jackpot game state, and also makes it possible to notify the player of the start timing of a round of play in a jackpot game.

(Examples of operation effects executed when a small win occurs in time-saving mode and when a big win occurs via a small win)
FIG. 70 shows examples of operation presentations that result in a small win in the time-saving mode and a big win via a small win.

As shown in FIG. 70 (1), in the time-saving mode, the scrolling display (high-speed change) of the three performance patterns 16a starts, and the changing display of the special pattern TZ starts. In addition, two first hold icons are displayed in the first hold icon display area 16b and two second hold icons are displayed in the second hold icon display area 16c, while the hold number "2" is displayed in the first hold number display area 16e and the hold number "2" is displayed in the second hold number display area 16f.

As shown in FIG. 70 (2), when a predetermined time has elapsed since the three performance symbols 16a started to change display, a chance performance CH is started, which suggests the possibility of winning a small prize. In the chance performance, for example, a battle performance is performed in which an ally character fights an enemy character. After the battle starts, a performance is performed in which the ally character has an advantage over the enemy character, and, as shown in FIG. 70 (3), the three performance symbols 16a are displayed as fixed stop patterns in the "333" pattern, which suggests the winning of a small prize, and the special symbol TZ is displayed as a "444" combination display pattern.

As shown in FIG. 70 (4), the opening performance OP for the small win game starts. In the opening performance OP, the word image "RUSH BONUS" is displayed, indicating that a small win game will be played, and a halo flash is displayed behind the words, highlighting the words "RUSH BONUS". Furthermore, the special pattern TZ is displayed in a stopped state in the combination display mode of "333".

As shown in FIG. 70 (5), the "RUSH BONUS" display disappears and the small win game presentation RD starts to be displayed. In the small win game presentation RD, the first right-hit image 16h continues to be displayed, and a fourth operation presentation is executed that displays a V-winning promotion image 16VH that encourages the game ball to pass through the specific area 14e of the second large winning opening 14a (V-winning), and a fifth operation presentation is executed that displays a gate-passing promotion image 16GH that encourages the game ball to pass through the gate 12.

The V winning promotion image 16VH is an operation promotion image that displays, for example, a text image of "Aim for the V." Note that, as the V winning promotion image, an image of a character giving operation instructions may be displayed together with the text image of "Aim for the V."
The V winning promotion image 16VH is displayed in the display area at the center of the screen at a display size enlarged larger than the display size of the first right-hit image 16h.

The gate passing promotion image 16GH is an operation promotion image that displays, for example, a text image of "Aim for the gate" and is displayed in a display area that does not overlap with the V winning promotion image 16VH. Note that the gate passing promotion image may also display an image of a character giving operation instructions together with the text image of "Aim for the gate."

The manner in which the launch handle 7 is operated suggested by the V winning promotion image 16VH and the manner in which the launch handle 7 is operated suggested by the gate passing promotion image 16GH are the same, but the display manner (display content, display size, etc.) of the V winning promotion image 16VH and the display manner of the gate passing promotion image 16VH are different.

On the screen, the V winning promotion image 16VH is displayed in a lit state so that it can be seen by the player, while the gate passing promotion image 16GH is displayed in an unlit state so that it is difficult for the player to see.
In addition, the gate passage prompting image 16GH may be displayed in a lit state so that it can be seen by the player, similar to the V winning prompting image 16VH.

As shown in FIG. 70 (6), when a game ball that has entered the second large prize opening 14a passes through a specific area 14e during a round of play, a large prize notification effect is executed that displays a V prize notification image 16V to notify the player that a large prize (a second type large prize) has been won.

The V winning notification image 16V is, for example, a big win notification image that displays the letter image of "V" and a halo flash image behind the letter image.
The big win notification effect displaying the V winning notification image 16V and the fifth operation effect displaying the gate passage promotion image 16GH are executed in parallel.
On the screen, the V winning promotion image 16VH is displayed in a lit state that is visible to the player, while the gate passing promotion image 16GH is displayed in an unlit state that is difficult for the player to see.
In addition, the gate passage promotion image 16GH may be displayed in a lit state visible to the player, similar to the V winning notification image 16V.

After a predetermined time has elapsed, the V winning notification image 16V disappears, and when a predetermined number of game balls enter the second large winning port 14a and the small winning game ends, as shown in FIG. 70 (7), the gate passage promotion image 16GH in an unlit state is displayed in a lit state that is visible to the player, and the special symbol TZ is displayed in a stopped state in the "V" display mode.

When the game ball passes through the gate 12, the gate passing promotion image 16GH disappears, and as shown in FIG. 70 (8), the second round of play begins, and the round performance RD for the big win game begins. In the round performance RD, the third operation performance is executed, which displays the big win port winning promotion image 16AH (text image of "Aim for the attacker"), and the text image of "TOTAL 02000pt" is displayed, which indicates the number of game balls won (paid out) by the game ball winning the big win port during the round of play, and the first right hit image 16h continues to be displayed.

After that, when the round game ends, an ending performance ED is started to notify the player that the 6R jackpot game has ended, as shown in Fig. 70 (9). In the ending performance, a text image of "TOTAL 12525pt" showing the number of game balls acquired (paid out) during the round game is displayed, and the first right hit image 16h is continuously displayed.
In addition, the right hit image 16h may be temporarily hidden during the ending performance ED, and then displayed again after the ending performance ends.

As shown in FIG. 70 (10), a text image of "RUSH ENTERING" is displayed to notify the player of the entry into a time-saving mode corresponding to a low-probability time-saving game state, and a halo flash image is displayed from behind the text image, while the first right-hit image 16h continues to be displayed, and further, the special pattern TZ is displayed in a stopped state in a combination display form of "V".
In addition, a sixth operation effect may be executed in which a third right-hit image is displayed after the ending effect ED ends or when the notification of entry into the time-saving mode begins.

In this way, in the time-saving mode, when a big win occurs via a small win, multiple operation effects are executed in parallel, but on the actual screen, the display of the winning promotion image 16VH is made easier to see than the display of the gate-passing promotion image 16GHV, drawing the player's attention.

When a V hits and a jackpot occurs, the second right-hit image 16H1 that is executed when a first hit occurs in normal mode is not displayed (the second operation effect is not executed), and the gate-passage prompting image 16GH that is off is displayed in a lit state (the fifth operation effect is executed), making it possible to execute an operation effect that corresponds to the time-saving mode, in which the stay period is shorter than in normal mode.

(Example of a variable performance that results in a big win in the time-saving mode)
FIG. 71 shows an example of an operation presentation executed when a jackpot is hit in the time-saving mode.

As shown in FIG. 71 (1), in the time-saving mode, the scrolling display (high-speed change) of the three performance patterns 16a starts, and the changing display of the special pattern TZ starts. In addition, two first hold icons are displayed in the first hold icon display area 16b and one second hold icon is displayed in the second hold icon display area 16c, while the hold number "2" is displayed in the first hold number display area 16e and the hold number "1" is displayed in the second hold number display area 16f.

As shown in Figure 71 (2), the "7" performance symbol 16a temporarily stops in the left and right areas, and a normal reach performance is executed. After that, as shown in Figure 71 (3), a transition performance SH is performed in which the screen goes white. As shown in Figure 71 (4), the left and right performance symbols 16a rotate and move to the display area near the top left and right ends of the screen, and the "7" performance symbol 16a is displayed in a reduced size, and the SPSP reach performance begins.

In the SPSP reach performance, for example, a battle performance is executed. After the battle begins, a victory confirmation performance is executed in which an ally character defeats an enemy character and a battle victory is indicated, suggesting that a jackpot has been won. Then, as shown in FIG. 71 (5), the performance pattern 16a of the combination "777", which indicates a jackpot, is temporarily stopped and then confirmed, and the special pattern TZ is stopped and displayed in the combination display mode of "777".

As shown in FIG. 71 (6), the opening performance OP for the jackpot game starts. In the opening performance OP, the word image "SUPER BONUS" is displayed, indicating that a 9R jackpot game will be played, and a halo flash is displayed behind the words, highlighting the words "SUPER BONUS." Furthermore, the special symbol TZ is displayed in a stopped combination display mode of "777."

As shown in FIG. 71 (7), the "SUPER BONUS" display disappears and a gate prompting image 16GH is displayed (fifth operation effect). The gate passage prompting image 16GH is an operation prompting image that prompts the game ball to pass through the gate 12, and displays, for example, a text image saying "Aim for the gate."

As shown in FIG. 69 (7) above, when a variable performance resulting in a jackpot is executed in normal mode, the second right-hit image 16H1 is displayed in the opening performance, but when a variable performance resulting in a jackpot is executed in time-saving mode, the second right-hit image 16H1 is not displayed in the opening performance.
Furthermore, the second right-hit image 16H1 may be displayed in the opening performance OP every time a jackpot occurs in the time-saving mode (consecutive jackpot state).

When the game ball passes through the gate 12, the gate passing promotion image 16GH disappears, and as shown in FIG. 71 (8), the first round of play begins, and the round performance RD starts. In the round performance RD, the third operation performance is executed, which displays the big prize opening prize promotion image 16AH (text image of "Aim for the attacker"), and the text image of "TOTAL 0015pt" is displayed, which indicates the number of game balls won (paid out) by the game ball entering the big prize opening, and the first right hit image 16h continues to be displayed.

After that, when the round game ends, an ending performance ED is started to notify the player that the 9R jackpot game has ended, as shown in Fig. 71 (9). In the ending performance, a text image of "TOTAL 00615pt" showing the number of game balls acquired (paid out) during the round game is displayed, and the first right hit image 16h is continuously displayed.
In addition, the right hit image 16h may be temporarily hidden during the ending performance ED, and then displayed again after the ending performance ends.

As shown in FIG. 71 (10), a text image of "RUSH ENTERING" is displayed to notify the player of the entry into a time-saving mode corresponding to a low-probability time-saving game state, and a halo flash image is displayed from behind the text image, while the first right-hit image 16h continues to be displayed, and further, the special pattern TZ is displayed in a stopped state in the combination display mode of "777".
In addition, a sixth operation effect may be executed in which a third right-hit image is displayed after the ending effect ED ends or when the notification of entry into the time-saving mode begins.

In this way, in the time-saving mode, if a big win occurs without going through a small win, the second right-hit image 16H1 that is executed when a first win occurs in normal mode is not displayed (the second operation effect is not executed), and the gate-passing promotion image 16GH is displayed (the fifth operation effect is executed), making it possible to execute operation effects according to various presentation modes with different stay periods.

(Example of operation presentation executed when switching from time-saving mode to normal mode)
FIG. 72 shows an example of the operation presentation executed when transitioning from the time-saving mode to the normal mode.
As shown in Fig. 72 (1), in the time-saving mode, the scrolling display (high-speed fluctuation) of the three performance symbols 16a is started based on the winning of the game ball into the second starting hole 11a, and the fluctuating display of the special symbol TZ is started. In addition, two first reserved icons are displayed in the first reserved icon display area 16b, two second reserved icons are displayed in the second reserved icon display area 16c, the reserved number "2" is displayed in the first reserved number display area 16e, and the reserved number "2" is displayed in the second reserved number display area 16f.

After that, as shown in FIG. 72 (2), the display starts to change to indicate the last remaining number of time-saving rounds, and then the combination "217" 16a, which indicates a miss, is displayed as a temporary stop, and then it is displayed as a confirmed stop, and the special pattern TZ is displayed as a "217" combination.

As shown in FIG. 72(3), a text image of "RUSH END" is displayed to notify that the time-saving mode has ended. After that, as shown in FIG. 72(4), the first right-hit image 16h disappears, and a text image of "TOTAL 00515pt" is displayed, indicating the number of game balls acquired (paid out) during the time-saving mode.

As shown in Figure 72 (5), a seventh operation effect is executed in which a left-hit image 16H2 is displayed to encourage the player to shoot the game ball toward the left side area 4a1 of the game area 4a, and an audio effect is executed in which the voice "Please return to left hit" is output.
The left hit image 16H2 is an operation prompting image that is displayed with an arrow image indicating the left direction and a text image of "left hit" superimposed on the front of the arrow image.
The left-hand hit image 16H2 is displayed in the display area at the center of the screen at a display size enlarged compared to the display size of the first right-hand hit image 16h.

The manner of operation of the launch handle 7 suggested by the left hit image 16H2 is different from the manner of operation of the launch handle 7 suggested by the first right hit image 16h, the second right hit image 16H1, the V winning promotion image 16VH and the gate passing promotion image 16GH.
Furthermore, the display manner (display content, display size, etc.) of the operation promotion images of the left hit image 16H2, the first right hit image 16H, the second right hit image 16H1, the V winning promotion image 16VH and the gate passing promotion image 16GH are different.

In this way, when the operation mode indicated by the first right-hit image 16h is performed in the time-saving mode, if a jackpot is not won even once and the display of the predetermined number of time-saving times has ended, causing a transition from the time-saving mode to the normal mode, the first right-hit image 16h disappears and the left-hit image 16H2 is displayed, making it possible to reliably grasp that the mode has switched from the time-saving mode to the normal mode.

In addition, in the time-saving mode, when an operation mode (left hit) different from the operation mode suggested by the first right-hit image 16h is executed, a jackpot is not won even once, and the predetermined number of times of the variable display of the special pattern is reached, and the time-saving mode is switched to the normal mode, the first right-hit image 16h disappears and the left-hit image 16H2 is displayed.
In other words, in the time-saving mode, even if the operation mode suggested by the first right-hit image 16h is executed, or even if an operation mode (left hit) different from the operation mode (right hit) suggested by the first right-hit image 16h is executed, if a jackpot is never won and the predetermined number of times the special pattern is displayed is reached and the time-saving mode transitions to the normal mode, the first right-hit image 16h disappears and the left-hit image 16H2 is displayed.

As shown in Figures 69 to 72, the first right-hit image 16h can be displayed continuously from when the jackpot symbol is displayed in a static manner in normal mode until the time-saving mode is switched back to normal mode after the jackpot game ends.

(V-Punk performs the seventh operation)
Furthermore, as shown in Figure 70 (5), when the small win game starts, a V winning promotion image 16VH is displayed, and if the game ball that entered the second large winning port 14a does not pass through the specific area 14e even after a predetermined set time has elapsed (i.e., if there is no V winning), the small win game presentation image including the first right-hit image 16h (first operation presentation) and the V winning promotion image 16VH (fourth operation presentation) is switched to a text image indicating the number of game balls won (paid out) during the small win game, and after a predetermined time has elapsed, a left-hit image 16H2 (seventh operation presentation) is displayed.
In other words, if a V win is not achieved after the V winning promotion image 16VH (fourth operation presentation) is displayed, the second right-hit image 16H1 (second operation presentation) and (third operation presentation) will not be displayed, and the left-hit image 16H2 (fourth operation presentation) will be displayed.

(b) Operational effects on a gaming machine capable of controlling a game in a time-saving gaming state)
In a gaming machine in which game play can be controlled in the b time-saving game state (so-called "Yu-time state"), when the variable display of a missing first special pattern (or the variable display of a missing first special pattern and the variable display of a missing second special pattern) are executed consecutively a predetermined number of times (e.g., 750 times) in the low-probability non-time-saving game state (normal game state), the game state is transitioned from the non-time-saving game state to a time-saving game state (however, the probability game state remains in the low-probability game state) (hereinafter referred to as the b time-saving game state).

b) In a time-saving mode corresponding to a time-saving gaming state, a first operation presentation displaying a first right-hit image is executed.
In the time-saving mode corresponding to the time-saving game state b, the operation presentation executed when a small win is reached and when a big win (type 2 big win) is reached via a small win is the same as the presentation example shown in Figure 70.
In addition, the operation presentation executed when a jackpot (first type jackpot) occurs in the time-saving mode corresponding to the b time-saving gaming state is the same as the presentation example shown in Figure 71.

b In the time-saving mode corresponding to the time-saving game state, if a jackpot has never been won and the display of changing patterns for a predetermined number of time-saving times has ended, transitioning from the time-saving mode to the normal mode, the first right-hit image 16h will disappear (ending the first operation presentation), and the seventh operation presentation will be executed, displaying the left-hit image 16H2.

(Operation performance on a gaming machine capable of controlling a game in a probability variation game state)
In a gaming machine that can control play in a high-probability time-saving play state (high probability play state) after a jackpot play ends, if a jackpot is never won in the high probability play state and the display of changing patterns corresponding to the number of high probability awards and the number of time-saving plays ends, resulting in a transition to a low-probability non-time-saving play state (normal play state), the machine transitions from the high probability play mode corresponding to the high probability play state to the normal mode corresponding to the normal play state, and the execution of the first operation presentation displaying the first right-hit image 16h ends, and the seventh operation presentation displaying the left-hit image 16H2 is executed.

(The conditions for the complete function to operate are met while the jackpot symbol is stopped and displayed.)
FIG. 73 is a timing chart showing a case where the complete function activation condition is met while the jackpot symbol is stopped and displayed.
FIG. 74 shows an example of a presentation in which a complete function activation notice image is displayed while a jackpot symbol is stopped and displayed.

As shown in FIG. 73, at the timing T0, the complete function operation warning notification has been executed before the timing T0, and therefore the complete function operation warning notification is continuously executed.
At the timing T0, the counter value of the reference value counter is equal to or greater than "94900".

Specifically, as shown in FIG. 74 (1), the complete function activation warning notification image CK is displayed in front of the changing display image and background image of the performance pattern 16a in a display area near the top center of the display section.
Further, since the remaining value display of the reference value counter of the complete function operation warning notification image CK is "100", the entire notification image CK is displayed flashing.

As shown in FIG. 74 (2), during a normal reach performance, the complete function activation warning notification image CK is flashing in a display area near the top center of the display unit, in front of the normal reach performance image and not overlapping with the normal reach performance image.

As shown in Figures 74 (3) and (4), during the SP reach performance and the SPSP reach performance, the complete function activation warning notification image CK is flashing in front of the SP/SPSP reach performance image and in the display area near the top center of the display unit where it overlaps with part of the SP/SPSP reach performance image.

As shown in FIG. 73, at timing T1, when the jackpot symbol is displayed as a confirmed stop, the condition device is activated. The complete function activation warning notification continues even if the jackpot symbol is displayed as a confirmed stop.

Specifically, as shown in FIG. 74 (5), while the jackpot pattern is displayed in a confirmed stopped state, the complete function activation warning notification image CK is flashing in a display area near the top center of the display unit, in front of the jackpot pattern image and the first right-hit image 16h (first operation presentation) and not overlapping with the jackpot pattern image and the first right-hit image 16h (first operation presentation).
In addition, during the SP/SPSP reach effect or the fixed stop display of the jackpot pattern, the complete function operation warning notification image CK may be displayed in a state where it is superimposed on the front of the jackpot pattern image or the SP/SPSP reach effect image. In this case, since the complete function operation warning notification image CK is displayed in a transparent state, both the SP/SPSP reach effect image and the jackpot pattern image can be seen.

As shown in FIG. 73, when the complete function activation condition is met (the counter value of the reference value counter reaches the second reference value of "95,000") at timing T2 during the fixed stop display of the jackpot symbol (symbol fixed time) and the complete function activation flag is turned ON, the complete function activation warning notification is terminated and a complete function activation advance notification is executed. Execution of the complete function activation notification is postponed until the jackpot game ends.

Specifically, as shown in Fig. 74 (5A), the complete function operation warning notification image CK is erased, and the complete function operation advance notification image CY is displayed in a state where it is superimposed on the front of the big win pattern image. Since the complete function operation advance notification image CY is displayed in a transparent state, the big win pattern image can also be seen.
The first right-hit image 16h (first operation presentation) is visibly displayed in a display area that does not overlap with the complete function activation preview notification image CY until the notification of the complete function activation is executed.

As shown in FIG. 73, the complete function activation advance notification continues even during the opening game.
Specifically, as shown in Fig. 74 (6A), during the opening game, the complete function operation advance notification image CY is displayed in a state where it is superimposed on the front of the opening performance OP image. Then, as shown in Fig. 74 (7A), the complete function operation advance notification image CY is displayed in a state where it is superimposed on the front of the second right hit image 16H1 (second operation performance). Since the complete function operation advance notification image CY is displayed in a transparent state, both the opening performance OP image and the second right hit image 16H1 (second operation performance) can be seen.
The first right-hit image 16h (first operation presentation) is visibly displayed in a display area that does not overlap with the complete function activation notice image CY.

As shown in FIG. 73, when the game ball passes through the gate 12 at the timing of T3, the role link device (the role continuous operation device) is activated and a round of play begins. The complete function operation advance notification is continued even during the round of play.

Specifically, as shown in FIG. 74 (8A), during a round of play, the complete function activation advance notification image CY is displayed superimposed on top of the round performance RD image and the large prize opening prize promotion image 16AH (third operation performance). The complete function activation advance notification image CY is displayed in a transparent state, so both the round performance RD image and the large prize opening prize promotion image 16AH can be seen.

As shown in FIG. 73, at timing T4, the round play ends and the ending play begins. The complete function activation advance notification continues to be executed during the ending play.

Specifically, as shown in FIG. 74 (9A), during ending play, the complete function activation notice image CY is displayed superimposed on the front of the ending performance RD image (text image of "TOTAL 0615pt"). Since the complete function activation notice image CY is displayed in a transparent state, the ending performance RD image can also be seen.

As shown in FIG. 73, when the ending game ends at timing T5, the complete function activation advance notification is terminated, the complete function activation notification is executed, and the functions related to the progress of the game are stopped.

Specifically, as shown in FIG. 74 (10A), the complete function activation advance notification image CY and the first right-hit image 16h (first operation effect) disappear, and the complete function activation notification image CS is displayed on the entire screen of the display unit.

(The conditions for the complete function are met while the small winning symbol is displayed as a fixed stop.)
FIG. 75 is a timing chart showing a case where the complete function activation condition is met while the small winning symbol is stopped and displayed.
FIG. 76 shows an example of a presentation in which a notification image predicting the activation of the complete function is displayed while a small winning symbol is stopped.

As shown in FIG. 75, at the timing T0, the complete function operation warning notification has been executed before the timing T0, and therefore the complete function operation warning notification is continuously executed.
At the timing T0, the counter value of the reference value counter is equal to or greater than "94900".

As shown in Figure 76 (1), the complete function activation warning notification image CK is displayed in front of the changing display image and background image of the performance pattern 16a in a display area near the top center of the display section.
Further, since the remaining value display of the reference value counter of the complete function operation warning notification image CK is "100", the entire notification image CK is displayed flashing.
In addition, the first right-hit image 16h (first operation presentation) is visibly displayed in a display area that does not overlap with the complete function activation warning notification image CK until the notification of the complete function activation is executed.

As shown in FIG. 76 (2), during a chance performance, a complete function activation warning notification image CK is flashing in front of the chance performance image and in a display area near the top center of the display unit where it overlaps with part of the chance performance image.

As shown in FIG. 75, at timing T1, the small win symbol is displayed as a fixed stop. The complete function activation warning notification continues even if the small win symbol is displayed as a fixed stop.

As shown in FIG. 76 (3), while the small win pattern is displayed as confirmed and stopped, the complete function activation warning notification image CK is flashing in a display area near the top center of the display unit, in front of the small win pattern image and the first right hit image 16h (first operation effect) and not overlapping with the small win pattern image and the first right hit image 16h (first operation effect).

In addition, during the chance performance or when the small win pattern is displayed as a confirmed stop, the complete function activation warning notification image CK may be displayed superimposed on the front of the chance performance image or the small win pattern image. In this case, the complete function activation warning notification image CK is displayed in a transparent state, so both the chance performance image and the small win pattern image can be seen.

As shown in FIG. 75, at the timing T2 during the fixed stop display of the small win symbol (symbol fixed time), when the complete function activation condition is met (the counter value of the reference value counter reaches the second reference value of "95000") and the complete function activation flag is turned ON, the complete function activation advance notification is terminated and the complete function activation advance notification is executed. The execution of the complete function activation notification is deferred until the big win game is finished via the small win game.

Specifically, as shown in Fig. 76 (3A), the complete function operation warning notification image CK is erased, and the complete function operation advance notification image CY is displayed in a state where it is superimposed on the front of the small win pattern image. Since the complete function operation advance notification image CY is displayed in a transparent state, the small win pattern image can also be seen.
The first right-hit image 16h (first operation presentation) continues to be displayed visibly in a display area that does not overlap with the notification image CY predicting the activation of the complete function until the notification image CS of the activation of the complete function is displayed.

As shown in Figure 75, the complete function activation notice continues to be issued even during small win play.

Specifically, as shown in FIG. 76 (4A), during a small win game, the complete function activation notice image CY is displayed superimposed on the front of the opening performance OP image. Next, as shown in FIG. 76 (5A), during a small win game, the complete function activation notice image CY is displayed superimposed on the front of the V winning promotion image 16VH (fourth operation performance) and the gate pass prompt image 16GH (fifth operation performance). The complete function activation notice image CY is displayed in a transparent state, so both the V winning promotion image 16VH (fourth operation performance) and the gate pass prompt image 16GH (fifth operation performance) are visible.

As shown in FIG. 75, when the game ball passes through the specific area 14e (V entry) at the timing of T3, the condition device is activated, and a jackpot game (a second type jackpot game) that is an extension of the small jackpot game is executed after the small jackpot game ends. The completion function activation advance notification is executed continuously.

Specifically, as shown in FIG. 76 (6A), during a small win game, the complete function activation notice image CY is displayed superimposed on the front of the V winning notice image 16V and the gate pass prompt image 16GH (fifth operation effect). The complete function activation notice image CY is displayed in a transparent state, so both the V winning notice image 16V and the gate pass prompt image 16GH (fifth operation effect) can be seen.

As shown in FIG. 76 (7A), after the small win game ends, the complete function activation notice image CY is displayed superimposed on top of the gate passage prompting image 16GH (fifth operation effect). Since the complete function activation notice image CY is displayed in a transparent state, the gate passage prompting image 16GH (fifth operation effect) can also be seen.

As shown in FIG. 75, when the game ball passes through the gate 12 at the timing of T4, the role link device (the role continuous operation device) is activated and a round of play begins. The complete function operation advance notification is continued even during the round of play.

Specifically, as shown in FIG. 76 (8A), during a round of play, the complete function activation warning notification image CK is displayed superimposed on the front of the round performance RD image and the large prize opening prize promotion image 16AH (third operation performance). The complete function activation advance notification image CY is displayed in a transparent state, so both the round performance RD image and the large prize opening prize promotion image 16AH (third operation performance) can be seen.

As shown in FIG. 75, at timing T5, the round play ends and the ending play begins. The complete function activation advance notification continues to be executed during the ending play.

Specifically, as shown in FIG. 76 (9A), during ending play, the complete function activation warning notification image CK is displayed superimposed on the front of the ending performance RD image (text image of "TOTAL 12525pt"). The complete function activation advance notification image CY is displayed in a transparent state, so the ending performance RD image can also be seen.

As shown in FIG. 75, at the timing T5, when the ending game ends, the notification of the completion function activation is terminated, the completion function activation notification is executed, and the functions related to the progress of the game are stopped.

Specifically, as shown in FIG. 76 (10A), the complete function activation advance notification image CY and the first right-hit image 16h (first operation effect) disappear, and the complete function activation notification image CS is displayed on the entire screen of the display unit.

(The conditions for the complete function to operate are met during the opening game.)
FIG. 77 is a timing chart showing a case where the complete function activation condition is met during the opening game.
FIG. 78 shows an example of a presentation in which a notification image regarding the complete function is displayed during the opening game.

As shown in FIG. 77, at the timing T0, the complete function operation warning notification has been executed before the timing T0, and therefore the complete function operation warning notification is continuously executed.
At the timing T0, the counter value of the reference value counter is equal to or greater than "94900".

As shown in Figure 78 (1), the complete function activation warning notification image CK is displayed in front of the changing display image and background image of the currently displayed performance pattern 16a, in a display area near the top center of the display section.
Further, since the remaining value display of the reference value counter of the complete function operation warning notification image CK is "100", the entire notification image CK is displayed flashing.

As shown in FIG. 78 (2), during a normal reach performance, the complete function activation warning notification image CK is flashing in front of the normal reach performance image and in a display area near the top center of the display section that does not overlap with the normal reach performance image.

As shown in Figures 78 (3) and (4), during the SP reach performance and the SPSP reach performance, the complete function activation warning notification image CK is flashing in front of the SP/SPSP reach performance image and in the display area near the top center of the display unit where it overlaps with part of the SP/SPSP reach performance image.

As shown in FIG. 77, at timing T1, the jackpot symbol is displayed as a confirmed stop. The complete function activation warning notification continues even while the jackpot symbol is displayed as a confirmed stop.

Specifically, as shown in FIG. 78 (5), while the jackpot pattern is displayed in a confirmed stopped state, the complete function activation warning notification image CK is flashing in a display area near the top center of the display unit, in front of the jackpot pattern image and the first right-hit image 16h (first operation presentation) and not overlapping with the jackpot pattern image and the first right-hit image 16h (first operation presentation).
In addition, during the SP/SPSP reach effect or the fixed stop display of the big win symbol, the complete function operation warning notification image CK may be displayed in a state where it is superimposed on the front of the SP/SPSP reach effect image or the big win symbol image. In this case, since the complete function operation warning notification image CK is displayed in a transparent state, both the SP/SPSP reach effect image and the big win symbol image can be seen.

As shown in FIG. 77, the opening game starts at timing T2. The complete function activation warning notification continues during the opening game.

Specifically, as shown in FIG. 78(6), during the opening game, the complete function activation warning notification image CK is displayed in a flashing manner in front of the opening performance OP image and the first right hit image 16h (first operation performance) and in a display area near the top of the display unit that does not overlap with the first right hit image 16h (first operation performance). Next, as shown in FIG. 78(7), the complete function activation warning notification image CK is displayed in a flashing manner in front of the second right hit image 16H1 (second operation performance) and in a display area near the top of the display unit that does not overlap with the second right hit image 16H1 (second operation performance).

In addition, during the opening game, the complete function activation warning notification image CK may be displayed superimposed on the front of the opening performance OP image and the second right-hit image 16H1 (second operation performance). Since the complete function activation warning notification image CK is displayed in a transparent state, both the opening performance OP image and the second right-hit image 16H1 (second operation performance) can be seen.

As shown in FIG. 77, at the timing of T3 during the opening game, when the complete function activation condition is met (the counter value of the reference value counter reaches the second reference value of "95,000") and the complete function activation flag is turned ON, the complete function activation warning notification is terminated and the complete function activation advance notification is executed. Execution of the complete function activation notification is postponed until the jackpot game is finished.

Specifically, as shown in Fig. 78 (7A), during the opening game, the complete function operation warning notification image CK disappears, and the complete function operation notice notification image CK is displayed in a state where it is superimposed on the front of the second right hit image 16H1 (second operation presentation). Since the complete function operation notice notification image CY is displayed in a transparent state, the second right hit image 16H1 can also be seen.
The first right-hit image 16h (first operation presentation) is visibly displayed in a display area that does not overlap with the complete function activation preview notification image CY until the complete function activation notification image CS is displayed.

As shown in FIG. 77, when the game ball passes through the gate 12, the role link device (the role continuous operation device) is activated and a round of play begins. The complete function operation advance notification continues to be executed during the round of play.

Specifically, as shown in FIG. 78 (8A), during a round of play, the complete function activation warning notification image CK is displayed superimposed on the front of the round performance RD image and the large prize opening prize promotion image 16AH (third operation performance). The complete function activation advance notification image CY is displayed in a transparent state, so both the round performance RD image and the large prize opening prize promotion image 16AH (third operation performance) can be seen.

As shown in FIG. 77, at timing T4, the round play ends and the ending play begins. The complete function activation advance notification continues to be executed during the ending play.

As shown in FIG. 78 (9A), during ending play, the complete function activation notice image CY is displayed in the display area in the center of the display unit, superimposed on top of the ending performance RD image (text image of "TOTAL 0615pt"). The complete function activation notice image CY is displayed in a transparent state, so the ending performance RD image can also be seen.

As shown in FIG. 77, when the ending game ends at timing T5, the complete function activation advance notification is terminated, the complete function activation notification is executed, and the functions related to the progress of the game are stopped.

Specifically, as shown in FIG. 78 (10A), the complete function activation advance notification image CY and the first right-hit image 16h (first operation effect) disappear, and the complete function activation notification image CS is displayed on the entire screen of the display unit.

(The conditions for the complete function to operate are met during a round of play.)
FIG. 79 is a timing chart showing a case where the complete function activation condition is met during a round of play.
FIG. 80 shows an example of a presentation when a notification image regarding the complete function is displayed during a round of play.

As shown in FIG. 79, at the timing T0, the complete function operation warning notification has been executed before the timing T0, and therefore the complete function operation warning notification is continuously executed.
At the timing T0, the counter value of the reference value counter is equal to or greater than "94900".
Incidentally, since (1) to (7) in FIG. 80 are similar to (1) to (7) in FIG. 78, the description thereof will be omitted.

As shown in FIG. 79, when the game ball passes through the gate 12 at the timing of T2, the role link device (the role continuous operation device) is activated and a round of play begins. The complete function operation advance notification continues to be executed during the round of play.

Specifically, as shown in FIG. 80 (8), during a round of play, the complete function activation warning notification image CK is flashing in front of the round performance RD image and the large prize opening winning promotion image 16AH (third operation performance) and in a display area near the top end of the display unit that does not overlap with any part of the round performance RD image or the large prize opening winning promotion image 16AH (third operation performance).

In addition, during a round of play, the complete function activation warning notification image CK may be displayed superimposed on top of the round performance RD image and the large prize opening winning promotion image 16AH (third operation performance). The complete function activation notice image CY is displayed in a transparent state, so both the round performance RD image and the large prize opening winning promotion image 16AH can be seen.

As shown in FIG. 79, during a round of play at the timing of T3, when the complete function activation condition is met (the counter value of the reference value counter reaches the second reference value of "95,000") and the complete function activation flag is turned ON, the complete function activation warning notification is terminated and a complete function activation notice is issued. Execution of the complete function activation notification is postponed until the end of the jackpot game.

Specifically, as shown in Fig. 80 (8A), during a round game, the complete function operation warning notification image CK disappears, and the complete function operation advance notification image CY is displayed in a state where it is superimposed on the front of the round performance RD image and the large prize opening winning promotion image 16AH. Since the complete function operation advance notification image CY is displayed in a transparent state, both the round performance RD image and the large prize opening winning promotion image 16AH can be seen.
The first right-hit image 16h (first operation presentation) is displayed visibly in a display area that does not overlap with the complete function activation preview notification image CY until the complete function activation notification image CS is displayed.

As shown in FIG. 79, at timing T4, the round play ends and the ending play begins. The complete function activation advance notification continues even during the ending play.

Specifically, as shown in FIG. 80 (9A), even during ending play, the complete function activation notice image CY is displayed superimposed on top of the ending performance RD image (text image of "TOTAL 0615pt"). The complete function activation notice image CY is displayed in a transparent state, so the ending performance RD image can also be seen.

As shown in FIG. 79, when the ending game ends at timing T5, the advance notification of the completion function operation is terminated, a notification of the completion function operation is issued, and functions related to the progress of the game are stopped.

Specifically, as shown in FIG. 80 (10A), the complete function activation advance notification image CY and the first right-hit image 16h (first operation effect) disappear, and the complete function activation notification image CS is displayed on the entire screen of the display unit.

(The condition for the completion function to operate is met while the left-hand shot image is displayed.)
Figure 81 shows an example of a presentation in which an notification image for the operation of the complete function is displayed while a left-hit image is being displayed.
When the game is controlled in the time-saving game state, the complete function activation warning condition is met (the counter value of the reference value counter reaches a first reference value of "90,000") and a complete function activation warning notification is executed, after which the counter value of the reference value counter is updated to "94,900" or more, the remaining value display of the reference value counter in the complete function activation warning notification image CK is updated to "100", and the entire notification image CK flashes.

After that, as shown in FIG. 81 (2), while the losing symbol is displayed as confirmed and stopped, the complete function activation warning notification image CK is flashing in a display area near the top center of the display unit, in front of the losing symbol image and the first right hit image 16h (first operation presentation) and not overlapping with the losing symbol image and the first right hit image 16h (first operation presentation).

As shown in FIG. 81 (3), while a text image is being displayed to notify that the time-saving mode has ended, a notification image CK for warning that the complete function is activated is flashing in a display area near the top center of the display unit, in front of the text image and the first right-hit image 16h (first operation display) and not overlapping with the text image and the first right-hit image 16h (first operation display).

As shown in FIG. 81 (4), while the text image "TOTAL 00515pt" is displayed, indicating the number of game balls acquired (paid out) during the time-saving mode, the complete function activation warning notification image CK is displayed in a flashing manner in front of the text image and in the display area near the top center of the display unit, not overlapping with the text image.

As shown in Figure 81 (5), when the game is controlled from the time-saving game state to the normal game state, and while the left-hit image 16H2 (seventh operation display) is displayed, the complete function activation warning notification image CK is flashing in a display area near the top center of the display unit, in front of the left-hit image 16H2 (seventh operation display) and not overlapping with the left-hit image 16H2 (seventh operation display).
The complete function activation warning notification image CK may be displayed in a state where it is superimposed on the left hit image 16H2 (seventh operation presentation). In this case, the complete function activation warning notification image CK is displayed in a transparent state, so that the left hit image 16H2 can also be seen.

As shown in FIG. 81 (6), if the complete function activation condition is met (the counter value of the reference value counter reaches the second reference value of "95,000") while the left hit image 16H2 (seventh operation presentation) is being displayed, the complete function activation flag is turned ON and a complete function activation notification is executed. Specifically, the complete function activation warning notification image CK and the left hit image 16H2 disappear from the screen, and the complete function activation notification image CS is displayed.

In addition, in the time-saving play state after the end of a jackpot game, if the complete function activation condition is met (the counter value of the reference value counter reaches the second reference value of "95,000") while the pattern change display of a miss or jackpot is on, the complete function activation warning notification image CK, the display of the first right-hit image 16h (first operation presentation), and the pattern change display image will disappear, and the complete function activation notification image CS will be displayed.

This embodiment is not limited to pachinko gaming machines, but can also be used in reel-type gaming machines (so-called slot machines). Furthermore, it can also be used in jan-ball gaming machines and arrange-ball gaming machines.

The embodiments disclosed herein should be considered to be illustrative and not restrictive in all respects. The scope of the present invention is indicated by the claims, not by the above description, and is intended to include all modifications within the meaning and scope of the claims.

1 Gaming machine 7 Launch handle 16 Image display device 130 Presentation control board 130m Presentation control unit 16h First operation presentation 16H1 Second operation presentation 16AH Third operation presentation 16VH Fourth operation presentation 16GH Fifth operation presentation 16H2 Seventh operation presentation

Claims (1)

A game control means for controlling the progress of a game;
An operation means operated by a player;
The presenter is provided with a performance execution means capable of executing a performance display on the display means according to the progress of the game and a performance operation of a performance part between a retreat position and an advance position ,
The game control means includes:
a game information updating means for updating a specific value which is a value derived based on the amount of game value given to a player as the game progresses and the amount of game value used, the specific value being an increase in the game value from a reference value based on the time when the game value was most decreased when the game result was obtained after the power was turned on;
and a game stop means for stopping the variation of the special symbols and stopping the progress of the game when a specific condition is satisfied in which the specific value updated by the game information update means reaches a predetermined value ,
The performance execution means includes:
A predetermined operation performance suggesting an operation mode of the operating means, a predetermined notification performance corresponding to the specific value , and a role performance in which the role performance performs a performance operation can be executed;
In a first event in the progress of a game, a first operation presentation is executed, and then a second operation presentation and a third operation presentation are executed;
In a second event in the progress of the game, a fourth operation presentation is executed without executing either the second operation presentation or the third operation presentation ;
When the specific condition is satisfied during execution of the fourth operation presentation, a first notification presentation notifying the player of the stop of the game progress becomes visible to the player, and the fourth operation presentation becomes invisible to the player;
When the specific condition is satisfied during the execution of the second operation presentation, the second operation presentation is continued and a second notification presentation different from the first notification presentation is executed, and the second operation presentation and the second notification presentation are visible to the player,
When the specific condition is satisfied while the reel performance is being performed during execution of the first operation performance, the first notification performance becomes visible to the player, and the reel performance is returned to the retreated position using specific operation data different from the operation data used when executing the reel performance under normal circumstances, and the first operation performance becomes invisible to the player .

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