JP7486834B2 - Gaming Machines - Google Patents

Description

This invention relates to gaming machines.

In the past, some gaming machines, such as the one described in Patent Document 1, would enter an unplayable state in which it was impossible to continue playing the game if the set value did not match the stored and used set value. To end the unplayable state, at the very least, the power supply must be stopped.

JP 2020-081443 A

However, when a game becomes unplayable, control other than that related to the unplayable state is not executed, which may reduce convenience.

A gaming machine that solves the above problem is a gaming machine that can be controlled to a game progress disabled state in which it is impossible to progress a game, and when controlled to the game progress disabled state, at least the power supply needs to be stopped in order to end the game progress disabled state, the gaming machine comprises: a disable control means for controlling to the game progress disabled state, a display means, a history display control means capable of executing a history information display control for displaying history information based on a game history on the display means, and a remaining value presentation means capable of executing a remaining value presentation, the game progress disabled state includes a specific game progress disabled state and a non-specific game progress disabled state different from the specific game progress disabled state, and when at least in the specific game progress disabled state, the history display control means is capable of executing the history information display control, The gist of the invention is that when the non-specific game cannot be progressed, the history display control means is unable to execute the history information display control, the specific game cannot be progressed state is controllable when a value identifiable from special information reaches a specified value, the remaining value presentation is a presentation that is capable of identifying the remaining value until the value identifiable from the special information reaches the specified value, the remaining value presentation means is capable of executing the remaining value presentation when the value identifiable from the special information reaches a first value that is less than the specified value , and after executing the remaining value presentation, is capable of continuing to execute the remaining value presentation until the value identifiable from the special information becomes equal to or less than a second value that is less than the first value, and the remaining value presentation is not executed when the value identifiable from the special information becomes equal to or less than the second value.

The present invention makes it possible to prevent a decrease in convenience.

FIG. 2 is a diagram showing the front side of the slot machine. FIG. FIG. 13A and 13B are diagrams showing an example of the display content of the performance display device when a setting operation performance is executed. (a) is a figure showing an example of the display content of the performance display device when a history display notification performance is executed, and (b) is a figure showing an example of the display content of the performance display device when history information is displayed. 13A and 13B are diagrams showing an example of the display content of the performance display device when selecting whether to allow control into power saving mode. FIG. 2 is a diagram showing an electrical configuration of the slot machine. 10 is a flowchart showing a main power shutoff process. 10 is a flowchart showing a sub-power supply shutoff process. 10 is a flowchart showing a main power supply recovery process. 13 is a flowchart showing a first game disablement process. 10 is a flowchart showing a secondary power supply recovery process. 13 is a flowchart showing a game progress process. 13 is a flowchart showing a second game disablement process. 13 is a flowchart showing a third game disablement process. A figure showing an example of the display content of a performance display device when various errors are detected. A figure showing an example of the display content of the performance display device when the first game disablement process is performed. A figure showing an example of the display content of the performance display device when the second game disablement process is performed. A figure showing an example of the display content of the performance display device when the third game disablement process is performed. A figure showing an example of the display content of the performance display device when a remaining number notification image is displayed. (a) is a figure showing an example of the display content of the performance display device when a settlement in progress image is displayed, and (b) is a figure showing an example of the display content of the performance display device when a warning image is displayed. This figure shows an example of executable control and unexecutable control in each of the following states: a state in which game progress is possible, a state in which progress is not possible in the first processing, a state in which progress is not possible in the second processing, and a state in which progress is not possible in the third processing. 13 is a flowchart showing a second game disable process in the second embodiment. 13 is a flowchart showing a third game disablement process in the second embodiment. A figure showing an example of the display content of the performance display device when an automatic settlement image is displayed in the second embodiment. A figure showing examples of control that can be executed and control that cannot be executed in each state when a door opening error occurs, when a deposit error occurs, and when a dispensing error occurs in the third embodiment.

First Embodiment
Hereinafter, a first embodiment of a slot machine (a so-called reel type gaming machine) which is a type of gaming machine will be described. In this specification, the terms up, down, left, right, front (front), and rear refer to the respective directions as seen by a player playing on the slot machine.

FIG. 1 shows a slot machine 10 as a gaming machine, and a sand unit SU that is provided together with the slot machine 10 in an island facility of an amusement arcade.
The sandwich unit SU is provided with an insertion/return port SUa for inserting a prepaid card as a storage medium. The sandwich unit SU is provided with a return button SUb that is operated when returning an inserted prepaid card. When the return button SUb is operated, the prepaid card is returned from the insertion/return port SUa. For example, the card balance as a value that can be used for playing and the number of medals that have been acquired are stored in the prepaid card. The sandwich unit SU is also provided with a lending button SUc that is operated when lending medals as a game medium. The sandwich unit SU is provided with a medal lending outlet SUd from which medals to be lent are discharged. When the lending button SUc is operated when there is value stored in the prepaid card, medals are discharged from the medal lending outlet SUd. The medals correspond to game value that can be used for playing. The sandwich unit SU may also be provided with a bill insertion port for inserting bills. Then, the card balance of the prepaid card increases according to the bills inserted from the bill insertion port.

The slot machine 10 includes a main cabinet 11 in the shape of a square box. The main cabinet 11 includes an opening (not shown) on the front side. The slot machine 10 includes a front door 12 that covers the opening of the main cabinet 11. The front door 12 as a door member is supported on the main cabinet 11 so as to be openable and closable. The slot machine 10 includes a door open sensor SEa that can detect that the front door 12 is open (shown in FIG. 7). The opening of the front door 12 corresponds to a door open error related to the opening of the door member. The door open sensor SEa corresponds to an open detection means that can detect that the door member is open. The specific error includes a door open error. The specific error detection means that detects the specific error includes the door open sensor SEa. The slot machine 10 includes a locking unit SJ. In the slot machine 10, the locking unit SJ restricts the opening of the front door 12. In the slot machine 10, for example, the locking unit SJ can be unlocked by turning it clockwise using a key managed by the manager of the amusement facility, and the front door 12 can be opened.

The slot machine 10 is provided with a decorative lamp 13 on the front door 12 as a light-emitting means capable of emitting light. The slot machine 10 is provided with a speaker 14 on the front door 12 as a sound output means capable of outputting sounds such as sound effects and music. The slot machine 10 is provided with a performance display device 15 on the front door 12 as a display means capable of displaying images that resemble characters, letters, etc. For example, a liquid crystal display or an organic EL display can be used as the performance display device 15. The slot machine 10 is provided with a substantially rectangular display window 12a in front of the front door 12 and below the performance display device 15. The display window 12a is made of, for example, a colorless and transparent resin material. In this embodiment, some or all of the performance devices among the decorative lamp 13, the speaker 14, and the performance display device 15 correspond to the performance execution means.

The slot machine 10 is provided with an effect button BT on the front door 12 that can be operated by the player. The effect button BT is an operation means that is operated when a specific effect is executed or when a specific effect is to be executed, and is an operation means that can be operated by the player. The slot machine 10 is also provided with an upper button Ba on the front door 12 that can be operated by the player. Similarly, the slot machine 10 is provided with a lower button Bb on the front door 12 that can be operated by the player. Although details will be described later, in the slot machine 10, it is possible to adjust the volume of at least a portion of the sounds output from the speaker 14 by operating at least one of the buttons Ba and Bb. For this reason, the buttons Ba and Bb are operation means that are operated when adjusting the volume, and are operation means that can be operated by the player.

The slot machine 10 includes a reel unit 16. The reel unit 16 is arranged inside the machine so that the player can see it through the display window 12a. The reel unit 16 includes a left reel 16a (first reel), a center reel 16b (second reel), and a right reel 16c (third reel). The reels 16a to 16c are also called drums. Thus, the slot machine 10 includes a plurality of reels. The reels 16a to 16c each include a pattern row along their outer periphery, in which a plurality of patterns are arranged in a distinguishable manner. The pattern row is provided by wrapping a strip-shaped translucent film on which a plurality of patterns are printed along the longitudinal direction around the outside of the reels 16a to 16c. Each of the pattern rows of the reels 16a to 16c includes 21 patterns. There are a plurality of types of patterns. For example, the multiple types of symbols include a cherry symbol that imitates a cherry, a watermelon symbol that imitates a watermelon, a bell symbol that imitates a bell, a red seven symbol that imitates a red "7", a white seven symbol that imitates a "7", and a replay symbol that imitates the word "REPLAY". In this way, each of the reels 16a to 16c has multiple symbols.

The reel unit 16 includes an actuator for driving the left reel 16a, an actuator for driving the center reel 16b, and an actuator for driving the right reel 16c. For example, a stepping motor can be used as the actuator for driving the reels 16a to 16c. The reels 16a to 16c can be rotated and stopped vertically independently of each other by the actuators provided corresponding to each of them. In the slot machine 10, when the reels 16a to 16c rotate, the pattern row (multiple types of patterns) visible through the display window 12a is changed, and a variation game is executed. For example, the variation of the pattern row is performed in a manner in which the pattern row is scrolled vertically from top to bottom. In this way, the slot machine 10 is configured to be able to execute a variation game in which the multiple reels 16a to 16c rotate. The reel unit 16 also includes a left reel sensor SE1 for detecting the rotational position of the left reel 16a, a center reel sensor SE2 for detecting the rotational position of the center reel 16b, and a right reel sensor SE3 for detecting the rotational position of the right reel 16c (shown in FIG. 7).

The display window 12a is large enough to display three consecutive symbols in the circumferential direction on the reels 16a to 16c. An upper stop position, a middle stop position, and a lower stop position are set in the display window 12a for each of the reels 16a to 16c. When the reels stop spinning, one symbol is displayed at each of the upper stop position, the middle stop position, and the lower stop position. The symbols stopped at each stop position can be seen through the display window 12a, and the symbols are displayed in the display window 12a. In other words, when some or all of the reels 16a to 16c stop spinning, a total of three symbols stopped at at least the upper stop position, the middle stop position, and the lower stop position among the multiple symbols of the reels that have stopped spinning can be seen through the display window 12a.

In the slot machine 10, a combination of valid stop positions that can determine that the stopped symbol combination is a winning combination is set by a combination of stop positions selected one by one from the three stop positions set for each reel 16a to 16c. In the following explanation, a line connecting multiple stop positions that make up a valid combination of stop positions is simply referred to as an "active line YL." In this embodiment, the active line YL (a combination of valid stop positions) is made up of each of the middle stop positions of the reels 16a to 16c. The active line YL is also called a winning line.

Here, "stopped" with respect to the symbols means that the symbols are stopped in the display window 12a, i.e., at one of the upper, middle, or lower stop positions, and are displayed so as to be visible to the player. Also, "winning" means that a symbol combination for which a prize is determined is displayed on the winning line YL. In the slot machine 10, when a prize is won, the prize determined for the winning symbol combination is awarded. Note that combinations other than the valid stop position combinations are invalid stop position combinations (so-called invalid lines) in which the displayed symbol combination cannot be determined as a winning combination. Hereinafter, "game result derived in the variable game" corresponds to a symbol combination that is stopped on the winning line YL in the variable game.

The slot machine 10 has a medal insertion port 17 for inserting medals on the front of the front door 12. The slot machine 10 has a medal selector inside the machine. The medal selector has an insertion sensor SE4 that detects medals inserted from the medal insertion port 17 (shown in FIG. 7). The medal selector also has a selector sensor SE5 that detects medals jammed in the medal selector (shown in FIG. 7). A medal jammed in the medal selector corresponds to an insertion error related to the insertion of game media. In this embodiment, the selector sensor SE5 functions as an insertion error detection means that detects an insertion error. In the following description, "a medal jammed in the medal selector" may be referred to as an "insertion error". For example, an insertion error corresponds to a medal jammed in the medal selector. The insertion sensor SE4 may have the function of detecting an insertion error performed by the selector sensor SE5.

The slot machine 10 has a bet button 18 on the front of the front door 12. The bet button 18 is a means for betting medals from credits stored internally in the slot machine 10. The bet button 18 is an operating means operated when betting medals from credits. The bet button 18 can be operated by a player. Credits correspond to medals stored internally. The slot machine 10 can store game value as data by storing medals as credits. Furthermore, betting medals corresponds to betting medals. Note that in the slot machine 10, it is also possible to bet medals by inserting medals into the medal insertion slot 17. In the slot machine 10, by betting medals, medals are consumed and a variable game can be executed. For example, in the slot machine 10, a variable game can be executed by consuming medals stored as credits. That is, the slot machine 10 of this embodiment is configured to be able to execute a variable game by consuming game value stored as data.

The slot machine 10 has a settlement button 19 on the front of the front door 12 as an operable settlement operation means. The settlement button 19 is a means that is operated when paying back bet medals and internally stored credits. In other words, the settlement button 19 is an operation means that is operated when settling bet medals and credits. The settlement button 19 can be operated by the player.

The slot machine 10 is provided with a start lever 20 as a start operation unit on the front of the front door 12. The start lever 20 is a means for performing a start operation to start the rotation of the reels 16a to 16c. In other words, the acceptance of the start operation triggers the start of the variable game. In this way, the start lever 20 is an operation means operated when starting the variable game. The start lever 20 can be operated by the player. The operation of the start lever 20 to start the variable game can be said to be a start operation. In the slot machine 10, the variable game is started based on the start operation.

The slot machine 10 is provided with a left stop button 21 (first stop button) on the front of the front door 12. The left stop button 21 corresponds to the left reel 16a and is an operating means for performing a stop operation to stop the rotation of the left reel 16a. The slot machine 10 is provided with a center stop button 22 (second stop button) on the front of the front door 12. The center stop button 22 corresponds to the center reel 16b and is an operating means for performing a stop operation to stop the rotation of the center reel 16b. The slot machine 10 is provided with a right stop button 23 (third stop button) on the front of the front door 12. The right stop button 23 corresponds to the right reel 16c and is an operating means for performing a stop operation to stop the rotation of the right reel 16c. The stop buttons 21 to 23 can be operated by the player.

The stop buttons 21 to 23 correspond to the multiple symbol rows respectively. The stop buttons 21 to 23 each correspond to a stop operation unit. In this way, the slot machine 10 is configured to be able to stop the rotation of the reels when the stop button is operated. The operation of the stop button to stop the reels while they are rotating can be said to be a stop operation. In the slot machine 10, the rotation of the reels is stopped based on the stop operation. As described above, the slot machine 10 has the stop buttons 21 to 23 as multiple stop operation means corresponding to the multiple reels 16a to 16c respectively. In the following description, the first stop operation of the stop buttons 21 to 23 may be referred to as the first stop operation, the second stop operation as the second stop operation, and the third stop operation as the third stop operation.

There are six different operating sequences (hereafter referred to as push sequences) of the stop buttons 21-23, from the first to sixth push sequences, in which the stop buttons for the first, second, and third stop operations are different. The first push sequence is a sequence in which the stop buttons 21-23 are operated so that the left reel 16a, center reel 16b, and right reel 16c are stopped in this order. The second push sequence is a sequence in which the stop buttons 21-23 are operated so that the left reel 16a, right reel 16c, and center reel 16b are stopped in this order. The third push sequence is a sequence in which the stop buttons 21-23 are operated so that the center reel 16b, left reel 16a, and right reel 16c are stopped in this order. The fourth push sequence is a sequence in which the stop buttons 21-23 are operated so that the center reel 16b, right reel 16c, and left reel 16a are stopped in this order. The fifth push order is the push order of the stop buttons 21 to 23 to stop the rotation of the right reel 16c, left reel 16a, and center reel 16b in that order. The sixth push order is the push order of the stop buttons 21 to 23 to stop the rotation of the right reel 16c, center reel 16b, and left reel 16a in that order.

The slot machine 10 has a payout outlet 26 at the bottom of the front surface of the front door 12. The slot machine 10 has a tray 27 for receiving medals paid out from the payout outlet 26.
The slot machine 10 includes a hopper unit HU inside the machine, which is capable of performing a payout operation to pay out medals from a payout opening 26 (shown in FIG. 7). The hopper unit HU includes a hopper sensor SE6 that detects when medals stored in the hopper unit HU are exhausted. When medals stored in the hopper unit HU are exhausted, this corresponds to a payout error related to the payout of game media. In this embodiment, the hopper sensor SE6 functions as a payout error detection means that detects a payout error. In the following description, "when medals stored in the hopper unit HU are exhausted" may be referred to as a "payout error". For example, when a payout error occurs, this corresponds to when medals stored in the hopper unit HU are exhausted.

The slot machine 10 is provided with an information panel 30 on the front surface of the front door 12, which can display predetermined information.
As shown in FIG. 2, the information panel 30 includes an insertion possible lamp 31. The insertion possible lamp 31 can be turned on or off. The insertion possible lamp 31 suggests or notifies whether the slot machine 10 is in a state in which medals can be inserted, depending on whether it is turned on or off. Specifically, in the slot machine 10, the insertion possible lamp 31 can suggest or notify, by being turned on, that medals can be inserted, that is, that the number of medals stored as credits can be increased. As described above, in the slot machine 10, medals can be bet by inserting medals into the medal insertion slot 17. Therefore, it can be said that the insertion possible lamp 31 can suggest or notify, by being turned on, that medals can be bet.

The information panel 30 is equipped with a replay lamp 32. The replay lamp 32 can be turned on or off. Depending on whether the replay lamp 32 is lit or not, the replay lamp 32 suggests or notifies whether or not a replay (replay) has occurred, that is, whether or not a replay (replay) has been activated. Specifically, in the slot machine 10, the replay lamp 32 can suggest or notify that a replay has been activated by turning on.

The information panel 30 includes a start lamp 33. The start lamp 33 can be turned on or off. Depending on whether the start lamp 33 is turned on or off, the start lamp 33 suggests or notifies whether or not it is possible to start the execution of the variable game. Specifically, in the slot machine 10, the start lamp 33 can suggest or notify that it is possible to start the execution of the variable game by turning on.

The information panel 30 is equipped with a favorable zone lamp 34. The favorable zone lamp 34 can be turned on or off. The favorable zone lamp 34 suggests or notifies whether or not it is in a favorable zone depending on whether it is lit or not. Specifically, in the slot machine 10, the favorable zone lamp 34 can suggest or notify whether it is in a favorable zone by lighting it.

The information panel 30 includes a bet display section 35. The bet display section 35 is composed of a 1-bet light-emitting section 35a, a 2-bet light-emitting section 35b, and a 3-bet light-emitting section 35c. The bet display section 35 indicates or notifies the number of medals bet (bet number), that is, the set bet, by whether or not each of the light-emitting sections 35a to 35c is lit. Specifically, in the slot machine 10, when the set bet is "1 coin", the 1-bet light-emitting section 35a is lit, while the light-emitting sections 35b and 35c are turned off. In the slot machine 10, when the set bet is "2 coins", the light-emitting sections 35a and 35b are lit, while the 3-bet light-emitting section 35c is turned off. In the slot machine 10, when the set bet is "3 coins", all the light-emitting sections 35a to 35c are lit. Incidentally, in the slot machine 10, when the set bet is "0 coins", all the light-emitting sections 35a to 35c are turned off. In this way, the odds display unit 35 indicates or notifies the set odds depending on whether each of the light-emitting elements 35a to 35c that make up the odds display unit 35 is lit, that is, the contents of the odds display unit 35. Note that the "odds (bet number)" is sometimes also called the "wager number."

The information panel 30 includes a credit display unit 36. The credit display unit 36 is composed of, for example, two seven-segment displays. The credit display unit 36 displays the number of medals stored as credits within the machine.

The information panel 30 includes a payout display unit 37. The payout display unit 37 is configured, for example, with two seven-segment displays. The payout display unit 37 displays information about the number of medals to be paid out when a winning combination occurs in the variable game. Furthermore, the payout display unit 37 displays instruction information, which is information about the operation mode of the stop buttons 21 to 23 that is recommended to derive a predetermined symbol combination (game result) in the variable game being executed. "Information about the operation mode of the stop buttons 21 to 23" includes, for example, information about the operation sequence (press order) of the stop buttons 21 to 23 and information about symbols that are recommended to be stopped by operating the stop buttons 21 to 23 in the variable game. Information about symbols that are recommended to be stopped by operating the stop buttons 21 to 23 in the variable game can also be said to be information about the pressing position.

Next, the symbol combinations for which prizes are determined will be described.
A symbol combination with a determined prize is also called a "role." Symbol combinations with determined prizes (roles) include symbol combinations that determine the payout of medals as a prize (payout role) and symbol combinations that determine replay as a prize (replay role). Replay means that the next variable game can be started without the need to bet medals. Replay roles are also called replay roles. Payout roles include, for example, a cherry role, a watermelon role, a bell role, and a single coin role.

For the cherry role, a payout of a predetermined number of medals (e.g., 3 medals) is set as a prize. In the following description, the symbol combination that stops on the effective line YL when the cherry role wins is referred to as a "cherry stop". For the watermelon role, a payout of a predetermined number of medals (e.g., 5 medals) is set as a prize. In the following description, the symbol combination that stops on the effective line YL when the watermelon role wins is referred to as a "watermelon stop". For the bell role, a payout of a predetermined number of medals (e.g., 15 medals) is set as a prize. In the following description, the symbol combination that stops on the effective line YL when the bell role wins is referred to as a "bell stop". For the one-piece role, a payout of a predetermined number of medals (e.g., 1 medal) is set as a prize. In the following description, the symbol combination that stops on the effective line YL when the one-piece role wins is referred to as a "bell spill stop". The number of medals paid out does not refer to the number of medals actually paid out from the payout outlet 26, but includes the number of medals added (added) as credits, and corresponds to the number of medals awarded to the player.

The prize for the replay role is a replay. In the following explanation, the symbol combination that stops on the active line YL when the replay role wins is referred to as a "replay stop symbol." In the following explanation, the symbol combination that stops on the active line YL when the replay role wins is referred to as a "replay stop symbol."

In the slot machine 10, for example, the prize determined for the payout role may be different depending on the multiplier. For example, for the bell role, the payout may be determined to be "1 coin" when the multiplier is "1 coin", "2 coins" when the multiplier is "2 coins", and "15 coins" when the multiplier is "3 coins". In addition, in the slot machine 10, for example, when a replay is activated, the same multiplier as the multiplier set in the previous variable game may be set. For example, when a replay wins in a variable game that is started when the multiplier is set to "1 coin" and the replay is activated, the multiplier may be set to "1 coin" again. For example, when a replay wins in a variable game that is started when the multiplier is set to "2 coins", and the replay is activated, the multiplier may be set to "2 coins" again. Similarly, for example, if a replay is won in a variable game that is started when the bet number is set to "3 coins" and a replay is activated, the bet number may be set to "3 coins" again.

The slot machine 10 is configured so that the gaming state can be controlled.
As shown in Fig. 3, there are multiple types of gaming states in the slot machine 10. Specifically, the gaming states in the slot machine 10 include a first normal state, a second normal state, a first advantageous state, and a second advantageous state. In the following description, the first normal state and the second normal state may be collectively referred to as the normal state, and the first advantageous state and the second advantageous state may be collectively referred to as the advantageous state. As will be described in detail later, the advantageous state is a gaming state that is more advantageous than the normal state.

In the slot machine 10, when the first normal state is reached and a transition to the advantageous zone is determined, the state transitions to the second normal state. In the slot machine 10, when the second normal state is reached and a transition to the first advantageous state is determined, the state transitions to the first advantageous state. In the slot machine 10, when the end condition of the first advantageous state is met, if the transition condition is not met (shown as not met in FIG. 3), the advantageous zone ends and the state transitions to the first normal state. On the other hand, in the slot machine 10, when the end condition of the first advantageous state is met and the transition condition is met, the state transitions to the second normal state. In addition, in the slot machine 10, when the number of variable games executed in the first advantageous state reaches "30 times", which corresponds to the specified number of times, the end condition of the first advantageous state is met. In addition, in the slot machine 10, when the second advantageous state is transitioning to the first advantageous state, or when the second normal state is transitioning to the first advantageous state and the transition to the second advantageous state is determined by lottery, the transition condition is met, and the slot machine 10 transitions to the second advantageous state after the end of the first advantageous state. In the slot machine 10, when the number of remaining stays corresponding to the remaining number of variable games that can be played in the second advantageous state reaches 0, the advantageous zone ends and the slot machine 10 transitions to the first normal state. In addition, in the slot machine 10, when the end condition of the advantageous zone is met during the advantageous zone, the advantageous zone ends and the slot machine 10 transitions to the first normal state. In the slot machine 10, when the number of executions of the variable game in the advantageous zone reaches "1500 times" corresponding to the upper limit of stays, or when the number of game media awarded in the advantageous zone reaches "2400" corresponding to the upper limit of awards, the end condition of the advantageous zone is met.

The slot machine 10 is configured so that the presentation state (presentation mode) can be controlled.
There are multiple types of presentation states in the slot machine 10. Specifically, the presentation states in the slot machine 10 include a normal presentation state, a pseudo bonus presentation state, and an advantageous presentation state. The normal presentation state is a presentation state in which the player mainly stays when the player is in the normal state. The pseudo bonus presentation state is a presentation state in which the player mainly stays when the player is in the first advantageous state. The advantageous presentation state is a presentation state in which the player mainly stays when the player is in the second advantageous state. In each presentation state, presentation state identification information that can identify the presentation state in which the player is staying is notified. The presentation state in which the player is staying corresponds to a presentation state that is being controlled. In the slot machine 10, for example, the presentation state identification information is notified by displaying a background image that differs for each type of presentation state on the presentation display device 15, by making the decorative lamp 13 emit light in a different light-emitting color for each type of presentation state, or by outputting a background sound (so-called BGM) that differs for each type of presentation state from the speaker 14. By notifying the presentation state identification information, the player can recognize the type of presentation state in which the player is staying.

In the slot machine 10, for example, an operation-related effect (hereinafter referred to as a navigation effect) is executed that suggests or notifies the operation mode of the stop button to stop a symbol combination for which a prize is determined on the pay line YL. The operation mode of the stop button suggested or notified in the navigation effect includes the order in which the stop button is pressed and the timing of the operation of the stop button. The timing of the operation of the stop button means the so-called key position for pressing. The navigation effect is also called an operation navigation effect or a press order navigation effect (press order navigation).

In the slot machine 10, in the normal presentation state, the navigation presentation is not executed with contents advantageous to the player. On the other hand, in the slot machine 10, in the pseudo bonus presentation state and in the advantageous presentation state, the navigation presentation is executed with contents advantageous to the player. That is, in the pseudo bonus presentation state and in the advantageous presentation state, the rate at which the navigation presentation is executed with contents advantageous to the player is higher than in the normal presentation state. In addition, in the slot machine 10, the navigation presentation is not executed in the normal presentation state, and the navigation presentation is executed in the pseudo bonus presentation state and in the advantageous presentation state. That is, in the slot machine 10, the rate at which the navigation presentation is executed is higher than in the normal presentation state when the pseudo bonus presentation state and in the advantageous presentation state. For this reason, the pseudo bonus presentation state and the advantageous presentation state controlled in the advantageous state can be said to be more advantageous presentation states than the normal presentation state controlled in the normal state. The pseudo bonus presentation state and the advantageous presentation state can be said to be more advantageous presentation states than the normal presentation state. The pseudo bonus effect state and the advantageous effect state are what is known as "assist time (AT)". Therefore, the advantageous state is more advantageous than the normal state.

In the slot machine 10, the set value can be set by operating the set value switch 45 (shown in FIG. 7) when power supply starts. The set value is configured in multiple stages, and any of the set values can be set. That is, in the slot machine 10, the set value can be changed by operating the set value switch 45. In this embodiment, the set values are "1" to "6". In the slot machine 10, any of "1" to "6" can be set as the set value. In the slot machine 10, the set value can be changed by operating the set value switch 45 when power supply starts. In the slot machine 10, the set value selected as the set value to be set can be changed one step at a time by operating the start lever 20 in the set value changeable state. In the slot machine 10, the set value selected when the operation of the set value switch 45 is completed in the set value changeable state is set as the set value.

In the slot machine 10, various lotteries are held under the winning probability based on the setting value. In the slot machine 10, the advantageous degree differs depending on the setting value, and the machine payout rate differs. For example, in the slot machine 10, the probability that various roles are allowed to win in the role lottery differs depending on the setting value. In addition, for example, in the slot machine 10, the probability that a transition to an advantageous zone is determined when in the first normal state differs depending on the setting value. Also, for example, in the slot machine 10, the probability that a transition to the first advantageous state is determined when in the second normal state differs depending on the setting value. For example, in the slot machine 10, the probability that a transition to the second advantageous state is determined when transitioning from the second normal state to the first advantageous state differs depending on the setting value. In the slot machine 10, the probability of being controlled to an advantageous state differs depending on the setting value, and therefore the frequency of being controlled to an advantageous state differs depending on the setting value. Incidentally, in the slot machine 10, the machine payout rate is higher and the advantageous degree is higher in the order of setting value "1" < setting value "2" < setting value "3" < setting value "4" < setting value "5" < setting value "6". In the slot machine 10, when at least one of the setting values "4" to "6" is set, it is easier to control the slot machine 10 to an advantageous state than when one of the setting values "1" to "3" is set.

The slot machine 10 is configured to be capable of executing a setting presentation that suggests or notifies the user of a set value that has been set. For example, the slot machine 10 is capable of executing a setting presentation that suggests or notifies the user of a set value when the presentation button BT is operated. In the following description, the setting presentation that suggests or notifies the user of a set value when the presentation button BT is operated is referred to as a setting operation presentation.

As shown in FIG. 4(a), when the slot machine 10 is capable of executing a setting operation presentation, an operation prompting image BG1 that prompts the user to operate the presentation button BT is displayed on the presentation display device 15. Then, as shown in FIG. 4(b), when the slot machine 10 is capable of executing a setting operation presentation and the presentation button BT is operated within an operation valid period during which operation of the presentation button BT is valid, an image BG2 relating to a setting operation presentation whose contents are determined according to the set setting value is displayed on the presentation display device 15. For example, in the slot machine 10, it is possible to guess or identify the set setting value that has been set based on the type of character displayed as the image BG2 relating to the setting operation presentation.

The slot machine 10 is configured to be capable of executing a history display effect that displays history information based on game history on the effect display device 15. The slot machine 10 employs a multidimensional code that can be read by a reading device as the history information based on game history. An example of a reading device is a smartphone. The slot machine 10 employs a two-dimensional code, which is a type of multidimensional code, as the history information. Specifically, the slot machine 10 employs a QR code (registered trademark) as the history information. Thus, in this embodiment, the history information is a multidimensional code that can be read by a reading device.

In the slot machine 10, for example, when it is controlled to an advantageous state, the number of pseudo bonus presentation states that have been controlled since it was controlled to the advantageous state may be displayed as history information. For example, in the slot machine 10, when it is controlled to an advantageous state, a history display notification presentation is executed on the presentation display device 15, which notifies the player that history information will be displayed by operating the presentation button BT. In the slot machine 10, if the presentation button BT is operated while the history display notification presentation is being executed, a two-dimensional code is displayed on the presentation display device 15 as history information.

As shown in FIG. 5(a), when the slot machine 10 is controlled to an advantageous state, a history display image RG including text information "Operate the effect button to display history information" is displayed on the effect display device 15, and a history display notification effect is executed. Then, as shown in FIG. 5(b), when the effect button BT is operated while the slot machine 10 is executing a history display notification effect, a two-dimensional code generated according to the number of pseudo bonus effect states that have been controlled since the slot machine 10 was controlled to an advantageous state is displayed on the effect display device 15.

As described above, the slot machine 10 is configured to be able to adjust the volume. The slot machine 10 is configured to be able to adjust the volume of at least some of the sounds output from the speaker 14. "Adjusting the volume" can also be understood as "adjusting the output intensity of the volume." The slot machine 10 is configured to be able to adjust the volume by operating the up button Ba or the down button Bb. That is, the slot machine 10 is configured to be able to adjust the volume by operating at least one of the up button Ba and the down button Bb. Therefore, in this embodiment, at least one of the up button Ba and the down button Bb corresponds to the operating means operated to adjust the volume.

In the following description, operating the up button Ba or the down button Bb, that is, operating at least one of the up button Ba and the down button Bb, may be expressed as "operating buttons Ba and Bb." Therefore, for example, operating buttons Ba and Bb does not necessarily mean operating both the up button Ba and the down button Bb, but also includes operating only the up button Ba and only the down button Bb.

In the slot machine 10, the volume can be adjusted from 1 to 7 levels. Therefore, in the slot machine 10, the 1st level of the volume of the sound output from the speaker 14 corresponds to the minimum volume among the adjustable volumes. When the volume is adjusted to the 1st level, it corresponds to the volume reaching the lower limit. Similarly, in the slot machine 10, the 7th level of the volume of the sound output from the speaker 14 corresponds to the maximum volume among the adjustable volumes. When the volume is adjusted to the 7th level, it corresponds to the volume reaching the upper limit.

The slot machine 10 is configured to be controllable into a power saving mode. When the slot machine 10 is controlled into the power saving mode, the brightness of the decorative lamps 13 is reduced compared to before the slot machine 10 was controlled into the power saving mode. Also, when the slot machine 10 is controlled into the power saving mode, the brightness of the backlight of the performance display device 15 is reduced compared to before the slot machine 10 was controlled into the power saving mode. When a variable game is not being executed, a multiplier is not set, and a predetermined power saving standby time has elapsed, the slot machine 10 is controlled into the power saving mode. The power saving mode is also called an energy saving mode or an eco mode.

The slot machine 10 is configured to allow the user to select whether or not to allow control in the power saving mode. After the slot machine 10 starts to be supplied with power and returns to a state in which a variable game can be played, if the setting value switch 45 is operated, the slot machine 10 enters a setting value confirmation state. In the setting value confirmation state, the slot machine 10 allows the user to select whether or not to allow control in the power saving mode by operating buttons Ba and Bb.

As shown in FIG. 6(a) and FIG. 6(b), in the setting value confirmation state, the performance display device 15 displays a first selection image SM1 that can be specified to restrict control to the power saving mode, and a second selection image SM2 that can be specified to allow control to the power saving mode. In the setting value confirmation state, the performance display device 15 displays an arrow image JS that points to the selected image of the selection images SM1 and SM2. The arrow image JS is an image that resembles an arrow. The arrow image JS is displayed in either a display mode that points to the first selection image SM1 as shown in FIG. 6(a), or a display mode that points to the second selection image SM2 as shown in FIG. 6(b). When the down button Bb is operated while the arrow image JS is displayed in a display mode that points to the first selection image SM1, the arrow image JS is displayed in a display mode that points to the second selection image SM2. Similarly, when the up button Ba is operated while the arrow image JS is displayed in a display mode pointing to the second selection image SM2, the arrow image JS is displayed in a display mode pointing to the first selection image SM1. In the slot machine 10, control to the power saving mode is permitted or restricted depending on the image selected when the operation of the set value switch 45 is completed in the set value confirmation state. Specifically, in the slot machine 10, control to the power saving mode is restricted when the operation of the set value switch 45 is completed while the arrow image JS is displayed in a display mode pointing to the first selection image SM1. On the other hand, in the slot machine 10, control to the power saving mode is permitted when the operation of the set value switch 45 is completed while the arrow image JS is displayed in a display mode pointing to the second selection image SM2.

Next, the electrical configuration of the slot machine 10 will be described.
As shown in FIG. 7, the slot machine 10 includes a main board 40 as a main control unit. The main board 40 performs processing related to the variable game and outputs control information according to the results of the processing. The control information is also called a control signal or a control command. The slot machine 10 includes a sub-board 50 as a sub-control unit. The sub-board 50 performs processing based on the control information input from the main board 40. The slot machine 10 includes a power supply unit 60. The slot machine 10 includes an external terminal board 70.

First, the main board 40 will be described.
The main board 40 includes a main CPU 41, a main ROM 42, and a main RAM 43. The main CPU 41 executes a main control program to perform various processes. The main ROM 42 stores the main control program and a judgment value used in a predetermined lottery. The main RAM 43 is configured to store various information that is appropriately rewritten during operation of the slot machine 10. Examples of information stored in the main RAM 43 include flags, counters, and timers. The main RAM 43 functions as a storage means that can store various information. The main board 40 is configured to generate random numbers. The random numbers may be hardware random numbers or software random numbers.

Reel sensors SE1 to SE3, input sensor SE4, selector sensor SE5, hopper sensor SE6, and door open sensor SEa are connected to the main board 40. The main CPU 41 is configured to be able to input detection signals output by the various sensors SE1 to SE6, SEa via a port not shown. The actuators of the reels 16a to 16c are connected to the main board 40. The main CPU 41 is configured to be able to control the operation of the actuators of the reels 16a to 16c via a drive circuit not shown.

The bet button 18, the settlement button 19, the start lever 20, and the stop buttons 21 to 23 are connected to the main board 40. The main CPU 41 is configured to be able to input detection signals output by the bet button 18, the settlement button 19, the start lever 20, and the stop buttons 21 to 23 via a port (not shown).

The information panel 30 is connected to the main board 40. The main CPU 41 is configured to be able to control the display contents of the information panel 30 via a drive circuit (not shown). The hopper unit HU is connected to the main board 40. The main CPU 41 is configured to be able to control the hopper unit HU via a drive circuit (not shown).

The main board 40 is connected to the set value switch 45. The main CPU 41 is configured to be able to input a detection signal, which is output when the set value switch 45 is operated, via a port not shown. The set value switch 45 is provided on the back (rear) side of the front door 12, that is, inside the machine. The set value switch 45 is configured to be operable using a specified key. In the following description, when it is said that the "set value switch 45 is operated," it means that the set value switch 45 is operated using a specified key. In this way, the set value switch 45 can be operated by opening the front door 12.

Here, we will explain the winning numbers and the role lottery table used in the internal lottery to determine the winning number from among multiple winning numbers among the lottery tables stored in the main ROM 42. The internal lottery to determine the winning number is a "role lottery." The winning number determined in the role lottery is also called the condition device combination. For this reason, the role lottery can also be called a "condition device combination lottery." In the following explanation, "a specific winning number is determined in the role lottery" may be expressed as "a specific winning number is won in the role lottery," and the "winning number determined in the role lottery" may be expressed as "the winning number that was won."

The winning number is control information in which one or more symbol combinations are defined as symbol combinations that can be derived (displayed) in a variable game. In other words, the winning number is a condition device identifier in which one or more roles are defined as roles that can win in a variable game. The winning numbers include, for example, winning numbers that allow a cherry role to win, winning numbers that allow a watermelon role to win, winning numbers that allow a bell role to win, and winning numbers that allow a replay role to win. Among the winning numbers that allow a bell role to win, there are winning numbers that allow a one-piece role to win in addition to the bell role. The winning numbers that allow a bell role and a one-piece role to win include winning numbers in which the operation sequence of the stop button to win a bell role is different from the operation sequence of the stop button to win a one-piece role. For example, the winning numbers that allow for the winning of the bell role and the one-dollar role include winning numbers that will result in the winning of the bell role if the stop buttons are operated in a specified operation sequence, but will result in the winning of the one-dollar role if the stop buttons are operated in an operation sequence different from the specified operation sequence.

In the following explanation, the case where a winning number that allows the cherry role to win in the role lottery is drawn is referred to as "the case where the cherry role is allowed to win." Note that the case where the cherry role is allowed to win corresponds to the lottery result of the role lottery being "the lottery result that allows the cherry role to win." Also, in the following explanation, the case where a winning number that allows the watermelon role to win in the role lottery is drawn is referred to as "the case where the watermelon role is allowed to win." Note that the case where the watermelon role is allowed to win corresponds to the lottery result of the role lottery being "the lottery result that allows the watermelon role to win." Similarly, in the following explanation, the case where a winning number that allows the bell role to win in the role lottery is drawn is referred to as "the case where the bell role is allowed to win." Note that the case where the bell role is allowed to win corresponds to the lottery result of the role lottery being "the lottery result that allows the bell role to win." The winning numbers that allow the winning of the bell role here include winning numbers that allow the winning of the bell role and the one-piece role. In addition, in the following explanation, the case where a winning number that allows the winning of a replay role is won in the role lottery is referred to as "the case where the winning of a replay role is allowed." The case where the winning of a replay role is allowed corresponds to the result of the role lottery being "the lottery result that allows the winning of a replay role."

The main ROM 42 stores a role selection table that is referenced for each set value. For example, when a different role selection table is referenced for each multiplier, the main ROM 42 may store a role selection table that is referenced for each multiplier. In the role selection table, a predetermined number of random numbers (hereinafter referred to as role selection random numbers) used in role selection are allocated from within a range of values that can be taken by the random numbers for the winning numbers that can be determined. In the slot machine 10, if no winning number is selected in the role selection, that is, if the role is not allowed to win, the result of the role selection is a "miss". If the result of the role selection is a "miss", the symbol combination for which a prize is determined based on the result of the role selection is not derived on the pay line YL.

A first display 47 is connected to the main board 40. The main CPU 41 is configured to be able to control the display contents of the first display 47 through a drive circuit (not shown). The first display 47 displays information (e.g., a numerical value indicating a set value) that can identify the set value, for example, when in a setting value confirmation state. A second display 48 is connected to the main board 40. The main CPU 41 is configured to be able to control the display contents of the second display 48 through a drive circuit (not shown). The second display 48 displays information (display information) that can identify, for example, the favorable zone ratio. The favorable zone ratio is, for example, the proportion of the variable games executed within the favorable zone during a period in which a predetermined number of variable games are executed. The predetermined number is, in principle, the number of variable games executed since the slot machine 10 was manufactured. However, exceptionally, for example, when the number of variable games executed since the slot machine 10 was manufactured is initialized, the number of variable games executed since the initialization becomes the "predetermined number" referred to here. The advantageous zone ratio can be considered as information based on gaming history.

An external terminal board 70 is connected to the main board 40. The external terminal board 70 is provided with a connection terminal that can be connected to an external device. The main CPU 41 can control the output of an external signal that is output via a port to an external device connected to the connection terminal. Examples of external devices include a hall computer and a data counter.

Next, the sub-substrate 50 will be described in detail.
The sub-board 50 includes a sub-CPU 51, a sub-ROM 52, and a sub-RAM 53. For example, the sub-CPU 51 executes a sub-control program to perform various processes (for example, processes related to performance). The sub-ROM 52 stores the sub-control program and a judgment value used in various lotteries. The sub-ROM 52 stores light emission performance data related to the light emission performance of the decorative lamp 13. The sub-ROM 52 stores sound performance data related to the sound performance of the speaker 14. The sub-ROM 52 stores display performance data related to the display performance of the performance display device 15. The sub-RAM 53 is configured to be able to store various information that is appropriately rewritten during the operation of the slot machine 10. The information stored in the sub-RAM 53 includes, for example, a flag, a counter, and a timer. The sub-board 50 is configured to be able to generate random numbers. The random numbers may be hardware random numbers or software random numbers.

The decorative lamps 13, the speaker 14, and the performance display device 15 are connected to the sub-board 50. The sub-CPU 51 is configured to be able to control the decorative lamps 13, the speaker 14, and the performance display device 15 via a drive circuit (not shown). The performance button BT, the up button Ba, and the down button Bb are connected to the sub-board 50. The sub-CPU 51 is configured to be able to input detection signals output by the performance button BT, the up button Ba, and the down button Bb via a port (not shown).

Next, the power supply unit 60 will be described.
The power supply unit 60 converts a power supply voltage supplied from an external power supply such as an amusement facility into a predetermined power supply voltage, and converts the converted power supply voltage into a power supply voltage to be supplied to each of the boards 40 and 50. The power supply unit 60 includes a power switch 61. The power switch 61 can be switched between an on state and an off state, and maintains the switched state. To start the slot machine 10, the power supply from the external power supply is started while the power switch 61 is operated to the on state, or the power switch 61 is operated from the off state to the on state while the power supply from the external power supply is being continued.

The power supply unit 60 includes a backup power supply 62. The backup power supply 62 supplies power to the main RAM 43 even after the power supply is cut off. The main RAM 43 can retain the contents stored in the main RAM 43 at the time the power supply is cut off, even after the power supply is cut off, by receiving power from the backup power supply 62. The backup power supply 62 supplies power to the secondary RAM 53 even after the power supply is cut off. The secondary RAM 53 can retain the contents stored in the secondary RAM 53 at the time the power supply is cut off, by receiving power from the backup power supply 62. For example, one or both of the main RAM 43 and the secondary RAM 53 may be configured to be non-volatile memory capable of retaining the stored contents even when the power supply is cut off, so that the stored information can be retained even after the power supply is cut off.

The slot machine 10 has a backup function. The backup function is a function that internally stores (backs up) various information related to game control even when the power supply from an external power source is cut off, and restores game control based on the various stored information when the power supply is started. In this embodiment, both the main board 40 and the sub-board 50 have the backup function. For example, the sub-board 50 does not need to have the backup function. The main RAM 43 is an example of a storage means capable of storing various information and configured to be able to retain at least a portion of the stored information even after the power supply is cut off. The slot machine 10 is configured to be able to store and retain at least a portion of the information stored in the storage means even when the power supply is stopped.

Here, the process performed when the power supply is stopped will be described.
In the slot machine 10, when the supply voltage falls below a predetermined value due to, for example, the power supply being stopped, main power cut-off processing is performed by the main CPU 41. Similarly, in the slot machine 10, when the supply voltage falls below a predetermined value due to, for example, the power supply being stopped, secondary power cut-off processing is performed by the secondary CPU 51.

First, the main power supply cutoff process will be described with reference to FIG.
In the main power cut process, the main CPU 41 stores and retains in the main RAM 43 various information stored therein, as well as information such as registers and stack pointers, as backup information (step S101). The backup information includes, for example, information that can identify the game state. The backup information includes, for example, information that can identify the set value (hereinafter referred to as set value information). The backup information includes information (storage information) related to the ratio of advantageous zones. In the slot machine 10, by storing and retaining the stack pointer, even if the power supply is stopped during processing, it is possible to resume processing from the middle when the power supply is subsequently resumed.

Next, in the main power cutoff process, the main CPU 41 calculates a checksum of the main RAM 43 (step S102). Then, the main CPU 41 stores the calculated checksum in the main RAM 43 (step S103). The checksum stored in the main RAM 43 is retained. Furthermore, the main CPU 41 sets a backup flag in the main RAM 43 (step S104). Next, the main CPU 41 prohibits access to the main RAM 43 (step S105). Thereafter, the main CPU 41 performs loop processing. As a result, the main CPU 41 performs loop processing until the power supply is stopped.

Next, the sub power supply shutoff process will be described with reference to FIG.
In the secondary power cut process, the secondary CPU 51 stores and holds in the secondary RAM 53 information such as registers and stack pointers as backup information in addition to various information stored in the secondary RAM 53 (step S201). The backup information includes, for example, information that can identify the presentation state. In the slot machine 10, by storing and holding the stack pointer, even if the power supply is stopped during processing, it is possible to resume processing from the middle when the power supply is subsequently resumed.

Next, in the secondary power-off process, the secondary CPU 51 calculates the checksum of the secondary RAM 53 (step S202). Then, the secondary CPU 51 stores the calculated checksum in the secondary RAM 53 (step S203). The checksum stored in the secondary RAM 53 is retained. Furthermore, the secondary CPU 51 sets a backup flag in the secondary RAM 53 (step S204). Next, the secondary CPU 51 prohibits access to the secondary RAM 53 (step S205). Thereafter, the secondary CPU 51 performs loop processing. As a result, the secondary CPU 51 performs loop processing until the power supply is stopped.

Next, the process performed when power supply is started will be described.
In the slot machine 10, when power supply is started, a main power return process is performed by the main CPU 41. Similarly, in the slot machine 10, when power supply is started, a secondary power return process is performed by the secondary CPU 51.

First, the main power recovery process will be described with reference to FIG.
In the main power recovery process, the main CPU 41 sets a stack pointer (step S301). Then, the main CPU 41 executes the initial setting of the main CPU 41 (step S302). After that, the main CPU 41 judges whether the set value switch 45 is operated (step S303). If the set value switch 45 is not operated (step S303; NO), the main CPU 41 judges whether the backup flag is set in the main RAM 43 (step S304). If the backup flag is set (step S304; YES), the main CPU 41 calculates a checksum of the main RAM 43 (step S305). Then, the main CPU 41 judges whether the checksum is normal (step S306). In step S306, the main CPU 41 judges whether the checksum calculated in step S305 is the same as the checksum calculated in step S102 of the main power shutdown process, thereby judging whether the checksum is normal. If the checksum is normal (step S306; YES), the main CPU 41 performs a backup recovery process (step S307). After that, the main CPU 41 ends the main power recovery process and returns to the game progress process when the power supply was stopped. This allows the game to return to a state in which it is possible to play a game, that is, a game progress possible state in which the game can be progressed. The game progress process will be described later.

In step S307, the main CPU 41, for example, restores the stack pointer before the power supply was stopped. In step S307, the main CPU 41, for example, stores in the output buffer control information (hereinafter, referred to as a restore command) that can identify that the backup restore process has been performed. In step S307, the main CPU 41, for example, sets an interval timer for the interrupt process. In step S307, the main CPU 41, for example, restores the contents of the register when the power supply was stopped. In step S307, the main CPU 41, for example, determines whether interrupt processing is permitted when the power supply is stopped, and permits interrupt processing if it is permitted. The control information (control command) stored in the output buffer by the main CPU 41 is output to the sub-board 50 in the next or subsequent interrupt processing.

Also, if the determination result in step S303 is positive, that is, if the setting value switch 45 has been operated, the main CPU 41 sets the interval timer for the interrupt process and permits the interrupt process (step S308). Next, the main CPU 41 performs a setting change process (step S309). Thereafter, the main CPU 41 ends the main power return process and returns to the game progress process. This makes it possible to return to a state in which it is possible to play a game, that is, a game progress possible state in which it is possible to progress the game.

In step S309, the main CPU 41 changes the settable setting value by one step each time a predetermined change operation means is operated. Here, the predetermined change operation means may be an operation means dedicated to setting change, or may be an operation means shared with other operation means, such as the start lever 20. Then, when the operation of the setting value switch 45 is completed, the main CPU 41 sets the setting value selected at that time as the setting value. At this time, the main CPU 41 stores setting value information capable of identifying the selected setting value in the main RAM 43. As a result, the setting value is set in the slot machine 10. Furthermore, the main CPU 41 stores control information capable of identifying the set setting value (hereinafter referred to as a setting value command) in the output buffer. Furthermore, in step S309, the main CPU 41 stores, for example, initial information in the main RAM 43 and initializes the storage contents of the main RAM 43. For example, the main CPU 41 sets initial values in the main RAM 43, such as a stack pointer. At this time, the setting value information stored in the main RAM 43 is not initialized, so the setting value newly set in step S309 is not initialized. In step S309, the main CPU 41 stores, for example, control information that can identify that a setting change process has been performed (hereinafter referred to as an initialization command) in the output buffer.

Furthermore, if the determination result in step S304 is negative, that is, if the backup flag is not set, the main CPU 41 performs a first disable play process (step S310). Similarly, if the determination result in step S306 is negative, that is, if the checksum is not normal, the main CPU 41 performs a first disable play process (step S310). When proceeding to the first disable play process in step S310, the main CPU 41 stores control information capable of identifying that the first disable play process will be performed (hereinafter referred to as a first disable play command) in the output buffer.

A situation in which the backup flag is not set means that the information stored in the main RAM 43 may not have been stored correctly when the power supply was stopped. In the slot machine 10, a situation in which the backup flag is not set means that an error related to the information stored in the main RAM 43, i.e., a RAM error, occurs. A situation in which the checksum is not normal means that an abnormality may have occurred, such as some or all of the information stored in the main RAM 43 being rewritten, and the information stored in the main RAM 43 may not have been stored correctly. In the slot machine 10, a situation in which the checksum is not normal means that an error related to the information stored in the main RAM 43, i.e., a RAM error, occurs.

As shown in FIG. 11, in the first game disable processing, the main CPU 41 disables various interrupt processes (step S401). As a result, various interrupt processes are not performed in the slot machine 10. Next, the main CPU 41 disables access to the main RAM 43 (step S402). As a result, in the slot machine 10, the contents stored in the main RAM 43 are not rewritten. Furthermore, the main CPU 41 controls the second display 48 to display information indicating that a RAM error has occurred (step S403). Thereafter, the main CPU 41 performs a loop process. As a result, the main CPU 41 performs the loop process until the power supply is stopped. In the following description, the loop process performed after the process of step S403 is completed may be referred to as the "loop process in the first game disable processing".

The state in which the loop processing in the first game disable processing is being performed is a game disable state in which game progress processing is not being performed and game progress cannot be made. The game disable state in which the loop processing in the first game disable processing is being performed corresponds to the "game disable state in the first game disable processing". In the following description, the "game disable state in the first game disable processing" may be referred to as the "progress disable state in the first processing". In the slot machine 10, in order to end the progress disable state in the first processing, it is necessary to at least stop the power supply. Specifically, in the slot machine 10, in order to end the progress disable state in the first processing, the contents stored in the main RAM 43 must be initialized by operating the set value switch 45 when starting the power supply after stopping the power supply, otherwise the progress disable state in the first processing will be entered again.

In the slot machine 10, the main power recovery process ends without the first game disable process being executed in the main power recovery process, and the game progress process described below is executed, which is a state in which game progress is possible. Specifically, in the slot machine 10, even if the game progress process described below is executed, the game progress is possible when the second game disable process described below is not executed and the third game disable process described below is not executed. The slot machine 10 can be controlled to a game progress possible state in which game progress is possible.

The slot machine 10 can be controlled to an impossibility state in the first process, and can be controlled to a game impossibility state in which it is impossible to progress in the game. The impossibility state in the first process can be considered to be a first game impossibility state. The impossibility state in the first process can be considered to be a non-specific game impossibility state. The impossibility state in the first process can be considered to be a special game impossibility state. In this embodiment, the main CPU 41 can realize a function as an impossibility control means that controls to a game impossibility state by controlling to the impossibility state in the first process.

In the slot machine 10, when an error occurs regarding the information stored and held in the main RAM 43, the slot machine 10 is controlled to a state where progress is impossible in the first process. The state where progress is impossible in the first process is a state where progress is impossible that is controlled by an error occurring regarding the information stored and held in the storage means. In the slot machine 10, when a RAM error occurs with the start of power supply, the slot machine 10 is controlled to a state where progress is impossible in the first process without being in a state where progress is possible. That is, when an error occurs regarding the stored and held information after the start of power supply and before the return to a state where progress is possible, the slot machine 10 is controlled to a state where progress is impossible without being in a state where progress is possible in the first process. In this way, in the slot machine 10, the state where progress is impossible includes a first state where progress is impossible that can be controlled without being in a state where progress is possible in the first process ...

Next, the secondary power supply recovery process will be described with reference to FIG.
In the secondary power return process, the secondary CPU 51 sets a stack pointer (step S501). Then, the secondary CPU 51 executes the initial setting of the secondary CPU 51 (step S502). After that, the secondary CPU 51 judges whether an initialization command has been input (step S503). If an initialization command has not been input (step S503; NO), the secondary CPU 51 judges whether a return command has been input (step S504). If a return command has not been input (step S504; NO), the secondary CPU 51 returns to the process of step S503. That is, the secondary CPU 51 repeats the processes of steps S503 and S504 until it inputs control information for either the initialization command or the return command.

When an initialization command is input (step S503; YES), the secondary CPU 51 performs an initial setting process (step S505). After completing the initial setting process in step S505, the secondary CPU 51 ends the secondary power recovery process. In step S505, the secondary CPU 51, for example, stores initial information in the secondary RAM 53 and initializes the stored contents of the secondary RAM 53. For example, the secondary CPU 51 sets initial values in the secondary RAM 53, such as a stack pointer. Note that when a setting value command is input, the secondary CPU 51 identifies the setting value that is set from the command, and stores information that can identify the identified specific value (hereinafter referred to as secondary setting value information) in the secondary RAM 53.

When a recovery command is input (step S504; YES), the secondary CPU 51 determines whether a backup flag is set in the secondary RAM 53 (step S506). When the backup flag is not set (step S506; NO), the secondary CPU 51 proceeds to the process of step S505. On the other hand, when the backup flag is set (step S506; YES), the secondary CPU 51 calculates a checksum of the secondary RAM 53 (step S507).

The secondary CPU 51 then determines whether the checksum is normal (step S508). In step S508, the secondary CPU 51 determines whether the checksum calculated in step S507 is the same as the checksum calculated in step S202 of the secondary power supply shutoff process, thereby determining whether the checksum is normal. If the checksum is not normal (step S508; NO), the secondary CPU 51 proceeds to the process of step S505. On the other hand, if the checksum is normal (step S508; YES), the secondary CPU 51 performs backup setting processing (step S509). After completing the backup setting processing in step S509, the secondary CPU 51 ends the secondary power supply restoration processing.

In step S509, the secondary CPU 51, for example, restores the stack pointer before the power supply was stopped. In step S509, the secondary CPU 51, for example, restores the contents of the register when the power supply was stopped.

Next, a process performed by the main CPU 41 after the power supply is started and then restored will be described. For example, the main CPU 41 performs a game progress process.
The game progress process will be described below with reference to FIG.

In the game progress processing, the main CPU 41 performs a game start setting process (step S601). In the game start setting process, the main CPU 41 stores information about the game status of the slot machine 10, for example. In the game start setting process, the main CPU 41 erases or updates information in a specified storage area in the main RAM 43, for example.

Next, the main CPU 41 starts accepting medals (step S602). Next, the main CPU 41 checks the game state (step S603). Next, the main CPU 41 judges whether the re-play is activated (step S604). The re-play is activated when the re-play is granted. If the re-play is not activated (step S604; NO), the main CPU 41 performs medal management processing to set the number of bets in the current variable game (step S605). When the multiplier is set in step S605, the main CPU 41 stores control information (hereinafter referred to as the multiplier setting command) that can specify that the multiplier has been set in the output buffer. Note that the multiplier that has been set can also be specified from the multiplier setting command. In step S605, when the main CPU 41 inputs a detection signal from the bet button 18, the multiplier is added so that the multiplier stored in the main RAM 43 becomes "3 coins", and the credit stored in the main RAM 43 is subtracted by the added amount. In step S605, when the main CPU 41 receives a detection signal from the insertion sensor SE4, it increases the multiplier by 1. At this time, if the multiplier has reached "3 coins", the main CPU 41 adds 1 to the credits stored in the main RAM 43 and updates the credits. At this time, if the credits have reached the upper limit, the credits are not increased.

When the replay is activated (step S604; YES), or when the processing of step S605 is completed, the main CPU 41 determines whether the multiplier has reached the game-prescribed number X (step S606). In step S606, the main CPU 41 determines whether the multiplier has reached three, that is, whether the multiplier is three. In other words, the game-prescribed number X in this embodiment is three. Note that when the replay is activated (step S604; YES), the main CPU 41 sets the multiplier for the previous variable game again as the multiplier for the current variable game. Incidentally, even if the multiplier has been set, information that can identify whether the replay is activated is stored in the main RAM 43, and the main CPU 41 can identify whether the replay is activated by referring to the information.

If the bet amount has not reached the game's specified number X (step S606; NO), the main CPU 41 proceeds to the process of step S603. That is, in step S606, the main CPU 41 determines whether or not it is possible to start the execution of the variable game. On the other hand, if the bet amount has reached the game's specified number X (step S606; YES), the main CPU 41 determines whether or not a start operation has been received using the start lever 20 (step S607). In this embodiment, the situation in which a replay has not been activated between the end of the process of step S602 and the processing of step S606 making a positive determination (step S604; NO) corresponds to a situation in which the bet amount can be set.

In step S607, the main CPU 41 makes a positive determination if a detection signal is input from the start lever 20, and makes a negative determination if a detection signal is not input from the start lever 20. If a start operation has not been accepted (step S607; NO), the main CPU 41 proceeds to the processing of step S603. On the other hand, if a start operation has been accepted (step S607; YES), the main CPU 41 performs a game number subtraction process (step S608). When a start operation has been accepted, the main CPU 41 stores control information capable of identifying the start of a variable game (hereinafter referred to as a variable game start command) in the output buffer.

In the game number subtraction process, the main CPU 41 performs a first game number subtraction process, a second game number subtraction process, and a third game number subtraction process. In the game number subtraction process, the main CPU 41 performs the first game number subtraction process, performs the second game number subtraction process after completing the first game number subtraction process, and performs the third game number subtraction process after completing the second game number subtraction process. Then, in the game number subtraction process, the main CPU 41 returns to the game progress process after completing the third game number subtraction process.

In the first game number subtraction process, the main CPU 41 refers to the value of the game state flag stored in the main RAM 43 and determines whether the current game state is the first advantageous state. If it is not the first advantageous state, the main CPU 41 ends the first game number subtraction process. On the other hand, if it is the first advantageous state, the main CPU 41 updates the remaining pseudo bonus stay count stored in the main RAM 43 by subtracting 1. The remaining pseudo bonus stay count corresponds to the remaining number of variable games that can be played in the first advantageous state. Thereafter, the main CPU 41 ends the first game number subtraction process.

In the second game number subtraction process, the main CPU 41 refers to the value of the game state flag and determines whether the current game state is the second advantageous state. If it is not the second advantageous state, the main CPU 41 ends the second game number subtraction process. On the other hand, if it is the second advantageous state, the main CPU 41 updates the remaining number of stays stored in the main RAM 43 by subtracting 1. The remaining number of stays corresponds to the remaining number of variable games in which it is possible to stay in the second advantageous state. Thereafter, the main CPU 41 ends the second game number subtraction process.

In the third game number subtraction process, the main CPU 41 refers to the value of the game state flag and determines whether the current game state is either the second normal state or the advantageous state. If it is neither the second normal state nor the advantageous state, the main CPU 41 ends the third game number subtraction process. On the other hand, if it is either the second normal state or the advantageous state, the main CPU 41 updates the advantageous upper limit value stored in the main RAM 43 by subtracting 1. The advantageous upper limit value is the value until the end condition of the advantageous period is met, and the end condition of the advantageous period is met when the advantageous upper limit value reaches 0. Thereafter, the main CPU 41 ends the third game number subtraction process.

After completing the game number subtraction process, the main CPU 41 performs a role lottery process to determine a winning number as a role lottery (step S609). In the role lottery process, the main CPU 41 acquires the value of the role lottery random number. The main CPU 41 refers to the setting value information to identify the set setting value. Then, the main CPU 41 selects a role lottery table corresponding to the identified setting value and multiplication factor. The main CPU 41 performs a role lottery by referring to the selected role lottery table based on the acquired value of the role lottery random number. Specifically, the main CPU 41 determines the winning number to which the acquired value of the role lottery random number is assigned. Note that if the value of the role lottery random number is not assigned to a winning number that allows the winning of a pattern combination with a predetermined prize, the lottery result of the role lottery is a "lose". In this embodiment, the main CPU 41 performs the role lottery process to realize a function as a role lottery means for performing a role lottery. In this embodiment, the main CPU 41 performs role selection as an internal selection according to the set value, thereby realizing the function of an internal selection means that performs an internal selection according to the set value.

In the role selection process, the main CPU 41 stores information capable of identifying the result of the role selection (hereinafter referred to as winning information) in the main RAM 43. The main CPU 41 also stores control information capable of identifying the result of the role selection (hereinafter referred to as winning information command) in the output buffer. After storing the winning information command in the output buffer, the main CPU 41 ends the role selection process and returns to the game progress process.

However, when the main CPU 41 refers to the setting value information in the role selection process, it judges whether the setting value information is correct. For example, the main CPU 41 judges whether the information stored as the setting value information is within the range that can be taken as the setting value information. For example, if none of the setting values "1" to "6" can be identified from the setting value information, the main CPU 41 judges that the setting value information is incorrect. In addition, for example, the main CPU 41 may judge that the setting value information is incorrect if the setting value that can be identified from the setting value information when it was previously referenced is different from the setting value that can be identified from the setting value information when it is referenced this time. Then, if it is determined that the setting value information is incorrect, the main CPU 41 performs the second game disable process (step S610). When proceeding to the second game disable process in step S610, the main CPU 41 stores control information that can identify that the second game disable process is to be performed (hereinafter referred to as the second game disable command) in the output buffer. On the other hand, if it is determined that the setting value information is correct, the main CPU 41 performs a role selection process, ends the role selection process, and proceeds to the advantageous selection process (step S611). The specific control in the second game disable process in step S610 will be explained later.

In the advantageous lottery process of step S611, the main CPU 41 performs advantageous zone transition lottery process, first advantageous transition lottery process, second advantageous transition lottery process, ceiling determination process, and additional lottery process. In the advantageous lottery process, the main CPU 41 performs advantageous zone transition lottery process, performs the first advantageous transition lottery process after completing the advantageous zone transition lottery process, and performs the second advantageous transition lottery process after completing the first advantageous transition lottery process. Furthermore, in the advantageous lottery process, the main CPU 41 performs ceiling determination process after completing the second advantageous transition lottery process, and performs additional lottery process after completing the ceiling determination process. Then, in the advantageous lottery process, the main CPU 41 returns to the game progress process after completing the additional lottery process.

In the advantageous zone transition lottery process, the main CPU 41 refers to the value of the game state flag and determines whether the current game state is the first normal state. If it is not the first normal state, the main CPU 41 ends the advantageous zone transition lottery process. On the other hand, if it is the first normal state, the main CPU 41 performs an advantageous zone transition lottery based on the lottery result of the role lottery. The main CPU 41, for example, acquires the value of a random number generated in the main board 40, and refers to a predetermined lottery table based on the acquired random number value to perform an advantageous zone transition lottery that can determine a transition to an advantageous zone. The probability that a transition to an advantageous zone is determined in the advantageous zone transition lottery varies depending on the set value and the lottery result of the role lottery. For example, in the slot machine 10, when the lottery result of the role lottery is the same, the probability that a transition to an advantageous zone is determined is high in the following order: setting value "1" < setting value "2" < setting value "3" < setting value "4" < setting value "5" < setting value "6". The probability that a transition to an advantageous zone will be determined in the advantageous zone transition lottery may be configured to vary depending on either the set value or the result of the role lottery. If a transition to an advantageous zone is not determined in the advantageous zone transition lottery, the main CPU 41 ends the advantageous zone transition lottery process. On the other hand, if a transition to an advantageous zone is determined in the advantageous zone transition lottery, the main CPU 41 stores advantageous transition permission information in the main RAM 43. Furthermore, the main CPU 41 stores control information (hereinafter referred to as an advantageous permission command) capable of identifying that a transition to an advantageous performance state has been determined in the output buffer, and ends the advantageous transition lottery process.

However, when the main CPU 41 refers to the setting value information in the advantageous zone transition lottery process, it determines whether the setting value information is correct. For example, the main CPU 41 determines whether the setting value information is correct in the same manner as in the role lottery process. Then, when it is determined that the setting value information is incorrect, the main CPU 41 performs a second game disable process (step S610). When proceeding to the second game disable process in step S610, the main CPU 41 stores a second game disable command in the output buffer. On the other hand, when it is determined that the setting value information is correct, the main CPU 41 performs a advantageous zone transition lottery.

In the first advantageous transition lottery process, the main CPU 41 refers to the value of the game state flag and determines whether the current game state is the second normal state or the second advantageous state. If it is not the second normal state or the second advantageous state, the main CPU 41 terminates the first advantageous transition lottery process. On the other hand, if it is the second normal state or the second advantageous state, the main CPU 41 conducts a first advantageous transition lottery based on the lottery result of the role lottery. The main CPU 41, for example, acquires the value of a random number generated within the main board 40, and refers to a predetermined lottery table based on the acquired random number value to conduct a first advantageous transition lottery that can determine a transition to the first advantageous state. The probability that a transition to the first advantageous state will be determined in the first advantageous transition lottery varies depending on the set value that has been set and the lottery result of the role lottery. For example, in the slot machine 10, when the lottery results of the role lottery are the same, the probability of determining a transition to the first advantageous state is higher in the order of setting value "1" < setting value "2" < setting value "3" < setting value "4" < setting value "5" < setting value "6". The probability of determining a transition to the first advantageous state in the first advantageous transition lottery may be configured to be different depending on one of the set setting value and the lottery result of the role lottery. In addition, the probability of determining a transition to the first advantageous state in the first advantageous transition lottery differs between when the second normal state is in effect and when the second advantageous state is in effect. Specifically, the probability of determining a transition to the first advantageous state in the first advantageous transition lottery when the second advantageous state is in effect is higher than the probability of determining a transition to the first advantageous state in the first advantageous transition lottery when the second normal state is in effect. If a transition to the first advantageous state is not determined in the first advantageous transition lottery, the main CPU 41 ends the first advantageous transition lottery process. On the other hand, if a transition to the first advantageous state is determined in the first advantageous transition lottery, the main CPU 41 stores first advantageous acceptance information capable of identifying that a transition to the first advantageous state has been determined in the main RAM 43. Furthermore, the main CPU 41 stores control information capable of identifying that a transition to the first advantageous state has been determined (hereinafter referred to as a first advantageous acceptance command) in the output buffer, and ends the first advantageous transition lottery process.

However, in the first advantageous transition lottery process, when the main CPU 41 refers to the setting value information, it judges whether the setting value information is correct. For example, the main CPU 41 judges whether the setting value information is correct in the same manner as in the role lottery process. Then, when it is judged that the setting value information is incorrect, the main CPU 41 performs the second game disable process (step S610). When proceeding to the second game disable process in step S610, the main CPU 41 stores the second game disable command in the output buffer. On the other hand, when it is judged that the setting value information is correct, the main CPU 41 performs the first advantageous transition lottery.

In the second advantageous transition lottery process, the main CPU 41 refers to the value of the game state flag and determines whether the current game state is the first advantageous state. If it is not the first advantageous state, the main CPU 41 ends the second advantageous transition lottery process. On the other hand, if it is the first advantageous state, the main CPU 41 determines whether second advantageous allowance information capable of identifying that a transition to the second advantageous state has been decided is stored in the main RAM 43. If the second advantageous allowance information is stored, the main CPU 41 ends the second advantageous transition lottery process. On the other hand, if the second advantageous allowance information is not stored, the main CPU 41 performs a second advantageous transition lottery based on the lottery result of the role lottery. For example, the main CPU 41 acquires the value of a random number generated in the main board 40, and refers to a predetermined lottery table based on the acquired value of the random number to perform a second advantageous transition lottery that can determine a transition to the second advantageous state. The probability that a transition to the second advantageous state is determined in the second advantageous transition lottery varies depending on the set value that has been set and the lottery result of the role lottery. For example, in the slot machine 10, when the lottery results of the role lottery are the same, the probability of determining a transition to the second advantageous state is higher in the order of setting value "1" < setting value "2" < setting value "3" < setting value "4" < setting value "5" < setting value "6". The probability of determining a transition to the second advantageous state in the second advantageous transition lottery may be configured to differ depending on either the set setting value or the lottery result of the role lottery. If a transition to the second advantageous state is not determined in the second advantageous transition lottery, the main CPU 41 ends the second advantageous transition lottery process. On the other hand, if a transition to the second advantageous state is determined in the second advantageous transition lottery, the main CPU 41 stores the second advantageous acceptance information in the main RAM 43. Furthermore, the main CPU 41 stores control information (hereinafter referred to as the second advantageous acceptance command) capable of identifying that a transition to the second advantageous state has been determined in the output buffer, and ends the second advantageous transition lottery process.

However, when the main CPU 41 refers to the setting value information in the second advantageous transition lottery process, it determines whether the setting value information is correct. For example, the main CPU 41 determines whether the setting value information is correct in the same manner as in the role lottery process. Then, when it is determined that the setting value information is incorrect, the main CPU 41 performs the second game disable process (step S610). When proceeding to the second game disable process in step S610, the main CPU 41 stores the second game disable command in the output buffer. On the other hand, when it is determined that the setting value information is correct, the main CPU 41 performs the second advantageous transition lottery.

In the ceiling determination process, the main CPU 41 refers to the value of the game state flag and determines whether the current game state is the second normal state. If it is not the second normal state, the main CPU 41 ends the ceiling determination process. On the other hand, if it is the second normal state, the main CPU 41 adds 1 to the normal execution count stored in the main RAM 43 and updates the normal execution count. The normal execution count corresponds to the number of variable games executed in the second normal state without being controlled to the advantageous state. The main CPU 41 determines whether the updated normal execution count has reached the ceiling count stored in the main RAM 43. If the normal execution count has not reached the ceiling count, the main CPU 41 ends the ceiling determination process. On the other hand, if the normal execution count has reached the ceiling count, the main CPU 41 stores the first advantageous acceptance information in the main RAM 43. Furthermore, the main CPU 41 stores the first advantageous acceptance command in the output buffer and ends the ceiling determination process.

In the add-on lottery process, the main CPU 41 refers to the value of the game state flag and determines whether the current game state is the second advantageous state. If it is not the second advantageous state, the main CPU 41 ends the add-on lottery process. On the other hand, if it is the second advantageous state, the main CPU 41 performs an add-on lottery based on the lottery result of the role lottery. The main CPU 41, for example, acquires the value of a random number generated in the main board 40, and refers to a predetermined lottery table based on the acquired random number value, and performs an add-on lottery to decide whether to add on or not depending on the acquired random number value. In this embodiment, if it is decided to add on, the number of times to add on (so-called add-on number) is also determined. The "add-on" here corresponds to increasing the remaining number of stays, which corresponds to the remaining number of variable games that can stay in the second advantageous state, that is, extending the period controlled in the second advantageous state. The "number of add-on" corresponds to the number of times to increase the remaining number of stays, that is, the number of times to be added to the remaining number of stays. However, if the remaining number of stays stored in the main RAM 43 exceeds the advantageous upper limit value stored in the main RAM 43, the main CPU 41 does not perform an add-on lottery in the add-on lottery process and ends the add-on lottery process. If it is decided to add on in the add-on lottery, the main CPU 41 adds the decided add-on number to the remaining number of stays and updates the remaining number of stays. Furthermore, the main CPU 41 stores control information capable of identifying the number of add-on times (hereinafter referred to as an add-on number command) in the output buffer and ends the add-on lottery process.

After the advantageous lottery process is completed, the main CPU 41 performs the instruction information determination process (step S612). In the instruction information determination process, if the main CPU 41 is in an advantageous state and has won the winning number that allows the winning of the bell role and the one-piece role in the role lottery, the main CPU 41 determines an instruction number corresponding to the operation sequence for winning the bell role. The main CPU 41 also stores control information (hereinafter referred to as an instruction information command) that can identify the determined instruction information in the output buffer, ends the instruction information determination process, and returns to the game progress process. The instruction information displayed on the payout display unit 37 in this embodiment includes instruction information corresponding to each operation sequence (pressing order) of the stop buttons. In addition, in the instruction information determination process, the main CPU 41 refers to the value of the game state flag to identify the current game state.

When the instruction information determination process is completed, the main CPU 41 performs an instruction information display process (step S613). If instruction information is determined in the instruction information determination process, the main CPU 41 controls the payout display unit 37 so that the determined instruction information is displayed. The main CPU 41 controls the payout display unit 37 so that the instruction information is displayed until the variable game ends. Note that if instruction information is not determined in the instruction information determination process, the main CPU 41 ends the instruction information display process and returns to the game progress process.

After completing the instruction information display process, the main CPU 41 determines whether the wait time has elapsed (step S614). If the wait time has not elapsed (step S614; NO), the main CPU 41 waits until the wait time has elapsed. If the wait time has elapsed (step S614; YES), the main CPU 41 controls the actuators of the reels 16a to 16c so that the reels 16a to 16c start to rotate (step S615). In the slot machine 10, the variable game is started by starting the rotation of the reels 16a to 16c in step S615. Incidentally, in the slot machine 10, rotation control is performed in the interrupt process to accelerate and maintain the rotation of the reels 16a to 16c. When the speed at which the reels 16a to 16c rotate reaches a constant speed, the speed at which the reels 16a to 16c rotate is maintained at the constant speed. In step S615, the main CPU 41 starts the rotation of all reels 16a to 16c simultaneously or approximately simultaneously. For example, in step S615, the main CPU 41 may determine the order in which the reels 16a to 16c start to rotate, and start the rotation of the reels 16a to 16c in the determined order. In this case, for example, the order in which the reels 16a to 16c start to rotate may be configured to be determined from a plurality of orders, or may be a single order determined in advance.

Next, the main CPU 41 judges whether the speed at which the reels 16a to 16c rotate has reached a constant speed (step S616). If the speed at which the reels 16a to 16c rotate has not reached a constant speed (step S616; NO), the main CPU 41 waits until the speed at which the reels 16a to 16c rotate reaches a constant speed. If the speed at which the reels 16a to 16c rotate has reached a constant speed (step S616; YES), the main CPU 41 judges whether a stop operation has been received from any of the stop buttons 21 to 23 (step S617). In step S617, the main CPU 41 makes a positive judgment if a detection signal has been input from any of the stop buttons 21 to 23, whereas it makes a negative judgment if a detection signal has not been input from any of the stop buttons 21 to 23. If a stop operation has not been received (step S617; NO), the main CPU 41 proceeds to the process of step S616. This causes the main CPU 41 to wait until it receives a stop operation when the reels 16a to 16c are rotating at a constant speed.

On the other hand, if a stop operation is received (step S617; YES), the main CPU 41 executes a reel stop process to stop the rotation of the reel corresponding to the stop button that received the detection signal (step S618). That is, the main CPU 41 controls the actuator in response to the stop operation to stop the symbols on the reel corresponding to the stop operation. To explain in detail, the main CPU 41 searches for symbols that can be stopped on the effective line YL from among symbols located within a predetermined pull-in range (for example, 4 symbols) based on the lottery result of the role selection and the operation mode (operation sequence and operation timing) of the stop buttons 21 to 23. Then, the main CPU 41 controls the actuator so that the searched symbols are stopped on the effective line YL. By performing such reel stop control regarding the stop operation of the reels 16a to 16c, the main CPU 41 stops the symbol combination corresponding to the winning number and the operation mode of the stop buttons on the effective line YL. In step S618, when the main CPU 41 receives a detection signal from one of the stop buttons 21-23, it stores control information (hereinafter referred to as an operation command) capable of identifying the stop button that received the detection signal in the output buffer.

Next, the main CPU 41 determines whether all of the reels 16a to 16c have stopped (step S619). If some of the reels 16a to 16c have not stopped (step S619; NO), the main CPU 41 proceeds to the process of step S616. On the other hand, if all of the reels 16a to 16c have stopped (step S619; YES), the main CPU 41 performs a display pattern determination process to determine the symbol combination stopped on the pay line YL (step S620). In the display pattern determination process, the main CPU 41 determines whether a symbol combination (role) that determines a prize is stopped on the pay line YL, and if a symbol combination (role) that determines a prize is stopped on the pay line YL, the main CPU 41 determines the type of the symbol combination. Then, if a symbol combination that determines a prize is stopped, that is, if a role is won, the main CPU 41 stores control information (hereinafter referred to as a winning command) that can identify the winning role in the output buffer. In step S620, if a symbol combination for which a replay is set as a prize is stopped on the pay line YL, the main CPU 41 sets the multiplier set in the current variable game as the multiplier again and activates the replay. This awards a replay.

Then, the main CPU 41 judges whether to pay out medals to the player (step S621). In step S621, the main CPU 41 judges positive if the payout role is a winning combination, and judges negative if the payout role is not a winning combination. If the medals are to be paid out (step S621; YES), the main CPU 41 executes the medal payout process (step S622). In the medal payout process, the main CPU 41 increases the credits stored in the main RAM 43 by the number of medals to be paid out. At this time, if the credits exceed the upper limit, the main CPU 41 controls the hopper unit HU so that the number of medals to be paid out exceeds the upper limit. In the medal payout process, the main CPU 41 controls the payout display unit 37 so that the number of medals to be paid out due to the occurrence of a winning combination is displayed. Incidentally, if a symbol combination for which no prize is determined (for example, a losing stop) is stopped on the pay line YL, no prize is awarded.

If medals are not to be paid out (step S621; NO), or if the medal payout process has ended, the main CPU 41 performs a termination process to end one round of the variable game (step S623). In the termination process, the main CPU 41 stores control information capable of identifying the end of the variable game (hereinafter referred to as the variable game termination command) in the output buffer. In this embodiment, the variable game termination command is control information capable of identifying whether or not a prize has been won, and the winning combination. In the termination process, the main CPU 41 performs a favorable zone ratio counting process, a regulation achievement counting process, an acquired number counting process, a game state transition process, and a presentation state transition process.

First, the favorable zone ratio counting process will be explained.
In the advantageous zone ratio counting process, the main CPU 41 updates information (storage information) related to the advantageous zone ratio. Specifically, in the advantageous zone ratio counting process, the main CPU 41 updates information (hereinafter referred to as ratio-based number of times information) that can identify the "number of variable games executed within a specified period" that is counted to calculate the advantageous zone ratio. Specifically, the main CPU 41 adds 1 to the ratio-based number of times information and updates the ratio-based number of times information. Furthermore, in the advantageous zone ratio counting process, the main CPU 41 updates information (hereinafter referred to as ratio-advantageous number of times information) that can identify the "number of variable games executed within an advantageous zone" that is counted to calculate the advantageous zone ratio. Specifically, the main CPU 41 adds 1 to the ratio-advantageous number of times information and updates the ratio-advantageous number of times information.

In addition, in the advantageous zone ratio counting process, if at least one of the ratio-based number of times information and the ratio advantageous number of times information is not normal, the main CPU 41 initializes the ratio-based number of times information and the ratio advantageous number of times information. At this time, the main CPU 41 sets both the ratio-based number of times information and the ratio advantageous number of times information to 0, and initializes the ratio-based number of times information and the ratio advantageous number of times information. For example, in the slot machine 10, the "number of variable games executed within the advantageous zone" that can be determined from the ratio advantageous number of times information is the number of variable games executed within a specified period and within the advantageous zone. Therefore, in the slot machine 10, the number of games that can be determined from the ratio advantageous number of times information does not exceed the number of games that can be determined from the ratio-based number of times information. For this reason, for example, if the number of games that can be determined from the ratio advantageous number of times information exceeds the number of games that can be determined from the ratio-based number of times information, the main CPU 41 may be configured to determine that at least one of the ratio-based number of times information and the ratio advantageous number of times information is not normal. Additionally, if the number of games cannot be determined from at least one of the ratio-based number of times information and the ratio-advantageous number of times information, the main CPU 41 may be configured to determine that at least one of the ratio-based number of times information and the ratio-advantageous number of times information is abnormal.

When information on the favorable zone ratio is stored in the main RAM 43, the main CPU 41 calculates the favorable zone ratio by multiplying the value obtained by dividing the value identifiable from the ratio favorable number of times information by the value identifiable from the ratio-based number of times information by 100. For example, when the value identifiable from the ratio favorable number of times information is "200 times" and the value identifiable from the ratio-based number of times information is "1000 times", the main CPU 41 calculates "20 (= (200 ÷ 1000) × 100)" as the favorable zone ratio. Then, the main CPU 41 controls the second display 48 so that the calculated favorable zone ratio is displayed. The main CPU 41 calculates the favorable zone ratio every time the information on the favorable zone ratio is updated, displays the calculated favorable zone ratio on the second display 48, and updates the display content of the second display 48. Incidentally, the second display 48 may display information other than the favorable zone ratio. In this case, the display content of the second display 48 is switched in sequence, so that the favorable zone ratio and information other than the favorable zone ratio are displayed in sequence on the second display 48. Information other than the favorable zone ratio includes, for example, information that can identify that an error has occurred.

Next, the regulation achievement counting process will be described.
In the regulation achievement counting process, the main CPU 41 may update the post-power recovery acquired number information regarding the increased number of game media paid out since the start of power supply. The post-power recovery acquired number information is stored in the main RAM 43. For example, the main CPU 41 reflects the value obtained by subtracting the number of medals consumed in executing the variable game (multiplication factor) from the number of medals paid out in the post-power recovery acquired number information, and updates the post-power recovery acquired number information. For example, when a bell role is won in a variable game executed with the multiplication factor set to "3", "12 (=15-3)" is added to the post-power recovery acquired number information. Also, when a one-piece role is won in a variable game executed with the multiplication factor set to "3", "-2 (=1-3)" is added to the post-power recovery acquired number information. That is, at this time, "2" is subtracted from the post-power recovery acquired number information. Incidentally, when a replay role is won, the main CPU 41 does not update the post-power recovery acquired number information. If the updated post-power recovery acquired number information falls below 0, the main CPU 41 sets the post-power recovery acquired number information to "0" and updates the post-power recovery acquired number information. In this embodiment, the post-power recovery acquired number information can be said to be the number of medals acquired after increasing from the reference value of 0 and not decreasing to the reference value.

When the main CPU 41 updates the post-power recovery acquired number information, it stores control information (hereinafter referred to as the post-power recovery acquired number command) capable of identifying the updated post-power recovery acquired number information in the output buffer. When a value identifiable from the updated post-power recovery acquired number information reaches a specified value, the main CPU 41 performs the third game disable process (step S624). However, when a value identifiable from the updated post-power recovery acquired number information does not reach a specified value, the main CPU 41 does not perform the third game disable process. When proceeding to the third game disable process in step S624, the main CPU 41 stores control information (hereinafter referred to as the third game disable command) capable of identifying that the third game disable process will be performed in the output buffer. The specific control in the third game disable process in step S624 will be explained later.

In the slot machine 10, the "prescribed value" here is "19000". Therefore, in the slot machine 10, when the information on the number of coins acquired after power restoration reaches "19000", the third game disable process is performed. Incidentally, the information on the number of coins acquired after power restoration is one of the pieces of information that is not stored and held after the power supply is stopped. Therefore, the information on the number of coins acquired after power restoration is erased when the power supply is stopped. For example, the information on the number of coins acquired after power restoration may be configured to be initialized, for example by setting it to 0, when the power supply is started. Note that the information on the number of coins acquired after power restoration may be stored and held even after the power supply is stopped.

Even if the value that can be determined from the updated information on the number of coins acquired after power recovery reaches a specified value, the display content of the second display 48 does not change, and information that can be used to determine the favorable zone ratio is displayed on the second display 48. In other words, when a RAM error occurs, the second display 48 displays information indicating that a RAM error has occurred, while when the value that can be determined from the updated information on the number of coins acquired after power recovery reaches a specified value, information related to the favorable zone ratio is displayed.

Next, the acquired number counting process will be described.
In the acquisition number counting process, the main CPU 41 may update the advantageous zone acquisition information that can specify the number of game media awarded when the game is in the advantageous zone based on the result of the display pattern determination process when the game is in either the second normal state or the advantageous state. The advantageous zone acquisition information is stored in the main RAM 43. For example, the main CPU 41 reflects the value obtained by subtracting the number of medals consumed in executing the variable game (multiplication factor) from the number of medals paid out in the advantageous zone acquisition information, and updates the advantageous zone acquisition information. For example, when a bell role is won in a variable game executed with the multiplication factor set to "3", "12 (=15 - 3)" is added to the advantageous zone acquisition information. Also, when a one-piece role is won in a variable game executed with the multiplication factor set to "3", "-2 (=1 - 3)" is added to the advantageous zone acquisition information. That is, at this time, "2" is subtracted from the game zone acquisition information. Incidentally, when a replay role is won, the main CPU 41 does not update the advantageous zone acquisition information. Furthermore, when the updated advantageous zone acquisition information falls below 0, the main CPU 41 sets the advantageous zone acquisition information to "0" and updates the advantageous zone acquisition information. The advantageous zone acquisition information is updated to "0" and initialized as control is placed in the first normal state. Specifically, the advantageous zone acquisition information is initialized as the first variable game is executed after control is placed in the first normal state.

In addition, in the winning number counting process, the main CPU 41 may update the first period winning information that can specify the number of game media awarded when in an advantageous state based on the result of the display pattern determination process when in an advantageous state. The first period winning information is stored in the main RAM 43. For example, similar to the advantageous zone winning information, the main CPU 41 reflects in the first period winning information a value obtained by subtracting the number of medals consumed in executing the variable game (multiplication number) from the number of medals paid out, and updates the first period winning information. Note that, if the updated first period winning information is below 0, the main CPU 41 sets the first period winning information to "0" and updates the first period winning information. The first period winning information is updated to "0" and initialized as the control is placed in the first normal state. Specifically, the first period winning information is initialized as the first variable game is executed after the control is placed in the first normal state.

In addition, in the winning number counting process, the main CPU 41 may update the second period winning information that can specify the number of game media awarded when the first advantageous state is in the first advantageous state based on the result of the display pattern determination process. The second period winning information is stored in the main RAM 43. For example, similar to the advantageous zone winning information and the first period winning information, the main CPU 41 reflects the value obtained by subtracting the number of medals consumed in executing the variable game (multiplication number) from the number of medals paid out in the second period winning information, and updates the second period winning information. Note that, if the updated second period winning information is below 0, the main CPU 41 sets the second period winning information to "0" and updates the second period winning information. The second period winning information is updated to "0" and initialized when the game is controlled to the first normal state or the second advantageous state. Specifically, the second period winning information is initialized when the first variable game is executed after the game is controlled to the first normal state or the second advantageous state.

Next, the game state transition process will be described.
In the game state transition process, the main CPU 41 updates the value of the game state flag and transitions the game state. The main CPU 41 refers to the game state flag to identify the current game state. The main CPU 41 identifies the winning combination based on the result of the display pattern determination process (step S620). When the main CPU 41 updates the value of the game state flag, it stores in the output buffer control information (hereinafter referred to as a game state designation command) that indicates the game state that can be identified from the updated value.

Specifically, in the game state transition process, if advantageous transition permission information is stored in the main RAM 43 during the first normal state, that is, if a transition to an advantageous zone has been determined, the main CPU 41 sets the game state flag to a value that can identify the second normal state. The main CPU 41 also determines the ceiling number of times and stores the determined ceiling number of times in the main RAM 43. For example, the main CPU 41 determines the ceiling number of times from among times less than "1500 times", which corresponds to the upper limit number of stays, under a lottery probability according to a set value. Furthermore, the main CPU 41 erases the advantageous transition permission information stored in the main RAM 43.

In addition, when the first advantageous acceptance information is stored in the main RAM 43 while in the second normal state or the second advantageous state, that is, when a transition to the first advantageous state is determined, the main CPU 41 sets a value that can identify the first advantageous state to the game state flag. In addition, the main CPU 41 stores "30 times" in the main RAM 43 as the remaining number of pseudo bonus stays. Furthermore, the main CPU 41 erases the first advantageous acceptance information stored in the main RAM 43.

In addition, when the pseudo bonus remaining number of stays stored in the main RAM 43 reaches 0 during the first advantageous state, that is, when the first advantageous state ends, when the second advantageous allowance information is stored, or when the remaining number of stays is 1 or more, the main CPU 41 sets the game state flag to a value that can identify the second advantageous state. The case where the second advantageous allowance information is stored corresponds to the case where a transition to the second advantageous state is determined by lottery when the second normal state transitions to the first advantageous state. In addition, the case where the remaining number of stays is 1 or more corresponds to the case where a transition is made from the second advantageous state to the first advantageous state. In addition, the main CPU 41 adds "50 times" to the remaining number of stays stored in the main RAM 43 to update the remaining number of stays. Therefore, when a transition is made from the second advantageous state to the first advantageous state, and the first advantageous state ends and the transition is made to the second advantageous state again, an addition of "50 times" is made. Furthermore, if the second advantageous allowance information is stored, the main CPU 41 erases the second advantageous allowance information stored in the main RAM 43. On the other hand, if the pseudo bonus remaining number of stays stored in the main RAM 43 reaches 0 when the first advantageous state is in effect, if the second advantageous allowance information is not stored, and the remaining number of stays is not 1 or more, the main CPU 41 sets the game state flag to a value that can identify the first normal state. In this manner, in this embodiment, if the pseudo bonus remaining number of stays stored in the main RAM 43 reaches 0 when the first advantageous state is in effect, and if the second advantageous allowance information is stored, or if the remaining number of stays is 1 or more, the transition condition is met. On the other hand, in this embodiment, if the pseudo bonus remaining number of stays stored in the main RAM 43 reaches 0 when the first advantageous state is in effect, and if the second advantageous allowance information is not stored, and the remaining number of stays is not 1 or more, the transition condition is not met.

In addition, when the remaining number of stays stored in the main RAM 43 reaches 0 in the second advantageous state, the main CPU 41 sets the game state flag to a value that can identify the first normal state. In addition, when the advantageous upper limit value stored in the main RAM 43 reaches 0 in the second normal state and advantageous state, that is, when the end condition of the advantageous zone is met, the main CPU 41 sets the game state flag to a value that can identify the first normal state. Similarly, when the advantageous zone acquisition information stored in the main RAM 43 reaches 2400 in the second normal state and advantageous state, that is, when the end condition of the advantageous zone is met, the main CPU 41 sets the game state flag to a value that can identify the first normal state. In addition, when the end condition of the advantageous zone is met and any of the advantageous transition allowance information, the first advantageous allowance information, and the second advantageous allowance information is stored in the main RAM 43, the main CPU 41 erases the information. In this way, in this embodiment, the main CPU 41 performs the game state transition process, thereby realizing the function as a game state control means that controls the game state.

Next, the presentation state transition process will be described.
In the presentation state transition process, the main CPU 41 updates the value of the presentation state flag and transitions the presentation state. The main CPU 41 refers to the presentation state flag to identify the current presentation state. In the presentation state transition process, when the game state flag is set to a value that can identify the first normal state or the second normal state, the main CPU 41 sets the presentation state flag to a value that can identify the normal presentation state. In addition, when the game state flag is set to a value that can identify the first advantageous state, the main CPU 41 sets the presentation state flag to a value that can identify the pseudo bonus presentation state. When the game state flag is set to a value that can identify the second advantageous state, the main CPU 41 sets the presentation state flag to a value that can identify the advantageous presentation state. In this way, in this embodiment, the main CPU 41 performs the presentation state transition process, thereby realizing a function as a presentation state control means that controls the presentation state.

Furthermore, when the end process is completed in the game progress process, the main CPU 41 ends the game progress process related to the execution of one variable game, and returns to the process of step S601 again. As described above, in the slot machine 10, the start operation triggers the start of rotation of all reels, and the stop operation triggers the rotation of the reels to be stopped. The control of the game progress process, excluding the second game disable process of step S610 and the third game disable process of step S624, corresponds to the control related to the execution of the variable game, and corresponds to the control related to the game progress.

Here, the second game disable process will be described with reference to FIG.
In the second game disable processing, the main CPU 41 executes control to output a first external signal through the connection terminal of the external terminal board 70 (step S701). The first external signal is output in the second game disable processing. The first external signal can be said to be an external signal capable of identifying that the second game disable processing has been performed. Once the first external signal is output, the first external signal continues to be output until the power supply is stopped. Here, "until the power supply is stopped" can also be said to be "until the second game disable processing is completed". The control executed in step S701 can be regarded as an external signal control that outputs an external signal. By the main CPU 41 executing the control to output the first external signal in the processing of step S701, a function as an external signal control means capable of executing the external signal control that outputs an external signal is realized. Next, the main CPU 41 prohibits various interrupt processing (step S702).

The main CPU 41 allows an interruption of the settlement process (step S703). The main CPU 41 also allows an interruption of the door open detection process (step S704). The main CPU 41 also allows an interruption of the insertion error detection process (step S705). In addition, the main CPU 41 allows an interruption of the dispensing error detection process (step S706). The settlement process, the door open detection process, the insertion error detection process, and the dispensing error detection process will be explained later. After completing the process of step S706, the main CPU 41 prohibits an interruption of the settlement process (step S707). The main CPU 41 also prohibits an interruption of the door open detection process (step S708). The main CPU 41 also prohibits an interruption of the insertion error detection process (step S709). In addition, the main CPU 41 prohibits an interruption of the dispensing error detection process (step S710). Then, when the processing of step S710 is completed, the main CPU 41 returns to the processing of step S703 again.

In the slot machine 10, when the second game disable processing is executed, the processing of steps S703 to S710 is repeated. In the second game disable processing, the state in which the processing of steps S703 to S710 is repeated is a game disable state in which the game progress processing is not performed and the game cannot progress. In the second game disable processing, the state in which the processing of steps S703 to S710 is repeated corresponds to a "game disable state in the second game disable processing". In the following description, the "game disable state in the second game disable processing" may be referred to as the "game disable state in the second processing". In the slot machine 10, in order to end the game disable state in the second processing, it is necessary to at least stop the power supply. Specifically, in the slot machine 10, in order to end the game disable state in the second processing, the power supply must be stopped, and then the stored contents of the main RAM 43 must be initialized by operating the set value switch 45 when starting the power supply, otherwise the game will again be in the game disable state in the second processing. In the slot machine 10, when the game is in a progress-enabling state, the second game disable process is executed, resulting in a progress-enabling state in the second process. Therefore, a case where the game goes from a state other than the progress-enabling state in the second process to a progress-enabling state in the second process corresponds to a case where the game goes from a progress-enabling state to a progress-enabling state in the second process.

In addition, in the second unplayable processing, when the control information is stored in the output buffer, the control information stored in the output buffer is output to the secondary CPU 51 by an interrupt process that outputs the control information. In other words, although not shown, in the second unplayable processing, even after various interrupt processes are prohibited in step S702, an interrupt process that outputs the control information stored in the output buffer is permitted, and the interrupt process can be executed.

The slot machine 10 can be controlled to an unprogressable state in the second process, and can be controlled to a game unprogressable state in which it is impossible to progress in the game. The unprogressable state in the second process can be considered as a second game unprogressable state. The unprogressable state in the second process can be considered as a specific game unprogressable state. In this embodiment, the main CPU 41 can realize the function of an unprogressable control means that controls to a game unprogressable state by controlling to the unprogressable state in the second process.

In the slot machine 10, the game progresses when no errors occur with respect to the information stored and held in the main RAM 43. Then, in the slot machine 10, when the game progresses when no errors occur with respect to the information stored and held in the main RAM 43 and the game progress process is performed, the slot machine 10 can be controlled to a progress disabled state in the second process. In this way, the progress disabled state in the second process is a game progress disabled state that is controlled without errors occurring with respect to the information stored and held in the storage means.

In the slot machine 10, the non-progression state in the second process is controlled by determining that the setting value information is incorrect. That is, the non-progression state in the second process is controlled based on the setting value information. In the slot machine 10, the game progress process is executed after the game progress is permitted and the game is controlled to the non-progression state in the second process. In this way, in the slot machine 10, there are non-progression states that can be controlled after the game progress is permitted.

Next, the third game disable process will be described with reference to FIG.
In the third game-disabled process, the main CPU 41 executes control to output a second external signal through the connection terminal of the external terminal board 70 (step S801). The second external signal is output in the third game-disabled process. The second external signal can be said to be an external signal capable of identifying that the third game-disabled process has been performed. The second external signal is output during a period from when the second external signal is output until a predetermined output time (for example, 10 seconds) has elapsed, or until the power supply is stopped before the predetermined output time has elapsed. The "period until the power supply is stopped" here can also be said to be "the period until the third game-disabled process is completed." The control executed in step S801 can be regarded as an external signal control that outputs an external signal. The main CPU 41 executes control to output the second external signal in the process of step S801, thereby realizing a function as an external signal control means capable of executing external signal control that outputs an external signal. Next, the main CPU 41 prohibits various interrupt processes (step S802).

The main CPU 41 allows an interruption of the settlement process (step S803). The main CPU 41 allows an interruption of the setting value confirmation process (step S804). The main CPU 41 allows an interruption of the door open detection process (step S805). Furthermore, the main CPU 41 allows an interruption of the insertion error detection process (step S806). In addition, the main CPU 41 allows an interruption of the dispensing error detection process (step S807). The settlement process, the setting value confirmation process, the door open detection process, the insertion error detection process, and the dispensing error detection process will be explained later. After completing the process of step S807, the main CPU 41 prohibits an interruption of the settlement process (step S808). The main CPU 41 prohibits an interruption of the setting value confirmation process (step S809). The main CPU 41 prohibits an interruption of the door open detection process (step S810). Furthermore, the main CPU 41 prohibits the interruption of the input error detection process (step S811). In addition, the main CPU 41 prohibits the interruption of the payout error detection process (step S812). Then, when the process of step S810 is completed, the main CPU 41 returns to the process of step S803 again.

In the slot machine 10, when the third game disable processing is executed, the processing of steps S803 to S812 is repeated. In the third game disable processing, the state in which the processing of steps S803 to S812 is repeated corresponds to a "game progress disabled state in the third game disable processing". In the following description, the "game progress disabled state in the third game disable processing" may be referred to as the "progress disabled state in the third processing". In the slot machine 10, in order to end the progress disabled state in the third processing, at least the power supply must be stopped. Specifically, in the slot machine 10, in order to end the progress disabled state in the third processing, the power supply must be stopped, and then the stored contents of the main RAM 43 must be initialized by operating the set value switch 45 when starting the power supply, otherwise the progress disabled state in the third processing will be entered again. In the slot machine 10, when the game is in a progress-enabling state, the third game disable process is executed, resulting in a progress-enabling state in the third process. Therefore, a case where the game goes from a state other than the progress-enabling state in the third process to the progress-enabling state in the third process corresponds to a case where the game goes from a progress-enabling state to the progress-enabling state in the third process.

In addition, in the third game-disabling process, when the control information is stored in the output buffer, the control information stored in the output buffer is output to the secondary CPU 51 by an interrupt process that outputs the control information. In other words, although not shown, in the third game-disabling process, even after various interrupt processes are prohibited in step S802, an interrupt process that outputs the control information stored in the output buffer is permitted, and the interrupt process can be executed.

The slot machine 10 can be controlled to an impossible state in the third process, and can be controlled to a game impossible state in which it is impossible to progress in the game. The impossible state in the third process can be considered to be a second game impossible state. The impossible state in the third process can be considered to be a specific game impossible state. The impossible state in the third process can be considered to be a special game impossible state. In this embodiment, the main CPU 41 can realize the function of an impossibility control means that controls to a game impossible state by controlling to the impossible state in the third process.

In the slot machine 10, the game progresses when no errors occur with respect to the information stored and held in the main RAM 43. Then, in the slot machine 10, when the game progresses when no errors occur with respect to the information stored and held in the main RAM 43 and the game progress process is performed, the slot machine 10 can be controlled to a progress impossible state in the third process. In this way, the progress impossible state in the third process is a game progress impossible state that is controlled without errors occurring with respect to the information stored and held in the storage means.

In the slot machine 10, the non-progression state in the third process is controlled when a value that can be determined from the information on the number of coins won after power is restored reaches a specified value. That is, the non-progression state in the third process is controlled based on the information on the number of coins won after power is restored. The information on the number of coins won after power is restored can be considered special information. In the slot machine 10, the game progress process is executed after the game progress is permitted, and then the slot machine 10 is controlled to the non-progression state in the third process. In this way, the non-progression state in the slot machine 10 includes a game progress permitted state that can be controlled after the game progress is permitted.

As described above, the slot machine 10 can be controlled to an unprogressable state in the first process, an unprogressable state in the second process, and an unprogressable state in the third process. In the slot machine 10, a state that is not an unprogressable state in the first process, an unprogressable state in the second process, or an unprogressable state in the third process can be considered to be a state in which game progress is possible.

In the slot machine 10, for example, if the power supply is stopped when the slot machine is in the unprogressable state in the first process, if the set value switch 45 is not operated when the power supply is started, the slot machine 10 returns to the unprogressable state in the first process. At this time, the slot machine 10 returns to the unprogressable state in the first process without becoming a state in which game progress is possible. From the stack pointer stored and held in the main RAM 43 when the power supply is stopped in the unprogressable state in the first process, it is possible to identify that the slot machine 10 was controlled to the unprogressable state in the first process when the power supply was stopped. For this reason, the stack pointer stored and held in the main RAM 43 when the power supply is stopped in the unprogressable state in the first process corresponds to information that can identify that the slot machine 10 was controlled to the unprogressable state in the first process. In this way, the information stored and held in the main RAM 43 when the power supply is stopped in the unprogressable state in the first process includes information that can identify that the slot machine 10 was controlled to the unprogressable state in the first process.

For example, in the case where the power supply to the slot machine 10 is stopped when the slot machine 10 is in an unprogressable state in the first process, if the set value switch 45 is operated when the power supply is started again, the slot machine 10 may not return to the unprogressable state in the first process, but may enter a state in which game progress is possible. When the slot machine 10 is controlled to the unprogressable state in the first process, it is necessary to at least stop the power supply in order to end the unprogressable state.

In the slot machine 10, for example, if the power supply is stopped when the slot machine is in the non-progression state in the second process, if the set value switch 45 is not operated when the power supply is started, the slot machine 10 returns to the non-progression state in the second process. At this time, the slot machine 10 returns to the non-progression state in the second process without becoming a state in which game progress is possible. From the stack pointer stored and held in the main RAM 43 when the power supply is stopped in the case of the non-progression state in the second process, it is possible to identify that the slot machine 10 was controlled to the non-progression state in the second process when the power supply was stopped. For this reason, the stack pointer stored and held in the main RAM 43 when the power supply is stopped in the case of the non-progression state in the second process corresponds to information that can identify that the slot machine 10 was controlled to the non-progression state in the second process. In this way, the information stored and held in the main RAM 43 when the power supply is stopped in the case of the non-progression state in the second process includes information that can identify that the slot machine 10 was controlled to the non-progression state in the second process.

However, in the slot machine 10, even if information that can identify that the slot machine 10 was controlled to the non-progress state in the second process is stored and held, if a RAM error occurs when power supply is started, the slot machine 10 does not enter the non-progress state in the second process, but enters the non-progress state in the first process. Therefore, in the slot machine 10, when information that can identify that the slot machine 10 was controlled to the non-progress state in the second process is stored and held, and a RAM error does not occur when power supply is started, the slot machine 10 does not enter the non-progress state in the first process, but enters the non-progress state in the second process. If the information stored and held in the storage means when power supply is started includes information that can identify that the slot machine 10 was controlled to the non-progress state in the second game, and if an error occurs related to the information stored and held in the storage means when power supply is started, the slot machine 10 does not enter the non-progress state in the second game, but enters the non-progress state in the first game. On the other hand, if an error does not occur related to the information stored and held in the storage means when power supply is started, the slot machine 10 does not enter the non-progress state in the first game, but enters the non-progress state in the second game.

For example, in the case where the power supply to the slot machine 10 is stopped when the slot machine 10 is in a state where progress is not possible in the second process, if the set value switch 45 is operated when the power supply is subsequently started, the slot machine 10 may not return to the state where progress is not possible in the second process, but may enter a state where progress is possible. When the slot machine 10 is controlled to the state where progress is not possible in the second process, it is necessary to at least stop the power supply in order to end the state where progress is not possible in the second process.

In the slot machine 10, for example, if the power supply is stopped when the slot machine is in the non-progression state in the third process, if the set value switch 45 is not operated when the power supply is started, the slot machine 10 returns to the non-progression state in the third process. At this time, the slot machine 10 returns to the non-progression state in the third process without becoming a state in which game progress is possible. From the stack pointer stored and held in the main RAM 43 when the power supply is stopped in the case of the non-progression state in the third process, it is possible to identify that the slot machine 10 was controlled to the non-progression state in the third process when the power supply was stopped. For this reason, the stack pointer stored and held in the main RAM 43 when the power supply is stopped in the case of the non-progression state in the third process corresponds to information (storage information) that can identify that the slot machine 10 was controlled to the non-progression state in the third process. In this way, the information stored and held in the main RAM 43 when the power supply is stopped in the case of the non-progression state in the third process includes information that can identify that the slot machine 10 was controlled to the non-progression state in the third process.

However, in the slot machine 10, even if information that can identify that the slot machine 10 was controlled to the unprogressable state in the third process is stored and held, if a RAM error occurs when power supply is started, the slot machine 10 does not enter the unprogressable state in the third process, but enters the unprogressable state in the first process. Therefore, in the slot machine 10, when information that can identify that the slot machine 10 was controlled to the unprogressable state in the third process is stored and held, and a RAM error does not occur when power supply is started, the slot machine 10 does not enter the unprogressable state in the first process, but enters the unprogressable state in the third process. In the case where information that can identify that the slot machine 10 was controlled to the unprogressable state in the second game is included in the information stored and held in the storage means when power supply is started, if an error occurs related to the information stored and held in the storage means when power supply is started, the slot machine 10 does not enter the unprogressable state in the second game, but enters the unprogressable state in the first game. On the other hand, if an error does not occur related to the information stored and held in the storage means when power supply is started, the slot machine 10 does not enter the unprogressable state in the first game, but enters the unprogressable state in the second game.

For example, in the case where the power supply to the slot machine 10 is stopped while the game is unable to proceed in the third process, if the set value switch 45 is operated when the power supply is started again, the game may not return to the unable to proceed state in the third process, but may enter a state where the game can proceed. When the slot machine 10 is controlled to the unable to proceed state in the third process, it is necessary to at least stop the power supply in order to end the unable to proceed state.

In the slot machine 10, external signal control is executed in step S701 when the game is unable to proceed in the second process. Also, in the slot machine 10, external signal control is executed in step S801 when the game is unable to proceed in the third process. However, in the slot machine 10, when the game is unable to proceed in the first process, no external signal is output. The external signal control means does not execute external signal control when the game is unable to proceed in the first game process, but executes external signal control when the game is unable to proceed in the second game process.

Next, the settlement process will be described. The settlement process is one of the interrupt processes.
For example, the period during which the game progress process is being performed during which the settlement process is permitted to be interrupted is the period from when the process of step S601 is performed until the determination result of step S607 becomes positive. In addition, as described above, at least a part of the period during which the second game disable process is being performed and at least a part of the period during which the third game disable process is being performed are periods during which the settlement process is permitted to be interrupted.

In the settlement process, the main CPU 41 determines whether the settlement conditions have been met. The settlement conditions are met when the settlement button 19 is operated and the credits are 1 or more. In addition, even if the credits are 0, the settlement conditions are met when the settlement button 19 is operated, replay is not activated, and a multiplier is set. In this way, the settlement conditions include the settlement button 19 being operated. Incidentally, the main CPU 41 can determine that the settlement button 19 has been operated by inputting a detection signal from the settlement button 19.

If the settlement condition is not met, the main CPU 41 ends the settlement process. On the other hand, if the settlement condition is met, the main CPU 41 executes settlement control related to the settlement of the game media. For example, when the credit stored in the main RAM 43 is 1 or more, the main CPU 41 controls the hopper unit HU to pay out (settle) the number of medals stored as the credit, and executes settlement control. For example, when the replay is not in operation and the multiplier is 1 or more, the main CPU 41 controls the hopper unit HU to pay out the number of medals set as the multiplier, and executes settlement control. However, when the replay is in operation, the main CPU 41 does not control the hopper unit HU to pay out the number of medals set as the multiplier, and if the credit is 1 or more, the main CPU 41 controls the hopper unit HU to pay out only the number of medals stored as the credit, and executes settlement control. In this way, when the replay is in operation, the settlement of the number of medals set as the multiplier is not performed. When the main CPU 41 starts settlement control, it stores control information (hereinafter referred to as a settlement start command) capable of identifying that settlement control has started in the output buffer. When the settlement control ends, the main CPU 41 ends the settlement process after a predetermined waiting time has elapsed. When the main CPU 41 ends settlement control, it stores control information (hereinafter referred to as a settlement end command) capable of identifying that settlement control has ended in the output buffer.

When settlement control is executed, settlement is made for the gaming medium. In other words, being able to execute settlement control is equivalent to being able to settle for the gaming medium. On the other hand, when settlement control is not executed, settlement is not made for the gaming medium. In other words, being unable to execute settlement control is equivalent to being unable to settle for the gaming medium.

In this embodiment, the main CPU 41 executes the settlement control, thereby realizing a function as a settlement control means capable of executing settlement control related to the settlement of gaming media. The settlement control related to the settlement of gaming media can be regarded as specific control. The settlement control related to the settlement of gaming media can be regarded as special information control. Information used in special information control includes, for example, information that can identify credits. Information used in special information control includes, for example, information that can identify multipliers. In this way, information used in special information control includes information that can identify the quantity of gaming media. The settlement control related to the settlement of gaming media can be regarded as special operation control. The settlement control can be regarded as special control. In other words, the special control is control related to the settlement of gaming media. And the main CPU 41 executes the settlement control, thereby realizing a function as a special control means capable of executing special control.

Incidentally, even if the power supply is stopped, the information stored and held in the main RAM 43 includes information related to credits. The information related to credits is, for example, information that can identify the number of medals stored as credits. Even if the power supply is stopped, the information stored and held in the main RAM 43 includes information related to the multiplier. The information related to the multiplier is, for example, information that can identify the number of medals set as the multiplier. In this way, even if the power supply is stopped, the information stored and held in the main RAM 43 includes information used for settlement control related to the settlement of game media. In the slot machine 10, the non-progression state in the first process is controlled by the occurrence of an error related to the memory contents of the main RAM 43 that can store multiple pieces of information including information related to credits and information related to the multiplier used for settlement control related to the settlement of game media.

Next, the setting value confirmation process will be described. The setting value confirmation process is one of the interrupt processes.
For example, the period during which the game progress process is being performed is the period during which the interruption of the setting value confirmation process is permitted. As described above, at least a part of the period during which the third game disable process is being performed is the period during which the interruption of the setting value confirmation process is permitted. Incidentally, when the second game disable process is being performed, the interruption of the setting value confirmation process is prohibited.

In the setting value confirmation process, the main CPU 41 determines whether the setting value switch 45 is operated. If the setting value switch 45 is not operated, the main CPU 41 ends the setting value confirmation process. On the other hand, if the setting value switch 45 is operated, the main CPU 41 refers to the setting value information stored in the main RAM 43 and identifies the set setting value. The main CPU 41 then controls the first display 47 to display information that can identify the identified setting value. In the slot machine 10, the setting value confirmation state is when information that can identify the set setting value is displayed on the first display 47. In other words, the main CPU 41 controls the first display 47 to display information that can identify the set setting value, thereby controlling the setting value confirmation state. Furthermore, when the operation of the setting value switch 45 is completed, the main CPU 41 ends the setting value confirmation process.

When the main CPU 41 controls the setting value confirmation state in response to the operation of the setting value switch 45, it stores control information (hereinafter referred to as a confirmation state start command) that can identify that the setting value confirmation state has been entered in the output buffer, and outputs it to the secondary CPU 51. When the operation of the setting value switch 45 ends after outputting the confirmation state start command, the main CPU 41 stores control information (hereinafter referred to as a confirmation state end command) that can identify that the setting value confirmation state has ended in the output buffer, and outputs it to the secondary CPU 51.

In the slot machine 10, the control to set the setting value confirmation state corresponds to the control to set the setting value confirmation state, and corresponds to the setting value display control that displays information that can identify the set setting value. In this embodiment, the main CPU 41 executes the control to set the setting value confirmation state, thereby realizing a function as a setting value display control means that can execute the setting value display control that displays information that can identify the set setting value. The control to set the setting value confirmation state can be considered as special operation control. At this time, the information used for the special information control is, for example, setting value information. The information used for the special information control includes information that can identify the set setting value.

Incidentally, even if the power supply is stopped, the information stored and held in the main RAM 43 includes the setting value information. In this way, even if the power supply is stopped, the information stored and held in the main RAM 43 includes the setting value information used for control to enter the setting value confirmation state. In the slot machine 10, the non-progress state in the first process is controlled by the occurrence of an error related to the memory contents of the main RAM 43, which can store multiple pieces of information including the setting value information used for control to enter the setting value confirmation state.

Next, the door open detection process will be described. The door open detection process is one of the interrupt processes.
For example, the period during which the game progress process is being performed is the period during which the door open detection process is permitted to be interrupted. In addition, as described above, at least a part of the period during which the second game disable process is being performed and at least a part of the period during which the third game disable process is being performed are the periods during which the door open detection process is permitted to be interrupted.

In the door open detection process, the main CPU 41 judges whether the door open sensor SEa has detected that the front door 12 is open. If the front door 12 is detected to be open, the main CPU 41 judges whether the occurrence of a door open error in which the front door 12 is opened has been notified. If the front door 12 is detected to be open and the occurrence of a door open error has been notified, the main CPU 41 ends the door open detection process. If the front door 12 is detected to be open and the occurrence of a door open error has not been notified, the main CPU 41 controls the second display 48 to display information that can identify that a door open error has occurred. In the slot machine 10, the occurrence of a door open error is notified by displaying information that can identify that a door open error has occurred on the second display 48. In addition, the main CPU 41 stores control information that can identify that the notification of the door open error has started (hereinafter referred to as a door open error notification start command) in the output buffer and outputs it to the secondary CPU 51. Then, the main CPU 41 ends the door open detection process.

On the other hand, if it is not detected that the front door 12 is open, the main CPU 41 determines whether the occurrence of a door open error has been notified. If it is not detected that the front door 12 is open and a door open error has not been notified, the main CPU 41 ends the door open detection process. If it is not detected that the front door 12 is open and a door open error has been notified, the main CPU 41 ends the door open error notification and ends the door open detection process. At this time, the main CPU 41 stores control information that can identify the end of the door open error notification (hereinafter referred to as the door open error notification end command) in the output buffer and outputs it to the secondary CPU 51. Then, the main CPU 41 ends the door open detection process.

The slot machine 10 is configured to be able to execute control for detecting door open errors by executing a door open detection process. In the slot machine 10, executing the door open detection process corresponds to executing door open detection control for detecting the opening of a door member. In this embodiment, the main CPU 41 executes the door open detection process to realize a function as door open detection control means capable of executing door open detection control for detecting the opening of a door member. The control for detecting door open errors can be considered as specific control.

Next, the input error detection process will be described The input error detection process is one of the interrupt processes.
For example, the period during which the game progress process is being performed is the period during which the insertion error detection process is permitted to be interrupted. In addition, as described above, at least a portion of the period during which the second game disable process is being performed and at least a portion of the period during which the third game disable process is being performed are the periods during which the insertion error detection process is permitted to be interrupted.

In the insertion error detection process, the main CPU 41 determines whether the selector sensor SE5 has detected a medal jam in the medal selector. For example, if the selector sensor SE5 continues to detect medals for a predetermined period of time, the main CPU 41 may determine that a medal jam in the medal selector has been detected. Alternatively, multiple sensors functioning as the selector sensor SE5 may be provided, and if medals are detected by all of the sensors simultaneously, the main CPU 41 may determine that a medal jam in the medal selector has been detected.

When a medal jam is detected in the medal selector, the main CPU 41 determines whether or not a insertion error has been notified. When a medal jam is detected in the medal selector and a insertion error has been notified, the main CPU 41 ends the insertion error detection process. When a medal jam is detected in the medal selector and a insertion error has not been notified, the main CPU 41 controls the second display 48 to display information that can identify that a insertion error has occurred. In the slot machine 10, the occurrence of a insertion error is notified by displaying information that can identify that a insertion error has occurred on the second display 48. In addition, the main CPU 41 stores control information that can identify that a insertion error notification has started (hereinafter referred to as an insertion error notification start command) in the output buffer and outputs it to the secondary CPU 51. Then, the main CPU 41 ends the insertion error detection process.

On the other hand, if no medal jam is detected in the medal selector, the main CPU 41 determines whether it has not notified the occurrence of an insertion error. If no medal jam is detected in the medal selector and no insertion error has been notified, the main CPU 41 ends the insertion error detection process. If no medal jam is detected in the medal selector and no insertion error has been notified, the main CPU 41 ends the insertion error notification and ends the insertion error detection process. At this time, the main CPU 41 stores control information that can identify the end of the insertion error notification (hereinafter referred to as the insertion error notification end command) in the output buffer and outputs it to the secondary CPU 51. The main CPU 41 then ends the insertion error detection process.

The slot machine 10 is configured to be able to execute control for detecting a throw-in error by executing a throw-in error detection process. In the slot machine 10, executing a throw-in error detection process corresponds to executing a throw-in error detection control for detecting a throw-in error related to the throw-in of a gaming medium. In this embodiment, the throw-in error detection process is executed by the main CPU 41, thereby realizing a function as a throw-in error detection control means capable of executing a throw-in error detection control for detecting a throw-in error related to the throw-in of a gaming medium. The control for detecting a throw-in error can be considered as a specific control.

Next, the payout error detection process will be described. The payout error detection process is one of the interrupt processes.
For example, the period during which the game progress process is being performed is the period during which the payout error detection process is permitted to be interrupted. As described above, at least a portion of the period during which the second game disable process is being performed and at least a portion of the period during which the third game disable process is being performed are the periods during which the payout error detection process is permitted to be interrupted.

In the payout error detection process, the main CPU 41 judges whether the hopper sensor SE6 detects that the medals stored in the hopper unit HU are gone. When it is detected that the medals stored in the hopper unit HU are gone, the main CPU 41 judges whether the occurrence of a payout error is being notified. When it is detected that the medals stored in the hopper unit HU are gone and the occurrence of a payout error is notified, the main CPU 41 ends the payout error detection process. When it is detected that the medals stored in the hopper unit HU are gone and the occurrence of a payout error is notified, the main CPU 41 controls the second display 48 to display information that can identify that a payout error has occurred. In the slot machine 10, the occurrence of a payout error is notified by displaying information that can identify that a payout error has occurred on the second display 48. In addition, the main CPU 41 stores control information that can identify that a payout error notification has started (hereinafter referred to as a payout error notification start command) in the output buffer and outputs it to the secondary CPU 51. The main CPU 41 then ends the payout error detection process.

If it is not detected that the medals stored in the hopper unit HU have run out, the main CPU 41 determines whether a payout error has been notified. If it is not detected that the medals stored in the hopper unit HU have run out and a payout error has not been notified, the main CPU 41 ends the payout error detection process. If it is not detected that the medals stored in the hopper unit HU have run out and a payout error has been notified, the main CPU 41 ends the payout error notification and ends the payout error detection process. At this time, the main CPU 41 stores control information that can identify the end of the payout error notification (hereinafter referred to as the payout error notification end command) in the output buffer and outputs it to the secondary CPU 51. The main CPU 41 then ends the payout error detection process.

The slot machine 10 is configured to be able to execute control for detecting a payout error by executing a payout error detection process. In the slot machine 10, executing a payout error detection process corresponds to executing a payout error detection control for detecting a payout error related to the payout of gaming media. In this embodiment, the main CPU 41 executes the payout error detection process, thereby realizing a function as a payout error detection control means capable of executing a payout error detection control for detecting a payout error related to the payout of gaming media. The control for detecting a payout error can be considered as a specific control.

Next, the control relating to the lighting modes of the insertion possible lamp 31, the replay lamp 32, the start lamp 33 and the favorable zone lamp 34 will be described.
First, the control relating to the light emission mode of the turn-on ready lamp 31 will be described.

The main CPU 41 controls the insertion possible lamp 31 to be turned on when the credits have not reached the upper limit and during the period from when step S601 is processed in the game progress processing until the judgment result of step S607 becomes positive. However, when the credits have reached the upper limit, the main CPU 41 controls the insertion possible lamp 31 to be turned off even during the period from when step S601 is processed in the game progress processing until the judgment result of step S607 becomes positive. The main CPU 41 controls the insertion possible lamp 31 to be turned off regardless of the credits, unless the period from when step S601 is processed in the game progress processing until the judgment result of step S607 becomes positive. For example, when the insertion possible lamp 31 is turned on, if the judgment result of step S607 becomes positive, the main CPU 41 controls the insertion possible lamp 31 to be turned off.

When the replay is in operation and the insert possible lamp 31 is turned on, the main CPU 41 controls the insert possible lamp 31 to be turned off when executing settlement control related to the settlement of the game medium. Note that when the replay is in operation and the insert possible lamp 31 is turned on, the main CPU 41 controls the insert possible lamp 31 to be turned on when returning to the game progress processing. Similarly, when the replay is not in operation and the insert possible lamp 31 is turned on, the main CPU 41 controls the insert possible lamp 31 to be turned off when executing settlement control. Note that when the replay is not in operation and the insert possible lamp 31 is turned on, the main CPU 41 controls the insert possible lamp 31 to be turned on when returning to the game progress processing. The insert possible lamp 31 is turned off when the first processing is in an inoperable state. The insert possible lamp 31 is turned off when the second processing is in an inoperable state. Similarly, the insertion possible lamp 31 turns off when the third process is in an unprogressable state.

Next, control relating to the light emission mode of the replay lamp 32 will be described.
The main CPU 41 controls the replay lamp 32 to be lit when the replay is activated. The main CPU 41 controls the replay lamp 32 to be lit even when the replay is activated and a variable game started when the replay is activated is being executed. On the other hand, the main CPU 41 controls the replay lamp 32 to be turned off when the variable game is finished if the replay role does not win in the variable game started when the replay is activated. Also, the main CPU 41 controls the replay lamp 32 to be turned on continuously when the replay role wins in the variable game started when the replay is activated. When such a replay role wins consecutively, the replay lamp 32 may be temporarily turned off and then turned on again to keep the replay lamp 32 on. In addition, when the replay role is consecutively won, the replay lamp 32 may continue to be lit by continuing to be lit without being temporarily turned off.

When settlement control is executed while replay is in operation, the main CPU 41 controls the replay lamp 32 to remain lit. In other words, even when settlement control is executed, the main CPU 41 does not turn off the lit replay lamp 32. The replay lamp 32 is turned off when progress is not possible in the first process. The replay lamp 32 is turned off when progress is not possible in the second process. Similarly, the replay lamp 32 is turned off when progress is not possible in the third process.

Next, the control relating to the light emission mode of the start lamp 33 will be described.
The main CPU 41 controls the start lamp 33 to be turned on when the set bet number reaches three and during the period from when the processing of step S601 is performed in the game progress processing until the determination result of step S607 becomes positive. The main CPU 41 controls the start lamp 33 to be turned off when the period from when the processing of step S601 is performed in the game progress processing until the determination result of step S607 becomes positive is not yet reached. For example, when the start lamp 33 is turned on, if the determination result of step S607 becomes positive, the main CPU 41 controls the start lamp 33 to be turned off.

When replay is in operation and the start lamp 33 is turned on, the main CPU 41 controls the start lamp 33 to be turned off when executing the settlement process. If settlement control is executed when replay is in operation and the start lamp 33 is turned on, the main CPU 41 controls the start lamp 33 to be turned on when returning to the game progress process. Similarly, when replay is not in operation and the start lamp 33 is turned on, the main CPU 41 controls the start lamp 33 to be turned off when executing settlement control. If settlement control is executed when replay is not in operation and the start lamp 33 is turned on, the main CPU 41 controls the start lamp 33 to be turned on when returning to the game progress process. The start lamp 33 is turned off when the first process is in an impossible state. The start lamp 33 is turned off when the second process is in an impossible state. Similarly, the start lamp 33 turns off when progress is not possible in the third process.

Next, the control related to the lighting mode of the favorable zone lamp 34 will be described.
The main CPU 41 controls the favorable zone lamp 34 to light when it is in a favorable zone. On the other hand, the main CPU 41 controls the favorable zone lamp 34 to turn off when it is not in a favorable zone. Note that when settlement control is executed when it is in a favorable zone, the main CPU 41 controls the favorable zone lamp 34 to remain lit. The favorable zone lamp 34 turns off when it is in an unprogressable state in the first process. The favorable zone lamp 34 turns off when it is in an unprogressable state in the second process. Similarly, the favorable zone lamp 34 turns off when it is in an unprogressable state in the third process.

Next, the process performed by the secondary CPU 51 after the power supply is started and then restored will be described.
When the sub-CPU 51 inputs a game status command, it updates the game status information stored in the sub-RAM 53. At this time, the sub-CPU 51 updates the game status information to one that indicates a game status that can be specified from the game status command. Also, when the sub-CPU 51 inputs a presentation status command, it updates the presentation status information stored in the sub-RAM 53. At this time, the sub-CPU 51 updates the presentation status information to one that indicates a presentation status that can be specified from the presentation status command.

When the sub-CPU 51 inputs a multiplier setting command, it controls to a presentation state that can be specified from the presentation state information. Incidentally, after a replay role is won, when the sub-CPU 51 inputs a variable game start command, it controls to a presentation state that can be specified from the presentation state information. Specifically, when the type of presentation state that can be specified from the presentation state information has changed, the sub-CPU 51 controls to the presentation state after the change. On the other hand, when the type of presentation state that can be specified from the presentation state information has not changed, the sub-CPU 51 continues to control to the presentation state currently being controlled.

The sub-CPU 51 counts the number of times the pseudo bonus presentation state has been controlled since being controlled to an advantageous state. Specifically, when the sub-CPU 51 inputs a presentation state command capable of identifying a pseudo bonus presentation state when in a presentation state other than the pseudo bonus presentation state, the sub-CPU 51 adds 1 to the consecutive bonus count information capable of identifying the number of times the pseudo bonus presentation state has been controlled since being controlled to an advantageous state, and updates the consecutive bonus count information. The consecutive bonus count information is stored in the sub-RAM 53. Furthermore, when the sub-CPU 51 inputs a presentation state command capable of identifying the first normal state, it initializes the consecutive bonus count information. At this time, the sub-CPU 51 updates the consecutive bonus count information to 0, and initializes the consecutive bonus count information.

When the sub-CPU 51 inputs an instruction information command, it performs push order navigation performance processing to execute a navigation performance that suggests or notifies the player of the push order. The sub-CPU 51 performs push order navigation performance processing based on the winning number that can be specified from the winning information command and the instruction information that can be specified from the instruction information command. In the push order navigation performance processing, the sub-CPU 51 controls the performance display device 15 so that a navigation performance based on the instruction information that can be specified from the instruction information command is executed. For example, when executing a navigation performance that suggests or notifies the player of the fourth push order, the sub-CPU 51 may execute a navigation performance in which, from the left, a navigation image including "3", a navigation image including "1", and a navigation image including "2" are displayed in the area above the stop buttons 21 to 23 on the performance display device 15. The sub-CPU 51 controls the performance display device 15 so that the navigation performance is executed until all reels 16a to 16c stop spinning.

Incidentally, when the secondary CPU 51 is executing a navigation performance based on instruction information identifiable from the instruction information command, if the stop buttons are operated in a different order from the order suggested or notified in the navigation performance, the secondary CPU 51 ends the navigation performance and stops the execution of the navigation performance. For this reason, in the slot machine 10, for example, when a navigation performance suggesting or notifying the fourth push order is being executed, if the stop buttons 21 and 23 other than the stop button 22 are operated for the first time, the navigation performance ends. Similarly, in the slot machine 10, for example, when a navigation performance suggesting or notifying the fourth push order is being executed, if the stop button 22 is operated for the first time but the stop button 21 is operated for the second time, the navigation performance ends. Note that in the slot machine 10, even if the execution of the navigation performance in the performance display device 15 is stopped, the display of instruction information in the payout display unit 37 continues.

When the sub-CPU 51 inputs an add-on count command, the sub-CPU 51 performs the add-on performance process. On the other hand, when the add-on count command is not input, the sub-CPU 51 does not perform the add-on performance process. In the add-on performance process, the sub-CPU 51 identifies the number of add-ons from the input add-on count command, and controls the performance display device 15 so that an add-on performance that notifies the user of the number of add-ons is executed.

When the secondary CPU 51 inputs a winning command, it may execute a performance corresponding to the winning role that can be identified from the winning command. For example, when the secondary CPU 51 inputs a winning command that can identify that a bell role has won, it controls the decorative lamp 13 to emit yellow light, and controls the performance display device 15 to display an image that resembles a bell. For example, when the secondary CPU 51 inputs a winning command that can identify that a replay role has won, it controls the decorative lamp 13 to emit blue light, and controls the performance display device 15 to display an image that can identify that a replay role has won. For example, if the secondary CPU 51 is configured to be able to execute a variable game even when the bet number is not three, the image that can identify that a replay role has won, displayed on the performance display device 15, may be different depending on the bet number.

Next, the control relating to the volume adjustment will be described.
The sub-RAM 53 stores information (hereinafter referred to as volume information) that can identify a volume level that is set among levels that can be set as the volume. The sub-CPU 51 controls the speaker 14 so that sound effects are performed at a volume level that can be identified from the volume information. For example, the sub-CPU 51 controls the speaker 14 so that background sound is output at a volume level that can be identified from the volume information.

In a situation where the volume can be adjusted, if the sub-CPU 51 receives a detection signal from the up button Ba and the volume level identifiable from the volume information has not reached the upper limit, the sub-CPU 51 raises the volume level by one and updates the volume information to one that can identify the volume level after the increase. Similarly, in a situation where the volume can be adjusted, if the sub-CPU 51 receives a detection signal from the down button Bb and the volume level identifiable from the volume information has not reached the lower limit, the sub-CPU 51 lowers the volume level by one and updates the volume information to one that can identify the volume level after the decrease. Furthermore, when the volume information is updated, the sub-CPU 51 may control the speaker 14 to output a volume adjustment sound.

Next, we will explain the control for selecting whether to allow control to be in the power saving mode, and the control for switching to the power saving mode. The control for switching to the power saving mode corresponds to the power saving control for controlling to the power saving mode.

When the secondary CPU 51 inputs a confirmation state start command, it controls the performance display device 15 so that the first selection image SM1, the second selection image SM2, and the arrow image JS are displayed. The secondary CPU 51 refers to information that can identify whether control to the power saving mode is permitted (hereinafter referred to as power saving permission information). The power saving permission information is stored in the secondary RAM 53. Then, when it is possible to identify from the power saving permission information that control to the power saving mode is restricted, the secondary CPU 51 controls the performance display device 15 so that the arrow image JS is displayed in a display mode that points to the first selection image SM1. On the other hand, when it is possible to identify from the power saving permission information that control to the power saving mode is permitted, the secondary CPU 51 controls the performance display device 15 so that the arrow image JS is displayed in a display mode that points to the second selection image SM2.

When the arrow image JS is displayed in a display mode pointing to the first selection image SM1, the sub-CPU 51 controls the performance display device 15 so that the arrow image JS is displayed in a display mode pointing to the second selection image SM2 when a detection signal is input from the down button Bb. Furthermore, the sub-CPU 51 updates the power saving permission information to identify that control to the power saving mode is permitted. On the other hand, when the arrow image JS is displayed in a display mode pointing to the second selection image SM2, the sub-CPU 51 controls the performance display device 15 so that the arrow image JS is displayed in a display mode pointing to the first selection image SM1 when a detection signal is input from the up button Ba. Furthermore, the sub-CPU 51 updates the power saving permission information to identify that control to the power saving mode is restricted. When a confirmation state end command is input, the sub-CPU 51 ends the display of the first selection image SM1, the second selection image SM2, and the arrow image JS, and controls to a performance state that can be identified from the performance state information.

The secondary CPU 51 may control to the power saving mode when a predetermined power saving standby time has elapsed since the variable game is not being executed and the multiplier has not been set. Specifically, when a predetermined power saving standby time has elapsed since the variable game is not being executed and the multiplier has not been set, the secondary CPU 51 controls to the power saving mode if the secondary RAM 53 stores power saving permission information that can specify that control to the power saving mode is permitted. However, if the secondary RAM 53 stores power saving permission information that can specify that control to the power saving mode is restricted, the secondary CPU 51 does not control to the power saving mode. When controlling to the power saving mode, the secondary CPU 51 controls the decorative lamp 13 so that the brightness of the decorative lamp 13 is reduced compared to before the power saving mode. When controlling to the power saving mode, the secondary CPU 51 controls the performance display device 15 so that the brightness of the backlight of the performance display device 15 is reduced compared to before the power saving mode.

When the multiplier is set while controlling in the power saving mode, the secondary CPU 51 ends the power saving mode. When ending the power saving mode, the secondary CPU 51 returns the brightness of the decorative lamp 13 to the brightness before controlling in the power saving mode. When ending the power saving mode, the secondary CPU 51 returns the brightness of the backlight of the performance display device 15 to the brightness before controlling in the power saving mode.

Next, the control relating to the execution of the setting operation presentation among the setting presentations will be described.
When the variable game start command is input, the sub-CPU 51 performs a lottery for executing a setting operation presentation to determine whether or not to execute the setting operation presentation. If it is not determined in the lottery for executing the setting operation presentation, the sub-CPU 51 ends control related to the execution of the setting operation presentation. On the other hand, if it is determined in the lottery for executing the setting operation presentation, the sub-CPU 51 determines the content of the setting operation presentation. Specifically, the sub-CPU 51 determines the type of character to be displayed as the image BG2 related to the setting operation presentation. At this time, the sub-CPU 51 determines the type of character to be displayed as the image BG2 related to the setting operation presentation under a determination rate according to a setting value that can be specified from the sub setting value information, that is, the set setting value.

The sub-CPU 51 controls the performance display device 15 so that an operation prompting image BG1 is displayed during the effective operation period of the performance button BT related to the setting operation performance. Then, when a detection signal is input from the performance button BT during the effective operation period of the performance button BT related to the setting operation performance, the sub-CPU 51 controls the performance display device 15 so that an image BG2 related to the setting operation performance showing the determined type of character is displayed. As a result, the performance display device 15 executes a setting suggestion performance of the determined content.

Next, the control relating to the execution of the history display presentation will be described.
When the sub-CPU 51 is controlled to be in an advantageous state, it controls the effect display device 15 so that the history display image RG is displayed and a history display notification effect is executed. If a detection signal is input from the effect button BT while the history display image RG is displayed, the sub-CPU 51 generates a two-dimensional code as history information and controls the effect display device 15 so that the two-dimensional code is displayed. At this time, the sub-CPU 51 generates the two-dimensional code based on the consecutive bonus count information. Also, if a detection signal is input from the effect button BT while the two-dimensional code is displayed, the sub-CPU 51 controls the effect display device 15 so that the history display image RG is displayed and a history display notification effect is executed.

Next, based on FIG. 16, the control when various errors are detected will be explained together with an example of the display content of the performance display device 15.
When the sub-CPU 51 inputs a door open error notification start command, it controls the performance display device 15 so that an error notification image ER1 that notifies the occurrence of a door open error is displayed. When the sub-CPU 51 inputs a door open error notification end command, it controls the performance display device 15 so that the display of the error notification image ER1 is terminated. The error notification image ER1 is an image that includes the text information "The door is open."

In the slot machine 10, the occurrence of a door opening error is notified by displaying the error notification image ER1 on the performance display device 15. In this way, in the slot machine 10, the error notification image ER1 is displayed on the performance display device 15 in response to the detection of the door opening error. The situation in which the error notification image ER1 is displayed to notify the occurrence of a door opening error corresponds to a specific error detection state. In this embodiment, the control of displaying the error notification image ER1 on the performance display device 15 in response to the detection of the door opening error corresponds to specific error control for controlling to a specific error detection state. Then, the sub-CPU 51 executes the control of displaying the error notification image ER1 on the performance display device 15 in response to the detection of the door opening error, thereby realizing a function as a specific error control means capable of executing specific error control for controlling to a specific error detection state in response to the detection of a specific error. Note that in the slot machine 10, when the occurrence of the door opening error ends while the door opening error is occurring, that is, when the door opening error is resolved, the notification of the occurrence of the door opening error ends. In other words, in the slot machine 10, it is possible to end the specific error detection state by eliminating the specific error without stopping the power supply.

When the secondary CPU 51 inputs a start insertion error notification command, it controls the performance display device 15 to display an error notification image ER2 that notifies the occurrence of an insertion error. When the secondary CPU 51 inputs an end insertion error notification command, it controls the performance display device 15 to end the display of the error notification image ER2. The error notification image ER2 is an image that includes the text information "An insertion error has been detected. Please call an attendant."

In the slot machine 10, the occurrence of a throw-in error is notified by displaying the error notification image ER2 on the performance display device 15. In this way, in the slot machine 10, the detection of a throw-in error triggers the display of the error notification image ER2 on the performance display device 15. Note that in the slot machine 10, if the throw-in error ends while a throw-in error is occurring, that is, if the throw-in error is resolved, the notification of the throw-in error ends.

When the secondary CPU 51 inputs a payout error notification start command, it controls the performance display device 15 to display an error notification image ER3 that notifies the occurrence of a payout error. When the secondary CPU 51 inputs a payout error notification end command, it controls the performance display device 15 to end the display of the error notification image ER3. The error notification image ER3 is an image that includes the text information "A payout error has been detected. Please call an attendant."

In the slot machine 10, the occurrence of a payout error is notified by displaying the error notification image ER3 on the performance display device 15. In this way, in the slot machine 10, the detection of a payout error triggers the display of the error notification image ER3 on the performance display device 15. Note that in the slot machine 10, if the payout error ends while a payout error is occurring, that is, if the payout error is resolved, the notification of the payout error ends.

As shown in FIG. 16, the error notification images ER1 to ER3 are displayed in positions where they do not overlap. Therefore, even if two or more of the door opening error, the insertion error, and the payout error occur in the slot machine 10, the notifications of various errors on the performance display device 15 do not overlap.

Next, the control executed by the secondary CPU 51 when the first game disable process is executed by the main CPU 41 will be described together with various effects.
17, when the secondary CPU 51 inputs the first game-disabling command, it controls the effect display device 15 so that an error notification image ERr is displayed as information that identifies the occurrence of a RAM error. The error notification image ERr is an image including text information such as "A RAM error has occurred."

Furthermore, the secondary CPU 51 outputs a RAM error sound from the speaker 14, which can identify that a RAM error has occurred. In the slot machine 10, the RAM error sound is a sound whose volume cannot be adjusted. Incidentally, when the first process is unable to proceed, the sound whose volume can be adjusted is not output. In this way, when the first process is unable to proceed, the sound whose volume can be adjusted is not output at least until the first process is ended. In addition, in the slot machine 10, when the first process is unable to proceed, the first process is unable to proceed unless the power supply is stopped. Therefore, "until the first process is unable to proceed" means "until the power supply is stopped."

Next, the control executed by the secondary CPU 51 when the second game disable process is executed by the main CPU 41 will be described together with various effects.
18, when the secondary CPU 51 inputs the second game disable command, it controls the effect display device 15 to display an error notification image ERs as information that can identify that the setting value is not normal. The error notification image ERs is an image including text information such as "An abnormality has been confirmed in the setting value. Please call an attendant."

When the secondary CPU 51 inputs the second play disable command, it generates a two-dimensional code as history information and controls the performance display device 15 to display the two-dimensional code. Specifically, the secondary CPU 51 generates a two-dimensional code based on the consecutive bonus count information. At this time, even if the value that can be determined from the consecutive bonus count information is "0", the secondary CPU 51 generates a two-dimensional code and controls the performance display device 15 to display the two-dimensional code. The control of displaying the two-dimensional code on the performance display device 15, which is executed upon input of the second play disable command, is included in the history information display control that displays history information based on the history of play on the display means. The secondary CPU 51 that executes the control of displaying the two-dimensional code on the performance display device 15 upon input of the second play disable command can realize the function as history display control means that can execute history information display control that displays history information based on the history of play on the display means.

When the secondary CPU 51 inputs the second game-disabling command, it controls the speaker 14 to output background sound. At this time, background sound classified as a special background sound from among the multiple types of background sound is output from the speaker 14. The second game-disabling command is control information that is output in conjunction with the execution of the second game-disabling process by the main CPU 41. Therefore, the timing at which the special background sound is output is the timing after the second game-disabling process is executed by the main CPU 41. In other words, when the second game-disabling process is executed by the main CPU 41, the special background sound is output from the speaker 14 thereafter. In the slot machine 10, the special background sound is a sound whose volume can be adjusted. In this way, when the slot machine 10 is in a state where progress cannot be made in the second process, a sound whose volume can be adjusted may be output thereafter.

Even when the main CPU 41 is executing the second game-disabling process, the sub-CPU 51 can execute control related to volume adjustment. Therefore, in the slot machine 10, when the main CPU 41 executes the second game-disabling process and thereafter the special background sound is output, the volume at which the special background sound is output is adjustable.

Even when the second game disable process is being executed in the main CPU 41, the secondary CPU 51 can be controlled to the power saving mode. Therefore, even after the second game disable command is input, if a predetermined power saving standby time has elapsed after the variable game is not being executed and the multiplier is not set, the secondary CPU 51 will control to the power saving mode if power saving permission information that can specify that control to the power saving mode is permitted is stored in the secondary RAM 53.

Next, the control executed by the sub-CPU 51 when the third game disable process is executed by the main CPU 41 will be described together with various effects.
19, when the secondary CPU 51 inputs the third game disable command, it controls the effect display device 15 to display an error notification image ERt as information (display information) that indicates that a value that can be specified from the acquired number information after power recovery has reached a specified value. The error notification image ERt is an image that includes text information such as "Congratulations! Your game is over. Please call an attendant."

When the sub-CPU 51 inputs the third play disable command, it generates a two-dimensional code as history information and controls the performance display device 15 so that the two-dimensional code is displayed. At this time, the sub-CPU 51 generates the two-dimensional code based on the fact that the value identifiable from the acquired number information after power recovery has reached a specified value. In the slot machine 10, the two-dimensional code generated at this time is a two-dimensional code that is displayed only when the main CPU 41 executes the third play disable process. The sub-CPU 51 then controls the performance display device 15 so that the generated two-dimensional code is displayed. The control of displaying the two-dimensional code executed in response to the input of the third play disable command on the performance display device 15 is included in the history information display control that displays history information based on the history of the game on the display means. The sub-CPU 51 that executes the control of displaying the two-dimensional code on the performance display device 15 in response to the input of the third play disable command can realize the function as a history display control means capable of executing history information display control that displays history information based on the history of the game on the display means.

When the sub-CPU 51 inputs the third game disable command, it controls the effect display device 15 so that a background image BP that can be displayed when the third game disable process is executed is displayed. In this embodiment, the effect of displaying the background image BP is one of the setting effects that suggests or notifies the set value that has been set. In the slot machine 10, there are multiple types of background images BP. The sub-CPU 51 determines the type of background image BP to be displayed from the multiple types of background images BP under a determination rate according to a setting value that can be specified from the sub-setting value information, that is, the set setting value. Then, the sub-CPU 51 controls the effect display device 15 so that the determined type of background image BP is displayed.

Incidentally, in the slot machine 10, when the main CPU 41 executes the first game disable process, the sub-CPU 51 does not execute control to display the background image BP. In the slot machine 10, when the main CPU 41 executes the second game disable process, the sub-CPU 51 does not execute control to display the background image BP.

When the secondary CPU 51 inputs the third play disable command, it controls the speaker 14 to output background sound. At this time, background sound classified as special background sound from among the multiple types of background sound is output from the speaker 14. The third play disable command is control information that is output in conjunction with the execution of the third play disable process by the main CPU 41. Therefore, the timing at which the special background sound is output is the timing after the execution of the third play disable process by the main CPU 41. In other words, when the third play disable process is executed by the main CPU 41, the special background sound is output from the speaker 14 thereafter. And, in the slot machine 10, the special background sound is a sound whose volume can be adjusted. In this way, when the slot machine 10 is in a state where progress cannot be made in the third process, a sound whose volume can be adjusted may be output thereafter.

Even when the main CPU 41 is executing the third game-disabling process, the sub-CPU 51 can execute control related to volume adjustment. Therefore, in the slot machine 10, when the main CPU 41 executes the third game-disabling process and a special background sound is output thereafter, the volume at which the special background sound is output is configured to be adjustable.

Even when the third game disable process is being executed in the main CPU 41, the secondary CPU 51 can be controlled to the power saving mode. Therefore, even after the third game disable command is input, if a predetermined power saving standby time has elapsed since the variable game was not executed and the multiplier was not set, the secondary CPU 51 will control to the power saving mode if power saving permission information that can specify that control to the power saving mode is permitted is stored in the secondary RAM 53.

As described above, the slot machine 10 is configured to be able to execute control to display the two-dimensional code as history information on the performance display device 15. In the slot machine 10, executing control to display the two-dimensional code on the performance display device 15 corresponds to executing history information display control to display history information based on the history of the game on the display means. In this embodiment, the sub-CPU 51 executes control to display the two-dimensional code on the performance display device 15, thereby realizing a function as a history display control means capable of executing history information display control to display history information based on the history of the game on the display means. The control to display the two-dimensional code on the performance display device 15 can be regarded as specific control. The control to display the two-dimensional code on the performance display device 15 can be regarded as special operation control. The control to display the two-dimensional code on the performance display device 15 is executed, for example, in the control related to the execution of the history display performance. In other words, the sub-CPU 51 can execute control to display the two-dimensional code on the performance display device 15 in response to the operation of the performance button BT. The control to display the two-dimensional code on the performance display device 15 is executed, for example, when the main CPU 41 is executing the second game disable process, that is, when the game is unable to proceed in the second process. The control to display the two-dimensional code on the performance display device 15 is executed, for example, when the main CPU 41 is executing the third game disable process, that is, when the game is unable to proceed in the third process. In other words, the sub-CPU 51 can execute control to display the two-dimensional code on the performance display device 15 without being triggered by the operation of the performance button BT.

The slot machine 10 is configured to execute control for executing a setting presentation and to execute control for suggesting or notifying a set setting value. In the slot machine 10, executing control for suggesting or notifying a set setting value corresponds to executing setting presentation control for executing a setting presentation for suggesting or notifying a set setting value. In this embodiment, the sub-CPU 51 executes control for suggesting or notifying a set setting value, thereby realizing a function as a setting presentation control means capable of executing setting presentation control for executing a setting presentation for suggesting or notifying a set setting value. The control for suggesting or notifying a set setting value is executed, for example, in the control for executing a setting operation presentation. In other words, the sub-CPU 51 can execute control for executing a setting operation presentation when the presentation button BT is operated. The control for suggesting or notifying a set setting value is executed, for example, when the main CPU 41 is executing a third game-disabled process, that is, when the game is in a progress-disabled state in the third process. In other words, the sub-CPU 51 can execute control for executing a setting operation presentation without being triggered by the operation of the presentation button BT.

The slot machine 10 is configured to be able to execute control related to volume adjustment. In the slot machine 10, executing control related to volume adjustment corresponds to executing volume adjustment control for adjusting the volume of at least a part of the sounds output from the sound output means. In this embodiment, the sub-CPU 51 executes control related to volume adjustment, thereby realizing a function as a volume adjustment control means capable of executing volume adjustment control for adjusting the volume of at least a part of the sounds output from the sound output means. The control related to volume adjustment can be regarded as a specific control. The control related to volume adjustment can be regarded as a special operation control. The control related to volume adjustment is executed, for example, when the game progress is possible. The control related to volume adjustment is executed, for example, when the main CPU 41 is executing a second game disable process, that is, when the game progress is impossible in the second process. The control related to volume adjustment is executed, for example, when the main CPU 41 is executing a third game disable process, that is, when the game progress is impossible in the third process. In other words, the sub-CPU 51 can execute control related to volume adjustment when the buttons Ba and Bb are operated.

The slot machine 10 is configured to be able to execute control to switch to the power saving mode. In the slot machine 10, executing control to switch to the power saving mode corresponds to executing power saving control to control to the power saving mode. In this embodiment, the sub-CPU 51 executes control to switch to the power saving mode, thereby realizing a function as a power saving control means capable of executing power saving control to control to the power saving mode. The control to switch to the power saving mode can be regarded as specific control. The control to switch to the power saving mode can be regarded as special operation control. The control to switch to the power saving mode is executed, for example, when the game progress is possible. The control to switch to the power saving mode is executed, for example, when the main CPU 41 is executing a second game disable process, that is, when the game progress is impossible in the second process. The control to switch to the power saving mode is executed, for example, when the main CPU 41 is executing a third game disable process, that is, when the game progress is impossible in the third process.

In the slot machine 10, before the post-power recovery acquired number information reaches a specified value, the remaining value until the post-power recovery acquired number information reaches the specified value may be notified. Specifically, in the slot machine 10, when the remaining value until the value identifiable from the post-power recovery acquired number information reaches the specified value falls below the notification start reference value, notification of the remaining value until the post-power recovery acquired number information reaches the specified value begins. A case in which the remaining value until the value identifiable from the post-power recovery acquired number information reaches the specified value falls below the notification start reference value corresponds to a case in which the value identifiable from the post-power recovery acquired number information reaches a value that is smaller than the specified value by the notification start reference value.

In the slot machine 10, even if the remaining value until the value identifiable from the acquired number information after power recovery reaches the specified value becomes higher than the notification start reference value after the remaining value until the value identifiable from the acquired number information after power recovery reaches the specified value becomes equal to or less than the notification start reference value, the notification of the remaining value until the acquired number information after power recovery reaches the specified value does not end. Specifically, in the slot machine 10, after starting the notification of the remaining value until the value identifiable from the acquired number information after power recovery reaches the specified value becomes equal to or greater than the notification end reference value higher than the notification start reference value, the notification of the remaining value until the acquired number information after power recovery reaches the specified value ends. The case where the value identifiable from the acquired number information after power recovery reaches the specified value becomes equal to or greater than the notification end reference value higher than the notification start reference value corresponds to the case where the value identifiable from the acquired number information after power recovery becomes equal to or less than the notification end reference value lower than the specified value. In addition, in the slot machine 10, even if the post-power-recovery acquired number information reaches a specified value, notification of the remaining value until the post-power-recovery acquired number information reaches the specified value will cease.

In the slot machine 10, the notification start reference value is set to "500" and the notification end reference value is set to "600". Therefore, in the slot machine 10, when the remaining value until the value identifiable from the acquired number information after power recovery reaches the specified value is equal to or less than the notification start reference value, it corresponds to the case where the value identifiable from the acquired number information after power recovery reaches "18500 (=19000-500)". Also, in the slot machine 10, when the value identifiable from the acquired number information after power recovery reaches the specified value is equal to or greater than the notification end reference value that is higher than the notification start reference value, it corresponds to the case where the value identifiable from the acquired number information after power recovery is equal to or less than "18400 (=19000-600)". In this way, in the slot machine 10, the difference between the notification start reference value and the notification end reference value is greater than the maximum number of medals paid out as a prize in the slot machine 10. This makes it easier to suppress frequent repetition of the start and end of notification of the remaining value until the acquired number information after power recovery reaches the specified value.

As shown in FIG. 20, in the slot machine 10, a remaining number notification image NHg including the remaining value until the acquired number information after power recovery reaches a specified value is displayed on the performance display device 15, and the remaining value until the acquired number information after power recovery reaches a specified value is notified. For example, as shown in FIG. 20, if the remaining value until the acquired number information after power recovery reaches the specified value is "76 coins", the performance display device 15 displays a remaining number notification image NHg including the text information "76 coins remaining, game ends".

When the secondary CPU 51 inputs a post-power recovery number of coins command, it identifies the value of the post-power recovery number of coins information from the command, stores information capable of identifying the identified value (hereinafter referred to as secondary post-power recovery number of coins information) in the secondary RAM 53, and updates the secondary post-power recovery number of coins information. In the slot machine 10, the value that can be identified from the secondary post-power recovery number of coins information stored in the secondary RAM 53 is the same value as the value that can be identified from the post-power recovery number of coins information stored in the main RAM 43.

When the remaining value until the post-power recovery acquired number information reaches the specified value is not being reported, if the value identifiable from the secondary post-power recovery acquired number information reaches "18,500" after updating, the secondary CPU 51 starts reporting the remaining value until the post-power recovery acquired number information reaches the specified value. When reporting the remaining value until the post-power recovery acquired number information reaches the specified value, the secondary CPU 51 identifies the difference between the specified value and the value identifiable from the secondary post-power recovery acquired number information, and reports the identified "difference" as the "remaining value until the post-power recovery acquired number information reaches the specified value." When reporting the remaining value until the post-power recovery acquired number information reaches the specified value, the secondary CPU 51 controls the performance display device 15 so that a remaining number reporting image NHg that identifies the remaining value until the post-power recovery acquired number information reaches the specified value is displayed. When the secondary CPU 51 is notifying the remaining value until the post-power recovery acquired number information reaches the specified value, if the value that can be determined from the secondary post-power recovery acquired number information after updating becomes "18,400" or less, the secondary CPU 51 will end notification of the remaining value until the post-power recovery acquired number information reaches the specified value.

In the slot machine 10, when settlement control is executed by the main CPU 41 when the game is in a game progress possible state, in which game progress is possible, the slot machine 10 goes into a standby state. In the slot machine 10, even when the game is not in a game progress possible state, settlement control may be executed by the main CPU 41 when the game is in a progress impossible state in the second process, in which case the slot machine 10 does not go into a standby state. Similarly, in the slot machine 10, even when the game is not in a game progress possible state, settlement control may be executed by the main CPU 41 when the game is in a progress impossible state in the third process, in which case the slot machine 10 does not go into a standby state.

However, as shown in FIG. 21(a), when settlement control is performed in any of the following states: a game can progress, a game cannot progress in the second process, and a game cannot progress in the third game cannot progress process, a settlement image SGa that indicates that settlement control has been performed is displayed on the performance display device 15. Then, when settlement control ends, the performance display device 15 stops displaying the settlement image SGa. The settlement image SGa is an image that includes the text information "settlement in progress".

When the standby state is reached, the performance display device 15 executes a demonstration performance (so-called demo performance) using a character that is the motif of the slot machine 10. When the standby state is reached, the performance display device 15 executes a warning against addiction. As shown in FIG. 21(b), in the slot machine 10, a warning image NTa is displayed on the performance display device 15, and a warning against addiction is executed. The warning image NTa is an image that includes text information such as "Pachinko and pachislot are games that should be enjoyed in moderation. Take care not to become addicted."

When the sub-CPU 51 inputs a settlement start command, it controls the performance display device 15 so that the settlement in progress image SGa is displayed. When the sub-CPU 51 inputs a settlement end command, it controls the performance display device 15 so that the display of the settlement in progress image SGa is terminated. When the sub-CPU 51 inputs a settlement end command while the game is in a state in which game progress can be made, it controls the performance display device 15 to a standby state. When controlled to a standby state, the sub-CPU 51 controls the performance display device 15 so that a demonstration performance is executed. Then, after the demonstration performance is ended, the sub-CPU 51 controls the performance display device 15 so that a warning image NTa is displayed so that a warning about addiction is issued. In this way, the slot machine 10 is configured to be able to execute warnings about addiction.

In the slot machine 10, various controls are executed by the main CPU 41 and the sub-CPU 51. In this embodiment, one or both of the main CPU 41 and the sub-CPU 51 that executes control as specific control can realize the function as specific control means capable of executing specific control. Control as specific control is control that can be executed when the game is in a game progress possible state in which it is possible to proceed with the game. Control as specific control is control that can be executed when the game is in a game progress possible state in which it is possible to proceed with the game, and is control that is different from control related to the progress of the game. In this embodiment, the main CPU 41 executes control as special information control, thereby realizing the function as special information control means capable of executing special information control. In this embodiment, one or both of the main CPU 41 and the sub-CPU 51 that executes control as special operation control can realize the function as special operation control means capable of executing special operation control.

Here, based on FIG. 22, an example of executable and inexecutable control in each of the states of a game progress possible state, a progress impossible state in the first process, a progress impossible state in the second process, and a progress impossible state in the third process will be described.

In the slot machine 10, various processes are executed in the game progress process, except for the second game disable process in step S610 and the third game disable process in step S623, and thereby control related to the execution of the variable game is executed. The control related to the execution of the variable game is executable when the game progress is possible. On the other hand, the control related to the execution of the variable game is not executable when the game progress is impossible in the first process. The control related to the execution of the variable game is not executable when the game progress is impossible in the second process. Similarly, the control related to the execution of the variable game is not executable when the game progress is impossible in the third process.

The slot machine 10 is configured to be able to execute settlement control in the settlement process. To execute the settlement control, various settlement conditions that can be established by the operation of the settlement button 19, the number of credits, the multiplier, etc. must be established. In the slot machine 10, if the settlement conditions are established, the settlement control is executed in the settlement process. Then, the settlement control can be executed when the game is in a state where progress can be made. On the other hand, the settlement control cannot be executed when the game is in a state where progress cannot be made in the first process. Moreover, the settlement control can be executed when the game is in a state where progress cannot be made in the second process. Similarly, the settlement control can be executed when the game is in a state where progress cannot be made in the third process.

In the slot machine 10, when settlement control is executed in the second process when the game is unable to proceed, the slot machine 10 does not enter a standby state. Then, in the slot machine 10, after settlement control is executed in the second process when the game is unable to proceed, a warning about addiction is not executed. Similarly, in the slot machine 10, when settlement control is executed in the third process when the game is unable to proceed, a warning about addiction is not executed. In this embodiment, when a specific game is unable to proceed, a special control is executed, a standby state is not entered. In this embodiment, when a specific game is unable to proceed, a warning about addiction is not executed after special control is executed. On the other hand, in the slot machine 10, when settlement control is executed in the game is possible to proceed, a standby state is entered. Then, in the slot machine 10, when settlement control is executed in the game is possible to proceed, a warning about addiction is executed. In this embodiment, when a game is possible to proceed, a special control is executed, a standby state is entered. In this embodiment, after special control is executed when game progress is possible, a warning about addiction is issued.

The slot machine 10 is configured to be able to execute control for detecting a throw-in error by executing a throw-in error detection process. The control for detecting a throw-in error can be executed when the game is in a state where game progress is possible. On the other hand, the control for detecting a throw-in error cannot be executed when the game is in a state where game progress is impossible in the first process. Furthermore, the control for detecting a throw-in error can be executed when the game is in a state where game progress is impossible in the second process. Similarly, the control for detecting a throw-in error can be executed when the game is in a state where game progress is impossible in the third process.

The slot machine 10 is configured to be able to execute control for detecting a payout error by executing a payout error detection process. The control for detecting a payout error can be executed when the game is in a state where game progress is possible. On the other hand, the control for detecting a payout error cannot be executed when the game is in a state where game progress is impossible in the first process. Furthermore, the control for detecting a payout error can be executed when the game is in a state where game progress is impossible in the second process. Similarly, the control for detecting a payout error can be executed when the game is in a state where game progress is impossible in the third process.

The slot machine 10 is configured to be able to execute control for detecting a door opening error by executing a door opening detection process. The control for detecting a door opening error is executable when the game is in a state where game progress is possible. On the other hand, the control for detecting a door opening error is not executable when the game is in a state where game progress is impossible in the first process. Furthermore, the control for detecting a door opening error is executable when the game is in a state where game progress is impossible in the second process. Similarly, the control for detecting a door opening error is executable when the game is in a state where game progress is impossible in the third process.

The slot machine 10 is configured to be able to execute control to set the setting value confirmation state in the setting value confirmation process. To execute control to set the setting value confirmation state, a condition must be met, such as the setting value switch 45 being operated. In the slot machine 10, if the setting value switch 45 is operated, control to set the setting value confirmation state in the setting value confirmation process is executed. Then, the control to set the setting value confirmation state is executable when the game is in a state in which game progress is possible. On the other hand, the control to set the setting value confirmation state is not executable when the game is in a state in which game progress is impossible in the first process. Also, the control to set the setting value confirmation state is not executable when the game is in a state in which game progress is impossible in the second process. On the other hand, the control to set the setting value confirmation state is executable when the game is in a state in which game progress is impossible in the third process.

In the slot machine 10, the setting value that has been set is suggested or notified by executing the setting operation presentation. In addition, in the slot machine 10, the setting value that has been set is suggested or notified by displaying the background image BP. The control related to the execution of the setting operation presentation is executable when the game is in a state where game progress is possible. The control to display the background image BP is not executed when the game is in a state where game progress is possible. The control related to the execution of the setting operation presentation is not executable when the game is in a state where progress is impossible in the first process. Similarly, the control to display the background image BP is not executable when the game is in a state where progress is impossible in the first process. Also, the control related to the execution of the setting operation presentation is not executable when the game is in a state where progress is impossible in the second process. Similarly, the control to display the background image BP is not executable when the game is in a state where progress is impossible in the second process. The control related to the execution of the setting operation presentation is not executable when the game is in a state where progress is impossible in the third process. However, the control to display the background image BP is executable when the game is in a state where progress is impossible in the third process.

Therefore, in the slot machine 10, the control to suggest or notify the set value that has been set is executable when the game is in a state where game progress is possible. On the other hand, the control to suggest or notify the set value is not executable when the game is in a state where game progress is impossible in the first process. Also, the control to suggest or notify the set value is not executable when the game is in a state where game progress is impossible in the second process. On the other hand, the control to suggest or notify the set value is executable when the game is in a state where game progress is impossible in the third process.

In the slot machine 10, the two-dimensional code is displayed to display history information based on the history of the game. For example, in the slot machine 10, when the slot machine 10 is controlled to be in an advantageous state and the history display notification effect is being executed, if the effect button BT is operated, the two-dimensional code is displayed on the effect display device 15. For example, in the slot machine 10, even if the second game disable process is executed, the two-dimensional code generated based on a value identifiable from the consecutive bonus count information is displayed on the effect display device 15. For example, in the slot machine 10, even if the third game disable process is executed, the two-dimensional code generated based on the value identifiable from the acquired number information after power recovery reaching a specified value is displayed on the effect display device 15. And, the control to display the two-dimensional code on the effect display device 15 is executable when the game is in a progress-enabled state. On the other hand, the control to display the two-dimensional code on the effect display device 15 is not executable when the game is in a progress-disabled state in the first process. Also, the control to display the two-dimensional code on the effect display device 15 is executable when the game is in a progress-disabled state in the second process. Similarly, control to display a two-dimensional code on the performance display device 15 can be executed when the third process is in an impossible state.

The slot machine 10 is configured to be able to execute control related to volume adjustment. The control related to volume adjustment is executable when the game is in a state where game progress is possible. On the other hand, the control related to volume adjustment is not executable when the game is in a state where game progress is impossible in the first process. Furthermore, the control related to volume adjustment is executable when the game is in a state where game progress is impossible in the second process. Similarly, the control related to volume adjustment is executable when the game is in a state where game progress is impossible in the third process.

The slot machine 10 is configured to be able to execute control to switch to power saving mode. The control to switch to power saving mode is executable when the game is in a state where game progress is possible. On the other hand, the control to switch to power saving mode is not executable when the game is in a state where game progress is impossible in the first process. Furthermore, the control to switch to power saving mode is executable when the game is in a state where game progress is impossible in the second process. Similarly, the control to switch to power saving mode is executable when the game is in a state where game progress is impossible in the third process.

The effects of this embodiment will be described below.
(1-1) Even if the game progress is disabled in the second process, the settlement control for settlement of game media can be executed. This prevents the game progress from being disabled and the settlement control from being unable to be executed, thereby preventing a decrease in convenience.

(1-2) Even if the game is unable to progress, if the game is unable to progress in the third process, settlement control related to the settlement of gaming media can be executed. This prevents the game from becoming unable to progress and causing a situation in which settlement control cannot be executed, and prevents a decrease in convenience.

(1-3) Even if the game is unable to proceed in the second process, control to detect an input error can be executed even if the game is unable to proceed. This prevents a situation in which the game is unable to proceed and control to detect an input error cannot be executed, and prevents a decrease in convenience.

(1-4) Even if the game is unable to proceed in the third process, control to detect an input error can be executed even if the game is unable to proceed. This prevents a situation in which the game is unable to proceed and control to detect an input error cannot be executed, and prevents a decrease in convenience.

(1-5) If the game becomes unable to proceed in the second process even when the game is unable to proceed, control to detect a payout error can be executed. This prevents a situation in which the game becomes unable to proceed and control to detect a payout error cannot be executed, and prevents a decrease in convenience.

(1-6) If the game becomes unable to proceed in the third process even when the game becomes unable to proceed, control to detect a payout error can be executed. This prevents a situation in which the game becomes unable to proceed and control to detect a payout error cannot be executed, and prevents a decrease in convenience.

(1-7) If the game becomes unable to proceed in the second process even when the game becomes unable to proceed, control to detect a door opening error can be executed. This prevents a situation in which the game becomes unable to proceed and control to detect a door opening error cannot be executed, and prevents a decrease in convenience.

(1-8) Even if the game is unable to proceed in the third process, even if the game is unable to proceed, it is possible to execute control to detect a door opening error. This prevents a situation in which the game is unable to proceed and control to detect a door opening error cannot be executed, and prevents a decrease in convenience.

(1-9) Even if the game is unable to proceed in the second process, even if the game is unable to proceed, it is possible to execute control to display the two-dimensional code as history information on the performance display device 15. This prevents a situation in which the game is unable to proceed and control to display the two-dimensional code on the performance display device 15 cannot be executed, thereby preventing a decrease in convenience.

(1-10) Even if the game is unable to proceed in the third process, even if the game is unable to proceed, it is possible to execute control to display the two-dimensional code as history information on the presentation display device 15. This prevents a situation in which the game is unable to proceed and control to display the two-dimensional code on the presentation display device 15 cannot be executed, thereby preventing a decrease in convenience.

(1-11) If the game progress is impossible in the second process, even if the game progress is impossible, the control related to the volume adjustment can be executed. This prevents the game from becoming impossible to progress and causing the control related to the volume adjustment to be impossible to execute, thereby preventing a decrease in convenience.

(1-12) If the game progress is impossible in the third process, even if the game progress is impossible, the control related to the volume adjustment can be executed. This prevents the game from becoming impossible to progress and the control related to the volume adjustment from being executed, thereby preventing a decrease in convenience.

(1-13) If the game progress is impossible in the second process, even if the game progress is impossible, the control to switch to power saving mode can be executed. This prevents the game from becoming impossible to progress and the control to switch to power saving mode from being executed, thereby preventing a decrease in convenience.

(1-14) If the game progress is impossible in the third process, even if the game progress is impossible, the control to switch to power saving mode can be executed. This prevents a situation in which the game progress is impossible and the control to switch to power saving mode cannot be executed, and prevents a decrease in convenience.

(1-15) If the game progress is impossible in the third process, even if the game progress is impossible, control to change to the setting value confirmation state can be executed. This prevents a situation in which the game progress is impossible and control to change to the setting value confirmation state cannot be executed, and prevents a decrease in convenience.

(1-16) If the game becomes unable to progress in the third process even when the game becomes unable to progress, control can be executed to suggest or notify the set value that has been set. This prevents a situation in which the game becomes unable to progress and control to suggest or notify the set value that has been set cannot be executed, and prevents a decrease in convenience.

(1-17) When the game is unable to progress in the first process, settlement control related to the settlement of gaming media cannot be executed. However, when the game is unable to progress in the second process, settlement control can be executed. In this way, even when the game is unable to progress, if the game is unable to progress in the second process, settlement control can be executed even if the game is unable to progress. This prevents the game from becoming unable to progress and causing settlement control to be unable to be executed, thereby preventing a decrease in convenience.

(1-18) When the game is unable to progress in the first process, settlement control related to the settlement of gaming media cannot be executed. However, when the game is unable to progress in the third process, settlement control can be executed. In this way, even when the game is unable to progress, if the game is unable to progress in the third process, settlement control can be executed even if the game is unable to progress. This prevents the game from becoming unable to progress and causing settlement control to be unable to be executed, and prevents a decrease in convenience.

(1-19) When the game is unable to proceed in the first process, control to detect a throw-in error cannot be executed. However, when the game is unable to proceed in the second process, control to detect a throw-in error can be executed. In this way, even when the game is unable to proceed, if the game is unable to proceed in the second process, control to detect a throw-in error can be executed even if the game is unable to proceed. This prevents the game from becoming unable to proceed and causing a state in which control to detect a throw-in error cannot be executed, thereby preventing a decrease in convenience.

(1-20) When the game is unable to proceed in the first process, control to detect a throw-in error cannot be executed. However, when the game is unable to proceed in the third process, control to detect a throw-in error can be executed. In this way, even when the game is unable to proceed, if the game is unable to proceed in the third process, control to detect a throw-in error can be executed even if the game is unable to proceed. This prevents the game from becoming unable to proceed and causing a state in which control to detect a throw-in error cannot be executed, and prevents a decrease in convenience.

(1-21) When the game is unable to proceed in the first process, control to detect a payout error cannot be executed. However, when the game is unable to proceed in the second process, control to detect a payout error can be executed. In this way, even when the game is unable to proceed, if the game is unable to proceed in the second process, control to detect a payout error can be executed even if the game is unable to proceed. This prevents the game from becoming unable to proceed and causing a state in which control to detect a payout error cannot be executed, and prevents a decrease in convenience.

(1-22) When the game is unable to proceed in the first process, control to detect a payout error cannot be executed. However, when the game is unable to proceed in the third process, control to detect a payout error can be executed. In this way, even when the game is unable to proceed, if the game is unable to proceed in the third process, control to detect a payout error can be executed even if the game is unable to proceed. This prevents the game from becoming unable to proceed and causing a state in which control to detect a payout error cannot be executed, and prevents a decrease in convenience.

(1-23) When the game is unable to proceed in the first process, control to detect a door opening error cannot be executed. However, when the game is unable to proceed in the second process, control to detect a door opening error can be executed. In this way, even when the game is unable to proceed, if the game is unable to proceed in the second process, control to detect a door opening error can be executed even if the game is unable to proceed. This prevents the game from becoming unable to proceed and causing a state in which control to detect a door opening error cannot be executed, thereby preventing a decrease in convenience.

(1-24) When the game is unable to proceed in the first process, control to detect a door opening error cannot be executed. However, when the game is unable to proceed in the third process, control to detect a door opening error can be executed. In this way, even when the game is unable to proceed, if the game is unable to proceed in the third process, control to detect a door opening error can be executed even if the game is unable to proceed. This prevents the game from becoming unable to proceed and causing a state in which control to detect a door opening error cannot be executed, thereby preventing a decrease in convenience.

(1-25) When the game is unable to proceed in the first process, control to display the two-dimensional code as history information on the performance display device 15 cannot be executed. However, when the game is unable to proceed in the second process, control to display the two-dimensional code on the performance display device 15 can be executed. In this way, even when the game is unable to proceed, if the game is unable to proceed in the second process, control to display the two-dimensional code on the performance display device 15 can be executed even if the game is unable to proceed. This prevents the game from becoming unable to proceed and causing a state in which control to display the two-dimensional code on the performance display device 15 cannot be executed, thereby preventing a decrease in convenience.

(1-26) When the game is unable to proceed in the first process, control to display the two-dimensional code as history information on the performance display device 15 cannot be executed. However, when the game is unable to proceed in the third process, control to display the two-dimensional code on the performance display device 15 can be executed. In this way, even when the game is unable to proceed, if the game is unable to proceed in the third process, control to display the two-dimensional code on the performance display device 15 can be executed even if the game is unable to proceed. This prevents the game from becoming unable to proceed and causing a state in which control to display the two-dimensional code on the performance display device 15 cannot be executed, thereby preventing a decrease in convenience.

(1-27) When the game is unable to progress in the first process, control related to volume adjustment cannot be executed. However, when the game is unable to progress in the second process, control related to volume adjustment can be executed. In this way, even when the game is unable to progress, if the game is unable to progress in the second process, control related to volume adjustment can be executed even if the game is unable to progress. This prevents the game from becoming unable to progress and causing control related to volume adjustment to be unable to be executed, thereby preventing a decrease in convenience.

(1-28) When the game is unable to progress in the first process, control related to volume adjustment cannot be executed. However, when the game is unable to progress in the third process, control related to volume adjustment can be executed. In this way, even when the game is unable to progress, if the game is unable to progress in the third process, control related to volume adjustment can be executed even if the game is unable to progress. This prevents the game from becoming unable to progress and causing control related to volume adjustment to be unable to be executed, thereby preventing a decrease in convenience.

(1-29) When the game is unable to progress in the first process, control to switch to power saving mode cannot be executed. However, when the game is unable to progress in the second process, control to switch to power saving mode can be executed. In this way, even when the game is unable to progress, if the game is unable to progress in the second process, control to switch to power saving mode can be executed even if the game is unable to progress. This prevents the game from becoming unable to progress and thus preventing a decrease in convenience.

(1-30) When the game is unable to progress in the first process, control to switch to power saving mode cannot be executed. However, when the game is unable to progress in the third process, control to switch to power saving mode can be executed. In this way, even when the game is unable to progress, if the game is unable to progress in the third process, control to switch to power saving mode can be executed even if the game is unable to progress. This prevents the game from becoming unable to progress and thus preventing a decrease in convenience.

(1-31) When the game is in an impossible-to-progress state in the first process, control to change to the setting value confirmation state cannot be executed. However, when the game is in an impossible-to-progress state in the third process, control to change to the setting value confirmation state can be executed. In this way, even when the game is in an impossible-to-progress state in the third process, control to change to the setting value confirmation state can be executed even if the game is in an impossible-to-progress state. This prevents the game from becoming impossible to progress and causing a state in which control to change to the setting value confirmation state cannot be executed, thereby preventing a decrease in convenience.

(1-32) When the game is unable to progress in the first process, control to suggest or notify the set value cannot be executed. However, when the game is unable to progress in the third process, control to suggest or notify the set value can be executed. In this way, even when the game is unable to progress, if the game is unable to progress in the third process, control to suggest or notify the set value can be executed even if the game is unable to progress. This prevents the game from becoming unable to progress and thus prevents a decrease in convenience.

(1-33) Settlement control related to settlement of gaming media is control that can be executed when the game is in a game progress possible state where the game can progress, and is different from control related to the game progress, that is, control related to the execution of the variable game. In this way, although the settlement control is different from control related to the game progress, it is control that can be executed when the game is in a progress possible state. Therefore, even if the game progress is impossible, if the progress is impossible state in the second process, settlement control can be executed in the same way as in the game progress possible state, and it is possible to prevent a situation in which settlement control cannot be executed. Similarly, even if the game progress is impossible, if the progress is impossible state in the third process, settlement control can be executed in the same way as in the game progress possible state, and it is possible to prevent a situation in which settlement control cannot be executed.

(1-34) The control to detect a throw-in error is executable when the game is in a state where game progress is possible, and is different from the control related to the game progress. In this way, the control to detect a throw-in error is different from the control related to the game progress, but is executable when the game is in a state where game progress is possible. For this reason, even if the game becomes unable to progress, if the game is in an unable to progress state in the second process, it is possible to execute the control to detect a throw-in error in the same way as in a state where game progress is possible, and it is possible to prevent a situation where the control to detect a throw-in error cannot be executed. Similarly, even if the game becomes unable to progress, if the game is in an unable to progress state in the third process, it is possible to execute the control to detect a throw-in error in the same way as in a state where game progress is possible, and it is possible to prevent a situation where the control to detect a throw-in error cannot be executed.

(1-35) The control to detect a payout error is executable when the game is in a game progress possible state where the game can proceed, and is different from the control related to the game progress. In this way, although the control to detect a payout error is different from the control related to the game progress, it is executable when the game is in a game progress possible state. Therefore, even if the game progress is impossible, if the game progress is impossible in the second process, the control to detect a payout error can be executed as in the game progress possible state, and it is possible to prevent a situation in which the control to detect a payout error cannot be executed. Similarly, even if the game progress is impossible in the third process, the control to detect a payout error can be executed as in the game progress possible state, and it is possible to prevent a situation in which the control to detect a payout error cannot be executed.

(1-36) The control to detect a door opening error is executable when the game is in a game progress possible state where the game can proceed, and is different from the control related to the game progress. In this way, although the control to detect a door opening error is different from the control related to the game progress, it is executable when the game is in a game progress possible state. Therefore, even if the game progress is impossible, if the game progress is impossible in the second processing, the control to detect a door opening error can be executed as in the game progress possible state, and it is possible to prevent a situation in which the control to detect a door opening error cannot be executed. Similarly, even if the game progress is impossible, if the game progress is impossible in the third processing, the control to detect a door opening error can be executed as in the game progress possible state, and it is possible to prevent a situation in which the control to detect a door opening error cannot be executed.

(1-37) The control of displaying the two-dimensional code as history information on the performance display device 15 is executable when the game is in a state where the game can proceed, and is different from the control related to the game progress. In this way, the control of displaying the two-dimensional code on the performance display device 15 is executable when the game is in a state where the game can proceed, although it is different from the control related to the game progress. Therefore, even if the game is in a state where the game cannot proceed, if the game is in a state where the game cannot proceed in the second process, the control of displaying the two-dimensional code on the performance display device 15 can be executed as in the state where the game can proceed, and it is possible to prevent a situation where the control of displaying the two-dimensional code on the performance display device 15 cannot be executed. Similarly, even if the game is in a state where the game cannot proceed, if the game is in a state where the game cannot proceed in the third process, the control of displaying the two-dimensional code on the performance display device 15 can be executed as in the state where the game can proceed, and it is possible to prevent a situation where the control of displaying the two-dimensional code on the performance display device 15 cannot be executed.

(1-38) The control related to the volume adjustment is executable when the game is in a game progress possible state where the game can progress, and is different from the control related to the game progress. In this way, although the control related to the volume adjustment is different from the control related to the game progress, it is a control that can be executed when the game is in a game progress possible state. Therefore, even if the game progress is impossible, if the game progress is impossible in the second process, the control related to the volume adjustment can be executed in the same way as in the game progress possible state, and it is possible to prevent a situation in which the control related to the volume adjustment cannot be executed. Similarly, even if the game progress is impossible in the third process, the control related to the volume adjustment can be executed in the same way as in the game progress possible state, and it is possible to prevent a situation in which the control related to the volume adjustment cannot be executed.

(1-39) The control to switch to the power saving mode is executable when the game is in a game progress possible state where game progress is possible, and is different from the control related to the game progress. In this way, although the control to switch to the power saving mode is different from the control related to the game progress, it is executable when the game is in a game progress possible state. Therefore, even if the game progress is impossible, if the game progress is impossible in the second processing, the control to switch to the power saving mode can be executed as in the game progress possible state, and it is possible to prevent a situation in which the control to switch to the power saving mode cannot be executed. Similarly, even if the game progress is impossible in the third processing, the control to switch to the power saving mode can be executed as in the game progress possible state, and it is possible to prevent a situation in which the control to switch to the power saving mode cannot be executed.

(1-40) The control to change to the setting value confirmation state is executable when the game is in a game progress possible state where the game can proceed, and is different from the control related to the game progress. In this way, although the control to change to the setting value confirmation state is different from the control related to the game progress, it is a control that can be executed when the game is in a game progress possible state. Therefore, even if the game progress impossible state is reached, if the progress impossible state in the third process, it is possible to execute the control to change to the setting value confirmation state as in the game progress possible state, and it is possible to prevent a situation in which the control to change to the setting value confirmation state cannot be executed.

(1-41) The control to suggest or notify the set value is executable when the game is in a game progress possible state where the game can proceed, and is different from the control related to the game progress. In this way, the control to suggest or notify the set value is executable when the game is in a game progress possible state, although it is different from the control related to the game progress. For this reason, even if the game becomes a game progress impossible state, if the game is in a progress impossible state in the third process, it is possible to execute the control to suggest or notify the set value that is set, as in the game progress possible state, and it is possible to prevent a situation in which the control to suggest or notify the set value cannot be executed.

(1-42) The impossible state in the first process is controlled by the occurrence of an error related to the memory contents stored in the main RAM 43, that is, a RAM error. In contrast, the impossible state in the second process is controlled without the occurrence of a RAM error. In other words, the impossible state in the second process in which settlement control related to the settlement of game media can be executed is in a situation where no RAM error has occurred, that is, in a situation where the memory contents of the main RAM 43 have a certain degree of reliability. By making it possible to execute settlement control in such an impossible state in the second process in which the memory contents of the main RAM 43 have a certain degree of reliability, it becomes possible to execute settlement control with a certain degree of reliability even in a state in which game progress is impossible.

(1-43) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the third process is controlled without the occurrence of a RAM error. In other words, the impossible state in the third process in which settlement control related to the settlement of game media can be executed is in a situation where no RAM error has occurred, that is, in a situation where the memory contents of the main RAM 43 have a certain degree of reliability. By making it possible to execute settlement control in such an impossible state in the third process in which the memory contents of the main RAM 43 have a certain degree of reliability, it becomes possible to execute settlement control with a certain degree of reliability even in a state in which game progress is impossible.

(1-44) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the second process is controlled without the occurrence of a RAM error. In other words, the impossible state in the second process in which control to detect an input error can be executed is in a situation where a RAM error has not occurred, that is, in a situation where the contents stored in the main RAM 43 have a certain degree of reliability. By making it possible to execute control to detect an input error in such an impossible state in the second process in which the contents stored in the main RAM 43 have a certain degree of reliability, it becomes possible to execute control to detect an input error with a certain degree of reliability even in a state in which game progress is impossible.

(1-45) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the third process is controlled without the occurrence of a RAM error. In other words, the impossible state in the third process in which control to detect an input error can be executed is in a situation where a RAM error has not occurred, that is, in a situation where the contents stored in the main RAM 43 have a certain degree of reliability. By making it possible to execute control to detect an input error in such an impossible state in the third process in which the contents stored in the main RAM 43 have a certain degree of reliability, it becomes possible to execute control to detect an input error with a certain degree of reliability even in a state in which game progress is impossible.

(1-46) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the second process is controlled without the occurrence of a RAM error. In other words, the impossible state in the second process in which control to detect a payout error can be executed is in a situation where a RAM error has not occurred, that is, in a situation where the memory contents of the main RAM 43 have a certain degree of reliability. By making it possible to execute control to detect a payout error in such an impossible state in the second process in which the memory contents of the main RAM 43 have a certain degree of reliability, it becomes possible to execute control to detect a payout error with a certain degree of reliability even in a state in which game progress is impossible.

(1-47) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the third process is controlled without the occurrence of a RAM error. In other words, the impossible state in the third process in which control to detect a payout error can be executed is in a situation where a RAM error has not occurred, that is, in a situation where there is a certain degree of reliability in the memory contents of the main RAM 43. By making it possible to execute control to detect a payout error in such an impossible state in the third process in which there is a certain degree of reliability in the memory contents of the main RAM 43, it becomes possible to execute control to detect a payout error with a certain degree of reliability even in a state in which game progress is impossible.

(1-48) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the second process is controlled without the occurrence of a RAM error. In other words, the impossible state in the second process in which control to detect a door opening error can be executed is in a situation where no RAM error has occurred, that is, in a situation where the memory contents of the main RAM 43 have a certain degree of reliability. By making it possible to execute control to detect a door opening error in such an impossible state in the second process in which the memory contents of the main RAM 43 have a certain degree of reliability, it becomes possible to execute control to detect a door opening error with a certain degree of reliability even in a state in which game progress is impossible.

(1-49) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the third process is controlled without the occurrence of a RAM error. In other words, the impossible state in the third process in which control to detect a door opening error can be executed is in a situation where no RAM error has occurred, that is, in a situation where the memory contents of the main RAM 43 have a certain degree of reliability. By making it possible to execute control to detect a door opening error in such an impossible state in the third process in which the memory contents of the main RAM 43 have a certain degree of reliability, it becomes possible to execute control to detect a door opening error with a certain degree of reliability even in a state in which game progress is impossible.

(1-50) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the second process is controlled without the occurrence of a RAM error. In other words, the impossible state in the second process in which control to display a two-dimensional code as history information on the performance display device 15 can be executed is in a situation where no RAM error has occurred, that is, in a situation where the contents stored in the main RAM 43 have a certain degree of reliability. By making it possible to execute control to display a two-dimensional code on the performance display device 15 in such an impossible state in the second process in which the contents stored in the main RAM 43 have a certain degree of reliability, it becomes possible to execute control to display a two-dimensional code with a certain degree of reliability on the performance display device 15 even in a state in which game progress is impossible.

(1-51) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the third process is controlled without the occurrence of a RAM error. In other words, the impossible state in the third process in which control to display a two-dimensional code as history information on the performance display device 15 can be executed is in a situation where no RAM error has occurred, that is, in a situation where the contents stored in the main RAM 43 have a certain degree of reliability. By making it possible to execute control to display a two-dimensional code on the performance display device 15 in such an impossible state in the third process in which the contents stored in the main RAM 43 have a certain degree of reliability, it becomes possible to execute control to display a two-dimensional code with a certain degree of reliability on the performance display device 15 even in a state in which game progress is impossible.

(1-52) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the second process is controlled without the occurrence of a RAM error. In other words, the impossible state in the second process in which control related to volume adjustment can be executed is in a situation where no RAM error has occurred, that is, in a situation where the contents stored in the main RAM 43 are somewhat reliable. By making it possible to execute control related to volume adjustment in such an impossible state in the second process in which the contents stored in the main RAM 43 are somewhat reliable, it becomes possible to execute control related to volume adjustment with a certain degree of reliability even in a state in which game progress is impossible.

(1-53) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the third process is controlled without the occurrence of a RAM error. In other words, the impossible state in the third process in which control related to volume adjustment can be executed is in a situation where no RAM error has occurred, that is, in a situation where the contents stored in the main RAM 43 are somewhat reliable. By making it possible to execute control related to volume adjustment in such an impossible state in the third process in which the contents stored in the main RAM 43 are somewhat reliable, it becomes possible to execute control related to volume adjustment with a certain degree of reliability even in a state in which game progress is impossible.

(1-54) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the second process is controlled without the occurrence of a RAM error. In other words, the impossible state in the second process in which control to switch to power saving mode can be executed is in a situation where no RAM error has occurred, that is, in a situation where the contents stored in the main RAM 43 have a certain degree of reliability. By making it possible to execute control to switch to power saving mode in such an impossible state in the second process in which the contents stored in the main RAM 43 have a certain degree of reliability, it becomes possible to execute control to switch to a power saving mode with a certain degree of reliability even in a state in which game progress is impossible.

(1-55) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the third process is controlled without the occurrence of a RAM error. In other words, the impossible state in the third process in which control to switch to power saving mode can be executed is in a situation where no RAM error has occurred, that is, in a situation where the contents stored in the main RAM 43 have a certain degree of reliability. By making it possible to execute control to switch to power saving mode in such an impossible state in the third process in which the contents stored in the main RAM 43 have a certain degree of reliability, it becomes possible to execute control to switch to a power saving mode with a certain degree of reliability even in a state in which game progress is impossible.

(1-56) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the third process is controlled without the occurrence of a RAM error. In other words, the impossible state in the third process in which control to change to the setting value confirmation state can be executed is in a situation where no RAM error has occurred, that is, in a situation where the contents stored in the main RAM 43 have a certain degree of reliability. By making it possible to execute control to change to the setting value confirmation state in such an impossible state in the third process in which the contents stored in the main RAM 43 have a certain degree of reliability, it becomes possible to execute control to change to a setting value confirmation state with a certain degree of reliability even in a state in which game progress is impossible.

(1-57) The impossible state in the first process is controlled by the occurrence of a RAM error. In contrast, the impossible state in the third process is controlled without the occurrence of a RAM error. In other words, the impossible state in the third process in which control to suggest or notify the set value that has been set can be executed occurs in a situation where no RAM error has occurred, that is, in a situation where the contents stored in the main RAM 43 have a certain degree of reliability. By making it possible to execute control to suggest or notify the set value that has been set in such an impossible state in the third process in which the contents stored in the main RAM 43 have a certain degree of reliability, it becomes possible to execute control to suggest or notify the set value that has a certain degree of reliability even in a state in which game progress is impossible.

(1-58) When the power supply is stopped in the third process while the third process is in an unprogressible state, the information stored and held in the main RAM 43 includes information that can identify that a value identifiable from the acquired number information after power recovery has reached a specified value. The stack pointer stored and held in the main RAM 43 when the power supply is stopped in the third process corresponds to information that can identify that the third process was controlled to be in an unprogressible state. And, when the main RAM 43 stores information that can identify that the third process was controlled to be in an unprogressible state when the power supply is started, if a RAM error occurs when the power supply is started, the third process is not in an unprogressible state, but the first process is in an unprogressible state. On the other hand, when the main RAM 43 stores information that can identify that the third process was controlled to be in an unprogressible state when the power supply is started, if a RAM error does not occur when the power supply is started, the third process is in an unprogressible state, as when the power supply is stopped.

In this way, if no RAM error occurs when power supply is started, the game will be controlled to an inability to proceed in the third process, just as when power supply is stopped, and settlement control related to the settlement of gaming media will be able to be executed. In other words, even if power supply is stopped after control to an inability to proceed in the third process, once power supply is resumed, the game will once again be in an inability to proceed in the third process and settlement control will be able to be executed. This prevents a situation where a game becomes inability to proceed and settlement control cannot be executed, and prevents a decrease in convenience.

Furthermore, if no RAM error occurs when power supply is started, the game will be controlled to an inability to proceed in the third process, just as when power supply is stopped, and control to detect an input error will be able to be executed. In other words, even if power supply is stopped after control to an inability to proceed in the third process, once power supply is resumed, the game will again be in an inability to proceed in the third process, and control to detect an input error will be able to be executed. This prevents a situation in which a game is in an inability to proceed state and control to detect an input error cannot be executed, and prevents a decrease in convenience.

Furthermore, if no RAM error occurs when power supply is started, the game will be controlled to an inability to proceed in the third process, just as when power supply is stopped, and control to detect a payout error will be able to be executed. In other words, even if power supply is stopped after control to an inability to proceed in the third process, once power supply is resumed, the game will again be in an inability to proceed in the third process, and control to detect a payout error will be able to be executed. This prevents a situation in which a game is in an inability to proceed state and control to detect a payout error cannot be executed, and prevents a decrease in convenience.

Furthermore, if no RAM error occurs when power supply is started, the game will be controlled to an unprogressable state in the third process, just as when power supply is stopped, and control to detect a door opening error will be able to be executed. In other words, even if power supply is stopped after control to an unprogressable state in the third process, once power supply is resumed, the game will again be in an unprogressable state in the third process, and control to detect a door opening error will be able to be executed. This prevents a situation in which a game is unprogressable and control to detect a door opening error cannot be executed, and prevents a decrease in convenience.

Furthermore, if no RAM error occurs when power supply is started, the game is controlled to an unprogressable state in the third process, just as when power supply is stopped, and control to display the two-dimensional code as history information on the performance display device 15 can be executed. In other words, even if power supply is stopped after control to an unprogressable state in the third process, once power supply is resumed, the game will again be in an unprogressable state in the third process, and control to display the two-dimensional code on the performance display device 15 can be executed. This prevents a situation in which a game is unprogressable and control to display the two-dimensional code on the performance display device 15 cannot be executed, and prevents a decrease in convenience.

Furthermore, if no RAM error occurs when power supply is started, the game is controlled to an inability to proceed in the third process, just as when power supply is stopped, and control related to volume adjustment can be executed. In other words, even if power supply is stopped after control is controlled to an inability to proceed in the third process, once power supply is resumed, the game will once again enter an inability to proceed in the third process, and control related to volume adjustment can be executed. This prevents a situation in which game progress is prevented and control related to volume adjustment cannot be executed, and prevents a decrease in convenience.

Furthermore, if no RAM error occurs when power supply is started, the game will be controlled to an inability to proceed in the third process, just as when power supply is stopped, and control to switch to power saving mode can be executed. In other words, even if power supply is stopped after control to an inability to proceed in the third process, once power supply is resumed, the game will again be controlled to an inability to proceed in the third process and control to switch to power saving mode can be executed. This prevents a situation in which a game is in an inability to proceed and control to switch to power saving mode cannot be executed, and prevents a decrease in convenience.

Furthermore, if no RAM error occurs when power supply is started, the game will be controlled to an unprogressable state in the third process, just as when power supply is stopped, and control to the setting value confirmation state can be executed. In other words, even if power supply is stopped after control to an unprogressable state in the third process, once power supply is resumed, the game will again be controlled to an unprogressable state in the third process and control to the setting value confirmation state can be executed. This prevents a situation in which a game is unprogressable and control to the setting value confirmation state cannot be executed, and prevents a decrease in convenience.

Furthermore, if no RAM error occurs when power supply is started, the game will be controlled to an unprogressable state in the third process, just as when power supply is stopped, and control to suggest or notify the set value that has been set will be executable. In other words, even if power supply is stopped after control to an unprogressable state in the third process, once power supply is resumed, the game will again be controlled to an unprogressable state in the third process, and control to suggest or notify the set value that has been set will be executable. This prevents a situation in which a game is unprogressable and control to suggest or notify the set value cannot be executed, and prevents a decrease in convenience.

(1-59) The non-progress state in the first process is controlled by the occurrence of an error in the memory contents of the main RAM 43, which can store multiple pieces of information including information on credits and multipliers used in settlement control related to the settlement of gaming media, that is, a RAM error. In contrast, the non-progress state in the third process is controlled based on the information on the number of coins acquired after power recovery, which is different from the information on the credits and multipliers used in settlement control. In this way, in the non-progress state in the first process, which is controlled by the occurrence of a RAM error in the main RAM 43, which can store multiple pieces of information including information on credits and multipliers used in settlement control, the information on credits and multipliers used in settlement control may be incorrect. For this reason, by making the settlement control unexecutable, it is possible to prevent settlement control from being executed using incorrect information. On the other hand, in the non-progress state in the third process, which is controlled based on information on the number of coins acquired after power recovery, it is considered that the information on credits and multipliers used in settlement control are less likely to be incorrect than in the non-progress state in the first process. Therefore, by making it possible to execute settlement control in such a state where progress cannot be made in the third process, it is possible to prevent settlement control from being executed using erroneous information even if progress cannot be made in the game.

(1-60) The unprogressable state in the first process is controlled by an error in the memory contents of the main RAM 43, which can store multiple pieces of information including the setting value information used for control to set the setting value confirmation state, that is, a RAM error. In contrast, the unprogressable state in the third process is controlled based on the number of coins acquired after power recovery information, which is different from the setting value information. In this way, in the unprogressable state in the first process, which is controlled by a RAM error in the main RAM 43, which can store multiple pieces of information including the setting value information, the setting value information may be incorrect. Therefore, by making the control to set the setting value confirmation state unexecutable, it is possible to prevent the control to set the setting value confirmation state using incorrect information from being executed. On the other hand, in the unprogressable state in the third process, which is controlled based on the number of coins acquired after power recovery information, it is considered that the setting value information is less likely to be incorrect at least than in the unprogressable state in the first process. Therefore, by making it possible to execute the control to set the setting value confirmation state in such an unprogressable state in the third process, it is possible to prevent the control to set the setting value confirmation state using incorrect information, even if the game is in an unprogressable state.

(1-61) After settlement control for settlement of gaming media is executed when game progress is possible, a warning against addiction is issued. This can prevent players from becoming addicted. However, it is not expected that players will find it amusing that a warning against addiction is issued.

If a warning about addiction, which is not expected to be entertaining to the player, is issued even when the game is unable to progress in the second process, there is a risk that the player will feel annoyed. For this reason, by not issuing a warning about addiction after settlement control is executed when the game is unable to progress in the second process, it is possible to reduce the player's feeling of annoyance.

In addition, if a warning about addiction, which is not expected to be entertaining to the player, is issued even when the game is unable to progress in the third process, there is a risk that the player will feel annoyed. For this reason, by not issuing a warning about addiction after settlement control is executed when the game is unable to progress in the third process, it is possible to reduce the player's feeling of annoyance.

(1-62) The non-progress state in the first process can be controlled without being in a game progress possible state in which the game can proceed after the power supply is started. In contrast, the non-progress state in the second process can be controlled after the power supply is started and the game progress possible state is reached. In this way, in the non-progress state in the first process, which is not even in a game progress possible state, there is a possibility that the settlement control related to the settlement of the game medium cannot be executed normally. For this reason, by making the settlement control unexecutable, it is possible to suppress the non-execution of the settlement control. On the other hand, in the non-progress state in the second process, which can be controlled after the game progress possible state is reached, the game progress possible state has passed through at least a little. For this reason, it is considered that the settlement control is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the settlement control executable in such a non-progress state in the second process, it is possible to execute the settlement control normally even if the game progress is impossible.

(1-63) The non-progress state in the first process can be controlled without being in a game progress possible state in which the game can proceed after the power supply is started. In contrast, the non-progress state in the third process can be controlled after the power supply is started and the game progress possible state is reached. In this way, in the non-progress state in the first process, which is not even in a game progress possible state, there is a possibility that the settlement control related to the settlement of the game medium cannot be executed normally. For this reason, by making the settlement control unexecutable, it is possible to suppress the non-execution of the settlement control. On the other hand, in the non-progress state in the third process, which can be controlled after the game progress possible state is reached, the game progress possible state has passed through at least a little. For this reason, it is considered that the settlement control is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the settlement control executable in such a non-progress state in the third process, it is possible to execute the settlement control normally even if the game progress is impossible.

(1-64) The non-progress state in the first process can be controlled without being in a game progress possible state in which game progress is possible after the power supply is started. In contrast, the non-progress state in the second process can be controlled after the power supply is started and the game progress possible state is reached. In this way, in the non-progress state in the first process, which is not even in a game progress possible state, there is a possibility that the control to detect the input error cannot be executed normally. For this reason, by making the control to detect the input error unexecutable, it is possible to suppress the control to detect the input error from being executed normally. On the other hand, in the non-progress state in the second process, which can be controlled after the game progress possible state is reached, the game progress possible state has passed through at least a little. For this reason, it is considered that the control to detect the input error is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the control to detect the input error executable in such a non-progress state in the second process, it is possible to make the control to detect the input error be executed normally even if the game progress is impossible.

(1-65) The non-progress state in the first process can be controlled without being in a game progress possible state in which game progress is possible after the power supply is started. In contrast, the non-progress state in the third process can be controlled after the game progresses after the power supply is started. In this way, in the non-progress state in the first process, which is not even in a game progress possible state, there is a possibility that the control to detect the input error cannot be executed normally. For this reason, by making the control to detect the input error unexecutable, it is possible to suppress the control to detect the input error from being executed normally. On the other hand, in the non-progress state in the third process, which can be controlled after the game progresses, the game progress possible state has passed through at least a little. For this reason, it is considered that the control to detect the input error is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the control to detect the input error executable in such a non-progress state in the third process, it is possible to execute the control to detect the input error normally even if the game progress is impossible.

(1-66) The non-progress state in the first process can be controlled without being in a game progress possible state in which game progress can be made after power supply is started. In contrast, the non-progress state in the second process can be controlled after power supply is started and game progress possible. In this way, in the non-progress state in the first process, which is not even in a game progress possible state, there is a possibility that the control to detect a payout error cannot be executed normally. For this reason, by making the control to detect a payout error unexecutable, it is possible to suppress the control to detect a payout error from being executed normally. On the other hand, in the non-progress state in the second process, which can be controlled after the game progress possible state is reached, the game progress possible state has passed through at least a little. For this reason, it is considered that the control to detect a payout error is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the control to detect a payout error executable in such a non-progress state in the second process, it is possible to make the control to detect a payout error be executed normally even if the game progress is impossible.

(1-67) The non-progress state in the first process can be controlled without being in a game progress possible state in which game progress can be made after power supply is started. In contrast, the non-progress state in the third process can be controlled after power supply is started and game progress is possible. In this way, in the non-progress state in the first process, which is not even in a game progress possible state, there is a possibility that the control to detect a payout error cannot be executed normally. For this reason, by making the control to detect a payout error unexecutable, it is possible to suppress the control to detect a payout error from being executed normally. On the other hand, in the non-progress state in the third process, which can be controlled after the game progress is possible, the game progress possible state has been passed through at least a little. For this reason, it is considered that the control to detect a payout error is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the control to detect a payout error executable in such a non-progress state in the third process, it is possible to make the control to detect a payout error be executed normally even if the game progress is impossible.

(1-68) The non-progress state in the first process can be controlled without being in a game progress possible state in which game progress is possible after the power supply is started. In contrast, the non-progress state in the second process can be controlled after the game progresses after the power supply is started. In this way, in the non-progress state in the first process, which is not even in a game progress possible state, there is a possibility that the control to detect the door opening error cannot be executed normally. For this reason, by making the control to detect the door opening error unexecutable, it is possible to suppress the control to detect the door opening error from being executed normally. On the other hand, in the non-progress state in the second process, which can be controlled after the game progresses, the game progress possible state has passed through at least a little. For this reason, it is considered that the control to detect the door opening error is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the control to detect the door opening error executable in such a non-progress state in the second process, it is possible to make the control to detect the door opening error be executed normally even if the game progress is impossible.

(1-69) The non-progress state in the first process can be controlled without being in a game progress possible state in which game progress is possible after the power supply is started. In contrast, the non-progress state in the third process can be controlled after the game progresses after the power supply is started. In this way, in the non-progress state in the first process, which is not even in a game progress possible state, there is a possibility that the control to detect the door opening error cannot be executed normally. For this reason, by making the control to detect the door opening error unexecutable, it is possible to suppress the control to detect the door opening error from being executed normally. On the other hand, in the non-progress state in the third process, which can be controlled after the game progresses, the game progress possible state has passed through at least a little. For this reason, it is considered that the control to detect the door opening error is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the control to detect the door opening error executable in such a non-progress state in the third process, it is possible to make the control to detect the door opening error be executed normally even if the game progress is impossible.

(1-70) The non-progression state in the first process can be controlled without being in a game progress possible state in which game progress is possible after power supply is started. In contrast, the non-progression state in the second process can be controlled after power supply is started and game progress is possible. In this way, in the non-progression state in the first process, which is not even in a game progress possible state, there is a possibility that control for displaying the two-dimensional code as history information on the performance display device 15 cannot be executed normally. For this reason, by making the control for displaying the two-dimensional code on the performance display device 15 unexecutable, it is possible to prevent the control for displaying the two-dimensional code on the performance display device 15 from being executed normally. On the other hand, the non-progression state in the second process, which can be controlled after the game progress is possible, has passed through the game progress possible state to some extent. For this reason, it is considered that there is a higher possibility that control for displaying the two-dimensional code on the performance display device 15 is executed normally than in the non-progression state in the first process. Therefore, by making it possible to execute control to display the two-dimensional code on the performance display device 15 in a progress-impossible state in this second process, it is possible to execute control to normally display the two-dimensional code on the performance display device 15 even if the game progress is not possible.

(1-71) The non-progress state in the first process can be controlled without being in a game progress possible state in which game progress is possible after power supply is started. In contrast, the non-progress state in the third process can be controlled after power supply is started and game progress is possible. In this way, in the non-progress state in the first process, which is not even in a game progress possible state, there is a possibility that control for displaying the two-dimensional code as history information on the performance display device 15 cannot be executed normally. For this reason, by making the control for displaying the two-dimensional code on the performance display device 15 unexecutable, it is possible to prevent the control for displaying the two-dimensional code on the performance display device 15 from being executed normally. On the other hand, the non-progress state in the third process, which can be controlled after the game progress is possible, has passed through the game progress possible state to some extent. For this reason, it is considered that there is a higher possibility that control for displaying the two-dimensional code on the performance display device 15 is executed normally than in the non-progress state in the first process. Therefore, by making it possible to execute control to display the two-dimensional code on the performance display device 15 in a progress-impossible state in this third process, it is possible to execute control to normally display the two-dimensional code on the performance display device 15 even if the game progress is not possible.

(1-72) The non-progress state in the first process can be controlled without being in a game progress-enabling state in which game progress is possible after the power supply is started. In contrast, the non-progress state in the second process can be controlled after the power supply is started and the game progress-enabling state is reached. In this way, in the non-progress state in the first process, which is not even in a game progress-enabling state, there is a possibility that the control related to the volume adjustment cannot be executed normally. For this reason, by making the control related to the volume adjustment unexecutable, it is possible to prevent the control related to the volume adjustment from being executed normally. On the other hand, in the non-progress state in the second process, which can be controlled after the game progress-enabling state is reached, the game progress-enabling state has passed through at least a little. For this reason, it is considered that the control related to the volume adjustment is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the control related to the volume adjustment executable in such a non-progress state in the second process, it is possible to execute the control related to the volume adjustment normally even if the game progress is impossible.

(1-73) The non-progress state in the first process can be controlled without being in a game progress possible state in which game progress is possible after the power supply is started. In contrast, the non-progress state in the third process can be controlled after the power supply is started and the game progress possible state is reached. In this way, in the non-progress state in the first process, which is not even in a game progress possible state, there is a possibility that the control related to the volume adjustment cannot be executed normally. For this reason, by making the control related to the volume adjustment unexecutable, it is possible to suppress the control related to the volume adjustment from being executed normally. On the other hand, in the non-progress state in the third process, which can be controlled after the game progress possible state is reached, the game progress possible state has passed through at least a little. For this reason, it is considered that the control related to the volume adjustment is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the control related to the volume adjustment executable in such a non-progress state in the third process, it is possible to execute the control related to the volume adjustment normally even if the game progress is impossible.

(1-74) The non-progress state in the first process can be controlled without being in a game progress possible state in which game progress is possible after power supply is started. In contrast, the non-progress state in the second process can be controlled after power supply is started and game progress is possible. In this way, in the non-progress state in the first process where the game progress is not possible, there is a possibility that the control to switch to the power saving mode cannot be executed normally. Therefore, by making the control to switch to the power saving mode unexecutable, it is possible to prevent the control to switch to the power saving mode from being executed normally. On the other hand, in the non-progress state in the second process which can be controlled after the game progress is possible, the game progress possible state has been passed through at least a little. Therefore, it is considered that the control to switch to the power saving mode is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the control to switch to the power saving mode executable in such a non-progress state in the second process, it is possible to execute the control to switch to the power saving mode normally even if the game progress is impossible.

(1-75) The non-progression state in the first process can be controlled without being in a game progress-enabling state in which game progress is possible after power supply is started. In contrast, the non-progression state in the third process can be controlled after power supply is started and game progress-enabling state is reached. In this way, in the non-progression state in the first process, which is not even in a game progress-enabling state, there is a possibility that control to switch to power-saving mode cannot be executed normally. For this reason, by making the control to switch to power-saving mode unexecutable, it is possible to prevent the control to switch to power-saving mode from being executed normally. On the other hand, in the non-progression state in the third process, which can be controlled after the game progress-enabling state is reached, the game progress-enabling state has passed through at least a little. For this reason, it is considered that the control to switch to power-saving mode is more likely to be executed normally than in the non-progression state in the first process. Therefore, by making the control to switch to power-saving mode executable in such a non-progression state in the third process, it is possible to execute the control to switch to power-saving mode normally even if the game progress is impossible.

(1-76) The non-progress state in the first process can be controlled without being in a game progress possible state in which game progress is possible after the power supply is started. In contrast, the non-progress state in the third process can be controlled after the game progress possible state is reached after the power supply is started. In this way, in the non-progress state in the first process, which is not even in a game progress possible state, there is a possibility that the control to set the setting value confirmation state cannot be executed normally. For this reason, by making the control to set the setting value confirmation state unexecutable, it is possible to suppress the control to set the setting value confirmation state from being executed normally. On the other hand, in the non-progress state in the third process, which can be controlled after the game progress possible state is reached, the game progress possible state has passed through at least a little. For this reason, it is considered that the control to set the setting value confirmation state is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the control to set the setting value confirmation state executable in such a non-progress state in the third process, even if the game progress is impossible, it is possible to execute the control to set the setting value confirmation state normally.

(1-77) The non-progress state in the first process can be controlled without being in a game progress possible state in which game progress is possible after the power supply is started. In contrast, the non-progress state in the third process can be controlled after the game progresses after the power supply is started. In this way, in the non-progress state in the first process, which is not even in a game progress possible state, there is a possibility that the control to suggest or notify the set value that has been set cannot be executed normally. For this reason, by making the control to suggest or notify the set value that has been set unexecutable, it is possible to suppress the control to suggest or notify the set value that has been set from being executed normally. On the other hand, in the non-progress state in the third process, which can be controlled after the game progresses, the game progress possible state has been passed through at least a little. For this reason, it is considered that the control to suggest or notify the set value that has been set is more likely to be executed normally than in the non-progress state in the first process. Therefore, by making the control to suggest or notify the set value that has been set executable in such a non-progress state in the third process, even if the game progress is impossible, the control to suggest or notify the set value that has been set normally can be executed.

(1-78) In the event that the settlement control related to the settlement of gaming media is in an unexecutable state in the first process, the game does not return to a state in which game progress is possible after power supply is started. In other words, when the game enters an unexecutable state in the first process, the game does not return to a state in which game progress is possible in which settlement control is executable, and therefore there is no opportunity for settlement control to be executed after power supply is started. This makes it possible to prevent settlement control from being executed normally in a situation in which the game enters an unexecutable state in the first process.

(1-79) In the event of an impossible state in the first process in which control for detecting an input error cannot be executed, the game does not return to a state in which game progress can be continued after power supply is started. In other words, when an impossible state occurs in the first process, the game does not return to a state in which control for detecting an input error can be executed and game progress can be continued, and therefore there is no opportunity for control for detecting an input error to be executed after power supply is started. This makes it possible to prevent the control for detecting an input error from being executed normally in a situation in which the first process becomes impossible.

(1-80) In the event of an impossible state in the first process in which control for detecting a payout error cannot be executed, the game does not return to a state in which game progress can be continued after power supply is started. In other words, when an impossible state occurs in the first process, the game does not return to a state in which game progress can be continued in which control for detecting a payout error can be executed, and so there is no opportunity for control for detecting a payout error to be executed after power supply is started. This makes it possible to prevent the control for detecting a payout error from being executed normally in a situation in which the first process is impossible.

(1-81) In the event of an impossible state in the first process in which the control for detecting a door opening error cannot be executed, the game does not return to a state in which game progress can be continued after power supply is started. In other words, when an impossible state occurs in the first process, the game does not return to a state in which game progress can be continued in which the control for detecting a door opening error can be executed, and therefore there is no opportunity for the control for detecting a door opening error to be executed after power supply is started. This makes it possible to prevent the control for detecting a door opening error from being executed normally in a situation in which the first process is impossible.

(1-82) In the case where the control to display the two-dimensional code on the performance display device 15 as history information is unable to be executed in the first process, the game does not return to a state where game progress is possible after power supply is started. In other words, when the game is unable to progress in the first process, the game does not return to a state where game progress is possible where control to display the two-dimensional code on the performance display device 15 is able to be executed, and therefore there is no opportunity to execute control to display the two-dimensional code on the performance display device 15 after power supply is started. This makes it possible to prevent the control to display the two-dimensional code on the performance display device 15 from being executed normally in a situation where the game is unable to progress in the first process.

(1-83) In the event that the first process is in an unprogressable state in which control related to volume adjustment cannot be executed, the game does not return to a state in which game progress can be made after power supply is started. In other words, when the first process is in an unprogressable state, the game does not return to a state in which control related to volume adjustment can be executed and game progress can be made, so there is no opportunity for control related to volume adjustment to be executed after power supply is started. This makes it possible to prevent volume adjustment control from being executed normally in a situation in which the first process is in an unprogressable state.

(1-84) In the event that the first process is in an unprogressable state in which control to switch to power saving mode cannot be executed, the game does not return to a state in which game progress can be continued after power supply is started. In other words, when the first process is in an unprogressable state, the game does not return to a state in which control to switch to power saving mode can be executed and game progress can be continued, so there is no opportunity for control to switch to power saving mode to be executed after power supply is started. This makes it possible to prevent control to switch to power saving mode from being executed normally in a situation in which the first process is in an unprogressable state.

(1-85) In the event of an impossible state in the first process in which control to set the setting value confirmation state cannot be executed, the game does not return to a state in which game progress can be continued after power supply is started. In other words, when an impossible state occurs in the first process, the game does not return to a state in which game progress can be continued in which control to set the setting value confirmation state can be executed, and so there is no opportunity for control to set the setting value confirmation state to be executed after power supply is started. This makes it possible to prevent control to set the setting value confirmation state from being executed normally in a situation in which the first process is impossible.

(1-86) In the event of an impossible state in the first process in which control suggesting or notifying the set value cannot be executed, the game does not return to a state in which game progress can be continued after power supply is started. In other words, when an impossible state occurs in the first process, the game does not return to a state in which game progress can be continued in which control suggesting or notifying the set value can be executed, and therefore there is no opportunity for control suggesting or notifying the set value to be executed after power supply is started. This makes it possible to prevent the control suggesting or notifying the set value from being executed normally in a situation in which the first process is impossible.

(1-87) When the game is in a game progress possible state, it is possible to execute control to suggest or notify the set value when the effect button BT is operated. However, when the game progresses from a state other than the game progress impossible state in the third process (for example, the game progress possible state) to the game progress impossible state in the third process, control to suggest or notify the set value is executed without being triggered by the operation of the effect button BT. In this way, even if the game progress impossible state is in the game progress impossible state in the third process, control to suggest or notify the set value can be executed even if the game progress impossible state is reached, so it is possible to prevent a situation in which the game progress impossible state is reached and control to suggest or notify the set value cannot be executed. Furthermore, when the game progress impossible state is reached in the third process, control to suggest or notify the set value is executed without operating the effect button BT, so it is possible to prevent, for example, the player from forgetting to experience the suggestion or notification of the set value.

(1-88) When the game progresses from a state in which game progress is possible to a state in which progress is impossible in the third process, a setting effect is executed to display a background image BP by executing control to suggest or notify the set value that has been set without triggering the operation of the effect button BT. In other words, when the game reaches a state in which progress is impossible in the third process, control to suggest or notify the set value that has been set is executed and a setting effect is executed without operating the effect button BT. Therefore, for example, a player who ends play due to the game reaching a state in which progress is impossible in the third process can be provided with the fun of guessing or identifying the set value that has been set.

(1-89) When the game is unable to proceed in the first process, sounds with adjustable volume are not output thereafter, at least until the game is unable to proceed in the first process. When the game is unable to proceed in the first process, control related to volume adjustment cannot be executed. On the other hand, when the game is unable to proceed in the second process, a special background sound among sounds with adjustable volume may be output thereafter. When the game is unable to proceed in the second process, control related to volume adjustment can be executed. In this way, if the game is unable to proceed in the second process, in which a special background sound with adjustable volume may be output even in a game unable to proceed state, control related to volume adjustment can be executed even if the game is unable to proceed. This makes it possible to adjust the volume of the sounds that are output thereafter, preventing a situation in which the game is unable to proceed and volume adjustment is not possible, and preventing a decrease in convenience.

(1-90) When the game is unable to proceed in the first process, sounds with adjustable volume are not output thereafter, at least until the game is unable to proceed in the first process. When the game is unable to proceed in the first process, control related to volume adjustment cannot be executed. On the other hand, when the game is unable to proceed in the third process, a special background sound among sounds with adjustable volume may be output thereafter. When the game is unable to proceed in the third process, control related to volume adjustment can be executed. In this way, if the game is unable to proceed in the third process, in which a special background sound with adjustable volume may be output even in a game unable to proceed state, control related to volume adjustment can be executed even if the game is unable to proceed. This makes it possible to adjust the volume of the sounds that are output thereafter, preventing a situation in which the game is unable to proceed and volume adjustment is not possible, and preventing a decrease in convenience.

(1-91) When the game is in an unprogressable state in the second process, and when the game is in a game progressable state in which the game can proceed, settlement control related to the settlement of the gaming medium can be executed. In this way, even if the game is in an unprogressable state, if the game is in an unprogressable state in the second process, settlement control can be executed even if the game is in an unprogressable state, and it is possible to prevent a situation in which settlement control cannot be executed due to a game being in an unprogressable state and to prevent a decrease in convenience.

When the game is in an unprogressable state in the second process, the standby state will not be entered if settlement control is executed. On the other hand, when the game is in a progressable state, the standby state will be entered if settlement control is executed. Therefore, even if settlement control is executed, it is possible to identify whether the game is in an unprogressable state in the second process or a progressable state depending on whether the standby state is entered as a result of settlement control being executed. In particular, by preventing the game from entering a standby state if settlement control is executed when the game is in an unprogressable state in the second process, it is possible to give the gamer a sense of discomfort that the standby state is not entered because settlement control is executed, and as a result, it is possible to make the gamer more aware that at least the power supply needs to be stopped in order to end the game progress impossible state.

(1-92) When the game is in an impossible-to-progress state in the third process, and when the game is in a possible-to-progress state in which the game can proceed, settlement control related to the settlement of the gaming media can be executed. In this way, even if the game is in an impossible-to-progress state, if the game is in an impossible-to-progress state in the third process, settlement control can be executed even if the game is in an impossible-to-progress state, and it is possible to prevent a situation in which the game is in an impossible-to-progress state and settlement control cannot be executed, and to prevent a decrease in convenience.

When the game is in an unprogressable state in the third process, the standby state will not be entered if settlement control is executed. On the other hand, when the game is in a progressable state, the standby state will be entered if settlement control is executed. Therefore, even if settlement control is executed, it is possible to identify whether the game is in an unprogressable state in the third process or a progressable state depending on whether the standby state is entered as a result of settlement control being executed. In particular, by preventing the game from entering a standby state if settlement control is executed when the game is in an unprogressable state in the third process, it is possible to give the gamer a sense of discomfort that the standby state is not entered because settlement control is executed, and as a result, it is possible to make the gamer more aware that at least the power supply needs to be stopped in order to end the game progress impossible state.

(1-93) When the first process is in an unprogressable state, control to output an external signal is not executed. On the other hand, when the second process is in an unprogressable state, control to output an external signal is executed. In this way, when the second process is in an unprogressable state, control to output an external signal is executed and an external signal is output, thereby increasing the security of the unprogressable state in the second process in which various controls can be executed.

(1-94) When the first process is in an unprogressable state, control to output an external signal is not executed. On the other hand, when the third process is in an unprogressable state, control to output an external signal is executed. In this way, when the third process is in an unprogressable state, control to output an external signal is executed and an external signal is output, thereby increasing the security of the unprogressable state in the third process, in which various controls can be executed.

(1-95) The two-dimensional code used as history information is a multi-dimensional code that can be read by a reading device. In this way, the history information is displayed as a multi-dimensional code that can be read by a reading device, so that only the person using the reading device can check the gaming history. Therefore, in addition to the enjoyment of knowing the gaming history using the reading device, it gives a sense of superiority by knowing the gaming history, which contributes to increasing interest.

(1-96) The external signal output in step S701 is made different from the external signal output in step S801. This makes it possible to identify from the external signal whether the game has reached an impossibility state in the second process or an impossibility state in the third process. As a result, it becomes possible to identify from the external signal, for example, whether there is a possibility of fraud occurring that has caused an anomaly in the setting value information due to the impossibility state in the second process, making it easier to determine whether the gaming machine should be checked immediately.

(1-97) The first external signal continues to be output until the power supply is stopped. On the other hand, the second external signal is output until a predetermined output time has elapsed since the second external signal was output, or until the power supply is stopped before the predetermined output time has elapsed. In this way, the period during which the first external signal is output and the period during which the second external signal is output are different. In particular, if the power supply is not stopped, the period during which the second external signal is output will be shorter than the period during which the first external signal is output. The situation in which the second external signal is output is a situation in which a value that can be identified from the acquired number information after power is restored reaches a specified value, and is a situation that can occur even if no problem occurs. For this reason, since there is no need to extend the period during which the second external signal is output, it is possible to prevent the output of the second external signal from becoming difficult to notice by continuing to output the second external signal for a period longer than necessary by stopping the output of the second external signal when the predetermined output time has elapsed. In contrast, the situation in which the first external signal is output is a situation in which the setting value information is abnormal, and is a situation that occurs when some problem occurs. Therefore, by lengthening the period during which the first external signal is output, it is possible to prevent a person from not noticing that the first external signal has been output, i.e., not noticing that a problem may have occurred.

Second Embodiment
Next, a second embodiment of the gaming machine will be described. Note that the same components as those in the first embodiment are given the same reference numerals as those in the first embodiment, and detailed descriptions and drawings thereof will be omitted.

In the slot machine 10 of the first embodiment, if the player is unable to proceed in the second process, the settlement control is not executed unless the settlement button 19 is operated. In contrast, in the slot machine 10 of the second embodiment, if the player is unable to proceed in the second process, the settlement control may be executed without the settlement button 19 being operated. For this reason, the second play-disabled process executed in the slot machine 10 of the second embodiment is at least partially different from the second play-disabled process executed in the slot machine 10 of the first embodiment.

In the slot machine 10 of the first embodiment, if the progress is disabled in the third process, the settlement control is not executed unless the settlement button 19 is operated. In contrast, in the slot machine 10 of the second embodiment, if the progress is disabled in the third process, the settlement control may be executed without operating the settlement button 19. For this reason, the third play disabled process executed in the slot machine 10 of the second embodiment is at least partially different from the third play disabled process executed in the slot machine 10 of the first embodiment.

As shown in FIG. 23, in the second unplayable process in the second embodiment, the process of step S703 and the process of step S707 performed in the second unplayable process in the first embodiment are not performed. In the second unplayable process in the second embodiment, after the process of step S702 is completed, the process of step S703 is not performed, and a new automatic settlement process is performed.

Specifically, after the processing of step S702 is completed, the main CPU 41 performs automatic settlement processing (step S1100). The automatic settlement processing will be described later. Then, after completing the processing of step S1100, the main CPU 41 proceeds to processing of step S704. After that, after completing the processing of step S706, the main CPU 41 proceeds to processing of step S708. Furthermore, after completing the processing of step S710, the main CPU 41 returns to processing of step S1100 again.

In this way, in the slot machine 10, when the second game disable processing is executed, the processing of step S1100, step S704 to step S706, and step S708 to step S710 is repeated. In the second game disable processing, the state in which the processing of step S1100, step S704 to step S706, and step S708 to step S710 is repeated is a game progress disabled state in which game progress processing is not performed and game progress is disabled. In this embodiment, the state in which the processing of step S1100, step S704 to step S706, and step S708 to step S710 is repeated in the second game disable processing corresponds to the "progress disabled state in the second processing".

As shown in FIG. 24, in the third unplayable process in the second embodiment, the process of step S803 and the process of step S808 performed in the third unplayable process in the first embodiment are not performed. In the third unplayable process in the second embodiment, after the process of step S802 is completed, the process of step S803 is not performed, and a new automatic settlement process is performed.

Specifically, after the processing of step S802 is completed, the main CPU 41 performs an automatic settlement process (step S1200). The automatic settlement process in step S1200 of the third unplayable process is the same as the automatic settlement process in step S1100 of the second unplayable process. These automatic settlement processes will be explained later. Then, after completing the processing of step S1200, the main CPU 41 proceeds to the processing of step S804. After that, after completing the processing of step S807, the main CPU 41 proceeds to the processing of step S809. Furthermore, after completing the processing of step S812, the main CPU 41 returns to the processing of step S1200 again.

In this way, in the slot machine 10, when the third game disable processing is executed, the processing of step S1200, step S804 to step S807, and step S809 to step S812 is repeated. In the third game disable processing, the state in which the processing of step S1200, step S804 to step S807, and step S809 to step S812 is repeated is a game progress disabled state in which the game progress processing is not performed and it is impossible to progress with the game. In this embodiment, the state in which the processing of step S1200, step S804 to step S807, and step S809 to step S812 is repeated in the third game disable processing corresponds to the "progress disabled state in the third processing".

Here, the automatic settlement process in steps S1100 and S1200 will be described.
In the automatic settlement process, the main CPU 41 determines whether the automatic settlement condition has been met. The automatic settlement condition is met when the credit is 1 or more. In addition, the automatic settlement condition is met when the replay is not in operation and a multiplier is set, even if the credit is 0. In this way, the automatic settlement condition differs from the settlement condition in that it is met without operating the settlement button 19. Then, if the automatic settlement condition is not met, the main CPU 41 ends the automatic settlement process. On the other hand, if the automatic settlement condition is met, the main CPU 41 executes settlement control related to the settlement of the gaming media.

When the main CPU 41 starts settlement control in the automatic settlement process, it stores control information (hereinafter referred to as an automatic settlement start command) that can identify that settlement control in the automatic settlement process has started in the output buffer. When settlement control in the automatic settlement process ends, the main CPU 41 ends the automatic settlement process after a predetermined waiting time has elapsed. When the main CPU 41 ends settlement control in the automatic settlement process, it stores control information (hereinafter referred to as an automatic settlement end command) that can identify that settlement control in the automatic settlement process has ended in the output buffer.

In the slot machine 10, if the second play disable process or the third play disable process is performed when the credit is 1 or more, the settlement control is executed without operating the settlement button 19. Similarly, in the slot machine 10, even if the credit is 0, if the second play disable process or the third play disable process is performed when replay is not in operation and a multiplier is set, the settlement control is executed without operating the settlement button 19.

In this embodiment, when settlement control is executed in the automatic settlement process, the display content of the performance display device 15 is different from when settlement control is executed in the settlement process. As described in the first embodiment, when settlement control is executed in the settlement process, a settlement in progress image SGa is displayed on the performance display device 15 (shown in FIG. 21). In this embodiment, the settlement in progress image SGa corresponds to an image that can identify that settlement control has been executed in the settlement process.

As shown in FIG. 25, when settlement control is executed in the automatic settlement process, the performance display device 15 displays an automatic settlement in progress image SGb, which allows identification that settlement control has been performed in the automatic settlement process. Then, when settlement control in the automatic settlement process ends, the performance display device 15 stops displaying the automatic settlement in progress image SGb. The automatic settlement in progress image SGb is an image that includes the text information "automatic settlement in progress."

When the sub-CPU 51 inputs an automatic settlement start command, it controls the performance display device 15 so that the automatic settlement image SGb is displayed. When the sub-CPU 51 inputs an automatic settlement end command, it controls the performance display device 15 so that the display of the automatic settlement image SGb is terminated. Note that in this embodiment, similar to the first embodiment, even if the settlement process in the automatic settlement process is executed in either the second play disabled process or the third play disabled process, it is not controlled to a standby state.

In the slot machine 10 of the second embodiment, when the player is unable to proceed in the second process, the volume is adjusted without operating the buttons Ba and Bb. Specifically, in the slot machine 10, when the player is unable to proceed in the second process, the volume is adjusted to the first level, which is the minimum volume, without operating the buttons Ba and Bb. Similarly, in the slot machine 10 of the second embodiment, when the player is unable to proceed in the third process, the volume is adjusted to the first level, which is the minimum volume, without operating the buttons Ba and Bb. Specifically, in the slot machine 10, when the player is unable to proceed in the third process, the volume is adjusted to the first level, which is the minimum volume, without operating the buttons Ba and Bb.

When the secondary CPU 51 inputs a second unplayable command, it updates the minimum volume to identifiable volume information in the control related to volume adjustment. Similarly, when the secondary CPU 51 inputs a third unplayable command, it updates the minimum volume to identifiable volume information in the control related to volume adjustment. The secondary CPU 51 updates the minimum volume to identifiable volume information in the control related to volume adjustment, regardless of the level of volume that can be identified from the volume information before the update. In particular, the secondary CPU 51 updates the minimum volume to identifiable volume information in the control related to volume adjustment, regardless of whether a detection signal has been input from the up button Ba or the down button Bb.

The slot machine 10 in the second embodiment is configured to be able to execute control related to volume adjustment, similar to the slot machine 10 in the first embodiment. The control related to volume adjustment can be regarded as special operation control. In the second embodiment, the control related to volume adjustment is executed, for example, when the game is in a progress-enabled state. That is, the operation of buttons Ba and Bb is a trigger for the sub-CPU 51 to execute control related to volume adjustment. In the second embodiment, the control related to volume adjustment is executed, for example, when the main CPU 41 is executing a second game disable process, that is, when the game is in a progress-disabled state in the second process. In the second embodiment, the control related to volume adjustment is executed, for example, when the main CPU 41 is executing a third game disable process, that is, when the game is in a progress-disabled state in the third process. That is, the sub-CPU 51 can execute control related to volume adjustment without being triggered by the operation of buttons Ba and Bb.

According to this embodiment, in addition to the effects (1-1) to (1-97) in the first embodiment, the following effects can be obtained.
(2-1) When the game is in a game progress possible state where the game can be progressed, the settlement control related to the settlement of the game media can be executed when the settlement button 19 is operated. However, when the game progresses from a state other than the game progress impossible state in the second process (for example, the game progress possible state) to the game progress impossible state in the second process, the settlement control is executed without being triggered by the operation of the settlement button 19. In this way, even if the game progress impossible state is in the game progress impossible state in the second process, the settlement control can be executed, so that it is possible to prevent a situation in which the game progress impossible state cannot be executed and the settlement control cannot be executed. Furthermore, when the game progress impossible state in the second process is reached, the settlement control is executed without operating the settlement button 19, so that, for example, it is possible to prevent the player from forgetting to operate the settlement button 19 to execute the settlement control, and to prevent a decrease in convenience.

(2-2) When the game is in a game progress possible state where the game can be progressed, the settlement control related to the settlement of the game media can be executed when the settlement button 19 is operated. However, when the game progresses from a state other than the game progress impossible state in the third process (for example, the game progress possible state) to the game progress impossible state in the third process, the settlement control is executed without being triggered by the operation of the settlement button 19. In this way, even if the game progress impossible state is in the game progress impossible state in the third process, the settlement control can be executed, so it is possible to prevent a situation in which the game progress impossible state and settlement control cannot be executed due to the game progress impossible state. Furthermore, when the game progress impossible state is in the third process, the settlement control is executed without operating the settlement button 19, so it is possible to prevent the player from forgetting to operate the settlement button 19 to execute the settlement control, for example, and to prevent a decrease in convenience.

(2-3) When the game is in a game progress possible state, the operation of buttons Ba and Bb can be used as a trigger to execute control related to volume adjustment. However, when the game progresses from a state other than the game progress impossible state in the second process (for example, the game progress possible state) to the game progress impossible state in the second process, the control related to volume adjustment is executed without being triggered by the operation of buttons Ba and Bb. In this way, if the game progress impossible state in the second process is a game progress impossible state even if the game progress impossible state is entered, the control related to volume adjustment can be executed, so that it is possible to prevent a situation in which the game progress impossible state is entered and the control related to volume adjustment cannot be executed. Furthermore, when the game progress impossible state in the second process is entered, the control related to volume adjustment is executed without operating buttons Ba and Bb, so that it is possible to prevent, for example, the player from forgetting to adjust the volume, and to prevent a decrease in convenience.

(2-4) When the game is in a game progress possible state, the operation of buttons Ba and Bb can be used as a trigger to execute control related to volume adjustment. However, when the game progresses from a state other than the game progress impossible state in the third process (for example, the game progress possible state) to the game progress impossible state in the third process, the control related to volume adjustment is executed without being triggered by the operation of buttons Ba and Bb. In this way, even if the game progress impossible state is in the game progress impossible state in the third process, the control related to volume adjustment can be executed, so that it is possible to prevent a situation in which the game progress impossible state and the control related to volume adjustment cannot be executed due to the game progress impossible state. Furthermore, when the game progress impossible state is in the third process, the control related to volume adjustment is executed without operating buttons Ba and Bb, so that it is possible to prevent, for example, the player from forgetting to adjust the volume, and to prevent a decrease in convenience.

Third Embodiment
Next, a third embodiment of the gaming machine will be described. Note that the same components as those in the first embodiment are given the same reference numerals as those in the first embodiment, and detailed descriptions and drawings thereof will be omitted.

In the slot machine 10 of the third embodiment, if a door opening error is detected, the game progress process is not executed, and the game enters a game progress disabled state in which the game cannot progress. However, for example, if a door opening error occurs when the game is in a progress enabled state, and then the door opening error is resolved, the game progress process is executed, and the game enters a progress enabled state. After the state in which the occurrence of the door opening error is notified ends by resolving the door opening error, the game enters a progress enabled state.

In the slot machine 10 of the third embodiment, if a throw-in error is detected, the game progress process is not executed, and the game enters a game progress disabled state in which the game cannot progress. However, for example, if a throw-in error occurs when the game is in a state in which game progress is enabled, and then the throw-in error is resolved, the game progress process is executed, and the game enters a state in which game progress is enabled. After the state in which the occurrence of the throw-in error is notified ends by resolving the throw-in error, the game enters a state in which game progress is enabled.

In the slot machine 10 of the third embodiment, if a payout error is detected, the game progress process is not executed, and the game enters a game progress disabled state in which the game cannot proceed. However, for example, if a payout error occurs when the game is in a progress enabled state, and then the payout error is resolved, the game progress process is executed, and the game enters a progress enabled state. After the state in which the payout error occurrence is notified ends by resolving the payout error, the game enters a progress enabled state.

As shown in FIG. 26, in the slot machine 10 of the third embodiment, the control related to the execution of the variable game cannot be executed when a door opening error is detected, that is, when the occurrence of a door opening error is notified in response to the detection of a door opening error. The control related to the execution of the variable game cannot be executed when a throw-in error is detected, that is, when the occurrence of a throw-in error is notified in response to the detection of a throw-in error. The control related to the execution of the variable game cannot be executed when a payout error is detected, that is, when the occurrence of a payout error is notified in response to the detection of a payout error.

The control to detect the input error cannot be executed when a door open error is detected, that is, when the occurrence of a door open error is notified in response to the detection of a door open error. The control to detect the input error cannot be executed when a dispensing error is detected. However, the control to detect the input error can be executed when an input error is detected.

The control to detect a dispensing error cannot be executed when a door open error is detected. The control to detect a dispensing error cannot be executed when a feed error is detected. However, the control to detect a dispensing error can be executed when a dispensing error is detected.

The control to detect a door opening error cannot be executed when a feed error is detected. The control to detect a door opening error cannot be executed when a dispensing error is detected. However, the control to detect a door opening error can be executed when a door opening error is detected.

The control to switch to the set value confirmation state cannot be executed when a door open error is detected. The control to switch to the set value confirmation state cannot be executed when a feed error is detected. The control to switch to the set value confirmation state cannot be executed when a payout error is detected.

Control that suggests or notifies the set set value cannot be executed when a door open error is detected. Control that suggests or notifies the set set value cannot be executed when a feed error is detected. Control that suggests or notifies the set set value cannot be executed when a dispensing error is detected.

The control to display the two-dimensional code on the performance display device 15 cannot be executed when a door opening error is detected. The control to display the two-dimensional code on the performance display device 15 cannot be executed when a deposit error is detected. The control to display the two-dimensional code on the performance display device 15 cannot be executed when a dispensing error is detected.

Control related to volume adjustment cannot be performed when a door open error is detected. Control related to volume adjustment cannot be performed when a dispense error is detected. Control related to volume adjustment cannot be performed when a dispense error is detected.

The control to switch to power saving mode cannot be executed when a door open error is detected. The control to switch to power saving mode cannot be executed when a feed error is detected. The control to switch to power saving mode cannot be executed when a dispensing error is detected.

According to this embodiment, in addition to the effects (1-1) to (1-97) in the first embodiment, the following effects can be obtained.
(3-1) When the occurrence of a door opening error is notified in response to the detection of the door opening error, settlement control related to the settlement of gaming media cannot be executed. In this way, by making settlement control impossible to execute when the occurrence of a door opening error is notified, it is possible to suppress the execution of settlement control in a situation where, for example, a door opening error is intentionally caused by fraud.

(3-2) When the occurrence of a door opening error is notified in response to the detection of a door opening error, the control to detect the input error cannot be executed. In this way, by making the control to detect the input error impossible to execute when the occurrence of a door opening error is notified, it is possible to prevent the control to detect the input error from being executed in a situation where, for example, a door opening error has been intentionally caused by fraud.

(3-3) When the occurrence of a door opening error is notified in response to the detection of a door opening error, the control to detect a dispensing error cannot be executed. In this way, by making the control to detect a dispensing error unable to be executed when the occurrence of a door opening error is notified, it is possible to prevent the control to detect a dispensing error from being executed in a situation where, for example, a door opening error has been intentionally caused by fraud.

(3-4) When the occurrence of a door opening error is notified in response to the detection of a door opening error, control to display a two-dimensional code as history information on the performance display device 15 cannot be executed. In this way, by making it impossible to execute control to display a two-dimensional code on the performance display device 15 when the occurrence of a door opening error is notified, it is possible to prevent execution of control to display a two-dimensional code on the performance display device 15 in a situation where, for example, a door opening error has been intentionally caused by fraud.

(3-5) When the occurrence of a door open error is notified in response to the detection of a door open error, control related to volume adjustment cannot be executed. In this way, by making control related to volume adjustment unable to be executed when the occurrence of a door open error is notified, it is possible to prevent control related to volume adjustment from being executed in a situation where, for example, a door open error has been intentionally caused by fraud.

(3-6) When the occurrence of a door open error is notified in response to the detection of the door open error, control to switch to power saving mode cannot be executed. In this way, by making control to switch to power saving mode unexecutable when the occurrence of a door open error is notified, it is possible to prevent control to switch to power saving mode from being executed in a situation where, for example, a door open error has been intentionally caused by fraud.

(3-7) When the occurrence of a door open error is notified in response to the detection of a door open error, control to switch to the set value confirmation state cannot be executed. In this way, by making control to switch to the set value confirmation state unexecutable when the occurrence of a door open error is notified, it is possible to prevent control to switch to the set value confirmation state from being executed in a situation where, for example, a door open error has been intentionally caused by fraud.

(3-8) When the occurrence of a door opening error is notified in response to the detection of a door opening error, control to suggest or notify the set value cannot be executed. In this way, by making it impossible to execute control to suggest or notify the set value when the occurrence of a door opening error is notified, it is possible to prevent the execution of control to suggest or notify the set value in a situation where, for example, a door opening error has been intentionally caused by fraud.

(3-9) It is possible to end the situation in which the occurrence of a door open error is being notified by eliminating the door open error without stopping the power supply. In addition, after the situation in which the occurrence of a door open error is being notified is ended by eliminating the door open error, it is possible to proceed with the game, and the game is in a state in which settlement control related to the settlement of gaming media can be executed. Therefore, even if a door open error occurs and the occurrence of a door open error is being notified, if the door open error is eliminated, it is possible to end the situation in which the occurrence of a door open error is being notified without stopping the power supply, and it is possible to return to a state in which the game is in a state in which settlement control can be executed again.

(3-10) It is possible to end the situation in which the occurrence of a door open error is being notified by eliminating the door open error without stopping the power supply. In addition, after the situation in which the occurrence of a door open error is notified is ended by eliminating the door open error, it is possible to proceed with the game, and the game is put into a state in which the control for detecting the insertion error can be executed. Therefore, even if a door open error occurs and the occurrence of a door open error is notified, if the door open error is eliminated, the situation in which the occurrence of a door open error is notified can be ended without stopping the power supply, and the game can be returned to a state in which the control for detecting the insertion error can be executed again.

(3-11) It is possible to end the situation in which the occurrence of a door opening error is being notified by eliminating the door opening error without stopping the power supply. In addition, after the situation in which the occurrence of a door opening error is notified is ended by eliminating the door opening error, it is possible to proceed with the game, and the game is put into a state in which the control to detect a payout error can be executed. Therefore, even if a door opening error occurs and the occurrence of a door opening error is notified, if the door opening error is eliminated, it is possible to end the situation in which the occurrence of a door opening error is being notified without stopping the power supply, and it is possible to return to a state in which the game is put into a state in which the control to detect a payout error can be executed again.

(3-12) It is possible to end the situation in which the occurrence of a door opening error is being notified by eliminating the door opening error without stopping the power supply. In addition, after the situation in which the occurrence of a door opening error is notified is ended by eliminating the door opening error, it is possible to proceed with the game, and the game is in a state in which control to display the two-dimensional code as history information on the performance display device 15 can be executed. Therefore, even if a door opening error occurs and the occurrence of a door opening error is notified, if the door opening error is eliminated, the situation in which the occurrence of a door opening error is notified can be ended without stopping the power supply, and the game can be returned to a state in which control to display the two-dimensional code on the performance display device 15 can be executed again.

(3-13) It is possible to end the situation in which the occurrence of a door open error is being notified by eliminating the door open error without stopping the power supply. In addition, after the situation in which the occurrence of a door open error is being notified is ended by eliminating the door open error, it is possible to proceed with the game, and the game is brought into a state in which control related to volume adjustment can be executed. Therefore, even if a door open error occurs and the situation in which the occurrence of a door open error is being notified is reached, if the door open error is eliminated, the situation in which the occurrence of a door open error is being notified can be ended without stopping the power supply, and the game can be brought back into a state in which control related to volume adjustment can be executed again.

(3-14) It is possible to end the situation in which the occurrence of a door open error is being notified by eliminating the door open error without stopping the power supply. In addition, after the situation in which the occurrence of a door open error is notified is ended by eliminating the door open error, it is possible to proceed with the game, and the game is in a state in which control to switch to power saving mode can be executed. Therefore, even if a door open error occurs and the situation in which the occurrence of a door open error is being notified is reached, if the door open error is eliminated, it is possible to end the situation in which the occurrence of a door open error is being notified without stopping the power supply, and it is possible to return to a state in which the game is in a state in which control to switch to power saving mode can be executed again.

(3-15) It is possible to end the situation in which the occurrence of a door open error is being notified by eliminating the door open error without stopping the power supply. In addition, after the situation in which the occurrence of a door open error is being notified is ended by eliminating the door open error, it is possible to proceed with the game, and the game is brought into a state in which the game can proceed and control to the setting value confirmation state can be executed. Therefore, even if a door open error occurs and the situation in which the occurrence of a door open error is being notified is reached, if the door open error is eliminated, the situation in which the occurrence of a door open error is being notified can be ended without stopping the power supply, and the game can be brought back into a state in which the game can proceed and control to the setting value confirmation state can be executed again.

(3-16) It is possible to end the situation in which the occurrence of a door open error is being notified by eliminating the door open error without stopping the power supply. In addition, after the situation in which the occurrence of a door open error is being notified is ended by eliminating the door open error, it is possible to proceed with the game, and the game is brought into a state in which the game can proceed and control that suggests or notifies the set value that has been set can be executed. Therefore, even if a door open error occurs and the occurrence of a door open error is being notified, the situation in which the occurrence of a door open error is being notified can be ended without stopping the power supply by eliminating the door open error, and the game can be brought back into a state in which the game can proceed and control that suggests or notifies the set value that has been set again can be executed.

The above embodiment can be modified as follows: The above embodiment and the following modifications can be combined with each other to the extent that no technical contradiction occurs.
During the execution of settlement control, for example, the performance display device 15 may be configured to execute a warning about addiction. During the execution of settlement control, for example, the performance display device 15 may be configured to execute a warning about forgetting to take out a prepaid card.

- The settlement conditions may be changed. For example, when replay is activated, the settlement control may be restricted from being executed. For example, the settlement conditions may be satisfied when replay is not activated, but the settlement conditions may not be satisfied when replay is activated. In other words, the settlement conditions may be configured to include the fact that replay is not activated. In addition, for example, the settlement conditions may be satisfied even when a variable game is being executed. The settlement conditions may be satisfied when a specific game state is in effect, but the settlement conditions may not be satisfied when the specific game state is not in effect.

When executing the settlement control, the main CPU 41 may settle the medals set as the multiplier and then settle the medals stored as credits. When settling the medals set as the multiplier, the medals may be settled by directly paying out the medals, or by returning them to credits. However, the situation in which the medals set as the multiplier can be settled is limited to when replay is not in operation. In addition, the situation in which the medals stored as credits can be settled is limited to when the credits are 1 or more. Therefore, when the settlement control is executed when the replay is not in operation, the multiplier is set, and the credits are 1 or more, the medals set as the multiplier may be settled, and then the medals stored as credits may be settled. In addition, when the settlement control is executed when the replay is not in operation, the multiplier is set, and the credits are 0, the medals set as the multiplier may be settled, while the medals stored as credits may not be settled. Similarly, when the multiplier is not set and the credit is 1 or more, the medals set as the multiplier are not settled, while the medals stored as the credits are settled. When the replay is activated, the multiplier is set, and the credit is 1 or more, the medals set as the multiplier are not settled, while the medals stored as the credits are settled. When the replay is activated, the multiplier is set, and the credit is 0, the medals set as the multiplier and the medals stored as the credits are not settled. In the settlement control, the main CPU 41 may settle the medals stored as the credits and then settle the medals set as the multiplier.

- The performance executed by the performance display device 15 when settlement control is executed when the game is unable to proceed in the first process may be different from the performance executed by the performance display device 15 when settlement control is executed when the game is unable to proceed in the second process. The performance executed by the performance display device 15 when settlement control is executed when the game is unable to proceed in the first process may be different from the performance executed by the performance display device 15 when settlement control is executed when the game is unable to proceed in the third process. The performance executed by the performance display device 15 when settlement control is executed when the game is unable to proceed in the second process may be different from the performance executed by the performance display device 15 when settlement control is executed when the game is unable to proceed in the third process.

The presentation executed by the performance display device 15 when settlement control is executed when the game is in a state where game progress is possible may be different from the presentation executed by the performance display device 15 when settlement control is executed when the game is in a state where game progress is impossible in the first process. The presentation executed by the performance display device 15 when settlement control is executed when the game is in a state where game progress is possible may be different from the presentation executed by the performance display device 15 when settlement control is executed when the game is in a state where game progress is impossible in the second process. The presentation executed by the performance display device 15 when settlement control is executed when the game is in a state where game progress is possible may be different from the presentation executed by the performance display device 15 when settlement control is executed when the game is in a state where game progress is impossible in the third process.

- When the first process is unable to proceed, settlement control related to settlement of game media may be executable. When the first process is unable to proceed, control to detect an insertion error may be executable. When the first process is unable to proceed, control to detect a payout error may be executable. When the first process is unable to proceed, control to detect a door opening error may be executable. When the first process is unable to proceed, control to display a two-dimensional code as history information on the performance display device 15 may be executable. When the first process is unable to proceed, control related to volume adjustment may be executable. When the first process is unable to proceed, control to switch to a power saving mode may be executable. When the first process is unable to proceed, control to switch to a setting value confirmation state may be executable. When the first process is unable to proceed, control to suggest or notify the set value that has been set may be executable.

- When the second process is in an unprogressable state, it may be possible to execute control to set the setting value confirmation state. When the second process is in an unprogressable state, it may be possible to execute control to suggest or notify the set setting value.

- In the game progress impossible state in the second process, some or all of the following controls may be made inoperable: settlement control related to settlement of game media, control for detecting insertion errors, control for detecting payout errors, and control for detecting door opening errors. For example, in the game progress impossible state in the second process, settlement control related to settlement of game media may be executable, while control for detecting insertion errors and control for detecting payout errors may be inoperable. In the game progress impossible state in the second process, some or all of the following controls may be made inoperable: control for displaying a two-dimensional code as history information on the performance display device 15, control related to volume adjustment, and control for switching to power saving mode. For example, in the game progress impossible state in the second process, control related to volume adjustment may be executable, while control for switching to power saving mode may be inoperable.

- In the non-progression state in the third process among the game progress impossible states, some or all of the following controls may be configured to be inoperable: settlement control related to settlement of game media, control to detect insertion errors, control to detect payout errors, control to detect door opening errors, and control to enter a setting value confirmation state. For example, in the non-progression state in the third process among the game progress impossible states, settlement control related to settlement of game media and control to enter a setting value confirmation state may be executable, while control to detect insertion errors and control to detect payout errors may be inoperable. In the non-progression state in the third process among the game progress impossible states, some or all of the following controls may be configured to be inoperable: control to display a two-dimensional code as history information on the performance display device 15, control related to volume adjustment, control to enter a power saving mode, and control to suggest or notify the set setting value. For example, in the non-progression state in the third process among the game progress impossible states, control related to volume adjustment may be executable, while control to enter a power saving mode and control to suggest or notify the set setting value may be inoperable.

- Some or all of the following controls may be considered as controls related to the progress of the game: settlement control related to the settlement of game media, control to detect insertion errors, control to detect payout errors, control to detect door opening errors, and control to enter a setting value confirmation state. Some or all of the following controls may be considered as controls related to the progress of the game: control to display a two-dimensional code as history information on the performance display device 15, control related to volume adjustment, control to enter a power saving mode, and control to suggest or notify the set setting value.

The unprogressable state in the first process does not have to be controlled by an error related to the memory contents stored and held in the main RAM 43, that is, a RAM error, and is not limited to this. For example, a combination determination may be performed to determine whether the combination of the installed main CPU 41 and main ROM 42 is correct when power supply starts. If the combination of the installed main CPU 41 and main ROM 42 is not determined to be correct, the state may be controlled to the unprogressable state in the first process. In addition, for example, an installation determination may be performed to determine whether the same ROM as the main ROM 42 installed when the power supply is stopped is installed when power supply starts. If it is determined that the same ROM as the main ROM 42 installed when the power supply is stopped is not installed, the state may be controlled to the unprogressable state in the first process. In addition, if a RAM error occurs, the state may be controlled to the unprogressable state in the second process. If a RAM error occurs, the state may be controlled to the unprogressable state in the third process.

- When the game is in a state where it is possible to proceed, the settlement control may be configured to be executed without being triggered by the operation of the settlement button 19. For example, the settlement control may be configured to be executed each time a payout role is won.

- When the game is in a state where game progress is possible, the control related to the volume adjustment may be executed without being triggered by the operation of buttons Ba and Bb. For example, when the game enters a standby state, the settlement control may be executed so that the volume is adjusted to a predetermined volume.

- The information that can be stored in the main RAM 43 even after the power supply is stopped may not include one or both of the information related to credits and multipliers used for settlement control, and the setting value information used for control to enter the setting value confirmation state.

- Information that can identify that the third process was controlled to an unprogressable state is not limited to the stack pointer stored and held in the main RAM 43 when power supply is stopped in the event of an unprogressable state in the third process. For example, information that can identify that the third process was controlled to an unprogressable state may be information that can identify that a value that can be identified from the acquired number information after power restoration has reached a specified value. For example, information that can identify that the third process was controlled to an unprogressable state may be information that is stored in the main RAM 43 when a value that can be identified from the acquired number information after power restoration has reached a specified value.

- Information that can identify that a value identifiable from the information on the number of coins acquired after power recovery has reached a specified value may be changed. For example, the error notification image ERt displayed as information that can identify that a value identifiable from the information on the number of coins acquired after power recovery has reached a specified value may be changed. For example, the error notification image ERt may be an image that includes some or all of the text information "The complete function has been activated", the text information "The maximum number of coins that can be paid out in one day has been reached", and the text information "Play ends for today". In addition, when the error notification image ERt is displayed on the performance display device 15, a two-dimensional code may be displayed on the performance display device 15. At this time, the two-dimensional code may be displayed on the performance display device 15 superimposed on the error notification image ERt.

- After settlement control related to the settlement of gaming media is executed when the game is in a state where game progress can be made, the warning against addiction may be configured not to be executed. For example, after settlement control related to the settlement of gaming media is executed when the game is in a state where game progress can be made, the standby state may not be entered.

- When the second process is unable to proceed, a standby state may be established when settlement control is executed. A warning regarding the possibility of getting addicted may be issued in this standby state, or a warning regarding the possibility of getting addicted may not be issued. Similarly, when the third process is unable to proceed, a standby state may be established when settlement control is executed. A warning regarding the possibility of getting addicted may be issued in this standby state, or a warning regarding the possibility of getting addicted may not be issued.

- After the control for changing the state to the setting value confirmation state is executed when the game is in a state where game progress is possible, a warning about addiction may be executed. In this case, whether the variable game is being executed or not, a warning about addiction may be executed after the control for changing the state to the setting value confirmation state is executed. Also, when the variable game is being executed, a warning about addiction may not be executed after the control for changing the state to the setting value confirmation state is executed, whereas when the variable game is not being executed, a warning about addiction may be executed after the control for changing the state to the setting value confirmation state is executed. After the control for changing the state to the setting value confirmation state is executed when the game is in a state where progress is impossible in the second process, a warning about addiction may not be executed. After the control for changing the state to the setting value confirmation state is executed when the game is in a state where progress is impossible in the third process, a warning about addiction may not be executed.

- There may be cases where an unprogressable state in the third process becomes an unprogressable state in the second process. For example, when an unprogressable state in the third process is reached, a determination may be made as to whether the setting value information is normal. If it is determined that the setting value information is not normal, the unprogressable state in the third process may be terminated, and an unprogressable state in the second process may be reached. There may also be cases where an unprogressable state in the second process becomes an unprogressable state in the third process.

- If it is determined that the setting value information is not normal, the process may be configured to be unable to proceed in the first process rather than the second process. If a value that can be determined from the acquired number information after power recovery reaches a specified value, the process may be configured to be unable to proceed in the first process rather than the third process. If a value that can be determined from the acquired number information after power recovery reaches a specified value, the process may be configured to be unable to proceed in the second process rather than the third process.

-When a random number abnormality occurs, the second game-disabling process may be executed, resulting in a state where the game cannot proceed in the second process. When a random number abnormality occurs, the third game-disabling process may be executed, resulting in a state where the game cannot proceed in the third process. For example, when a random number abnormality occurs when power supply is started, the first game-disabling process may be executed, resulting in a state where the game cannot proceed in the first process. For example, when an abnormality occurs in the random number generation circuit mounted on the main board 40, or when the value of the random number generated by the random number generation circuit is not normal, it may be determined that a random number abnormality has occurred. A random number abnormality is also called, for example, a random number error. For example, when a random number abnormality occurs and a state where the game cannot proceed in the second process is reached, the game may be configured to be capable of controlling the game to a setting value confirmation state in the state where the game cannot proceed in the second process. The control to set the setting value confirmation state may be regarded as a specific control, a special information control, or a special operation control. The state where the game cannot proceed in the second process may be regarded as a special game progress state. For example, if a random number anomaly occurs and the second process becomes impossible to proceed, when the second unplayable process is being executed, the system may be configured to be able to execute control that suggests or notifies the player of the set value that has been set. The control that suggests or notifies the player of the set value can be regarded as a specific control, and can be regarded as a special operation control.

・When a winning error occurs, a second game-disabling process may be executed, resulting in a state where the game cannot proceed in the second process. When a winning error occurs, a third game-disabling process may be executed, resulting in a state where the game cannot proceed in the third process. For example, a winning error may be determined to have occurred when the role that was allowed to win in the role lottery is different from the role that actually won, or when the lottery result of the role lottery is a "miss" and a payout role or a replay role wins. A winning error is also called, for example, a winning abnormality determination. For example, when a winning error occurs and a state where the game cannot proceed in the second process is a state where the game cannot proceed in the second process, the game may be configured to be executable to control the game to a setting value confirmation state in the state where the game cannot proceed in the second process. The control to set the setting value confirmation state can be regarded as a specific control, a special information control, or a special operation control. The state where the game cannot proceed in the second process can be regarded as a special game progress state. For example, if a winning error occurs and the second process becomes impossible to proceed, when the second game-unplayable process is being executed, a control may be configured to be executable that suggests or notifies the player of the set value that has been set. The control that suggests or notifies the player of the set value can be regarded as a specific control, and can be regarded as a special operation control.

-When an information loss error occurs, the second game-disabling process may be executed, resulting in a state where the game cannot proceed in the second process. When an information loss error occurs, the third game-disabling process may be executed, resulting in a state where the game cannot proceed in the third process. In addition, for example, when an information loss error occurs when power supply is started, the first game-disabling process may be executed, resulting in a state where the game cannot proceed in the first process. For example, when information that should be stored in the main RAM 43 (for example, information that can identify the lottery result of the role lottery) is not stored, it may be determined that an information loss error has occurred. For example, when an information loss error occurs and a state where the game cannot proceed in the second process is reached, in the state where the game cannot proceed in the second process, the game may be configured to be executable to control the game to a setting value confirmation state. The control to set the game to a setting value confirmation state can be regarded as a specific control, can be regarded as a special information control, and can be regarded as a special operation control. The state where the game cannot proceed in the second process can be regarded as a special game progress state. For example, if an information loss error occurs and the second process becomes impossible to proceed, the device may be configured to execute control to suggest or notify the set value that has been set when the second unplayable process is being executed. The control to suggest or notify the set value that has been set can be regarded as a specific control, and can be regarded as a special operation control.

・When a wiring error occurs, the second game disable process may be executed, resulting in a state where progress is disabled in the second process. When a wiring error occurs, the third game disable process may be executed, resulting in a state where progress is disabled in the third process. In addition, for example, when a wiring error occurs when power supply is started, the first game disable process may be executed, resulting in a state where progress is disabled in the first process. For example, when it is determined that the electrical wiring in the slot machine 10 is not normal, or when it is determined that the electrical wiring in the slot machine 10 is disconnected, it may be determined that a wiring error has occurred. The wiring error may include a disconnection error. A disconnection error may occur, for example, in a situation where the wiring is cut or not wired. For example, when it is determined that an abnormality has occurred regarding at least one of the output and input of control information in the slot machine 10, it may be determined that a wiring error has occurred. The wiring error may include a communication error. A communication error may occur, for example, when an abnormality has occurred in the transmission and reception of control signals, such as a situation where control information that should be input has not been input and a situation where unspecified control information has been input. For example, when a wiring error occurs and the second process becomes unable to proceed, control for changing to a setting value confirmation state may be configured to be executable in the unable to proceed state in the second process. The control for changing to a setting value confirmation state may be regarded as a specific control, a special information control, or a special operation control. The unable to proceed state in the second process may be regarded as a special game unable to proceed state. For example, when a wiring error occurs and the second process becomes unable to proceed, control for suggesting or notifying the set value that has been set may be configured to be executable when the second game unable to proceed process is being executed. The control for suggesting or notifying the set value that has been set may be regarded as a specific control, or a special operation control.

- In the case where the first process is unable to proceed, the game may be allowed to proceed before the first process is unable to proceed. For example, in the case where the first process is unable to proceed, the game may be allowed to proceed temporarily for a predetermined period of time before the first process is unable to proceed. For example, even if the first process is unable to proceed, the game may return to a state where game progress is possible after power supply is started. The first process may be unable to proceed in the first state without being controlled to a state where game progress is possible, or may be controlled after the game progresses.

・When the game becomes unable to proceed in the second process, the game may not proceed in the allowed state, but may be controlled to the unable to proceed state in the second process. For example, when the power supply is started and the setting value information is not normal, the game may not proceed in the allowed state, but may be controlled to the unable to proceed state in the second process. The unable to proceed state in the second process may be controlled without being a game progress-enabling state, or may be controlled after the game progress-enabling state has been reached. When the game becomes unable to proceed in the third process, the game may not proceed in the allowed state, but may be controlled to the unable to proceed state in the third process. For example, when the power supply is started and the value that can be identified from the acquired number information after power restoration has reached a specified value, the game may not proceed in the allowed state, but may be controlled to the unable to proceed state in the third process. The unable to proceed state in the third process may be controlled without being a game progress-enabling state, or may be controlled after the game progress-enabling state has been reached.

- When the game is in a state where game progress is possible, the control to suggest or notify the set setting value may be configured to be executable without being triggered by the operation of the effect button BT. When the game is in a state where game progress is possible, the control to suggest or notify the set setting value may be configured to be inexecutable regardless of the operation of the effect button BT.

- When the third process is in an impossible-to-progress state, the control may be configured to be executed to suggest or notify the set value that has been set, triggered by the operation of the effect button BT. When the third process is in an impossible-to-progress state, the control to suggest or notify the set value that has been set may be configured to be disabled, regardless of the operation of the effect button BT.

- When game progress is possible, the control related to volume adjustment may be executable without being triggered by operation of buttons Ba and Bb. When game progress is possible, the volume may be adjusted when a predetermined volume initialization condition is met, regardless of operation of buttons Ba and Bb. At this time, the volume may be adjusted to a predetermined volume. The volume initialization condition may be met when a predetermined time has passed.

- When the game is in a state where game progress is possible, the control to display a two-dimensional code on the performance display device 15 may be configured to be executable without being triggered by the operation of the performance button BT. When the game is in a state where game progress is possible, the control to display a two-dimensional code on the performance display device 15 may be configured to be inexecutable regardless of the operation of the performance button BT.

- When the game is unable to proceed in the second process, the game may be configured so that control is executed to display a two-dimensional code on the performance display device 15 in response to operation of the performance button BT. When the game is unable to proceed in the second process, the game may be configured so that control is executed to display a two-dimensional code on the performance display device 15 in response to operation of the performance button BT. When the game is unable to proceed in the third process, the game may be configured so that control is executed to display a two-dimensional code on the performance display device 15 in response to operation of the performance button BT. When the game is unable to proceed in the third process, the game may be configured so that control is executed to display a two-dimensional code on the performance display device 15 in response to operation of the performance button BT.

- If an unprogressable state occurs in the first process, a sound with an adjustable volume may be output thereafter. In this configuration, the volume may be adjustable even if an unprogressable state occurs in the first process. Also, if an unprogressable state occurs in the second process, a sound with an adjustable volume may not be output thereafter, at least until the unprogressable state in the second process is ended. If an unprogressable state occurs in the third process, a sound with an adjustable volume may not be output thereafter, at least until the unprogressable state in the third process is ended.

-When the occurrence of a door opening error is notified as a result of the detection of a door opening error, settlement control related to the settlement of game media may be executed. When the occurrence of a door opening error is notified as a result of the detection of a door opening error, control to detect an insertion error may be executed. When the occurrence of a door opening error is notified as a result of the detection of a door opening error, control to detect a payout error may be executed. When the occurrence of a door opening error is notified as a result of the detection of a door opening error, control to display a two-dimensional code as history information on the performance display device 15 may be executed. When the occurrence of a door opening error is notified as a result of the detection of a door opening error, control related to volume adjustment may be executed. When the occurrence of a door opening error is notified as a result of the detection of a door opening error, control to switch to a power saving mode may be executed. When the occurrence of a door opening error is notified as a result of the detection of a door opening error, control to switch to a setting value confirmation state may be executed. When the occurrence of a door opening error is notified as a result of the detection of a door opening error, control to suggest or notify the set setting value may be executed.

-Even if the door opening error is resolved, the notification of the occurrence of the door opening error may be continued for a predetermined period of time. For example, in the third embodiment, during the period during which the notification of the occurrence of the door opening error is continued, the execution of at least one of the control for detecting the input error and the control for detecting the dispensing error may be resumed. Even if the input error is resolved, the notification of the occurrence of the input error may be continued for a predetermined period of time. For example, in the third embodiment, during the period during which the notification of the occurrence of the input error is continued, the execution of at least one of the control for detecting the door opening error and the control for detecting the dispensing error may be resumed. Even if the dispensing error is resolved, the notification of the occurrence of the dispensing error may be continued for a predetermined period of time. For example, in the third embodiment, during the period during which the notification of the occurrence of the dispensing error is continued, the execution of at least one of the control for detecting the door opening error and the control for detecting the input error may be resumed.

When the occurrence of a throw-in error is notified upon detection of a throw-in error, settlement control related to the settlement of gaming media may be unexecutable or executable. When the occurrence of a throw-in error is notified upon detection of a throw-in error, control to detect a throw-in error may be unexecutable or executable. When the occurrence of a throw-in error is notified upon detection of a throw-in error, control to detect a payout error may be unexecutable or executable. When the occurrence of a throw-in error is notified upon detection of a throw-in error, control to display a two-dimensional code as history information on the performance display device 15 may be unexecutable or executable. When the occurrence of a throw-in error is notified upon detection of a throw-in error, control related to volume adjustment may be unexecutable or executable. When the occurrence of a throw-in error is notified upon detection of a throw-in error, control to switch to a power saving mode may be unexecutable or executable. When the occurrence of a throw-in error is notified upon detection of a throw-in error, control to switch to a setting value confirmation state may be unexecutable or executable. When the occurrence of an insertion error is notified in response to the detection of an insertion error, the control to suggest or notify the set value may or may not be executable. In this case, the insertion error can be considered a specific error, and the selector sensor SE5 that detects the insertion error can function as specific error detection means. Also, in this case, the time when the occurrence of an insertion error is notified can be considered as a specific error detection state. And the secondary CPU 51 that executes the control to notify the occurrence of an insertion error can function as specific error control means.

When the occurrence of a payout error is notified as a result of the detection of a payout error, the settlement control related to the settlement of the gaming medium may be unexecutable or executable. When the occurrence of a payout error is notified as a result of the detection of a payout error, the control to detect an input error may be unexecutable or executable. When the occurrence of a payout error is notified as a result of the detection of a payout error, the control to detect a payout error may be unexecutable or executable. When the occurrence of a payout error is notified as a result of the detection of a payout error, the control to display a two-dimensional code as history information on the performance display device 15 may be unexecutable or executable. When the occurrence of a payout error is notified as a result of the detection of a payout error, the control related to the volume adjustment may be unexecutable or executable. When the occurrence of a payout error is notified as a result of the detection of a payout error, the control to switch to a power saving mode may be unexecutable or executable. When the occurrence of a payout error is notified as a result of the detection of a payout error, the control to switch to a setting value confirmation state may be unexecutable or executable. When the occurrence of a payout error is notified in response to the detection of a payout error, the control to suggest or notify the set value may or may not be executable. In this case, the payout error can be considered a specific error, and the hopper sensor SE6 that detects the payout error can function as a specific error detection means. Also, in this case, the time when the occurrence of a payout error is notified can be considered as a specific error detection state. And the secondary CPU 51 that executes the control to notify the occurrence of a payout error can function as a specific error control means.

The specific error may be a throw-in error. In this case, the selector sensor SE5 corresponds to the specific error detection means. The specific error detection state may be a situation in which the error notification image ER2 is displayed to notify the occurrence of a throw-in error. The control for displaying the error notification image ER2 may be specific error control that controls to a specific error detection state. The specific error may also be a payout error. In this case, the specific error detection means includes the hopper sensor SE6. The specific error detection state may be a situation in which the error notification image ER3 is displayed to notify the occurrence of a payout error. The control for displaying the error notification image ER3 may be specific error control that controls to a specific error detection state.

- The history information does not have to be a multi-dimensional code such as a two-dimensional code. For example, in the above embodiment, the information displayed by reading the two-dimensional code with a reading device may be configured to be displayed as history information on the performance display device 15. In other words, the history information does not have to be information that can be read by a reading device. The history information is not limited to a QC code, and may be a barcode, etc. The history information may be, for example, a multi-dimensional code other than a two-dimensional code.

- It is not necessary to configure the device to be selectable as to whether or not to allow control to be in the power saving mode. The device may be configured to be selectable as to the power saving standby time until control to be in the power saving mode. For example, the device may be configured to be selectable as to whether or not to allow control to be in the power saving mode, and the power saving standby time when control to be in the power saving mode is allowed may be selectable.

- In the power saving mode, for example, sound may be controlled to be output at a volume lower than the set volume. In the power saving mode, for example, sound may be controlled not to be output. In addition, in the power saving mode, at least one of the brightness of the decorative lamp 13 and the brightness of the backlight of the performance display device 15 may be configured to be reduced. As described above, in the power saving mode, at least one of the volume and brightness may be configured to be limited compared to when not in the power saving mode.

- Only one of the first display 47 and the second display 48 may be used. For example, of the first display 47 and the second display 48, only the second display 48 may be provided, and the information displayed on the first display 47 may be displayed on the second display 48. It is not necessary to provide both the first display 47 and the second display 48. For example, the information displayed on the first display 47 and the information displayed on the second display 48 may be displayed on the performance display device 15. In this case, it is preferable to configure the main CPU 41 to output a control signal to the secondary CPU 51 that can identify the information to be displayed on the performance display device 15.

- The information on the number of coins acquired after power recovery may be configured to be stored and retained in the main RAM 43 even after the power supply is stopped. If a value that can be determined from the information on the number of coins acquired after power recovery reaches a specified value, the information on the number of coins acquired after power recovery can be said to be information that can determine that the third process was controlled to an unprogressable state.

- The control adopted as the specific control may be one or more controls among the controls that can be regarded as specific controls. The control adopted as the special information control may be one or more controls among the controls that can be regarded as special information controls. The control adopted as the special operation control may be one or more controls among the controls that can be regarded as special operation controls.

- If the remaining value until the value identifiable from the acquired number information after power recovery reaches the specified value becomes equal to or less than the notification start reference value, and the remaining value until the value identifiable from the acquired number information after power recovery reaches the specified value becomes higher than the notification start reference value, notification of the remaining value until the acquired number information after power recovery reaches the specified value may be configured to end. In other words, the notification start reference value and the notification end reference value may be the same value. The difference between the notification start reference value and the notification end reference value may be equal to or less than the maximum number of medals paid out as a prize.

- The period during which the first external signal is output and the period during which the second external signal is output may be the same. For example, once the second external signal is output, the second external signal may continue to be output until the power supply is stopped. For example, the first external signal may be output until a predetermined output time has elapsed since the first external signal was output, or until the power supply is stopped before the predetermined output time has elapsed. Note that the predetermined output time may be changed.

- In the unprogressable state in the second process, the control to output an external signal may not be executed, and an external signal may not be output. In this case, the processing of step S701 may be omitted. In the unprogressable state in the third process, the control to output an external signal may not be executed, and an external signal may not be output. In this case, the processing of step S801 may be omitted.

- The external signal output in step S701 and the external signal output in step S801 may be the same. It may be configured such that it is impossible to determine from the external signal whether the state is one in which progress is impossible in the second process or in which progress is impossible in the third process.

- The third embodiment may be adopted in the gaming machine of the second embodiment. For example, in the second embodiment, if a door opening error is detected, the game progress process may not be executed, resulting in a game progress disabled state in which the game cannot progress. For example, in the second embodiment, if a throw-in error is detected, the game progress process may not be executed, resulting in a game progress disabled state. For example, in the second embodiment, if a payout error is detected, the game progress process may not be executed, resulting in a game progress disabled state.

- Various interrupt processes may not be prohibited in the second unplayable processing. For example, the processing of step S702 in the second unplayable processing may not be performed. In other words, the processing of step S702 may not be performed and interrupt processes may be allowed in the second unplayable processing. Various interrupt processes may not be prohibited in the third unplayable processing. For example, the processing of step S802 in the third unplayable processing may not be performed. In other words, the processing of step S802 may not be performed and interrupt processes may be allowed in the third unplayable processing.

・The settlement process may be configured not to be performed as an interrupt process. For example, the settlement process may be configured to be performed within the medal management process of step S605 in the game progress process, or from the time when the process of step S602 in the game progress process is performed until the judgment result of step S607 becomes positive. The settlement process may be configured to be performed multiple times from the time when the process of step S601 is performed in the game progress process until the process of step S601 is performed again. If the settlement process is not performed as an interrupt process, the second unplayable process may be configured to not perform the processes of steps S703 and S707, for example, and to perform the settlement process in the unplayable state in the second process. If the settlement process is not performed as an interrupt process, the third unplayable process may be configured to not perform the processes of steps S803 and S808, for example, and to perform the settlement process in the unplayable state in the third process.

- The setting value confirmation process may be configured not to be performed as an interrupt process. For example, the setting value confirmation process may be configured to be performed within the medal management process of step S605 in the game progress process, or from when the process of step S602 in the game progress process is performed until the judgment result of step S607 becomes positive. The setting value confirmation process may be configured to be performed multiple times from when the process of step S601 is performed in the game progress process until the process of step S601 is performed again. If the setting value confirmation process is not performed as an interrupt process, the third game unplayable process may be configured to perform the setting value confirmation process in the game unplayable state in the third process, for example, without performing the processes of steps S804 and S809.

- The door open detection process may be configured not to be performed as an interrupt process. For example, the door open detection process may be configured to be performed in the medal management process of step S605 in the game progress process, or from the time when the process of step S602 in the game progress process is performed until the judgment result of step S607 becomes positive. The door open detection process may be configured to be performed multiple times from the time when the process of step S601 is performed in the game progress process until the process of step S601 is performed again. If the door open detection process is not performed as an interrupt process, the second unplayable process may be configured to not perform the processes of steps S704 and S708, for example, and to perform the door open detection process in the unplayable state in the second process. If the door open detection process is not performed as an interrupt process, the third unplayable process may be configured to not perform the processes of steps S805 and S810, for example, and to perform the door open detection process in the unplayable state in the third process.

- The insertion error detection process may be configured not to be performed as an interrupt process. For example, the insertion error detection process may be configured to be performed within the medal management process of step S605 in the game progress process, or from the time when the process of step S602 in the game progress process is performed until the judgment result of step S607 becomes positive. The insertion error detection process may be configured to be performed multiple times from the time when the process of step S601 is performed in the game progress process until the process of step S601 is performed again. If the insertion error detection process is not performed as an interrupt process, the second unplayable process may be configured to not perform the processes of steps S705 and S709, for example, and to perform the insertion error detection process in the unplayable state in the second process. If the insertion error detection process is not performed as an interrupt process, the third unplayable process may be configured to not perform the processes of steps S806 and S811, for example, and to perform the insertion error detection process in the unplayable state in the third process.

- The payout error detection process may be configured not to be performed as an interrupt process. For example, the payout error detection process may be configured to be performed within the medal payout process of step S622 in the game progress process, or from the process of step S622 in the game progress process to the process of step S601. The payout error detection process may be configured to be performed multiple times from the process of step S601 in the game progress process to the process of step S601 being performed again. If the payout error detection process is not performed as an interrupt process, the second unplayable process may be configured to not perform the processes of steps S706 and S710, for example, and to perform the payout error detection process in the unplayable state in the second process. If the payout error detection process is not performed as an interrupt process, the third unplayable process may be configured to not perform the processes of steps S807 and S812, for example, and to perform the payout error detection process in the unplayable state in the third process.

- In the above embodiment, the presence or absence of detection signals from various sensors (so-called ON/OFF state) may be configured to be updated in interrupt processing. In the above embodiment, the presence or absence of detection signals from various switches (so-called ON/OFF state) may be configured to be updated in interrupt processing. In the above embodiment, the presence or absence of detection signals from various operating means (so-called ON/OFF state) may be configured to be updated in interrupt processing.

The above embodiment may be applied to a slot machine in which a bonus game is generated (awarded) when a symbol combination (bonus stop) corresponding to a bonus role is derived in a variable game. The period during which the bonus game is generated may be configured to be included in the advantageous zone. Incidentally, in a slot machine capable of generating a bonus game, the state in which the winning of a bonus role is permitted is also called a "carry-over state" or "inside". In a slot machine capable of generating a bonus game, for example, the second display 48 may be configured to be capable of displaying a consecutive role ratio. The consecutive role ratio is, for example, the ratio of the number of payouts during a bonus game to the total number of payouts. The number of payouts referred to here can also be the number of game media that have been awarded. The consecutive role ratio may be, for example, the consecutive role ratio during a period during which a predetermined number of variable games have been executed. In this case, the predetermined number may, in principle, be the number of variable games executed since the slot machine 10 was manufactured. For example, the second display 48 may be configured to repeatedly display the advantageous zone ratio and the consecutive feature ratio in a predetermined order. The consecutive feature ratio can be regarded as information based on the gaming history.

The favorable zone ratio displayed on the second display 48 may be, for example, the favorable zone ratio during a period in which a predetermined number of variable games (e.g., 6,000 times) have been played. Similarly, for example, when the continuous feature ratio is displayed on the second display 48, the continuous feature ratio displayed on the second display 48 may be, for example, the continuous feature ratio during a period in which a predetermined number of variable games (e.g., 6,000 times) have been played.

- If the value identifiable from the updated information on the number of coins acquired after power recovery reaches a specified value, the main CPU 41 may control the second display 48 to display information indicating that the value identifiable from the information on the number of coins acquired after power recovery has reached a specified value.

・The slot machine 10 may be a gaming machine that uses gaming media other than medals. For example, the slot machine 10 may be embodied as a gaming machine that uses gaming balls (pachinko balls) as gaming media. In addition, the gaming medium may be managed by data (information). That is, the slot machine 10 may be a so-called managed gaming machine. That is, the slot machine 10 may be a medalless gaming machine. In a medalless gaming machine, instead of credits or in addition to credits, the number of medals held, including medals lent from the sand unit SU, may be stored as data. The number of medals held is also called balls held or medals held. In such a configuration, when the balls held are stored as data, the settlement control in this embodiment may be applied to the control of paying back (transferring) the balls held to the sand unit SU. Furthermore, the settlement control in this embodiment may be applied to the control of returning the number of medals set as the multiplication number to the balls held stored as data. The medals in a medalless gaming machine may also be called virtual media. The virtual media corresponds to a gaming value.

- The machine may be configured so that credits can be increased even while a variable game is being played. For example, if a variable game is being played and the credits have not reached the upper limit, the machine may be configured so that credits can be increased by one by inserting a medal through the medal insertion slot 17. In a medal-less gaming machine, for example, the machine may be configured so that medals lent from the sand unit SU can be added to the balls held, which are stored as data, even while a variable game is being played.

- The gaming machine may not have some or all of the slot available lamp 31, replay lamp 32, start lamp 33, advantageous zone lamp 34, odds display unit 35, credit display unit 36, and payout display unit 37. For example, the gaming machine may not have the slot available lamp 31. In addition, the gaming machine may not have the credit display unit 36.

・The slot machine 10 may be embodied as a pachinko game machine. In pachinko game machines, a jackpot game generally occurs after a jackpot lottery is won. In pachinko game machines, game balls correspond to game value. In pachinko game machines, for example, when a ball removal button is operated to pay off game balls stored in a storage tray (so-called upper tray or lower tray) that stores game balls, the stored game balls are paid off electrically and the settlement may be made. In addition, the pachinko game machine may be a pachinko game machine that can store the number of game balls as data and can execute a variable game by consuming the game balls stored as data by firing them. In other words, the above embodiment may be embodied as a pachinko game machine (so-called managed game machine) that does not pay out physical game media. The game balls stored as data can also be called virtual media. The virtual media corresponds to game value. In a pachinko gaming machine as a managed gaming machine, the settlement control in this embodiment may be applied to the control of paying back the game balls held to the sand unit SU. In a pachinko gaming machine, the jackpot lottery corresponds to an internal lottery. The function of the internal lottery means is realized by having the CPU perform the jackpot lottery. As with the slot machine 10, the pachinko gaming machine may be configured to allow a setting value to be set. The pachinko gaming machine may be configured to perform the jackpot lottery according to the set setting value.

- There may be only one type of setting value. Even if there are multiple types of setting values, some of the multiple setting values may be configured to use the same role selection table in the role selection. In addition, the setting values do not need to be configured to be changeable.

The functions of the main board 40 in the above embodiment may be divided among multiple boards. The main CPU 41 may be composed of multiple CPUs mounted on a single board.
The function of the sub-board 50 in the above embodiment may be realized by dividing it into multiple boards. For example, a display board that specializes in controlling the performance display device 15, a sound board that specializes in controlling the speaker 14, and a lamp board that specializes in controlling the decorative lamp 13 may be provided, and a master board that comprehensively controls these boards may also be provided. The sub-CPU 51 may also be composed of multiple CPUs mounted on a single board.

10...Slot machine 13...Decorative lamp 14...Speaker 15...Performance display device 17...Medal insertion slot 19...Settlement button 20...Start lever 21-23...Stop buttons 30...Information panel 31...Insert possible lamp 32...Replay lamp 33...Start lamp 34...Advantageous zone lamp 35...Multiplier display section 36...Credit display section 37...Payout display section 40...Main board 41...Main CPU 42...Main ROM 43...Main RAM 45...Setting value switch 47...First display 48...Second display 50...Sub-board 51...Sub-CPU 52...Sub-ROM 53...Sub-RAM 60...Power supply unit 61...Power switch 62...Back-up power supply 70...External terminal board Ba...Up button Bb...Down button BT...Performance button HU...Hopper unit SE1-SE3...Reel sensor SE4...Input sensor SE5...Selector sensor SE6...Hopper sensor SEa...Door open sensor

Claims (1)

A gaming machine that can be controlled to a game progress disabled state in which a game cannot be progressed, and when the gaming machine is controlled to the game progress disabled state, in order to terminate the game progress disabled state, it is necessary to at least stop the power supply.
A disable control means for controlling the game to be in a state where game progress is disabled;
A display means;
a history display control means for executing history information display control for displaying history information based on a game history on the display means;
A remaining value effect means capable of executing a remaining value effect,
The game progress impossible state includes a specific game progress impossible state and a non-specific game progress impossible state different from the specific game progress impossible state,
At least when the specific game progress is impossible, the history display control means is capable of executing the history information display control;
When the non-specific game progress is impossible, the history display control means is unable to execute the history information display control,
The specific game progress impossible state can be controlled by a value identifiable from the special information reaching a specified value,
The remaining value effect is an effect that can specify a remaining value until a value that can be specified from the special information reaches the specified value,
The remaining value presentation means is capable of executing the remaining value presentation when a value identifiable from the special information reaches a first value which is less than the specified value, and after executing the remaining value presentation, is capable of continuing to execute the remaining value presentation until the value identifiable from the special information becomes equal to or less than a second value which is less than the first value, and is characterized in that the remaining value presentation is not executed when the value identifiable from the special information becomes equal to or less than the second value .

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