JP2022163203A - game machine - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a game machine capable of preventing a random number allowing a lottery to be won from being acquired fraudulently and easily.

SOLUTION: A main control device 101 mounts a microcomputer mainly including a CPU 102, namely arithmetic processing means. The CPU 102 is connected to a first clock circuit 103, an I/O port 104, a basic random number generator 150 for generating a basic random number, and the like in addition to a power unit 91 via an internal bus. In this case, when a start command occurs, the CPU 102 performs processing for subtracting a value of a delay counter up to 0, and outputs a latch signal for latching a count value to the basic random number generator 150 after the value of the delay counter becomes 0.

SELECTED DRAWING: Figure 9

COPYRIGHT: (C)2023,JPO&INPIT

Description

The present invention relates to gaming machines such as slot machines.

For example, in a slot machine, a plurality of symbols are provided on the outer peripheral portion of each reel, and some of the symbols provided on each reel can be visually recognized through a display window. When the player inserts medals, an effective line is set, and after that, the player operates the start lever to play a big bonus (hereinafter referred to as "BB") combination or a small combination inside the slot machine. A lottery for a combination such as replay is performed and each reel starts rotating, and after each reel starts rotating, a stop switch is operated to sequentially stop each reel and one game ends. When all the reels stop rotating and the combination of the winning combination and the corresponding symbols on the active line stops, the player wins, and the player is given the privilege of paying out medals, the privilege of changing the game state, etc. be done. Here, inside the slot machine, it is common to obtain a random number by operating a start lever and use the random number to draw a winning combination (see, for example, Patent Document 1).

JP 2007-325888 A

Here, in the slot machine as exemplified above, there is still room for improvement in the relationship between the process of confirming the signal input status from the sensor and other processes.

It should be noted that the above problems are not limited to the slot machines as exemplified above, but also apply to other gaming machines that progress games based on the detection of predetermined conditions.

SUMMARY OF THE INVENTION It is an object of the present invention to provide a game machine capable of suitably using the detection of a predetermined condition in a game.

In the invention according to claim 1, the operation means is operated to advance the game, and the first signal is output when the operation means is operated, and the first signal is output when the operation means is not operated. and signal output means for not outputting the first signal, wherein the operation means receives a first number of game media. a first operating means operated by the player to cause a second number of game media greater than the first number to be accepted; and a second operating means operated by the player to cause the game to start. and a start operation means to be operated, and a game is started based on input of a first signal indicating that the start operation means has been operated after receiving the first number of game media. first game starting means; and second game starting means for starting a game based on input of a first signal indicating that the start operation means has been operated after receiving the second number of game media. and a periodic processing executing means for periodically performing periodic processing including status confirmation processing for confirming the signal input status from the signal outputting means, and a specific processing executing means for performing specific processing. do.

The detection of the predetermined condition can be suitably used for the game.

1 is a front view of a slot machine in one embodiment; FIG. 1 is a perspective view of a slot machine showing a state in which a front door is closed; FIG. 1 is a perspective view of a slot machine showing a state in which a front door is opened; FIG. It is a rear view of a front door. It is a front view of a housing|casing. It is a figure which shows the pattern arrangement|sequence of each reel. FIG. 10 is an explanatory diagram showing the relationship between a pattern and a combination line that can be visually recognized through a display window; FIG. 10 is an explanatory diagram showing the relationship between the winning mode and the privilege to be given; 1 is a block diagram of a slot machine; FIG. FIG. 4 is an explanatory diagram for explaining the configuration of a RAM; FIG. 4 is a block diagram relating to detection of operation of a start lever and acquisition of basic random numbers; 4 is a flowchart showing timer interrupt processing; It is a flow chart which shows sensor monitoring processing. 4 is a flowchart showing main processing; 4 is a flowchart showing operation determination processing; It is a flow chart which shows winning probability setting processing. 10 is a flowchart showing interrupt waiting processing; 10 is a flowchart showing normal processing; It is a flow chart which shows start waiting processing. 4 is a flowchart showing delay processing; 10 is a flowchart showing delay counter processing; 4 is a time chart showing changes in various signals; It is a flow chart which shows lottery processing. 4 is a flowchart showing random number generation processing; It is a figure which shows an example of the lottery table for normal conditions. It is a figure which shows an example of a sliding table. 4 is a flowchart showing reel control processing; It is a flowchart which shows a stop pre-processing. 4 is a flowchart showing BB state processing;

Hereinafter, the game machine of the present invention will be shown separately as a means, and the explanation will be made while showing the effects and the like as necessary. In the following description, for ease of understanding, corresponding configurations in the embodiments of the invention are appropriately shown in parentheses or the like, but are not limited to the specific configurations shown in parentheses or the like.

Means 1. variable display means (reel unit 31) for variably displaying a pattern (design);
a start condition detecting means for detecting establishment of a start condition for starting the variable display of the pattern (function S620 for determining that a start command of the CPU 102 has been generated);
A lottery means (lottery processing function S505 of the CPU 102) that performs a lottery based on the establishment of the start condition;
Display control means (reel control of CPU 102) for starting variable display of the pattern based on the establishment of the start condition, and for controlling display of the variable display means so as to obtain a stop result based on the lottery result of the lottery means. processing function) and
When the result of the lottery by the lottery means is a win and a specific stop result (a stop result in which a combination of winning symbols is stopped on an active line) is given to the player, benefits (payout of medals, transition to BB state, etc.) are provided. In a gaming machine provided with privilege granting means (medal payout processing function S507 of CPU 102, BB state processing function S508, etc.),
storage means (delay counter 111d) for storing a predetermined value;
A first process execution means (CPU 102) that is activated when the power is turned on and repeatedly performs a series of first processes (normal processes);
A second process execution means (CPU 102) that periodically interrupts the first process to perform a second process (timer interrupt process),
The first processing execution means is
a specific process executing means (CPU 102) that performs a specific process (interrupt wait process) that is started at a timing different from that of the second process and that ends when the second process is performed n times (n is a natural number); ,
a third process execution means (CPU 102) that performs third processes (S606, S620, S1002, S1003, etc. in normal processes) using the processing result of the second process when the specific process is completed;
The first process execution means or the second process execution means,
Acquisition processing (basic random number acquisition processing S801) for acquiring numerical information (count value of the basic random number generator 150) as the random number used in the lottery or the basic random number on which the random number is based, based on the establishment of the start condition. ), an acquisition process executing means (CPU 102) for
When the start condition is satisfied, delay processing (delay processing S622 and a delay counter) delays the acquisition timing at which the acquisition process execution means acquires the numerical information from the timing at which the start condition is established based on the value of the storage means. A delay processing execution means (CPU 102) that performs processing S117),
The gaming machine is characterized in that the specific process execution means is configured to repeatedly update the value of the storage means until the second process is performed n times.

According to this means, there are a series of first processes that are repeatedly performed as soon as the power is turned on, and second processes that are periodically performed by interrupting the first processes. The first process is started at a timing different from that of the second process, and is terminated when the second process is performed n times. and a third process to be performed, and in the specific process, the value of the storage means is repeatedly updated until the second process is performed n times. Numerical information as the random number used for the lottery or the basic random number that is the basis of the random number is acquired based on the establishment of the start condition, and is delayed from the establishment timing of the start condition based on the value of the storage means. obtained in time. With such a configuration, even if the numerical information as the random number or the basic random number becomes a value that will win the lottery at a certain period, and even if fraud that establishes the start condition at that timing is performed, the random number or the basic random number By delaying the acquisition timing of numerical value information as a random number, it is possible to prevent acquisition of a winning value in a lottery.

Further, by configuring the specific process to start at a timing different from that of the second process and to end when the second process is performed n times, the time from the start to the end of the specific process can be made indefinite. can do. As a result, the number of times the value of the storage means is updated in one specific process can be made random, and the period from when the start condition is satisfied until the numerical information as the random number or the basic random number is acquired can be made random. can be

As a result of the above, it is possible to make it difficult to fraudulently obtain a random number that will win the lottery.

Further, by setting the trigger for ending the specific process to depend on the number of times of the second process, and by configuring the third process to be performed when the specific process is finished, the third process is started after the second process is finished. It is possible to shorten the interval until it is performed. As a result, it is possible to perform the third process using the processing result of the second process that matches the game situation or the like.

Means 2. A game machine according to the above means 1, characterized in that the specific process is started at a timing that does not depend on the start timing and the end timing of the second process.

According to this means, the specific process is started at a timing that does not depend on the start timing and the end timing of the second process. , the time from the start to the end of the specific process can be made indefinite.

Means 3. In means 1 or 2 above, the second process execution means is electrically connected to the processing means (main controller 101) having the second process execution means (start detection sensor 41a, stop detection sensor 42a to 44a, etc.) has a comprehension process execution means (CPU 102) for comprehending the signal input status (sensor monitoring process S107), and the third process execution means performs the comprehension as the third process. A gaming machine characterized in that a predetermined judgment is made using a grasped result of a process executing means.

According to this means, in the third process, the predetermined determination is made using the signal input status from the detection means. In such a configuration, the shorter the interval from the end of the second process to the execution of the third process, the more suitable the game situation and the like can be determined in the third process. Therefore, by applying this configuration to the configuration of the means 1 or 2, it becomes possible to perform the third process in a suitable manner.

Means 4. In any one of the above means 1 to 3, the first process execution means performs pre-start preparation during a period from the end of the previous game until the start determination means determines to start the variable display of the pattern. It has a start waiting process execution means (CPU 102) that repeatedly performs the process (preparation process S604 to S620 before start), and the start waiting process execution means has the specific process execution means and the third process execution means. game machine.

According to this means, in the first process, the pre-start preparation process is repeatedly performed from the end of the previous game until it is determined to start the variable display of patterns. Specific processing and third processing are performed. The period from the end of the previous game to the determination to start the variable display of patterns varies depending on the timing of determination to start the variable display of patterns. Therefore, the number of times the pre-start preparation process can be performed also changes in each game round. Therefore, it is possible to randomize the number of times the values in the storage means are updated.

Means 5. In any one of the above means 1 to 4, there is stop operation means (stop switches 42 to 44) operated to stop the variable display of the pattern, and the first processing execution means is the variable display of the pattern. It has an operation waiting process execution means (CPU 102) that repeatedly performs operation waiting processing (S1001 to S1004 in pre-stop processing) from when it becomes possible to stop the operation until the stop operation means is operated, A gaming machine, wherein the operation waiting process execution means has the specific process execution means and the third process execution means.

According to this means, in the first process, the operation waiting process is repeatedly performed from when the variable display of the pattern can be stopped until the stop operation means is operated. specific processing and third processing. The period from when it becomes possible to stop the variable display of the pattern to when the stop operation means is operated changes depending on the timing at which the stop operation means is operated. Therefore, the number of times the operation waiting process can be performed also changes in each game round. Therefore, it is possible to randomize the number of times the values in the storage means are updated.

Means 6. A game characterized in that in any one of the means 1 to 5 above, storage operation execution means (CPU 102) having the storage means, the first process execution means, and the second process execution means is provided. machine.

According to this means, there is provided the storage operation execution means having the storage means, the first process execution means, and the second process execution means. With such a configuration, it is possible to prevent the storage means from being changed into an unauthorized storage means that stores only a predetermined value of 1.

Means 7. In any one of the above means 1 to 6, the second process execution means has an update process execution means (CPU 102) that performs an update process (delay counter process S117) for updating the value of the storage means. game machine.

According to this means, the value of the storage means is updated not only in the specific process, but also in the second process. By adopting such a configuration, it becomes possible to make it difficult to predict the value of the storage means.

Means 8. Any one of the means 1 to 7 above does not include an initialization means for changing the value of the storage means to an initial value when a specific operation (such as an ON operation of a setting key at the time of power-on) is performed. A game machine characterized by

According to this means, the value of the storage means is not changed to the initial value even when the specific operation is performed. With such a configuration, it is possible to prevent fraudulent acquisition of a random number that will win the lottery after changing the value of the storage means to the initial value.

Means 9. In any one of the above means 1 to 8, the delay processing execution means sets a specific value (0) irrelevant to the value stored in the storage means as the delay processing when the start condition is met. A gaming machine characterized by performing a process of updating the value of the storage means up to.

According to this means, when the start condition is established, the value of the storage means is updated until it becomes a specific value irrelevant to the value at that time. With such a configuration, the period from when the start condition is satisfied until the numerical information as the random number or the basic random number is acquired corresponds to the value obtained by subtracting the value of the storage means when the start condition is satisfied from the specific value. The period from when the start condition is established to when the numerical information as the random number or the basic random number is acquired can be made random.

Means 10. In any one of the above means 1 to 9, the numerical information storage means (the counter 150a of the basic random number generator 150) for storing the numerical information acquired by the acquisition process executing means, the second numerical information (the first counter 111a and the count value of the second counter 111b), and the acquisition processing execution means stores the numerical information from the numerical information storage means a random number generating means (random number generating process S701) for generating a random number using the numerical information and the second numerical information when obtained.

According to this means, the random number is created using the numerical information and the second numerical information. By adopting such a configuration, even in the case where fraud is committed in which both the value of the storage means and the numerical information are targeted, it is possible to change the random number used for the lottery based on the second numerical information. As a result, it is possible to make it difficult to illicitly obtain random numbers that will win the lottery.

Means 11. start condition detection means for detecting the establishment of the start condition (function S620 for determining that the start command of the CPU 102 has been generated);
A lottery means (lottery processing function S505 of the CPU 102) that performs a lottery based on the establishment of the start condition;
a privilege granting means (medal payout processing function S507, BB state processing function S508, etc. of the CPU 102) that grants a privilege (medal payout, transition to BB state, etc.) based on the fact that the lottery result of the lottery means is winning; In a game machine equipped with
storage means (delay counter 111d) for storing a predetermined value;
A first process executing means (CPU 102) that repeatedly performs a series of first processes (normal processes);
A second processing execution means (CPU 102) that periodically performs second processing (timer interrupt processing),
The first processing execution means is
a specific process executing means (CPU 102) that performs a specific process (interrupt waiting process) that is terminated when the second process is performed n times (n is a natural number);
a third process execution means (CPU 102) that performs third processes (S606, S620, S1002, S1003, etc. in normal processes) using the processing result of the second process when the specific process is completed;
The first process execution means or the second process execution means,
Acquisition processing (basic random number acquisition processing S801) for acquiring numerical information (count value of the basic random number generator 150) as the random number used in the lottery or the basic random number on which the random number is based, based on the establishment of the start condition. ), an acquisition process executing means (CPU 102) for
When the start condition is satisfied, delay processing (delay processing S622 and a delay counter) delays the acquisition timing at which the acquisition process execution means acquires the numerical information from the timing at which the start condition is established based on the value of the storage means. A delay processing execution means (CPU 102) that performs processing S117),
The gaming machine is characterized in that the specific process execution means is configured to repeatedly update the value of the storage means until the second process is performed n times.

According to this means, there are a series of first processes that are repeatedly performed and a second process that is periodically performed. The first process includes a specific process that ends when the second process is performed n times, and a third process that is performed using the processing result of the second process when the specific process ends. In the specific process, the value in the storage means is repeatedly updated until the second process is performed n times. Numerical information as the random number used for the lottery or the basic random number that is the basis of the random number is acquired based on the establishment of the start condition, and is delayed from the establishment timing of the start condition based on the value of the storage means. obtained in time. With such a configuration, even if the numerical information as the random number or the basic random number becomes a value that will win the lottery at a certain period, and even if fraud that establishes the start condition at that timing is performed, the random number or the basic random number By delaying the acquisition timing of numerical value information as a random number, it is possible to prevent acquisition of a winning value in a lottery.

Further, by configuring the specific process to end when the second process is performed n times, the specific process can The time from the start to the end of can be indefinite. As a result, the number of times the value of the storage means is updated in one specific process can be made random, and the period from when the start condition is satisfied until the numerical information as the random number or the basic random number is acquired can be made random. can be

As a result of the above, it is possible to make it difficult to fraudulently obtain a random number that will win the lottery.

Further, by setting the trigger for ending the specific process to depend on the number of times of the second process, and by configuring the third process to be performed when the specific process is finished, the third process is started after the second process is finished. It is possible to shorten the interval until it is performed. As a result, it is possible to perform the third process using the processing result of the second process that matches the game situation or the like.

Means 12. variable display means (reel unit 31) for variably displaying a pattern (design);
start condition detection means for detecting the establishment of the start condition (function S620 for determining that the start command of the CPU 102 has been generated);
A lottery means (lottery processing function S505 of the CPU 102) that performs a lottery based on the establishment of the start condition;
Display control means (reel control of CPU 102) for starting variable display of the pattern based on the establishment of the start condition, and for controlling display of the variable display means so as to obtain a stop result based on the lottery result of the lottery means. processing function) and
When the result of the lottery by the lottery means is a win and a specific stop result (a stop result in which a combination of winning symbols is stopped on an active line) is given to the player, benefits (payout of medals, transition to BB state, etc.) are provided. Provided with privilege granting means (medal payout processing function S507 of CPU 102, BB state processing function S508, etc.), the game is started based on the establishment of the start condition, and the variable display of the pattern is completed, or In a gaming machine in which the game ends based on the award of the privilege by the privilege granting means,
storage means (delay counter 111d) for storing a predetermined value;
A first process executing means (CPU 102) that repeatedly performs a series of first processes (normal processes);
A second process that periodically performs a second process (timer interrupt process) including a status confirmation process (sensor monitoring process S107) for confirming the signal input status from the detection means (start detection sensor 41a, etc.) related to the progress of the game. Execution means (CPU 102),
The first processing execution means is
a specific process execution means (CPU 102) that performs specific process (interrupt wait process);
a third process execution means (CPU 102) that performs third processes (S606, S620, S1002, S1003, etc. in normal processes) using the process result of the situation confirmation process when the specific process is completed;
The specific process executing means is
Confirmation processing means (CPU 102) for confirming whether or not the second process has been performed n (n is a natural number) times after starting the specific process (S407 in the interrupt waiting process);
a termination means (CPU 102) for terminating the specific process when the confirmation processing means confirms that the second process has been performed n times;
The first process execution means or the second process execution means,
Acquisition processing (basic random number acquisition processing S801) for acquiring numerical information (count value of the basic random number generator 150) as the random number used in the lottery or the basic random number on which the random number is based, based on the establishment of the start condition. ), an acquisition process executing means (CPU 102) for
When the start condition is satisfied, delay processing (delay processing S622 and a delay counter) delays the acquisition timing at which the acquisition process execution means acquires the numerical information from the timing at which the start condition is established based on the value of the storage means. A delay processing execution means (CPU 102) that performs processing S117),
The gaming machine is characterized in that the specific process execution means is configured to repeatedly update the value of the storage means until the second process is performed n times.

According to this means, there are a series of first processes that are repeatedly performed and a second process that is periodically performed. The second process has a status confirmation process for confirming the signal input status from the detection means related to the progress of the game. The first process includes a specific process that ends when the second process is performed n times, and a third process that is performed using the processing result of the status confirmation process when the specific process ends. In the specific process, the value in the storage means is repeatedly updated until the second process is performed n times. Numerical information as the random number used for the lottery or the basic random number that is the basis of the random number is acquired based on the establishment of the start condition, and is delayed from the establishment timing of the start condition based on the value of the storage means. obtained in time. With such a configuration, even if the numerical information as the random number or the basic random number becomes a value that will win the lottery at a certain period, and even if fraud that establishes the start condition at that timing is performed, the random number or the basic random number By delaying the acquisition timing of numerical value information as a random number, it is possible to prevent acquisition of a winning value in a lottery.

Further, by configuring the specific process to end when the second process is performed n times, the specific process can The time from the start to the end of can be indefinite. As a result, the number of times the value of the storage means is updated in one specific process can be made random, and the period from when the start condition is satisfied until the numerical information as the random number or the basic random number is acquired can be made random. can be

As a result of the above, it is possible to make it difficult to fraudulently obtain a random number that will win the lottery.

Further, by setting the trigger for ending the specific process to depend on the number of times of the second process, and by configuring the third process to be performed when the specific process is finished, the third process is started after the second process is finished. It is possible to shorten the interval until it is performed. As a result, it becomes possible to perform the third process using the processing result of the situation confirmation process that matches the game situation, etc., and it is possible to smoothly progress the game.

Means 13. variable display means (reel unit 31) for variably displaying a pattern (design);
start condition detection means for detecting the establishment of the start condition (function S620 for determining that the start command of the CPU 102 has been generated);
A lottery means (lottery processing function S505 of the CPU 102) that performs a lottery based on the establishment of the start condition;
Display control means (reel control of CPU 102) for starting variable display of the pattern based on the establishment of the start condition, and for controlling display of the variable display means so as to obtain a stop result based on the lottery result of the lottery means. processing function) and
When the result of the lottery by the lottery means is a win and a specific stop result (a stop result in which a combination of winning symbols is stopped on an active line) is given to the player, benefits (payout of medals, transition to BB state, etc.) are provided. Provided with privilege granting means (medal payout processing function S507 of CPU 102, BB state processing function S508, etc.), the game is started based on the establishment of the start condition, and the variable display of the pattern is completed, or In a gaming machine in which the game ends based on the award of the privilege by the privilege granting means,
storage means (delay counter 111d) for storing a predetermined value;
A first process executing means (CPU 102) that repeatedly performs a series of first processes (normal processes);
A second processing execution means (CPU 102) that periodically performs second processing (timer interrupt processing),
The first processing execution means is
a specific process execution means (CPU 102) that performs specific process (interrupt wait process);
When the specific process is completed, a third process (S606, S620, S1002, S1003, etc. in the normal process) of determining whether or not to proceed with the game using the process result of the second process is performed. and a processing execution means (CPU 102),
The specific process executing means is
Confirmation processing means (CPU 102) for confirming whether or not the second process has been performed n (n is a natural number) times after starting the specific process (S407 in the interrupt waiting process);
a termination means (CPU 102) for terminating the specific process when the confirmation processing means confirms that the second process has been performed n times;
The first process execution means or the second process execution means,
Acquisition processing (basic random number acquisition processing S801) for acquiring numerical information (count value of the basic random number generator 150) as the random number used in the lottery or the basic random number on which the random number is based, based on the establishment of the start condition. ), an acquisition process executing means (CPU 102) for
When the start condition is satisfied, delay processing (delay processing S622 and a delay counter) delays the acquisition timing at which the acquisition process execution means acquires the numerical information from the timing at which the start condition is established based on the value of the storage means. A delay processing execution means (CPU 102) that performs processing S117),
The gaming machine is characterized in that the specific process execution means is configured to repeatedly update the value of the storage means until the second process is performed n times.

According to this means, there are a series of first processes that are repeatedly performed and a second process that is periodically performed. The first process is a specific process that is terminated when the second process is performed n times, and if the specific process is terminated, the processing result of the second process is used to determine whether or not to proceed with the game. and a third process, and in the specific process, the value of the storage means is repeatedly updated until the second process is performed n times. Numerical information as the random number used for the lottery or the basic random number that is the basis of the random number is acquired based on the establishment of the start condition, and is delayed from the establishment timing of the start condition based on the value of the storage means. obtained in time. With such a configuration, even if the numerical information as the random number or the basic random number becomes a value that will win the lottery at a certain period, and even if fraud that establishes the start condition at that timing is performed, the random number or the basic random number By delaying the acquisition timing of numerical value information as a random number, it is possible to prevent acquisition of a winning value in a lottery.

Further, by configuring the specific process to end when the second process is performed n times, the specific process can The time from the start to the end of can be indefinite. As a result, the number of times the value of the storage unit is updated in one specific process can be made random, and the random number obtained based on the value of the storage unit can be made random.

As a result of the above, it is possible to make it difficult to fraudulently obtain a random number that will win the lottery.

Further, by setting the trigger for ending the specific process to depend on the number of times of the second process, and by configuring the third process to be performed when the specific process is finished, the third process is started after the second process is finished. It is possible to shorten the interval until it is performed. As a result, it becomes possible to perform the third process using the processing result of the second process that matches the game situation, etc., and it is possible to smoothly progress the game.

An embodiment in which the present invention is applied to a reel-type game machine, which is a type of game machine, specifically a slot machine, will be described in detail below with reference to the drawings. 1 is a front view of the slot machine 10, FIG. 2 is a perspective view of the slot machine 10 with the front door 12 closed, FIG. 3 is a perspective view of the slot machine 10 with the front door 12 open, and FIG. 5 is a front view of the housing 11. FIG.

As shown in FIGS. 1 to 5, the slot machine 10 has a housing 11 forming its outer shell. The housing 11 is formed in the shape of a box with an open front as a whole, and is attached to a so-called island facility by nailing or the like when it is installed in a game hall.

A front door 12 is attached to the front side of the housing 11 so that it can be opened and closed. That is, the housing 11 is provided with a pair of upper and lower support shafts 13a and 13b on the left side as viewed from the front, and the front door 12 is provided with bearings 14a at positions corresponding to the support shafts 13a and 13b. , 14b are provided. With the spindles 13a and 13b inserted into the bearings 14a and 14b, the front door 12 rotates with respect to the housing 11 about the opening/closing axis extending vertically connecting the spindles 13a and 13b. It is movably supported, and the front open side of the housing 11 can be opened or closed by turning the front door 12 . Further, the front door 12 is kept in a locked state by a locking device 20 provided on the back side thereof so that it cannot be opened. A key cylinder 21 integrated with a locking device 20 is provided on the upper right end side of the front door 12, and the locked state is released by a predetermined key operation on the key cylinder 21.例文帳に追加

A game panel 25 is provided near the upper center of the front door 12 to inform the player of the game state. Three vertical display windows 26L, 26M and 26R are formed side by side on the game panel 25, and the inside of the slot machine 10 can be visually recognized through the display windows 26L, 26M and 26R. The display windows 26L, 26M, and 26R may be combined into one and used as a common display window.

As shown in FIG. 3, the inside of the housing 11 is divided into upper and lower parts by a partition plate 30. Above the partition plate 30, a reel unit 31 constituting variable display means is attached. The reel unit 31 includes a left reel 32L, a middle reel 32M, and a right reel 32R, each of which is cylindrical (annular). Each of the reels 32L, 32M, 32R is rotatably supported such that the center axis thereof coincides with the rotation axis of the reel. The rotation axes of the respective reels 32L, 32M, 32R are arranged on the same axis extending substantially horizontally, and the respective reels 32L, 32M, 32R correspond to the respective display windows 26L, 26M, 26R one-to-one. . Therefore, part of the surface of each reel 32L, 32M, 32R is visible through the corresponding display windows 26L, 26M, 26R. Further, when the reels 32L, 32M, 32R rotate forward, the surfaces of the reels 32L, 32M, 32R are displayed through the respective display windows 26L, 26M, 26R as if they were moving from top to bottom.

Here, the configuration of the reel unit 31 will be briefly described.

Each of the reels 32L, 32M, 32R is connected to a stepping motor, and the reels 32L, 32M, 32R can be driven to rotate individually by driving the stepping motor. . The stepping motor is set to make one rotation by applying a drive signal of, for example, 504 pulses (hereinafter also referred to as an excitation pulse). controlled. Also, in the reel unit 31, a reel index sensor for detecting that the reel has made one rotation is installed on each of the reels 32L, 32M, and 32R. The reel index sensor outputs a detection signal to the main controller 101, which will be described later, each time it detects that the reel has made one rotation. Therefore, main controller 101 adjusts the angular positions of reels 32L, 32M, and 32R every rotation based on the detection signal from the reel index sensor and the number of excitation pulses output until the detection signal is input. It can be checked and corrected.

A plurality of patterns as identification information are drawn on the outer peripheral surface of each of the reels 32L, 32M, 32R in the long side direction (circling direction). More specifically, 21 patterns are drawn at regular intervals. Therefore, 24 pulses (=504 pulses/21 symbols) of excitation pulses are required to switch a pattern at a predetermined position to the next pattern. Further, the main controller 101 recognizes the symbols that are visible from the display windows 26L, 26M, and 26R based on the number of excitation pulses output after the detection signal of the reel index sensor is input, Control can be performed to stop a predetermined pattern at a position visible from 26L, 26M, and 26R.

Next, the symbols drawn on each reel 32L, 32M, 32R will be described.

FIG. 6 shows the pattern arrangement of the left reel 32L, the middle reel 32M, and the right reel 32R. As shown in the figure, 21 symbols are arranged in a line on each reel 32L, 32M, 32R. Numbers 0 to 20 are assigned to the reels 32L, 32M, and 32R, respectively. , and are not actually attached to the reels 32L, 32M, 32R. However, the numbers will be used in the following description.

The symbols include a "star" symbol (eg, 20th on the left reel 32L), a "cherry" symbol (eg, 19th on the left reel 32L), a "youth" symbol (eg, 18th on the left reel 32L), Bell" symbol (e.g., 17th on the left reel 32L), "Replay" symbol (e.g., 16th on the left reel 32L), "White 7" symbol (e.g., 15th on the left reel 32L), "Watermelon" symbol ( For example, there are 8 types of symbols, such as the 14th on the left reel 32L) and the "red 7" symbol (for example, the 3rd on the left reel 32L). Then, as shown in FIG. 6, the numbers and arrangement orders of various symbols are completely different in each of the reels 32L, 32M, and 32R.

Each of the display windows 26L, 26M, 26R is formed so that three of the 21 symbols attached to the corresponding reel are visible as a whole. Therefore, when all the reels 32L, 32M, 32R are stopped, 3×3=9 symbols are visible through the display windows 26L, 26M, 26R.

In this slot machine 10, a total of 5 combination lines are set so as to connect positions where these 9 symbols can be visually recognized, 3 in parallel in the horizontal direction and 2 in crossing in the diagonal direction. ing. More specifically, as shown in FIG. 7, as a horizontal combination line, an upper line L1 connecting the upper symbols of the reels 32L, 32M and 32R and a middle line connecting the middle symbols of the reels 32L, 32M and 32R. A line L2 and a lower line L3 connecting lower symbols of the reels 32L, 32M and 32R are set. Further, as a combination line in the diagonal direction, a right-downward line L4 connecting the upper pattern of the left reel 32L, the middle pattern of the middle reel 32M, and the lower pattern of the right reel 32R, the lower pattern of the left reel 32L, and the middle pattern of the middle reel 32M. A rightward rising line L5 connecting the upper symbols of the right reel 32R is set. Then, when the symbols are stopped in a predetermined combination on the activated combination line, that is, the activated line, as a result of establishment of a prize, a privilege of paying out a predetermined number of medals, which are game media, is given, or the game state is shifted. It is designed to grant benefits that

FIG. 8 shows combinations of winning symbols and benefits given when winning.

The small prizes for which medals are paid out include a bell prize, a watermelon prize, a single prize, and a cherry prize. When the "bell" symbols on the reels 32L, 32M, and 32R are aligned and stopped on the active line, 8 medals are paid out as a bell prize, and the "watermelon" symbols on the reels 32L, 32M, and 32R are on the active line. If you stop lined up on top, 6 medals will be paid out as a watermelon prize. One medal is paid out as one winning prize. Also, when the "cherry" symbol on the left reel 32L stops on the active line, two medals are paid out as a cherry win. That is, in the case of a cherry win, any symbols may be stopped on the active line for the middle reel 32M and the right reel 32R. In other words, it can be said that a cherry win is established when a combination of the "cherry" symbol on the left reel 32L and any symbol on the middle reel 32M and the right reel 32R stops on the activated line. Therefore, when a "cherry" symbol stops at a position where a plurality of activated lines of the left reel 32L overlap (specifically, upper and lower lines), a cherry win is established on each activated line, and as a result. 4 (=2×2) medals are paid out. In the present embodiment, the "cherry" symbol on the left reel 32L is stopped at the upper stage or the lower stage to establish a cherry prize. Therefore, when a cherry prize is established, four medals are paid out. .

A state transition winning prize in which only the game state transition is performed includes a BB winning prize. When the "red 7" symbols of the respective reels 32L, 32M and 32R are aligned on the active line and stopped, the game state shifts to a big bonus state (hereinafter referred to as "BB state") as a BB prize.

Replay winnings are examples of winnings to which benefits other than medal payouts and game state transitions are awarded. When the "replay" symbols on the reels 42L, 42M, and 42R are aligned on the active line and stopped, the next game is started without inserting medals, although medals are not paid out and the game state is not changed as a replay win. A replay privilege that allows the player to play the game is provided.

In the following description, a combination of symbols corresponding to each prize is also referred to as a combination of winning symbols. For example, a combination of replay symbols is a combination of symbols that result in a replay win, that is, a combination of "replay" symbols, "replay" symbols, and "replay" symbols. Also, the symbols on the reels 32L, 32M, 32R corresponding to each winning are also called winning symbols. For example, the one-card symbol is a "red 7" symbol on the left reel 32L, a "young man" symbol on the middle reel 32M, and a "white 7" symbol on the right reel 32R.

A start lever 41 that is operated to start the rotation of the reels 32L, 32M, and 32R is provided on the lower left side of the game panel 25. As shown in FIG. The start lever 41 constitutes start operation means or start operation means operated to start rotating the reels 32L, 32M, 32R, that is, to start variable display of symbols. The start lever 41 is a lever that the player manually pushes to start the game, and automatically returns to the initial position after the player releases the start lever 41 . Incidentally, the start lever 41 in the slot machine 10 is constructed so that it takes several tens of milliseconds to automatically return to the initial position after the hand is released. When the start lever 41 is operated with a predetermined number of medals inserted, the reels 32L, 32M and 32R start rotating.

On the right side of the start lever 41, button-shaped stop switches 42 to 44 are provided to be operated to individually stop the rotating reels 32L, 32M, 32R. The stop switches 42 to 44 are arranged directly below the display windows 26L, 26M, 26R corresponding to the reels 32L, 32M, 32R to be stopped, respectively. That is, when the left stop switch 42 is operated, the rotation of the left reel 32L is stopped, and when the middle stop switch 43 is operated, the rotation of the middle reel 32M is stopped, and the right stop switch 44 is operated. In this case, the rotation of the right reel 32R stops. The stop switches 42 to 44 constitute stop operation means operated to stop the variable display of symbols based on the rotation of the reels 32L, 32M, 32R. The stop switches 42 to 44 can be stopped when a predetermined time has passed since the left reel 32L started rotating. Lamps (not shown) are provided inside the stop switches 42 to 44. The lamps are illuminated when the stop operation is possible, and the lamps are extinguished when the reels are stopped and the stop operation is impossible. It has become so.

A medal slot 45 for inserting medals is provided on the lower right side of the display windows 26L, 26M, 26R. The medal slot 45 constitutes input means for inputting game media. Further, if attention is paid to the fact that the medal insertion slot 45 is accompanied by an action of directly inserting medals by the player, it can be said that the medal insertion slot 45 constitutes direct input means for directly inputting game media.

A medal inserted from the medal slot 45 is led to either a storage passage 47 or an ejection passage 48 by a selector 46 as passage switching means provided on the back surface of the front door 12 . More specifically, the selector 46 is provided with a medal passage switching solenoid 46a. When the medal passage switching solenoid 46a is de-energized, the medals are guided to the discharge passage 48 side, and when the medal passage switching solenoid 46a is energized, the medals are guided. is guided to the storage passage 47 side. The medals guided to the storage passage 47 are guided to the hopper device 51 housed inside the housing 11 . On the other hand, the medals guided to the discharge passage 48 are guided to the medal receiving tray 50 from the medal discharge port 49 provided at the lower front surface of the front door 12 and returned to the player.

The hopper device 51 is composed of a storage tank 52 for storing medals and a payout device 53 for paying out the medals to the player. The payout device 53 rotates a medal payout rotating plate (not shown) to discharge the medals to an opening 48a provided in the discharge passage 48 and to pay out the medals to the medal receiving tray 50 through the discharge passage 48. It has become. Further, on the right side of the hopper device 51, a spare tank 54 is provided for avoiding a predetermined amount or more of medals from being stored in the storage tank 52. FIG. Inside the storage tank 52 of the hopper device 51, a guide plate 52a for discharging medals from the storage tank 52 to the reserve tank 54 is provided. Therefore, when the medals are stored above the height at which the guide plate 52a is provided, the medals are stored in the reserve tank .

A button-like return switch 55 is provided below the medal slot 45 . When the return switch 55 is operated under the condition that the medals inserted into the medal slot 45 are clogged in the selector 46, the selector 46 is mechanically interlocked and operated, and the medals clogged in the selector 46 are returned to the medals. It is designed to be returned from the discharge port 49 .

A first credit insertion switch 56 for inserting three credited virtual medals as game media at a time is provided on the lower left side of the display windows 26L, 26M, 26R. A second credit insertion switch 57 and a third credit insertion switch 58 are provided to the left of the first credit insertion switch 56 . The second credit insert switch 57 is for inserting two virtual medals at once, and the third credit insert switch 58 is for inserting one virtual medal. The credit insertion switches 56 to 58 constitute input means for inputting game media together with the medal insertion port 45 . Also, it should be noted that while the medal insertion slot 45 is accompanied by the operation of directly inserting medals by the player, the credit insertion switches 56 to 58 are accompanied by the operation of inserting virtual medals based on stored memory. For example, it can be said that it constitutes an indirect input means for indirectly inputting a game medium. A lamp (not shown) is provided inside each of the credit insertion switches 56 to 58. The lamp is illuminated when the insertion operation is possible, and the lamp is extinguished when the insertion operation is disabled. .

A settlement switch 59 is provided to the left of the start lever 41 . That is, the slot machine 10 has a credit function of storing and storing surplus inserted medals up to a predetermined maximum value (equivalent to 50 medals) and payout medals at the time of winning as virtual medals. When the settlement switch 59 is operated under the stored condition, the virtual medals are dispensed from the medal discharge port 49 as real medals. In this case, focusing on the function of paying out credited virtual medals as real medals, it can be said that the settlement switch 59 constitutes settlement operation means for actually paying out the stored game media.

Below the display windows 26L, 26M, 26R of the game panel 25 are a credit display portion 60 for displaying the number of credited virtual medals, and a remaining number of payouts for displaying the number of remaining medals to be paid out until the BB state ends. A display unit 61 and a payout number display unit 62 for displaying the number of medals paid out at the time of winning are provided. Although these display units 60 to 62 are composed of 7-segment displays, it is of course possible to replace them with liquid crystal displays or the like.

Here, the relationship between the number of bets on medals and the combination line to be activated will be described with reference to FIG. A bet is made when medals are inserted from the medal insertion slot 45 at the start of the game.

When the first medal is inserted into the medal slot 45, the number of bets is 1 and the middle line L2 is activated. When the second medal is inserted into the medal slot 45, the number of bets is 2, and a total of three combined lines including the middle line L2, the upper line L1 and the lower line L3 are activated. When the third medal is inserted into the medal slot 45, the number of bets is 3, and all of the combination lines L1 to L5 are activated.

When four or more medals are inserted into the medal slot 45, if the number of virtual medals stored at that time is less than 50, surplus medals exceeding three are stored inside the slot machine 10. , the number of virtual medals in the credit display section 60 is added and displayed. On the other hand, when the number of virtual medals reaches 50 or reaches 50, the selector 46 switches from the storage passage 47 to the discharge passage 48, and surplus medals are returned from the medal discharge port 49 to the medal tray 50. be done.

Also, virtual medals are accumulated and stored, and virtual medals are inserted and bets are made when any one of the first to third credit input switches 56 to 58 is operated at the start of the game. Note that when any one of the first to third credit insertion switches 56 to 58 is operated, the number of virtual medals displayed on the credit display section 60 is subtracted by the number of inserted virtual medals. Since it is the same as the case of inserting medals from the medal inserting slot 45 except for , the explanation is omitted.

Incidentally, if the virtual medals to be inserted when any one of the first to third credit insertion switches 56 to 58 is operated are not stored and stored, for example, when the display of the credit display section 60 is 2, the first When the credit insertion switch 56 is operated, all the numerical values of the credit display section 60 are subtracted to 0, and the virtual medals that can be inserted are betted.

At the top of the front door 12, an upper lamp 63 that lights up or blinks as the game progresses, and a pair of left and right lamps that emit various sound effects as the game progresses and notify the player of the game state. A speaker 64 and an auxiliary display section 65 for giving various information to the player are provided. The auxiliary display section 65 is for executing various display effects as the game progresses. It is called an auxiliary display section 65 . An upper lamp 63 , a speaker 64 , and a display control device 81 for driving the auxiliary display section 65 are provided behind the auxiliary display section 65 .

A power supply box 70 is provided on the left side of the hopper device 51 inside the housing 11 . The power supply box 70 accommodates the power supply device 91 therein, and is provided with a power switch 71, a reset switch 72, a setting key insertion hole 73, and the like. The power switch 71 is a start switch for supplying power to each unit including the main controller 101 . The reset switch 72 is a switch for resetting the error state of the slot machine 10 . The setting key insertion hole 73 is used by a hall manager or the like to adjust the payout of medals. That is, the winning probability of the slot machine 10 can be set by inserting the setting key into the setting key insertion hole 73 and turning it on by the hall manager or the like. The reset switch 72 is operated not only when resetting the error state but also when changing the winning probability of the slot machine 10 .

Above the reel unit 31, a main control device 101 for overall management of the game is attached to the housing 11. As shown in FIG.

Next, the electrical configuration of the slot machine 10 will be described with reference to the block diagram of FIG.

The main control unit 101 is equipped with a microcomputer centered around a CPU 102 as arithmetic processing means. In addition to the power supply device 91, the CPU 102 includes a first clock circuit 103 that outputs a rectangular wave (first clock signal) having a predetermined frequency of 8.000 MHz, an input/output port 104 (specifically, a connector, a driver IC , an input/output port configured by a chip select IC, etc.), a basic random number generator 150 for generating basic random numbers, and the like are connected via an internal bus. The main controller 101 functions as a main board built into the slot machine 10 .

On the input side of the main controller 101, the reel unit 31 (more specifically, a reel index sensor that individually detects that each of the reels 32L, 32M, and 32R has made one rotation) and a start detection sensor that detects the operation of the start lever 41. 41a, stop detection sensors 42a to 44a for individually detecting the operation of each of the stop switches 42 to 44, an inserted medal detection sensor 45a for detecting medals inserted from the medal slot 45, and a medal dispensed from the hopper device 51. A payout detection sensor 51a, credit insertion detection sensors 56a to 58a for individually detecting the operation of each of the credit insertion switches 56 to 58, a settlement detection sensor 59a for detecting the operation of the settlement switch 59, and a reset detection for detecting the operation of the reset switch 72. Various sensors such as a sensor 72a and a setting key detection sensor 73a for detecting that a setting key is inserted into the setting key insertion hole 73 and turned on are connected. The data is output to the CPU 102 via.

Note that the inserted medal detection sensor 45a is actually composed of a plurality of sensors. That is, the storage passage 47 from the medal slot 45 to the hopper device 51 is formed so that the medals can pass in one row. A first sensor is provided in the storage passage 47, and a second sensor and a third sensor are located downstream of the first sensor at a distance of at least the width of medals (a state in which the same medals are detected at the same time at least for a period of time occurs). close proximity). The inserted medal detection sensor 45a is composed of these first to third sensors. The main controller 101 monitors the time from the first sensor to the second sensor, and if the elapsed time exceeds a predetermined time, it is assumed that there is a medal clogging or fraud, and an error state is established. In the event of an error state, an error state notification is provided, and operations by the player are disabled until the error state is cleared. Main controller 101 also monitors the order in which the second and third sensors are turned on and off. Specifically, the second and third sensors are both off, only the second sensor is on, both the second and third sensors are on, only the third sensor is on, and both the second and third sensors are off. Only in the case where it becomes so and the time to shift to each ON/OFF switching is within a predetermined time, it is determined that medals are taken in normally, and in other cases, an error state is set. This is done in order to prevent coin clogging in the storage passage 47, as well as fraudulent actions such as reciprocating the medals in the vicinity of the inserted medal detection sensor 45a and erroneously recognizing that the medals have been inserted.

A power supply device 91 is connected to the input side of the main control device 101 via an input/output port 104 . The power supply device 91 includes a power supply unit 91a that supplies driving power to each electronic device of the slot machine 10 including the main controller 101, a power failure monitoring circuit 91b, and the like.

The power failure monitoring circuit 91b monitors the power failure state and generates a power failure signal when the power switch 71 shuts off the power as well as when the power fails. Therefore, the power failure monitoring circuit 91b monitors the stabilized drive voltage of DC 12 volts in this example output from the power supply unit 91a, and determines that the power supply has been cut off when the drive voltage drops below 10 volts, for example. is configured to output a power failure signal. The power failure signal is supplied to each of the CPU 102 and the input/output port 104, and the CPU 102 recognizes this power failure signal to execute power failure processing, which will be described later. The power failure signal is also supplied to the display control device 81 .

The power supply unit 91a is configured to output a stabilized voltage of 5 volts, which is used as a driving voltage in a control system such as the main controller 101, even when the output voltage drops below 10 volts. The time during which the stabilized voltage is output is sufficient for main controller 101 to execute power failure processing.

On the output side of the main controller 101, the reel unit 31 (more specifically, a stepping motor for rotating the reels 32L, 32M, and 32R), the medal passage switching solenoid 46a provided in the selector 46, the hopper device 51, the credit A display unit 60, a remaining payout number display unit 61, a payout number display unit 62, a display control device 81, an external centralized terminal board 121 capable of transmitting information to a hall management device (not shown), etc. are connected via an input/output port 104. there is Although not shown, the output side of the main control unit 101 also has lamps provided inside the stop switches 42 to 44 and lamps provided inside the credit insertion switches 56 to 58. It is connected via port 104 .

The display control device 81 is a control device for driving the upper lamp 63, the speaker 64, and the auxiliary display section 65, and includes a substrate integrated with CPU, ROM, RAM, etc. for driving these. After receiving a signal from the main control device 101 , the display control device 81 independently drives and controls the upper lamp 63 , the speaker 64 and the auxiliary display section 65 . Therefore, the display control device 81 serves as a sub-board that executes auxiliary control in relation to the main control device 101 that is the main board that supervises and manages the game. The various display units 60 to 62 may also be configured to be driven and controlled by the display control device 81 .

The CPU 102 described above is a one-chip CPU, and includes a ROM 105 storing various control programs and fixed value data to be executed by the CPU 102, and a ROM 105 for temporarily storing various data in executing the control programs stored in the ROM 105. In addition to the RAM 106 for securing a work area for storing data, various processing circuits necessary for the slot machine 10, such as an interrupt circuit, a timer circuit, and a data transmission/reception circuit, are built-in as is well known, although not shown. there is The ROM 105 and RAM 106 constitute a main memory as storage means, and programs for executing various processes shown in the flowcharts of FIG.

As shown in FIG. 10, the RAM 106 includes a winning flag storage area 106a for storing the lottery result of the winning combination, a sliding table for storing a sliding table used when controlling the stop of each of the reels 32L, 32M, and 32R. In addition to the storage area 106b and the status information storage area 106c for storing the game status such as the BB status, a random number storage area 110 for storing random numbers used when performing a winning lottery, and functions as various counters. Various areas such as a counter area 111 and a sensor information storage area 112 for storing signal input states from the various sensors described above are secured. The counter area 111 includes a first counter 111a and a second counter 111b used when generating random numbers, an update counter 111c used in an interrupt waiting process to be described later, a delay counter 111d for determining the acquisition timing of basic random numbers, and the number of credits. It is composed of a credit counter (not shown) and the like for storing . The sensor information storage area 112 includes a reel index detection area, a start detection area, a left stop detection area, a middle stop detection area, a right stop detection area, an inserted medal detection area, a payout detection area, and a first credit. It is composed of an insertion detection area, a second credit insertion detection area, a third credit insertion detection area, a settlement detection area, a reset detection area, a setting key detection area, and the like. Each of these detection areas can store a history of the presence or absence of signal input from the corresponding detection sensor. consists of Each detection area has a 1-byte configuration, and the lower 3 bits are associated with each storage area. More specifically, they are associated with the first area 112a, the second area 112b, and the third area 112c in order from the lower bit.

The RAM 106 is configured to retain (back up) data by being supplied with a backup voltage from the power supply 91 even after the power supply to the slot machine 10 is cut off. A backup area is provided. The backup area is an area for storing the value of the stack pointer when the power is cut off due to a power failure or the like (including when the power is cut off by operating the power switch 71; the same shall apply hereinafter). Yes, when the power failure is resolved (including power-on by operating the power switch 71; the same applies hereinafter), the state of the slot machine 10 can be restored to the state before the power-off based on the information in the backup area. . Writing to the backup area is performed by power failure processing (see FIG. 12) when the power is turned off, and restoration of each value written to the backup area is performed by the main processing (see FIG. 14) when power is turned on.

Returning to the description of FIG. 9, the NMI terminal (non-maskable interrupt terminal) of the CPU 102 is configured to receive a power failure signal from the power failure monitoring circuit 91b when power is shut off due to power failure or the like. When the power is cut off, the NMI interrupt processing as the power failure flag generation processing is immediately executed.

Here, the connection relationship among the basic random number generator 150, the start detection sensor 41a and the CPU 102 will be described in more detail with reference to the block diagram of FIG.

An input side of the basic random number generator 150 is connected to a second clock circuit 151 for outputting a rectangular wave (second clock signal) having a predetermined frequency of 7.915 MHz, and the CPU 102 . The CPU 102 is connected to the output side of the basic random number generator 150 .

The basic random number generator 150 is hardware having a counter 150a and a latch circuit 150b. The counter 150a is a 16-bit free-running counter that is incremented by 1 within the range of 0 to 65535 and returns to 0 after reaching the maximum value (that is, 65535). A second clock circuit 151 is connected to the counter 150a, and when the second clock signal from the second clock circuit 151 is input, the count value of the counter 150a is updated. The latch circuit 150b is configured by combining a plurality of D flip-flop circuits, and can latch (hold) the count value of the counter 150a. The CPU 102 is connected to the latch circuit 150b, and when a latch signal is input from the CPU 102, the count value of the counter 150a at that timing is latched by the latch circuit 150b. Then, the latched count value is output to the input port built into the CPU 102 as a basic random number.

A monitor circuit 152 for monitoring the second clock circuit 151 is connected to the CPU 102 . The monitoring circuit 152 is composed of a D flip-flop circuit. That is, the monitoring circuit 152 has a data terminal (D terminal) and a clock terminal (CLK terminal) as input terminals, and a positive logic output terminal (Q terminal) and a negative logic output terminal (Q-bar terminal) as output terminals. is doing. The start detection sensor 41a is connected to the D terminal through the waveform shaping circuit 153 and the input/output port 104, and the second clock circuit 151 is connected through the inverter 154 to the CLK terminal. Also, the Q terminal is unconnected, and the Q bar terminal is connected to an input port built into the CPU 102 .

The start detection sensor 41a outputs an operation signal when the start lever 41 is operated. More specifically, the start detection sensor 41a outputs an operation signal when the start lever 41 moves from the initial position, and stops outputting the operation signal when the start lever 41 returns to the initial position. The waveform shaping circuit 153 is composed of a Schmitt trigger circuit. A threshold is set in the waveform shaping circuit 153, and the waveform shaping circuit 153 sends a detection signal to the monitoring circuit 152 when the operation signal output from the start detection sensor 41a becomes larger than the voltage rising side threshold. and stops outputting the detection signal when the operation signal becomes smaller than the voltage drop side threshold. That is, the waveform shaping circuit 153 is a circuit for shaping the dullness (leading edge delay and trailing edge delay) of the operation signal output from the start detection sensor 41a. Note that the waveform shaping circuit 153 may be connected between the input/output port 104 and the monitoring circuit 152 , and the waveform shaping circuit 153 may be provided on the main controller 101 .

The monitoring circuit 152 detects the operation signal (more specifically, the signal from the waveform shaping circuit 153) at the timing when the inverted second clock signal (inverted clock signal) is input to the CLK terminal (more specifically, at the rising edge of the inverted clock signal). detection signal) is input, a start signal is output to the CPU 102 . The start signal is continuously output until the operation signal is not input at the timing when the inverted clock signal is input to the CLK terminal. In other words, it can be said that the monitoring circuit 152 holds the input state of the operation signal until the inverted clock signal is input to the CLK terminal.

The input side of the CPU 102 is connected to the Q-bar terminal of the monitoring circuit 152, the latch circuit 150b of the basic random number generator 150, and the first clock circuit 103 that outputs the first clock signal. A latch circuit 150 b of a basic random number generator 150 is connected to the output side of the CPU 102 . The first clock circuit 103 outputs a rectangular wave with a predetermined frequency of 8.000 MHz and is configured not to synchronize with the second clock circuit 151 . The CPU 102 performs various operations when the first clock signal is input. For example, based on the input of the first clock signal, it is determined whether or not the start signal is input, and based on the input of the start signal, the latch signal is output to the basic random number generator 150 . Then, the count value output from the basic random number generator 150 is obtained as the basic random number. Determining whether or not the start signal is input will be described in more detail. Since the CPU 102 is connected to the Q-bar terminal of the monitoring circuit 152, when the input signal from the Q-bar terminal is switched from the H level to the L level, It is determined that the start signal has been input to .

Next, each control process executed by the CPU 102 of the main controller 101 will be described. The CPU 102 performs various processes based on the input of the first clock signal from the first clock circuit 103 . The processing of the CPU 102 can be broadly classified into main processing that is started when the power is turned on, timer interrupt processing that is started periodically (with a cycle of 1.49 msec in this embodiment), and a power failure signal to the NMI terminal. There is an NMI interrupt process that is started with the input of . For convenience of explanation, the timer interrupt processing will be described first, and then the main processing will be described.

FIG. 12 is a flowchart of timer interrupt processing periodically executed by the main controller 101. The CPU 102 of the main controller 101 generates a timer interrupt every 1.49 msec, for example.

First, in the register saving process shown in step S101, the values of all the registers in the CPU 102 used in the normal process, which will be described later, are saved in the backup area of the RAM 106. FIG. In step S102, it is confirmed whether or not the power failure flag is set. When the power failure flag is set, the process proceeds to step S103 to execute power failure processing.

Here, an outline of the power failure processing will be described.

When the power supply is interrupted due to the occurrence of a power failure or the like, a power failure signal is output from the power failure monitoring circuit 91b of the power supply device 91, and the power failure signal is input to the main controller 101 via the NMI terminal. When a power failure signal is input, main controller 101 immediately executes NMI interrupt processing and sets a power failure flag in a power failure flag storage area provided in RAM 106 .

In the power failure processing, first, it is determined whether or not the transmission of the command has been completed, and if the transmission has not been completed, this processing is terminated, the timer interrupt processing is resumed, and the transmission of the command is terminated. When the command transmission is completed, the value of the stack pointer of the CPU 102 is saved in the backup area of the RAM 106 . After that, the output state of the output port in the input/output port 104 is cleared, and all actuators (not shown) are turned off. Then, a RAM judgment value for judging whether or not the data in the RAM 106 is normal when the power failure is resolved is calculated and stored in the backup area. The RAM determination value is specifically the two's complement of the checksum at the work area address of the RAM 106 . By storing the RAM determination value in the backup area, the checksum of the RAM 106 becomes zero. By setting the checksum of the RAM 106 to 0, subsequent RAM access is prohibited. After the above processing is performed, an infinite loop is entered in preparation for the case where the power is completely cut off and the processing cannot be executed. Considering the case where the power failure flag is erroneously set due to, for example, noise, it is confirmed whether or not the power failure signal is being output until entering an infinite loop. If the power failure signal is not output, it means that the power failure state has been restored. Therefore, the power failure flag is reset while permitting writing to the RAM 106, and the timer interrupt processing is resumed. If the power failure signal continues to be output, an infinite loop is entered as it is. Incidentally, whether or not the power failure signal is being output is checked even under the infinite loop, and when the power failure signal is no longer output, the process proceeds to the main processing.

Returning to the description of the timer interrupt process, when the power failure flag is not set in step S102, various processes after step S104 are performed.

That is, in step S104, clearing processing of the watchdog timer for initializing the value of the watchdog timer for monitoring the occurrence of malfunction is performed. In step S105, the CPU 102 performs an interrupt end declaration process to enable the next timer interrupt to be set. In step S106, in order to rotate the reels 32L, 32M, and 32R, stepping motor control processing is performed to drive the stepping motors, which are the driving motors for the reels 32L, 32M, and 32R. In step S107, sensor monitoring processing is performed to read the states of various sensors (see FIG. 9) connected to the input/output port 104, such as the stop detection sensors 42a to 44a, the inserted medal detection sensor 45a, and the payout detection sensor 51a.

Here, sensor monitoring processing will be described based on the flowchart of FIG. 13 . First, in step S151, sensor information transfer processing is performed. In the sensor information migration process, the data stored in the first to third areas 112a to 112c of the detection area to be confirmed this time are shifted to the upper area in order. For example, when reading the state of the reset detection sensor 72a, in the reset detection area, the data in the third area 112c is first cleared, and then the second area→the third area, the first area→the second area, and so on. shift the data in each area to . In the following step S152, the port connected to the sensor to be checked this time is referenced to read the signal input state. In step S153, it is determined whether or not an ON signal is input. When the ON signal is input, "1" is set in the first area 112a of the corresponding detection area in step S154, and when the ON signal is not input, the processing is performed in step S155. "0" is set in the first area 112a of the detection area. After that, in step S156, it is determined whether or not the states of all the sensors have been confirmed. If the states of all the sensors have been confirmed, this processing is terminated. If not, the process returns to step S151 to check the states of unconfirmed sensors. Thus, in the sensor monitoring process, for various sensors connected to the input/output port 104, the process of storing "0" or "1" in the first area 112a of the corresponding detection area is executed. When reading the state of the start detection sensor 41a, in step S153, it is determined that an ON signal is input when an L level signal is input, and an ON signal is input when an H level signal is input. It is determined that no signal is input.

Returning to the description of timer interrupt processing, in step S108, timer calculation processing for subtracting the value of each counter or timer is performed. In step S109, the value of the update counter 111c is updated by one. In step S110, processing for outputting the result of counting the number of bets of medals and the number of payouts to the external centralized terminal board 121 is performed. In step S111, command output processing for transmitting various commands such as a lottery result command, which will be described later, to the display control device 81 is performed. In step S112, segment data setting processing for setting segment data to be displayed in the credit display section 60, the remaining payout number display section 61, and the payout number display section 62 is performed. In step S113, segment data display processing is performed to supply the segment data set in the segment data setting processing to each of the display units 60 to 62 and display corresponding numbers, symbols, and the like. In step S114, port output processing for outputting data corresponding to the I/O device from the input/output port 104 is performed. In step S115, the values of each register saved in the backup area in step S101 are returned to the corresponding registers in the CPU 102, respectively. In step S116, the value of the first counter 111a for generating basic random numbers is updated by one. The first counter 111a is a 16-bit storage area formed in the RAM 106, and is capable of generating a basic random number of 0-65535. In step S117, a delay counter process of adding or subtracting the value of the delay counter 111d is performed. After that, in step S118, the next timer interrupt is permitted, and this series of timer interrupt processing ends.

FIG. 14 is a flowchart showing main processing in main controller 101 that is executed after power is turned on. The main processing is executed when the power is turned on due to recovery from a power failure or turning on the power switch 71 .

First, in step S201, as initialization processing, the value of the stack pointer is set in the CPU 101, and an interrupt mode for permitting interrupt processing is set. etc. When these initialization processes are completed, it is determined in step S202 whether or not the setting key is inserted into the setting key insertion hole 73 and turned on. Specifically, the operation determination process shown in FIG. 15 is performed.

In the operation determination process, first, in step S251, it is determined whether or not the current determination target is the reset switch 72, and in step S252, the current determination target is any one of the first to third credit insertion switches 56-58. Determine whether or not there is If the current determination target is any of the reset switch 72 and the first to third credit input switches 56 to 58, all area reference processing shown in steps S253 to S256 is performed. On the other hand, if the current determination target is other than the switches described above, specifically, if it is any of the start lever 41, the stop switches 42 to 44, the settlement switch 59, and the setting key, steps S257 to S260 are performed. 1 area reference processing shown in .

In the all area reference process, in step S253, the first to third areas 112a to 112c of the sensor information storage area 112 corresponding to the current determination target are referenced. In step S254, it is determined whether or not the reference result is "011", that is, whether or not "1" is stored in the first area, "1" is stored in the second area, and "0" is stored in the third area. do. If the reference result is "011", it is determined in step S255 that the current determination target has been operated, and this processing ends. On the other hand, if the reference result is not "011", it is determined in step S256 that the current determination target has not been operated, and this processing ends. That is, in the all-area reference process, it is determined whether or not the determination target has been operated based on the history of signal input from the corresponding detection sensor.

In the 1-area reference process, in step S257, only the first area 112a of the sensor information storage area 112 corresponding to the current determination target is referenced. In step S258, it is determined whether or not the reference result is "1", that is, whether or not "1" is stored in the first area. If the reference result is "1", it is determined in step S259 that the current determination target has been operated, and this processing ends. On the other hand, if the reference result is "0", it is determined in step S260 that the current determination target has not been operated, and this processing ends. That is, in the 1-area reference process, it is determined whether or not the determination target has been operated based on the latest information on the presence or absence of signal input from the corresponding detection sensor.

Returning to the description of the main processing, in step S202, since the determination target is the setting key, one area reference processing is performed. That is, referring to the first area 112a of the setting key detection area, if "1" is stored, it is determined that the setting key has been turned ON, and if "0" is stored, determines that the ON operation of the setting key has not been performed. If the setting key has been turned ON, the process advances to step S203 to perform compulsory RAM clear processing. In the compulsory RAM clearing process, all the data stored in the RAM 106 other than the data (count values) stored in the first counter 111a, the second counter 111b and the delay counter 111d are cleared. That is, the values of the first counter 111a, the second counter 111b, and the delay counter 111d are not cleared (initialized) even when the RAM is cleared. The values of the first counter 111a, the second counter 111b, and the delay counter 111d are not cleared (initialized) even when the reset switch 72 is operated to recover from the error state.

In step S204, winning probability setting processing is performed. Here, the winning probability setting process will be described with reference to FIG. The slot machine 10 is provided with six levels of winning probabilities from "setting 1" to "setting 6" in advance. It is a process for

In step S301, the next timer interrupt is permitted. Thereafter, the current set value is read in step S302, and the current set value is displayed on the credit display section 60 in step S303. However, immediately after the setting key is inserted and turned ON, the data in the RAM 106 has been cleared by the previous forced RAM clearing process, so the set value displayed on the credit display section 60 is "1". be.

In step S304, an interrupt waiting process is performed.

In the interrupt waiting process, as shown in the flowchart of FIG. 17, register save processing is performed in step S401. In step S402, the next timer interrupt is permitted, and the current value of the update counter 111c is acquired. In steps S403 to S407, counter update processing is performed. In the counter updating process, the next timer interrupt is first prohibited in step S403, then the value of the delay counter 111d is updated by 1 in step S404, and the value of the second counter 111b is updated by 1 in step S405. The delay counter 111d is a 4-bit storage area formed in the RAM 106, and is capable of generating count values of 0-16. The second counter 111b, like the first counter 111a, is a 16-bit storage area formed in the RAM 106, and is capable of generating basic random numbers from 0 to 65,535. After updating the delay counter 111d and the second counter 111b, the next timer interrupt is permitted in step S406, and it is determined whether or not the value of the update counter 111c has changed in step S407. Specifically, it is determined whether or not the value acquired in step S402 and the value of the update counter 111c match. As described above, the value of the update counter 111c is updated in step S109 of timer interrupt processing. Therefore, if the value of the update counter 111c has not changed, it means that timer interrupt processing has not been performed since step S402 was performed. In such a case, the process returns to step S403 to perform counter update processing. On the other hand, if the value of the update counter 111c has changed, it means that timer interrupt processing has been performed, so register restoration processing is performed in step S408, and this processing ends.

If the interrupt waiting process has ended, it is determined whether or not the start lever 41 has been operated in step S305. Specifically, as such determination processing, the one-area reference processing of the operation determination processing described above is performed. That is, referring to the first area 112a of the start detection area, if "1" is stored, it is determined that the start lever 41 has been operated, and if "0" is stored, the start lever 41 is not operated. If the start lever 41 is not operated, setting update processing shown in steps S306 to S308 is performed. At step S306, the above-described interrupt waiting process is performed, and at step S307, it is determined whether or not the reset switch 72 has been operated. More specifically, all area reference processing of operation determination processing is performed. That is, all areas 112a to 112c of the reset detection area are referred to, and if "011" is stored, it is determined that the reset switch 72 has been operated, and if "011" is not stored, the reset switch 72 is not operated. If the reset switch 72 has not been operated, the process directly returns to step S303, and if it has been operated, the set value is updated by 1 in step S308, and then the process returns to step S303. That is, in the setting update process, the setting value is updated by 1 each time it is determined that the reset switch 72 has been operated, and the updated setting value is displayed on the credit display section 60 . If the reset switch 72 is operated when the set value is "6", the set value is updated to "1".

If the start lever 41 has been operated in step S305, after an interrupt waiting process is performed in step S309, it is determined in step S310 whether or not the ON operation of the setting key is continuously performed. If the ON operation of the setting key is continued, the process returns to step S309, and if the ON operation is terminated, the next timer interrupt is prohibited in step S311. Then, in step S312, the set value is saved, and in step S313, among the data stored in the RAM 106, data other than the set value, the values of the first counter 111a, the second counter 111b, and the delay counter 111d are cleared, End this process.

Returning to the description of the main process, after the winning probability setting process is performed in step S204, the normal process of performing main control related to the game is performed in step S205.

On the other hand, if it is determined in step S202 that the ON operation of the setting key has not been performed, power recovery processing shown in step S206 and subsequent steps is performed. The power restoration process is a process for restoring the state of the slot machine 10 to the state before the power was cut off. Therefore, in power recovery processing, it is first necessary to confirm whether the data in the RAM 106 is normal.

Therefore, in step S206, it is determined whether or not the set value is normal. Specifically, when the set value is any one of 1 to 6, it is determined to be normal, and when it is 0 or 7 or more, it is determined to be abnormal. If the set value is normal, it is checked in step S207 whether or not the power failure flag is set. If the power failure flag is set, it is further checked in step S208 whether or not the RAM determination value is normal. Specifically, the checksum value of the RAM 106 is examined to confirm whether the value is normal, that is, whether the checksum value considering the RAM judgment value is 0 or not. If the value of the checksum with the RAM determination value added is 0, it is determined that the data in the RAM 106 is normal.

If it is determined in step S208 that the RAM determination value is normal, the process advances to step S209 to write the value of the stack pointer saved in the backup area to the stack pointer of the CPU 102, and restore the stack state to that before the power was turned off. restore the state. Next, in step S210, a power recovery command is transmitted to the display control device 81 to notify execution of power recovery processing. After that, in step S211, the game state is set to stop and automatic settlement setting saving processing is performed, and in step S212, various sensors such as the start detection sensor 41a are initialized. After the above processing is completed, the power failure flag is reset in step S213, and the address before the power shutdown is restored. Specifically, the process returns to the timer interrupt process described above, and the watchdog timer clear process (step S104) is executed.

On the other hand, if any of steps S206 to S208 is NO, that is, the set value is abnormal, the power failure flag that should be set when the power is turned off is not set, or the RAM judgment value is abnormal, There is a high possibility that the data in RAM 106 has been destroyed. In such a case, operation prohibition processing shown in steps S214 to S216 is performed. As the operation prohibition process, first, the next timer interrupt process is prohibited in step S214, and all the actuators connected to the input/output port 104 are cleared by clearing all the output ports in the input/output port 104 in step S215. Control to off state. Thereafter, in step S216, error notification processing is performed to notify the hall manager or the like of the occurrence of an error using the upper lamp 63 or the like. This operation prohibited state is maintained until the winning probability setting process described above is performed.

Next, normal processing for performing main controls related to the game will be described with reference to the flow chart of FIG.

First, in step S501, the next timer interrupt is permitted. In step S502, pre-start processing for enabling the game is performed. In the pre-start process, the process waits until the display control device 81 or the like finishes initialization. When the initialization of the display control device 81 and the like is completed, game management processing shown in steps S503 to S508 is performed.

As game management processing, in step S503, data such as various game information stored in the RAM 106 (for example, random numbers used in the previous game) are cleared. After that, in step S504, start waiting processing is performed.

Here, the start waiting process will be described using the flowchart of FIG. 19 .

In step S601, it is determined whether or not replay winning has been established in the previous game. When the replay winning has been established, automatic insertion processing is performed in step S602. The automatic injection process is a process of automatically inserting the same number of virtual medals as the number of previous bets. In the automatic insertion process, the virtual medals are inserted without reducing the number of virtual medals displayed on the credit display section 60 . That is, when a replay win is established in the previous game, the player can play the current game without reducing the number of medals owned and without inserting medals. When a replay win is established in the previous game, the same value as the number of bets is added and displayed on the credit display section 60 first, and the added display number is reduced in the automatic insertion process, and virtual medals are inserted. may be configured to perform If it is determined in step S601 that the replay winning has not been established, medal reception permission processing for permitting betting of medals is performed in step S603. In the medal reception permission process, the medal path switching solenoid 46a is switched to an energized state so that medals can be inserted. After that, the pre-start preparation process shown in steps S604 to S620 is repeatedly performed until a start command for starting the game is generated.

As preparatory processing before starting, first, in step S604, an abnormality confirmation processing is performed to confirm whether or not an abnormality has occurred in the sensor reading result performed in the sensor monitoring processing step S107 of the timer interrupt processing. In the abnormality confirmation process, when it is determined that an abnormality has occurred, the slot machine 10 is placed in an error state and an abnormality occurrence process is performed to report the occurrence of the error. This error state is maintained until the reset switch 72 is operated. If the sensor reading result is normal, the process advances to step S605 to perform an interrupt waiting process. In step S606, it is determined whether or not any of the settlement switch 59 and credit insertion switches 56-58 has been operated.

Specifically, for the settlement switch 59, one area reference processing for operation determination processing is performed, and for each of the credit insertion switches 56 to 58, all area reference processing for operation determination processing is performed. That is, referring to the first area 112a of the settlement detection area, it is determined that the settlement switch 59 has been operated when "1" is stored, and the settlement switch 59 is operated when "0" is stored. is not operated. If the settlement switch 59 has not been operated, all areas 112a to 112c of the first credit insertion detection area are referred to, and if "011" is stored, it means that the first credit insertion switch 56 has been operated. If "011" is not stored, it is determined that the first credit input switch 56 has not been operated. When the first credit insertion switch 56 is not operated, all areas 112a to 112c of the second credit insertion detection area are referred to, and when "011" is stored, the second credit insertion switch 57 is turned on. It is determined that the second credit insertion switch 57 has not been operated when it is determined that it has been operated and "011" is not stored. When the second credit insertion switch 57 is not operated, all areas 112a to 112c of the third credit insertion detection area are referred to, and when "011" is stored, the third credit insertion switch 58 is turned on. If it is determined that it has been operated and "011" is not stored, it is determined that the third credit insertion switch 58 has not been operated.

When any one of the switches 56 to 59 is operated, or when the automatic insertion process is performed in step S602, the process proceeds to step S607, and the number of medals to be paid out displayed in the number of payout display section 62 is cleared. . After that, or if neither the settlement switch 59 nor the credit insertion switches 56 to 58 have been operated, the value of the second counter 111b is updated by 1 in step S608, and the delay counter 111d is reset in step S609. Update the value by 1. In the following step S610, medal return processing is performed. In the medal return process, when it is determined in step S606 that the settlement switch 59 has been operated, the same number of medals as the credited virtual medals are paid out.

In step S611, whether or not medals can be bet is determined based on the state of the medal path switching solenoid 46a, that is, whether it is in an excited state or a non-excited state. Then, if it is possible to bet, credit insertion processing is performed in step S612, and then the process proceeds to step S613. In the credit insertion process, if it is determined in step S606 that one of the credit insertion switches 56 to 58 has been operated, the number of virtual medals displayed on the credit display section 60 is subtracted, or the effective line is set. processing related to the insertion of virtual medals such as In addition, in the case where betting is not possible, the process proceeds to step S613 without executing the credit insertion process. By the way, as a state in which betting is not possible, a case where a replay win is established in the previous game and an automatic insertion process is performed in step S602 is cited as a typical example. In step S613, an input determination process is performed. In the insertion determination process, it is determined whether or not medals have been inserted based on the detection signal from the inserted medal detection sensor 45a, and if medals have been inserted, processing such as setting of effective lines is performed.

At step S614, it is determined whether or not a bet has been made, and if no bet has been made, setting display processing is performed at step S615. In the setting display process, it is determined whether or not the setting key is inserted into the setting key insertion hole 73 and turned on. to be displayed on the In step S616, it is determined whether or not the demonstration effect has been started. In this slot machine 10, when a predetermined time (for example, 1 minute) has passed since the game information in the RAM 106 was cleared in step S503, the auxiliary display section 65 or the like performs a demonstration effect. Therefore, in step S616, it is determined whether or not the predetermined time has elapsed, and if the predetermined time has elapsed, a demonstration start command for further starting the demonstration effect has been transmitted to the display control device 81. Determine whether or not there is If the predetermined time has not elapsed, or if the demonstration start command has not been transmitted, the process returns to step S604 after waiting for an effect in step S617. In the effect waiting process, a counter for measuring the elapsed time after clearing the game information in the RAM 106 is updated, and when a predetermined time has passed, a process of setting a demonstration start command is performed. However, in the effect waiting process, the demonstration start command is only set in the ring buffer, and the command is not transmitted to the display control device 81 . Command transmission to the display control device 81 is performed in the command output processing S111 of the timer interrupt processing described above. If it is determined in step S616 that the demonstration start command has been transmitted, the process directly returns to step S604 without performing the effect waiting process.

If it is determined in step S614 that a bet has been placed, it is determined in step S618 whether or not the number of bets has reached a specified number (3 in this embodiment). If not, the process returns to step S604. When the number of bets has reached the specified number, an interrupt waiting process is performed in step S619, and whether or not the start lever 41 has been operated in step S620, that is, "1" is displayed in the first area 112a of the start detection area. ” is set. If the start lever 41 has not been operated, the process returns to step S604.

On the other hand, when the start lever 41 is operated, the game is started when the start lever 41 is operated under the condition that the prescribed number of medals are betted. It means that a command has occurred. In such a case, medal acceptance prohibition processing is performed in step S621. In the medal acceptance prohibition process, the medal path switching solenoid 46a is switched to a non-excited state, thereby disabling insertion (betting) of medals. Thereafter, delay processing is performed in step S622, and this processing ends.

In the delay process, as shown in the flowchart of FIG. 20, a delay flag is set in step S631. Here, the delay flag is a flag for changing update processing of the delay counter 111d. Specifically, in the delay counter processing S117 of the timer interrupt processing, as shown in the flowchart of FIG. 21, it is determined in step S651 whether or not the delay flag is set. Then, if the delay flag is not set, 1 is added to the value of the delay counter 111d in step S652, and this processing ends. On the other hand, if the delay flag is set, the value of the delay counter 111d is decremented by 1 in step S653, and this processing ends. As described above, in timer interrupt processing, the value of the delay counter 111d is periodically incremented by 1 when the delay flag is not set, and the value of the delay counter 111d is incremented by 1 when the delay flag is set. Perform subtraction processing. Therefore, when the delay flag is set in step S631, the value of the delay counter 111d is periodically decremented by 1 in subsequent timer interrupt processing. Therefore, in step S632, it is determined whether or not the value of the delay counter 111d has become 0, and if it is not 0, the process waits as it is. When the value of the delay counter 111 d becomes 0, the process proceeds to step S 633 to output a latch signal to the basic random number generator 150 . More specifically, step S633 only sets a flag for outputting the latch signal, and the actual output of the latch signal is performed in timer interrupt processing. The latch signal is continuously output for one interrupt (that is, 1.49 msec) of timer interrupt processing. After that, the delay flag is cleared in step S634, and the processing ends.

As described above, when the latch signal from the CPU 102 is input, the basic random number generator 150 latches the count value of the counter 150a at that timing in the latch circuit 150b. Therefore, the operations of the CPU 102, the basic random number generator 150, and the monitoring circuit 152 when the start command is issued will be described with reference to the timing chart of FIG.

At timing t1, the signal output from the second clock circuit 151 rises from the L level to the H level, that is, the second clock signal is switched to an output state (state in which the signal output from the second clock circuit is at the H level). Then, in the basic random number generator 150, the count value of the counter 150a is updated to n. n is any value from 0 to 65535. Since the second clock circuit 151 is connected to the CLK terminal of the monitoring circuit 152 via the inverter 154, the signal input to the CLK terminal of the monitoring circuit 152 changes from H level to L level at timing t1. Falling edge, the inverted clock signal switches to the no input state.

At timing t2, the signal output from the second clock circuit 151 falls from the H level to the L level, that is, the second clock signal is in a non-output state (the signal output from the second clock circuit is at the L level). Upon switching, in the monitor circuit 152, the signal input to the CLK terminal rises from the L level to the H level, and the inverted clock signal is switched to the state with input. At this time, in the basic random number generator 150, the count value of the counter 150a is not updated, and the count value remains n.

When the inverted clock signal is switched to the input state, the monitoring circuit 152 outputs from the Q bar terminal a signal corresponding to the input state of the operation signal input to the D terminal at that time. At timing t2, no operation signal (H-level detection signal) is input, so the start signal is not output from the Q-bar terminal. Since the start signal is output from the Q-bar terminal (negative logic output terminal), only the start signal is not the H level signal but the L level signal.

After that, when the second clock signal switches to the state with output at the timing of t3, in the basic random number generator 150, the count value of the counter 150a is updated to n+1. In this way, in the basic random number generator 150, the count value is sequentially updated at the timing when the second clock signal switches from the non-output state to the output state.

When the start lever 41 is operated at the timing t4, the signal input to the D terminal of the monitoring circuit 152 rises from the L level to the H level, and the operation signal switches to the input presence state. However, since the inverted clock signal is not input at the timing t4, the start signal remains in the non-output state.

When the inverted clock signal switches from the non-input state to the input state at the timing t5, the monitoring circuit 152 changes the output signal from the Q bar terminal from H level to L level because the operation signal is input to the D terminal. drop to a level. As a result, at timing t5, the start signal is switched from the non-output state to the output state. At this time, the latch signal output from the CPU 102 remains in the non-output state. That is, the latch signal is not output at timing t5 when the start signal is output.

At timing t6, the inverted clock signal switches from the state with input to the state with no input, but the output state of the start signal is not changed and the state with output is maintained. That is, even if the inverted clock signal switches from the state with input to the state without input, the start signal is kept in the state with output.

After that, when the inverted clock signal switches from the non-input state to the input state at timing t7, a start signal corresponding to the input state of the operation signal at this timing is output. At timing t7, since the operation signal is in the input state, the start signal is continuously output while the output is in the state.

Now, when the start signal is switched to the state with output at timing t5, the CPU 102 detects the input of the start signal in the sensor monitoring processing S107 of the timer interrupt processing, and sets "1" to the first area 112a of the start detection area. do. Then, in step S620 of the start waiting process, it is determined that a start command has been generated, and the delay process is performed. In the delay processing, a latch signal is output at timing td when the value of the delay counter 111d becomes zero. That is, the CPU 102 latches at the timing td after the delay time (specifically, the time obtained by multiplying the value of the delay counter 111d by the timer interrupt cycle of 1.49 msec) has passed since it determined that the start command was generated. Switch the signal from no input state to input state. As a result, the operation timing of the start lever 41 and the timing of outputting the latch signal are shifted by the delay time.

At the timing t8 when the second clock signal switches to the output state, the basic random number generator 150 updates the count value of the counter 150a to m+1. m is any value from 0 to 65535. At this time, a latch signal is input to the basic random number generator 150, but the count value is not latched in the latch circuit 150b at this timing. Then, the basic random number generator 150 latches the count value m+1 of the counter 150a in the latch circuit 150b at the timing t9 when the second clock signal switches to the no-output state. That is, when the start lever 41 is operated at timing t4, the count value m+1 is acquired as the basic random number at timing t9 instead of timing t4.

Here, in the basic random number generator 150, the count value of the counter 150a is updated at the timing (t1, t3, t6, etc.) at which the second clock signal switches from the non-input state to the input state. The count value is latched at the timing (t9) when the second clock signal switches from the input state to the non-input state. With such a configuration, it is possible to avoid the timing of updating the count value and the timing of latching the count value at the same timing, and the latch timing comes while the count value is being updated, and the count value cannot be latched normally. You can avoid problems.

When the start lever 41 returns to the initial position at timing t10, the operation signal input to the monitoring circuit 152 switches from the input state to the non-input state. Timing t10 is the timing at which the state with input of the inverted clock signal is switched to the state with no input, so the output state of the start signal does not change at this timing. At timing t11 at which the inverted clock signal switches from the no-input state to the input-present state, it is detected that the operation signal is not input, and the start signal switches from the output-present state to the no-output state. Note that when the operation signal switches from the input state to the non-input state while the inverted clock signal is not input (for example, timing t10<timing t<timing t11), or when the inverted clock signal is input (for example, timing Even if the operation signal switches from the state with input to the state without input at t9<timing t<timing t10), the start signal switches from the state with output to the state without output at timing t11.

Incidentally, in the case of a configuration in which the timing at which the operation signal is input is not always grasped but at the timing at which the inverted clock signal is inputted, the operation signal is switched to the input state after the inverted clock signal of 1 is inputted. If the operation signal is switched to the non-input state before the next inverted clock signal is input, there is a possibility that the operation of the start lever 41 cannot be accurately grasped. However, the start lever 41 in the present slot machine 10 is constructed so that it takes several tens of milliseconds to return to the initial position after the hand is released. It is input to the monitoring circuit 152 . The second clock signal output from the second clock circuit 151 has a clock frequency of 7.915 MHz and a period of about 126 nsec. In other words, the cycle in which the inverted clock signal is input to the monitor circuit 152 is sufficiently shorter than the time interval required for the operation signal to switch from the state with input to the state without input. Therefore, it is possible to avoid the problem that the operation signal is skipped by the monitoring circuit 152 even though the operation signal is output from the start lever detection sensor 41a.

In addition, if the latch signal is output from the CPU 102 instead of the monitor circuit 152, the CPU 102 and the basic random number generator 150 operate based on different clock signals. The basic random number generator 150 may skip reading the latch signal. However, the latch signal is configured to be output for one interrupt of timer interrupt processing, ie, 1.49 msec, and the period of the second clock signal is approximately 126 nsec as described above. Therefore, it is possible to avoid the problem that the latch signal is skipped in the basic random number generator 150 even though the latch signal is output from the CPU 102 .

Returning to the explanation of the normal processing, when it is determined that the start command is generated in the start waiting processing, the lottery processing of step S505, the reel control processing of step S506, the medal payout processing of step S507, the BB state processing of step S508 are executed in order, and the process returns to step S503.

Next, lottery processing in step S505 will be described based on the flowchart of FIG.

In step S701, a random number creation process is performed to create random numbers used when judging whether a winning combination is right or wrong. As shown in the flowchart of FIG. 24, in step S801 of the random number generation process, the basic random number generated by the basic random number generator 150 is stored in the random number storage area 110 composed of 16 bits. More specifically, the basic random number generator 150 latches the count value at the timing when the latch signal from the CPU 102 is input, and outputs the latched count value to the CPU 102 . The CPU 102 stores the count value input to the input port built into the CPU 102 as a basic random number in the random number storage area 110 . Then, in step S802, the value of the first counter 111a is added to the random number storage area 110, and in step S803, the value of the second counter 111b is added to the random number storage area 110, and the random number generation process ends. That is, in the slot machine 10, a random number is created by adding the count value latched by the basic random number generator 150, the count value of the first counter 111a, and the count value of the second counter 111b.

Here, the series of processes from step S108 to step S118 in the timer interrupt process is the time required for performing these series of processes after the basic random number generator 150 latches the count value and the latch result is sent to the CPU 102. It is configured to be longer than the time required for input. With this configuration, the timing of acquiring the basic random number (the timing of processing in step S801) can be delayed from the timing of inputting the latched count value to the CPU 102 in the current game. It is possible to reliably store the latched count value in the random number storage area 110 as the basic random number.

After generating the random numbers, in step S702, a lottery table is selected for judging whether the winning combination is correct or not. Specifically, the current game state of the slot machine 10 is determined, and a lottery table corresponding to the game state is selected. The slot machine 10 has two types of game states, a normal state and a BB state, and a lottery table corresponding to each game state is selected. When the setting state is "setting 1", the lottery table with the lowest expected value of medal payout is selected, and when the setting state is "setting 6", the lottery table with the highest expected value of medal payout is selected.

The lottery table will be briefly explained. FIG. 25 is a normal state lottery table selected in the normal state of "setting 3". In the lottery table, the same number of index values IV as the number of combinations to be determined are set, and each index value IV is uniquely associated with a winning combination, and a point value PV is set. ing. In other words, in the normal state of the slot machine 10, determination is made for six types of combinations, ie replay, bell, watermelon, cherry, 1-card combination, and BB.

After selecting the lottery table, the index value IV is set to 1 in step S703, and the determination value DV used when determining whether the winning combination is right or wrong is set in the subsequent step S704. In this determination value setting process, the point value PV corresponding to the current index value IV is added to the current determination value DV to set a new determination value DV. Note that in the initial determination value setting process, the random number generated in step S701 is used as the current determination value DV, and the current index value IV of 1 and the corresponding point value PV are added to this random number to create a new value. Let it be the judgment value DV.

After that, in step S705, it is determined whether the winning combination corresponding to the index value IV is correct. Whether or not the judgment value DV exceeds 65535 is judged in the winning judgment. If it exceeds 65535, the process advances to step S706 to set the winning flag of the combination corresponding to the index value IV at that time in the winning flag storage area 106a of the RAM106. For example, when the determination value DV exceeds 65535 when IV=3, the watermelon winning flag is set in the winning flag storage area 106a in step S706.

Incidentally, if the set winning flag is any of the replay winning flag, the bell winning flag, the watermelon winning flag, the cherry winning flag, and the single winning flag, this winning flag is the game in which the corresponding selection flag is set. It is reset after the end (see S503 of normal processing). On the other hand, if the winning flag is the BB winning flag, the BB winning flag is reset under one of the conditions that the BB winning has been established. That is, the BB winning flag may be valid over a plurality of games. In step S706 with the BB winning flag carried over, if the current index value IV is 1 to 5, the winning flag corresponding to the index value IV is set, and if the current index value IV is 6, the BB winning flag is set. Do not set flags. In other words, in a game in which the BB winning flag is carried over, if any one of the replay, bell, watermelon, cherry, and one hand is won, the corresponding winning flag is set, while if the BB is won, the corresponding winning flag is set. Do not set the BB winning flag.

If the determination value DV does not exceed 65535 in step S705, it means that the role corresponding to the index value IV is lost. In such a case, the index value IV is incremented by 1 in step S707, and in the subsequent step S708, it is determined whether or not there is a hand corresponding to the index value IV, that is, whether or not there is a determination target to be determined. Specifically, it is determined whether or not the index value IV to which 1 has been added exceeds the maximum value of the index value IV set in the lottery table. If there is a determination target to be determined, the process returns to step S704 to continue determination of the winning combination. At this time, in step S704, the point value PV corresponding to the current index value IV is added to the judgment value DV used for the judgment of the previous combination (that is, the current judgment value DV) to obtain a new judgment value DV, In step S705, it is determined whether the winning combination is correct based on the determination value DV. By the way, when judging the winning combination using the lottery table shown in FIG. The probability of winning watermelon is about 1/128, the probability of winning cherry is about 1/73.0, and the probability of winning 1 card is 1/128. Also, the probability of not winning any role is about 1/1.36.

After the winning flag is set in step S706, or when it is determined in step S708 that there is no determination target to be determined, it means that the determination of the winning combination has been completed. In such a case, a lottery result command is set in step S709. Here, the lottery result command is a command that is transmitted to the display control device 81 so as to grasp the result of the win/loss determination of the winning combination. Upon receiving the lottery result command, the display control device 81 executes drive control of the upper lamp 63 and the auxiliary display section 65 to suggest a winning combination, for example. However, in normal processing, various commands such as the lottery result command are only set in the ring buffer, and the commands are not transmitted to the display control device 81 . Command transmission to the display control device 81 is performed in the command output processing S111 of the timer interrupt processing described above.

Then, in step S710, a slip table setting process for setting a slip table (stop table) for reel stop control is performed, and the lottery process ends. Here, the slide table is a table that defines how much the reels 32L, 32M, and 32R should be slid (rotated) before stopping from the timing when the stop switches 42-44 are operated. In other words, the slide table includes the arrival symbol (arrival symbol number) that reaches the base position (lower row in this embodiment) when the stop switches 42 to 44 are pressed, and the actual stop at the base position. It is a stop data group from which a relationship with a stop symbol (stop symbol number) can be derived.

In the slot machine 10, as the stop modes for stopping the reels 32L, 32M, and 32R, when the stop switches 42 to 44 are operated, the arrival symbol that has reached the base position is stopped as it is. A stop mode in which the reel is stopped after sliding by one symbol, a stop mode in which the reel is stopped after sliding by two symbols, a stop mode in which the reel is stopped after sliding by three symbols, and a reel is stopped after sliding by four symbols. There are 5 patterns of stop modes, including a stop mode in which the engine is stopped. A plurality of slide tables are prepared for each combination, in which any one of the five patterns of stop mode is set for each symbol number of each of the reels 32L, 32M, and 32R.

In this way, by setting the slide table so that each reel 32L, 32M, 32R stops during the specified time (190 msec) from the timing when the stop switches 42 to 44 are operated, the display window 26L, It is possible for the player to have the impression that the pattern arrangement (hereinafter referred to as the stop result) that stops within the visible range from 26M and 26R is determined by the player's operation. In addition, by making it possible to slide up to 4 symbols, it is possible to stop the combinations of the winning combination and the corresponding symbols on the effective line as much as possible within the prescribed time. At the same time, it is possible to prevent a combination of symbols corresponding to a combination that has not been won in the lottery from stopping on the activated line.

FIG. 26 is an example of a slide table that is set when the "replay" symbol on the left reel 32L is stopped on the active line. Symbols with numbers having a sliding number of 0 are symbols that actually stop on the lower stage. For example, when the left stop switch 42 is operated while the number 14 "watermelon" symbol on the left reel 32L has reached the bottom row, the left reel 32L stops as it is without slipping, and the number 16 "replay" symbol. stops on the upper level. In addition, the number of symbols whose number of slides is not 0 means that the reels are slid as much as the number of symbols described. For example, when the left stop switch 42 is operated while the 8th "Bell" symbol on the left reel 32L has reached the lower stage, the left reel 32L slides by 4 symbols, and the 12th "Replay" symbol is displayed. Stop downstairs. In this way, in the slide table, the number of slides when the stop switches 42 to 44 are operated at the timing when the symbols attached to the respective reels 32L, 32M, 32R reach the lower stages are set for each symbol number.

In the sliding table setting process, the winning flag set in the winning flag storage area 106a of the RAM 106 is confirmed, and the sliding table uniquely corresponding to the set winning flag is stored in the sliding table storage area 106b of the RAM 106. set. At this time, in the slot machine 10, the middle reel 32M and the right reel 32R are arranged so that the symbol (hereinafter referred to as "winning symbol") corresponding to the winning combination on the left reel 32L stops either on the upper stage or the lower stage. A sliding table is set so that the winning symbols of 1 stop in the middle row. Here, the sliding table is set so that the winning symbols on the left reel 32L stop at either the upper row or the lower row. This is to diversify the number of stop outcomes considering that the stop switches 42 to 44 are operated to stop the game.

Here, the pattern arrangement of each reel 32L, 32M, 32R will be briefly described.

The "replay" symbols are arranged on each of the reels 32L, 32M, 32R such that the distance between the symbol that reaches the lower stage first and the symbol that reaches the next stage is 4 symbols or less. For example, the 4th "replay" symbol and the 7th "replay" symbol on the left reel 32L are arranged so that the interval between them is 2 symbols, and the 1st "replay" symbol and the 6th "replay" symbol on the middle reel 32M are arranged. The "replay" symbols of the turn are arranged so that the interval between them is 4 symbols. In this way, the "replay" symbols are arranged on the respective reels 32L, 32M and 32R so that the interval between similar symbols is 4 symbols or less. As described above, the reels 32L, 32M, 32R can be stopped after slipping by a maximum of four symbols from the timing when the stop switches 42-44 are operated. Therefore, by adopting such a pattern arrangement, even when the stop switches 42 to 44 are operated at any timing, the "replay" pattern can be stopped at an arbitrary position when establishing a replay winning prize. . For example, when the middle stop switch 43 is operated when the number 1 "replay" symbol of the middle reel 32M reaches the lower stage, this "replay" symbol can be stopped at the lower stage by stopping the middle reel 32M as it is. If the middle reel 32M is slid for 3 symbols and then stopped, the 6th "replay" symbol can be stopped at the upper row, and if the middle reel 32M is slid for 4 symbols and then stopped, the 6th "replay" symbol can be stopped. The "replay" pattern of can be stopped in the middle row.

In the slot machine 10, in addition to the "replay" symbols, the "bell" symbols are also arranged on the reels 32L, 32M and 32R such that the interval between similar symbols is four or less. Therefore, even when the stop switches 42 to 44 are operated at any timing, the "bell" pattern can be stopped at an arbitrary position when establishing the bell winning.

On the other hand, the "watermelon" symbols are not arranged on the respective reels 32L, 32M, 32R such that the interval between similar symbols is 4 symbols or less. For this reason, for example, when the left stop switch 42 is operated when the number 3 "red 7" symbol on the left reel 32L has reached the lower stage, even if the left reel 32L is slid by 4 symbols, "watermelon" Symbols cannot be stopped on the active line. Therefore, even if the watermelon is won and the slide table is set so that the "watermelon" symbol stops on the activated line, the "watermelon" may be displayed depending on the timing when the stop switches 42 to 44 are operated. There is a case where the symbol does not stop on the activated line and the watermelon prize is not established, so-called dropout may occur. In the slot machine 10, in addition to the "watermelon" symbol, the "red 7" symbol is also arranged on the reels 32L, 32M and 32R so as to form intervals separated by five symbols or more. In addition, on the left reel 32L, the "cherry" symbols are arranged so as to form a section separated by 5 or more patterns, and on the middle reel 32M, the "young man" patterns form a section separated by 5 or more patterns. In the right reel 32R, the "white 7" symbols are arranged so as to form a section separated by 5 symbols or more. Therefore, when winning any one of BB, watermelon, cherry, and one hand, it is necessary to operate the stop switches 42 to 44 so as to stop the winning symbols on the effective line.

Returning to the description of the slip table setting process, when the BB winning flag and other winning flags are set, the following slip table is set.

When the BB winning flag and the re-game winning flag are set, a slide table for re-game winning is set for preferentially establishing the re-game winning. In the replay winning slide table, the "replay" symbols on the left reel 32L are stopped preferentially to the upper or lower row, and the "replay" symbols on the middle reel 32M and the right reel 32R are preferentially stopped to the middle row. is set to

When the BB winning flag and the minor winning combination winning flag (that is, one of the bell winning flag, the watermelon winning flag, the cherry winning flag, and the single winning combination winning flag) are set, the BB for establishing the BB winning with priority. Set the priority prize sliding table. However, since the BB symbol "Red 7" symbol is arranged on each reel 32L, 32M, 32R so as to form a section separated by 5 symbols or more as described above, depending on the operation timing of the stop switches 42 to 44 may not be able to stop the "red 7" symbol on the active line. Therefore, in the slide table for BB priority winning, the reels 32L, 32M and 32R are set as follows. As for the left reel 32L, if it is possible to stop both the "red 7" symbol and the winning minor combination symbol on the active line, the "red 7" symbol is preferentially stopped on the active line. It is impossible to stop the "Red 7" symbol in the upper row or the lower row so that if the symbol can be stopped in either the upper row or the lower row, it is stopped preferentially. If it is possible to stop at each position, the winning minor symbol is set to be stopped at each position. Further, the middle reel 32M and the right reel 32R are set so as to preferentially stop the "Red 7" symbol if it is possible to stop it in the middle stage, and the "Red 7" symbol is placed at each of the above positions. If it is impossible to stop and the winning minor symbol can be stopped at each position, the winning minor symbol is stopped at each position.

Next, the reel control processing in step S506 will be described based on the flowchart of FIG.

In the reel control process, first, in step S901, a rotation start process for starting rotation of the reels 32L, 32M, and 32R is performed.

In the rotation start process, it is checked whether or not a predetermined wait time (for example, 4.1 seconds) has elapsed since the reel started rotating in the previous game. If not, the wait time has elapsed. wait until When the wait time has passed, the wait time for the next game is set again, and motor control initialization processing for setting rotation start information in the motor control storage area provided in the RAM 106 is performed. By performing such processing, stepping motor acceleration processing is started in the stepping motor control processing S106 of the timer interrupt processing, and the reels 32L, 32M, and 32R start rotating. Therefore, even if the player bets the prescribed number of medals and operates the start lever 41, the reels 32L, 32M and 32R may not immediately start rotating. Thereafter, the reels 32L, 32M, and 32R wait until they rotate at a predetermined rotational speed at a constant speed, and the rotation start processing ends. In addition, when the rotation speed of each reel 32L, 32M, 32R becomes constant, the CPU 102 can generate a stop command by turning on lamps (not shown) of each of the stop switches 42 to 44. is notified to players and the like.

Following the rotation start process, pre-stop process is performed in step S902.

In the pre-stop process, as shown in the flowchart of FIG. 28, an interrupt wait process is first performed in step S1001. In subsequent step S1002, it is determined whether or not a start command has been issued, more specifically, whether or not "1" is set in the first area 112a of the start detection area. Then, when "1" is set in the first area 112a of the start detection area, the process returns to the interrupt waiting process of step S1001. In other words, when "1" is set in the first area 112a of the start detection area, the process does not proceed to step S1003 and subsequent steps until the first area 112a of the start detection area is changed to "0".

Incidentally, as a situation in which it is determined in step S1002 that a start command has been generated, the process of step S620 is performed when the start lever 41 is kept being pushed from the processing timing of step S620 to the processing timing of step S1002. If the start lever 41 is operated again after that, it is conceivable that some abnormality occurs in the monitoring circuit 152 or the like and the start signal continues to be output.

If the start command has not been generated, the process proceeds to step S1003 to determine whether or not any of the stop switches 42 to 44 has been operated. More specifically, the 1-area referencing process of the operation determination process described above is performed for each of the stop switches 42-44. For example, regarding whether or not the left stop switch 42 has been operated, the first area 112a of the left stop detection area is referred to. is stored, it is determined that the left stop switch 42 has not been operated. If none of the stop switches 42 to 44 have been operated, the process returns to the interrupt waiting process of step S1001. If it is determined that any one of the stop switches 42 to 44 has been operated, the process advances to step S1004 to determine whether or not the stop switch corresponding to the rotating reel has been operated, that is, whether or not a stop command has been generated. do. If no stop command has been issued, the process returns to the interrupt waiting process of step S1001. If a stop command has been issued, the process proceeds to step S1005 to determine whether or not the current stop command is the third stop command, that is, whether or not the stop switch has been operated while only one reel is rotating. . If the current stop command is the third stop command, an affirmative determination is made in step S1005, and the pre-stop process ends. On the other hand, in the case of the first stop command generated while all the reels 32L, 32M, 32R are rotating or the second stop command generated while two reels are rotating, NO is determined in step S1005. Along with the determination, the sliding table first change process is performed in step S1006, and the pre-stop process is terminated.

Here, the first slip table change processing is processing for changing the slip table stored in the slip table storage area 106b of the RAM 106 before stopping the reel corresponding to the stop command. In the first change processing of the slide table, for example, when the stop switches 43 and 44 other than the left stop switch 42 are operated and the first stop command is generated, it is assumed that the slide table is set in the slide table storage area 106b. When the stop switches 42-44 are operated in an operation order different from the operation order of the stop switches 42-44, the slide table is changed. By carrying out such processing, it is possible to diversify the number of stop outcomes and to reduce the frequency of occurrence of so-called dropouts in which the winning flag is invalidated without establishing a prize corresponding to the winning flag that has been set. can be done.

Returning to the description of the reel control process, if the pre-stop process is completed in step S902, it means that the stop switch corresponding to the rotating reel has been operated to advance the game, and a stop command has been generated. In such a case, stop control processing shown in steps S903 to S909 is performed to stop the rotating reel.

That is, in step S903, the symbol number of the arrival symbol that has reached the lower row at the timing when the stop switch is operated is confirmed. Specifically, the pattern number of the arrival pattern that has reached the lower stage is confirmed based on the number of excitation pulses output from the time when the detection signal of the reel index sensor is input. In the subsequent step S904, the slip number of the reel to be stopped this time is calculated from the data of the symbol number corresponding to the reached symbol in the slip table set in the slip table storage area 106b. After that, in step S905, the calculated sliding number is added to the symbol number of the arrival symbol, and the symbol number of the stop symbol to be actually stopped in the lower row is determined. In step S906, it is determined whether or not the symbol number of the arrival symbol of the reel to be stopped this time is equal to the symbol number of the stop symbol. conduct. After that, in step S908, it is determined whether or not all the reels 32L, 32M, 32R have stopped. If all the reels 32L, 32M, 32R are not stopped, the slide table second changing process is performed in step S909, and the process returns to the pre-stop process in step S902.

Here, the second slip table change processing is processing for changing the slip table stored in the slip table storage area 106b of the RAM 106 after the reels are stopped. In the second slip table change process, the slip table is changed based on the winning flag that is set and the stop number of the stopped reel. For example, when the bell winning flag is set and the "bell" pattern on the left reel 32L stops at the upper stage, the slide table is changed so that the "bell" pattern on the middle reel 32M stops at the upper or middle stage. By performing such a process, it is possible to diversify the stop numbers of the reels to be stopped after that according to the stop result of the reels, and it is possible to reduce the frequency of occurrence of omissions.

On the other hand, if it is determined in step S908 that all reels 32L, 32M, and 32R are stopped, payout determination processing is performed in step S910, and this processing ends. The payout determination process is a process of setting the number of medals to be paid out, with one of the conditions being that the combination of winning symbols is aligned on the activated line.

In the payout determination process, a combination of symbols formed on each activated line is derived from the symbol number of the stopped symbols stopped on the lower stage of each of the reels 32L, 32M, 32R, and whether or not winning is established on the activated line is determined. judge. If a winning has been established, it is further determined whether or not the winning combination matches the winning flag set in the winning flag storage area 106a. When the winning combination matches the winning flag, the winning combination and the number of payouts corresponding to the winning combination are set in a payout information storage area provided in the RAM 106.例文帳に追加On the other hand, when the winning combination and the winning flag do not match, the slot machine 10 is placed in an error state and an error occurrence processing is performed to report the occurrence of an error. This error state is maintained until the reset switch 72 is operated. When the payout determination is completed for all the activated lines, the payout determination process is terminated.

Next, the outline of the medal payout process in step S507 will be described.

In the medal payout process, it is determined whether or not the number of payouts set in the payout information storage area is zero. If the number of payouts is 0, it means that it has been determined in the previous payout determination process that winning with medals paid out has not been established. In such a case, it is determined whether or not the replay winning has been established based on the winning combination set in the payout determination process. When the re-game win is not established, the medal payout process is terminated as it is, and when the re-game win is established, the re-game setting process is performed to change the game state to the re-game state, and the medal pay-out process is performed. finish. In addition, in the start waiting process S504 described above, when it is determined that the current game state is the replay state, the automatic insertion process is performed.

On the other hand, if the number of payouts set in the payout information storage area is not 0, the same number of medals as the number of payouts is paid out, and the medal payout process is terminated. Specifically, when the count value of the credit counter does not reach the upper limit (the number of accumulated medals is 50), the number of payouts is added to the count value of the credit counter, and the value after the addition is added. It is displayed on the credit display section 60 . When the count value of the credit counter reaches the upper limit, or when the count value reaches the upper limit while adding the number of payouts, the medal payout rotary plate is driven to eject the medals from the hopper device 51. It is paid out to the medal receiving tray 50 through the exit 49. - 特許庁In addition, in the medal payout process, a process of changing the number of payouts displayed on the payout number display section 62 in accordance with the payout of medals is also performed. Further, when the current gaming state is the BB state, the processing of subtracting the number of payouts from the value of the counter for the number of remaining payouts, which will be described later, and the remaining number of payouts displayed on the remaining number of payouts display section 61 is performed. .

Next, the BB state processing of step S508 will be described based on the flowchart of FIG.

Before describing the BB state processing, the BB state will be described. The BB state is composed of multiple RB states. The RB state consists of 12 JAC games. A JAC game is a game in which the probability of establishing a prize (for example, winning a bell) in which the privilege of paying out medals is awarded is very high compared to the normal state. When winning eight times during the JAC game, the RB state ends even before the JAC game is played 12 times. Also, the BB state ends when the number of medals paid out reaches a predetermined number (specifically, 400). In addition, when the number of medals paid out reaches a predetermined number during the RB state, not only the BB state but also the RB state ends. This is a device for suppressing the gambling spirit of the player and securing the soundness of the game by setting an upper limit to the number of medals to be paid out during the BB state. Furthermore, in the present embodiment, the combination of symbols for shifting to the RB state is not set, and the configuration is such that the state shifts to the RB state immediately after shifting to the BB state and immediately after the RB state ends. Therefore, it can be said that the BB state is a game in which the state is continuously shifted to the RB state until a predetermined number of medals are paid out.

Now, in the BB state processing, first, in step S1101, it is determined whether or not the current gaming state is the BB state. If it is not in the BB state, BB determination processing shown in steps S1102 to S1105 is performed.

In the BB determination process, it is determined whether or not the BB winning flag is set in step S1102. If the BB winning flag is set, the process proceeds to step S1103, and it is determined whether or not the BB winning has been established based on the winning combination set in the previous payout determination process. Then, when the BB prize is established, BB start processing is executed to shift the game state to the BB state in step S1104. Specifically, the BB winning flag is cleared, the BB setting flag is set in the state information storage area 106c of the RAM 106, and the game state is changed to the BB state. Further, a processing of setting 400 to a remaining payout number counter for counting the remaining number of medals that can be paid out during the BB state provided in the state information storage area 106c, and displaying 400 on the remaining payout number display section 61. I do. Thereafter, RB start processing is performed in step S1105, and the BB state processing ends. In the RB start process, the RB setting flag is set in the state information storage area 106c of the RAM 106, and the game state is changed to the RB state. In addition, 8 is set to a remaining payout winning counter for counting the number of winnings established in the RB state, and 12 is set to a remaining JAC game counter for counting the number of remaining JAC games. The remaining payout winning counter and the remaining JAC winning counter are provided in the state information storage area 106c. Further, the determination of the current gaming state in step S1101 and the like is executed based on whether or not the setting flag corresponding to the state information storage area 106c is set. determines that the current gaming state is the normal state.

On the other hand, if the BB winning flag is not set (if step S1102 is NO), or if the BB prize is not established (if step S1103 is NO), the BB start process or the like is not executed. End the process.

If it is determined in step S1101 that the current gaming state is the BB state, the process advances to step S1106 to determine whether or not a prize has been established based on the winning combination set in the previous payout determination process. . When the winning is established, the value of the remaining payout winning prize counter is subtracted by 1 in step S1107. After that, or when it is determined in step S1106 that no winning has been established, one JAC game has been completed, so the value of the remaining JAC game counter is decremented by 1 in step S1108. Subsequently, in step S1109, it is determined whether or not either the remaining payout winning prize counter or the remaining JAC game counter has become zero. When either of them is 0, that is, when winning is established 8 times or JAC game is completed 12 times, it means that the conditions for ending the RB state are satisfied. And RB end processing for clearing the value of the remaining JAC game counter is performed. In the following step S1111, it is confirmed whether or not the count value of the remaining payout counter is 0. If it is not 0, it means that the number of medals paid out during the BB state has not reached the predetermined number, and the conditions for ending the BB state have not been met. After performing the processing, this processing ends.

Further, when neither the value of the remaining payout winning prize counter nor the remaining JAC game counter is 0 in step S1109, that is, when winning has not been established 8 times and JAC games have not been completed 12 times, step S1113. , and confirms whether or not the count value of the counter for the number of remaining payouts is 0. If it is not 0, it means that the number of medals paid out during the BB state has not reached the predetermined number, and the BB state end condition is not satisfied, so this processing is terminated as it is. On the other hand, when the count value of the remaining payout number counter is 0, it means that the conditions for ending the BB state have been satisfied, so special game state ending processing shown in steps S1114 and S1115 is performed. In the special game state ending process, first, in step S1114, the aforementioned RB ending process is performed. After that, in step S1115, BB end processing is performed such as appropriately clearing BB setting flags and various counters and performing ending processing. Further, even when the count value of the remaining payout number counter is 0 in step S1111, it means that the condition for ending the BB state is satisfied, so BB end processing is performed in step S1115. After performing the BB end processing, state transition processing is executed in step S1116, and the BB state processing ends. Here, the state transition processing is processing for returning the game state to the normal state. Processing such as waiting until the time (for example, the time until the ending display ends) elapses is performed.

According to the present embodiment described in detail above, the following excellent effects are obtained.

When the start lever 41 is operated and a start command is generated, the count value of the basic random number generator 150 is latched not at the operation timing of the start lever 41 but at the timing after the delay time has passed from the operation timing. It was configured to Since the delay time varies depending on the value of the delay counter 111d, by adopting such a configuration, even if the start lever 41 is operated at a constant cycle, the latch timing of the count value of the basic random number generator 150 can be changed. can be changed. As a result, there is an illegal operation of the start lever 41 aiming at the count value of the basic random number generator 150 when a random number for winning is created using a sensor etc., and a main control at the timing when the count value is generated. It is possible to make it difficult to mount a fraudulent substrate capable of outputting a fraudulent signal that causes the device 101 to erroneously recognize that a start command has been generated, and to make it difficult to fraudulently acquire a random number for winning. becomes possible.

The configuration is such that interrupt waiting processing is performed in normal processing that is repeatedly performed as soon as the power is turned on, and the interrupt waiting processing ends when the value of the update counter 111c changes, that is, when timer interrupt processing is performed. It was configured. In the interrupt waiting process, the value of the delay counter 111d is repeatedly updated until the value of the update counter 111c changes. With such a configuration, the time from the start to the end of the interrupt waiting process can be made random. While timer interrupt processing is periodically performed every 1.49 msec, the timing of starting the interrupt waiting processing, more specifically, the timing of acquiring the value of the update counter 111c in step S402, is from power-on to the interrupt waiting processing. It changes depending on other processing performed up to. Therefore, if the interrupt wait processing is started immediately after the timer interrupt processing ends, the time obtained by subtracting the time required for the timer interrupt processing from 1.49 msec can be secured as the update time of the delay counter 111d. can be updated multiple times, but if the timer interrupt processing is performed immediately after step S402, only the time for updating the delay counter 111d once can be secured. As a result, the number of times the delay counter 111d is updated in the interrupt waiting process can be randomized, and the delay time from the generation of the start command to the output of the latch signal by the CPU 102 can be randomized. be able to.

Certainly, for example, in normal processing, the start timing and end timing of timer interrupt processing are monitored, and the delay counter 111d is updated from the end timing of timer interrupt processing to the start timing of the next timer interrupt processing. It is also possible to configure the start timing of the timer interrupt processing to depend on the end timing of the timer interrupt processing. Even with such a configuration, the time from the start to the end of the interrupt waiting process can be made random, as in the above-described embodiment. However, in such a configuration, since the timer interrupt processing is started every 1.49 msec, there is a time constraint that the start timing of the interrupt wait processing is within 1.49 msec from the start timing of the timer interrupt processing. becomes. In addition, the interval between the start timing of the first interrupt wait process and the start timing of the next interrupt wait process, that is, the start interval of the interrupt wait process, is less than two cycles of the timer interrupt process, that is, less than 2.98 msec. It will happen. Therefore, based on these restrictions, there is a possibility that the count value of the delay counter 111d is illegally targeted so that the delay time from the generation of the start command is constant for each game. On the other hand, in the above-described embodiment, since the start timing of the interrupt wait processing does not depend on the start timing and end timing of the timer interrupt processing, the above restrictions do not occur, and the value of the delay counter 111d is illegally targeted. It is possible to reduce the possibility.

In the normal processing, when the interrupt waiting processing ends, it is configured to determine whether or not the start lever 41 (for example, step S620) or the like is operated using the result of the sensor monitoring processing of the timer interrupt processing. By adopting a configuration in which the determination process is performed after the end of the interrupt waiting process, it is possible to shorten the interval from the end of the timer interrupt process to the execution of the determination process. In a configuration that does not perform interrupt wait processing, the interval is a maximum of 1.49 msec minus the time required for timer interrupt processing. A time obtained by subtracting the time required for timer interrupt processing, and subtracting the time required for performing the processing of steps S403 to S406 once and the time required for performing the processing of step S408 after making a negative determination in step S407. This is because As a result, it is possible to use the result of the sensor monitoring process performed at a closer timing to determine whether the start lever 41 has been operated or not, which relates to the progress of the game, the game situation, and the like. Therefore, it is possible to reduce the time lag that occurs between the operation of the start lever 41 or the like performed by the player and the accompanying progress of the game or the like. As a result, even if the configuration is such that the count value of the basic random number generator 150 is latched after the delay time has elapsed from the generation of the start command, the player is prevented from feeling uncomfortable with the time lag. It becomes possible to

In addition to performing the interrupt waiting process before the operation determination process for determining whether the start lever 41 (for example, step S620) or the like is operated, steps S303 to S308 of the winning probability setting process and the start of the start waiting process It is configured to be performed in a looping process such as the preparatory process (steps S604 to S620). With such a configuration, it is possible to prevent the slot machine 10 from malfunctioning.

Here, consider a configuration in which interrupt wait processing is not performed within the above loop processing.

For example, in the loop process of steps S303 to S308 of the winning probability setting process, it is determined whether or not the reset switch 72 has been operated in step S307, and if it is determined that the reset switch 72 has been operated, the set value is updated. Since the CPU 102 operates when the first clock signal is input, the operating cycle of the CPU 102 is approximately 125 nsec, which is equal to the cycle of the first clock signal. Further, since timer interrupt processing is performed every 1.49 msec, the CPU 102 can perform operations (processing operations) more than 1,000 times between the timer interrupt processing and the next timer interrupt processing. . Therefore, in a configuration in which an interrupt waiting process is not performed in the loop process of the winning probability setting process, for example, if the timer interrupt process is performed immediately before performing the process of step S303, steps S303 to S303 to the next timer interrupt process are performed. The loop processing of S308 can be repeated multiple times.

In the processing of determining whether or not the reset switch 72 has been operated in step S307, all area reference processing is performed. That is, all areas 112a to 112c of the reset detection area are referred to, and if "011" is stored, it is determined that the reset switch 72 has been operated, and if "011" is not stored, the reset switch 72 is not operated. In such a case, in a configuration that does not perform an interrupt wait process, there is a possibility that the determination process of step S307 is performed multiple times under the condition that "011" is stored. It will lead to malfunction that the setting value is updated multiple times even though it is not set.

On the other hand, in a configuration in which an interrupt wait process is performed before determining whether or not the reset switch 72 has been operated, if "011" is stored in the reset detection area, the process of step S307 is performed. When the processing of step S307 is performed next time, "110" or "111" will be stored in the reset detection area, thus avoiding repeated affirmative determination that the reset switch 72 has been operated in step S307. be able to. As a result, it is possible to avoid malfunctions in which the setting value is updated multiple times for one operation of the reset switch 72, and it becomes possible for the manager of the game arcade or the like to set the desired setting value.

Similarly, in the loop processing of pre-start preparation processing S604-S620, it is determined in step S606 whether or not the credit insertion switches 56-58 have been operated, and if it is determined that they have been operated, credit insertion processing is performed in step S612. . In such a loop process as well, in a configuration in which an interrupt wait process is not performed, for example, if a timer interrupt process is performed immediately before performing the process of step S604, the loop process of steps S604 to S620 is repeated before the next timer interrupt process is performed. It is possible to repeat this process multiple times.

In the processing of determining whether or not the credit insertion switches 56 to 58 have been operated in step S606, all area reference processing is performed. That is, all areas 112a to 112c of each credit insertion detection area are referred to, and if "011" is stored, it is determined that the corresponding credit insertion switch has been operated, and if "011" is not stored. It is determined that the corresponding credit input switch is not operated. In such a case, in a configuration that does not perform an interrupt waiting process, there is a possibility that the determination process of step S606 will be performed multiple times under the condition that "011" is stored, and the credit insertion switches 56 to 58 will be operated only once. There is a possibility that it may be determined that multiple operations have been performed even though the user has not This leads to an erroneous operation in which, for example, a plurality of virtual medals are inserted even though the third credit insertion switch 58 is operated to insert only one virtual medal.

On the other hand, in the configuration in which the interrupt waiting process is performed before determining whether or not the credit insertion switches 56 to 58 have been operated, the processing of step S606 is performed under the condition that "011" is stored in the credit insertion detection area. is performed, when the processing of the next step S606 is performed, "110" or "111" will be stored in the credit insertion detection area. Repeated affirmative decisions can be avoided. As a result, it is possible to avoid an erroneous operation in which the virtual medals corresponding to one operation of the credit insertion switches 56 to 58 are inserted a plurality of times, and the virtual medals intended by the player can be inserted. It becomes possible.

The sensor information storage area 112 of the RAM 106 is composed of three storage areas of first to third areas 112a to 112c. With such a configuration, it is possible to store the history of signal input from each detection sensor, and to use the history of signal input to determine whether or not an operation has been performed. Further, by configuring the reset switch 72 and the credit insertion switches 56 to 58 to perform all area reference processing, it is possible to preferably avoid malfunction of the slot machine 10 . If the switches 56 to 58 and 72 are configured to perform one area reference processing, step S307 in the loop processing of steps S303 to S308 of the winning probability setting processing and steps in the loop processing of pre-start preparation processing S604 to S620 In S606, only the first area 112a of the corresponding detection areas is referred to. As described above, the operation cycle of the CPU 102 is sufficiently short compared to the time required from the start of the operation of the switches 56 to 58, 72 to the end thereof. Therefore, when one area reference processing is performed for the switches 56 to 58 and 72, "1" is repeatedly stored in the first area 112a for a certain period of time even if the interrupt wait processing is performed. This is because there is a possibility that it may be determined that a single operation is performed a plurality of times.

The configuration is such that the interrupt waiting process is performed in the preparatory process before starting the normal process. The pre-start preparation process is a process that is repeatedly performed until a start command is issued, and the time from the end of the previous game until the start command is issued varies depending on the timing at which the player operates the start lever 41. . Therefore, the number of pre-start preparation processes performed before the start command is issued is random, and the number of times the interrupt waiting process is performed is also random. As a result, the number of times the delay counter 111d is updated until the start command is generated can be made random.

Here, since the generation timing of the start command depends on the operation of the start lever 41 by the player, the start lever 41 is illegally operated so that the time from the end of the previous game to the generation of the start command is constant. It is possible that it will be manipulated. However, the time required to perform the pre-start preparation process once varies depending on the game situation and the like. For example, even if only the processing time required to bet medals is considered, the time required for credit insertion processing and insertion determination depend on whether the credit insertion switches 56 to 58 were operated or medals were actually inserted. This is because the time required for processing changes. Also, in a configuration that performs an interrupt wait process, it is not possible to fix the processing time required for the interrupt wait process. Even if the lever 41 is illegally operated, it is not possible to fix the number of pre-start preparation processes, that is, the number of interrupt waiting processes, within this time. Therefore, it is possible to make it difficult to illegally operate the start lever 41 aiming at the count value of the delay counter 111d so that the delay time after the generation of the start command is constant for each game.

The interrupt waiting process is configured to be performed from steps S1001 to S1004 in the pre-stop process of the normal process, that is, from when the spinning reel can be stopped until a stop command is issued. The processing from step S1001 to step S1004 is a processing that is repeatedly performed until a stop command is generated. It changes depending on the timing of operating the switches 42-44. For this reason, the number of processing steps S1001 to S1004 performed until a stop command is issued is random, and the number of interrupt waiting processing times is also random. As a result, the number of times the delay counter 111d is updated until a stop command is issued can be made random.

A delay counter 111d is provided in the RAM 106 of the CPU 102, and the CPU 102 updates the delay counter 111d. That is, the configuration is such that the delay period is determined based on the value of the soft free counter. By adopting such a configuration, it is possible to make it difficult for the random number to be selected to be obtained illegally. Certainly, it is possible to adopt a configuration in which the delay period is determined using a count value generated by a hardware counter separate from the CPU 102 . However, with such a configuration, there is a concern that the hardware counter may be changed to an unauthorized hardware counter that outputs only a value of 1, for example. It will be a certain period based on Then, after setting the delay period to a certain period, fraudulent operation of the start lever 41 aiming at the count value of the basic random number generator 150 when the random number for winning is created using a sensor etc. There is concern about the possibility of fraudulent mounting of a fraudulent substrate capable of outputting a fraudulent signal that causes main controller 101 to erroneously recognize that a start command has been generated at the timing when a value is generated. On the other hand, in the configuration in which the delay counter 111d is provided in the RAM 106 of the CPU 102 and the CPU 102 updates the delay counter 111d, unless the CPU 102 itself is changed to an illegal CPU, it is possible to make the illegality difficult. .

The value of the delay counter 111d is configured not to be cleared even when the RAM is cleared. With such a configuration, after inputting an illegal signal indicating RAM clearing to the CPU 102 to change the value of the delay counter 111d to the initial value, the basic random number generator 150, the first It is possible to prevent illegal operation of the start lever 41 aiming at the values of the first counter 111a and the second counter 111b.

A first counter 111a and a second counter 111b are provided in the RAM 106 of the CPU 102, and the count values of these counters 111a and 111b are added to the basic random number generated by the basic random number generator 150 in the random number generation process. With such a configuration, it is possible to make the cycle of creating random numbers and winning random numbers more random than the configuration in which random numbers are created using the count value of a counter of 1. It is possible to make it difficult to illegally obtain a random number that becomes

A first counter 111a and a second counter 111b are provided in the RAM 106 of the CPU 102, and the CPU 102 updates these counters 111a and 111b. That is, the random number is generated by adding the value of the software free counter to the value of the basic random number generator 150, which is a hardware counter. By adopting such a configuration, it is possible to make it difficult for the random number to be selected to be obtained illegally. Certainly, it is possible to employ a configuration in which the count value latched by a hardware random number generator such as the basic random number generator 150 is used as it is as a random number. However, with such a configuration, there is a concern that the hardware random number generator may be changed to an unauthorized hardware random number generator that always outputs a count value that always wins the BB, and if such a change is made , the game hall or the like in which the slot machine 10 is installed will suffer great damage. On the other hand, in the configuration in which the RAM 106 of the CPU 102 is provided with the first counter 111a and the second counter 111b, and the CPU 102 updates these counters 111a and 111b, even if the hardware random number generator is changed to the unauthorized hardware random number generator, the By adding the count values of the 1 counter 111a and the 2nd counter 111b, it is possible to change to a random number that does not result in BB winning.

The values of the first counter 111a and the second counter 111b are not cleared even when the RAM is cleared. With such a configuration, an illegal signal indicating RAM clear is inputted to the CPU 102, the values of the first counter 111a and the second counter 111b are changed to initial values, and the basis for generating the random number to be won. It is possible to prevent illegal operation of the start lever 41 aiming at the values of the random number generator 150, the first counter 111a and the second counter 111b.

In addition, if the count value latched by the hardware random number generator is used as the random number as it is, there is a possibility that the hardware random number generator will be changed to an unauthorized hardware random number generator, and the following problems may occur. be done. That is, in the hardware random number generator, the oscillator periodically outputs a clock signal to the counter, and the counter is updated based on the input of the clock signal. Therefore, if the oscillator stops outputting the clock signal due to a failure or the like, the counter is not updated. Therefore, in the game after the clock signal is no longer output, the same counter value is always used to determine whether a winning combination is right or wrong, and there is concern that the player or the game hall where the slot machine is installed may suffer a disadvantage. be.

Therefore, a monitoring circuit 152 composed of a D flip-flop circuit is provided in the main controller 101, and the D terminal of the monitoring circuit 152 is connected to the start detection sensor 41a, and the CLK terminal is connected to the second clock circuit 151. Then, the CPU 102 was connected to the Q-bar terminal. In such a configuration, when the second clock signal is no longer output from the second clock circuit 151 due to a failure or the like, or when the second clock signal continues to be output, the monitor circuit 152 outputs the second clock signal. Since the input state of the clock signal (more specifically, the inverted clock signal) does not change, no start signal is output to the CPU 102 . Therefore, even if an operation signal is output from the start detection sensor 41a under these circumstances, the reels 32L, 32M, and 32R do not start to rotate, and the player or the game hall where the slot machine 10 is installed is disadvantaged. You can avoid being covered. If the second clock signal is no longer input to the basic random number generator 150 or remains input, random numbers are always generated using the same basic random number in a configuration that allows subsequent games to be played. Because it will happen.

In such a configuration, the player or the manager of the game arcade where the slot machine 10 is installed is instructed that the reels 32L, 32M, and 32R do not start rotating even when the start lever 41 is operated. It is possible to notify that an abnormality has occurred. Therefore, it is possible to quickly discover the occurrence of an abnormality in the second clock circuit 151, and the abnormality in the second clock circuit 151 does not disadvantage the player or the game hall where the slot machine 10 is installed. can be preferably avoided.

Certainly, a monitoring means is provided to monitor whether or not the second clock circuit 151 is periodically outputting the second clock signal. , etc., it is also possible to notify the player or the manager of the game arcade that some kind of abnormality has occurred in the second clock circuit 151 . However, in such a configuration, it becomes necessary to store the program for executing the processing when an abnormality occurs in the main control unit 101 or the CPU 102 itself, and there is concern about an increase in storage capacity. Also, if some kind of abnormality occurs in the monitoring means instead of the second clock circuit 151, the game continues without being able to detect the abnormality despite the occurrence of the abnormality in the second clock circuit 151. There are also concerns about the possibility of it happening.

On the other hand, in the case of the above-described embodiment in which the start detection sensor 41a and the CPU 102 are connected via the monitoring circuit 152, the reels 32L, 32M, and 32R do not start rotating even though the start lever 41 is operated. It is possible to directly notify the operator of the occurrence of an abnormality, and there is no need for the CPU 102 to perform an abnormality occurrence process or the like. In addition, if some abnormality occurs in the monitoring circuit 152 itself, the output states of the start signal and the latch signal will not change, so even in such a case, the player cannot continue the game, thereby notifying the player of the occurrence of the abnormality. Direct notification is possible. Therefore, it is possible to reduce the chances that the player or the game arcade where the slot machine 10 is installed suffers a disadvantage when an abnormality occurs inside the slot machine 10, while resolving the above concerns with a relatively simple configuration. .

In the basic random number generator 150, the count value of the counter 150a is updated at the timing when the second clock signal switches from the non-input state to the input state, and the latch circuit 150b latches the count value when the second clock signal is input. It is configured to be performed at the timing of switching from the input state to the non-input state. With such a configuration, it is possible to avoid the timing of updating the count value and the timing of latching the count value at the same timing, and the latch timing comes while the count value is being updated, and the count value cannot be latched normally. You can avoid problems.

Since the monitor circuit 152 is provided separately from the CPU 102 in the main controller 101, it is possible to notify the abnormality of the slot machine 10 without the CPU 102 monitoring whether the second clock circuit 151 is normal. Therefore, it is possible to reduce the processing load of the CPU 102, eliminate the need for a program for monitoring and controlling the second clock circuit 151, and prevent an increase in the storage capacity of the CPU 102.

Furthermore, even if some abnormality occurs in the monitoring circuit 152 itself instead of the second clock circuit 151, it is possible to easily find the abnormality. That is, when some kind of abnormality occurs in the monitoring circuit 152, the output state of the start signal becomes constant regardless of the input states of the operation signal and the second clock signal. This is because the reels 32L, 32M, and 32R do not start rotating even though the player has operated the start lever 41, or the start signal is output even though the player has not operated the start lever 41. It leads to the occurrence of abnormal events such as being in a state where Therefore, it is possible for a player or a manager of a game arcade to easily find out that something is wrong with the slot machine 10 . As a result, it is possible to avoid problems such as being unable to detect an abnormality in the second clock circuit 151 due to an abnormality occurring in the monitoring circuit 152, and to prevent an abnormality from occurring inside the slot machine 10. It is possible to reduce the chances that the player or the game arcade where the slot machine 10 is installed suffers a disadvantage.

A first clock circuit 103 for inputting a clock signal to the CPU 102 and a second clock circuit 151 for inputting a clock signal to the basic random number generator 150 are separately provided, and the clock signals output from these clock circuits 103 and 151 are It is configured not to synchronize. With this configuration, the timing at which the latch circuit 150b in the basic random number generator 150 latches the count value is synchronized with the acquisition timing at which the CPU 102 acquires the random number from the latch circuit 150b, and the CPU 102 normally acquires the basic random number. It is possible to avoid the problem of not being able to do so.

In the reel control process, it is determined whether or not a stop command has been issued on the condition that the start command has not been issued. That is, when the start command is issued while the reel is rotating, the stop command is invalidated. With such a configuration, even if an abnormality occurs in the second clock circuit 151 while the second clock signal is being output, the abnormality can be found quickly. When the above-mentioned abnormality occurs in the middle of the game, the corresponding reel cannot be stopped even if the stop switch is operated. This is because it is possible to notify that the operation has been performed. In addition, when the abnormality occurs and the reels 32L, 32M, and 32R start rotating under the condition that the start lever 41 is not operated, the player feels a sense of incongruity, but the stop switch 42 is pressed to end the game. The possibility of manipulating ∼44 is conceivable. However, since the corresponding reel cannot be stopped even if the stop switch is operated, it is possible to notify the player or the manager of the game arcade that some kind of abnormality has occurred in the slot machine 10.例文帳に追加

It should be noted that the present invention is not limited to the contents described in the above-described embodiment, and may be implemented as follows, for example.

(1) In the above embodiment, the basic random number generator 150, the first counter 111a, and the second counter 111b are provided. Although the random number is generated by adding the count value of the 2 counter 111b, the configuration is not limited to such a configuration, and the count value of the basic random number generator 150 may be used as it is as the random number. With such a configuration, since the basic random number generator 150 generates a winning count value at a constant cycle, there is a possibility that a fraudulent act will occur in which a start command is issued targeting the count value. However, in the configuration in which the count value of the basic random number generator 150 is latched after the delay time has elapsed since the generation of the start command, even if the start command is generated at a cycle that is a natural number multiple of the cycle, the basic random number The timing for latching the count value of generator 150 can be shifted from the cycle. Therefore, it is possible to make it difficult for the random number to be selected to be obtained illegally.

Alternatively, the basic random number generator 150 may not be provided, and a random number may be generated by adding the count value of the first counter 111a and the count value of the second counter 111b. Needless to say, a configuration in which the random number is used as it is, or a configuration in which the count value of the second counter 111b is used as the random number as it is is also possible.

(2) In the above embodiment, when a start command is issued, the value of the delay counter 111d is subtracted until it reaches zero. It is good also as a structure to perform. Even with such a configuration, it is clear that the same effects as those of the above-described embodiment can be obtained. Also, with such a configuration, it is possible to simplify the program configuration of the delay counter processing.

(3) In the above embodiment, the timer interrupt processing is used to perform the subtraction process until the value of the delay counter 111d becomes 0, but the normal process may be used. Specifically, in the delay processing of the normal processing, after setting the delay flag, processing is performed to subtract 1 from the value of the delay counter 111d, and then it is determined whether or not the value of the delay counter 111d is 0. . Then, when the value of the delay counter 111d is not 0, the subtraction process is repeated until the value of the delay counter 111d becomes 0. With such a configuration, it is possible to shorten the delay time. When the subtraction processing of the delay counter 111d is performed in the timer interrupt processing, the subtraction processing can be performed only every 1.49 msec. , the subtraction process can be performed at intervals of about 125 nsec.

(4) In the above embodiment, when a start command is generated, the latch signal is output after the value of the delay counter 111d becomes 0. However, the configuration is not limited to this. becomes 1, or after the value of the delay counter 111d becomes 10, the latch signal may be outputted. In other words, it is only necessary to output the latch signal after reaching a specific value that is irrelevant to the value of the delay counter 111d at that time.

(5) In the above embodiment, one delay counter 111d is provided in the RAM 106 of the CPU 102, and the value of the delay counter 111d is updated during normal processing and timer interrupt processing. and a delay counter updated in timer interrupt processing may be provided separately.

(6) In the above embodiment, the basic random number generator 150 is provided, and the count value latched by the basic random number generator 150, the count value of the first counter 111a, and the count value of the second counter 111b are added. However, it goes without saying that the random numbers may be generated by subtracting these count values.

(7) The position where the interrupt waiting process is provided in the normal process is arbitrary as long as it is before the process of making a decision using the processing result of the timer interrupt process. Therefore, for example, an interrupt waiting process may be provided between steps S1002 and S1003 in the stop pre-processing, or an interrupt waiting process may be provided in the middle of the input determination process. This is because in the insertion determination process, it is determined whether or not medals have been inserted based on the detection signal from the inserted medal detection sensor 45a.

Further, it may be performed before the process of making a determination using the result of the timer subtraction process instead of the process of making a determination using the result of the sensor monitoring process as described above. For example, in the rotation start process, it is confirmed whether or not a predetermined wait time (for example, 4.1 seconds) has passed since the reel started rotating in the previous game. Therefore, if the timer subtraction process is used to decrement the timer that measures the wait time, the interrupt wait process is performed before checking whether the wait time has elapsed. Alternatively, in a configuration in which a process for determining whether or not the output of a predetermined command has been completed is performed, and if not completed, a standby process may be performed before performing the determination process. . With these configurations, the standby time can be effectively used as the update time of the delay counter 111d.

(8) In the above embodiment, the interrupt waiting process is terminated when the value of the update counter 111c changes, but the amount of change in the value of the update counter 111c is arbitrary. That is, in step S407, a negative determination may be made when the value of the update counter 111c has changed by 3 from the value acquired in step S402, or a negative determination may be made when the value has changed by 1. In other words, in the above-described embodiment, when the value of the update counter 111c changes, a negative determination is made regardless of the amount of change and the interrupt waiting process is terminated. When the value of has changed by the amount of change, that is, when timer interrupt processing has been performed a predetermined number of times, a negative determination may be made and the interrupt waiting processing may be terminated.

(9) In the above embodiment, the first counter 111a updated in timer interrupt processing and the second counter 111b updated in normal processing are separately provided as counters used for generating random numbers. , 1 may be updated in normal processing and timer interrupt processing.

Further, when the above configuration is applied to a gaming machine that does not have a basic random number generator, the value of the counter may be used as it is as a random number, or a predetermined arithmetic process such as inverting the value of the counter may be used. may be used as a random number.

(10) In the above embodiment, the value of the delay counter 111d is updated by 1 each time the pre-start preparation process is performed, except for the number of times the delay counter 111d is updated in the interrupt waiting process. It may be configured to be updated two times, or may be configured to be updated three or more times. That is, the update count or update value of the delay counter 111d for each pre-start preparation process is arbitrary.

(11) In the above embodiment, the process of steps S604 to S620 is looped in the start waiting process, but the process of steps S601 to S620 may be looped. However, if the pre-start preparation process includes the processes of steps S601 to S603, it is determined whether or not it is the first process in the medal acceptance permission process and the automatic insertion process, and it is the first time. If this is the case, the corresponding processing is performed, and if it is not the first time, the processing after that (steps S604 and S607) is performed without performing the corresponding processing. With such a configuration, the time from the start to the end of the pre-start preparation process can be made more indefinite, and the number of times the delay counter 111d is updated until the start command is generated can be made more random. can be

In this way, the pre-start preparation process is a process that starts when the reel is not rotating and ends when a start command is issued, and may be a process that is repeatedly performed until the start command is issued. .

(12) In the above embodiment, the update process is performed by adding or subtracting 1 to the value of the delay counter 111d, but it goes without saying that the update process may be performed by adding or subtracting 2 or more values. stomach. The same applies to the first counter 111a, the second counter 111b, and the counter 150a of the basic random number generator 150. FIG.

(13) The position where the delay counter 111d is updated in the pre-start preparation process is arbitrary. That is, the configuration may be such that the delay counter 111d is updated immediately after the abnormality confirmation process, or the delay counter 111d is updated immediately after the insertion determination process. Even with these configurations, it is clear that the same effects as those of the above-described embodiment can be obtained.

(14) The latch circuit 150b of the basic random number generator 150 and the CPU 102 may be connected in a 16-bit inversion connection.

(15) In the above embodiment, the counter 150a, the first counter 111a, and the second counter 111b of the basic random number generator 150 are each configured with 16 bits, but they may be configured with 8 bits. It may be composed of 4 bits. Moreover, it is good also as a structure with which the number of bits of each counter differs. The same applies to the delay counter 111d. It is not limited to a 4-bit configuration, and may be an 8-bit configuration or a 16-bit configuration. However, when the number of bits of the delay counter 111d is increased, the delay time is lengthened accordingly. Therefore, in such a case, it is desirable to take measures such as increasing the number of places where the subtraction processing of the delay counter 111d is performed in the timer interrupt processing.

(16) In the above embodiment, the values of the first counter 111a, the second counter 111b, and the delay counter 111d are not cleared (initialized) even when the RAM is cleared. Also good.

(17) In the above embodiment, the basic random number generator 150 is provided outside the CPU 102, but it may be built in the CPU 102 as well.

(18) The basic random number generator 150 in the above embodiment latches the count value at the timing when the latch signal from the CPU 102 is input, and outputs the latched count value to the CPU 102, but this configuration is changed. do. For example, the basic random number generator 150 is configured to constantly output the count value of the counter 150a via the latch circuit 150b. That is, the CPU 102 is configured such that the count value of the counter 150a is always input. Then, when the delay time has elapsed, the CPU 102 latches the count value of the counter 150a that is input to the CPU 102 at that time, and acquires it as a basic random number. Even with such a configuration, it is clear that the same effects as those of the above-described embodiment can be obtained.

(19) In the above embodiment, the monitoring circuit 152 composed of the D flip-flop circuit is provided. may be provided.

(20) In the above embodiment, the Q-bar terminal of the monitoring circuit 152 is connected to the CPU 102, and the CPU 102 recognizes the L-level output signal output from the Q-bar terminal as the start signal. It is clear that even if the CPU 102 is connected via an inverter, the same effects as those of the above-described embodiment can be obtained. If the CPU 102 recognizes an H level output signal as a start signal, the Q terminal and the CPU 102 may be connected, or the Q bar terminal and the CPU 102 may be connected via an inverter. .

(21) In the above embodiment, the waveform shaping circuit 153 and the monitoring circuit 152 are connected via the input/output port 104 of the main controller 102. The bar terminal and the CPU 102 may be connected via an input/output port.

(22) In the above embodiment, the monitoring circuit 152 composed of the D flip-flop circuit is provided to avoid the disadvantage to the player or the game arcade when some abnormality occurs in the second clock circuit 151. However, this configuration will be changed.

A watchdog timer for constantly monitoring whether the second clock circuit 151 is periodically outputting the second clock signal is connected to the second clock circuit. The watchdog timer is provided with a timer counter that is decremented every predetermined time, and the timer value of the timer counter is set each time the input state of the clock signal changes. The watchdog timer outputs an H-level normal signal when the timer counter is non-zero, and outputs an L-level abnormality occurrence signal when the timer counter is zero. An AND circuit is provided on the output side of the watchdog timer to calculate the AND of the operation signal from the start detection sensor 41a and the input signal from the watchdog timer. Then, an inverted signal obtained by inverting the output signal from the AND circuit by an inverter is input to the CPU 102 .

In this case, if the second clock circuit 151 periodically outputs the second clock signal, the timer value is repeatedly set in the watchdog timer and the timer counter does not become zero. Therefore, the output signal from the watchdog timer is always at H level, and the output signal from the AND circuit becomes the operation signal itself from the start detection sensor 41a. When the operation signal is output, the output signal is inverted by the inverter and input to the CPU 102 as a start signal.

On the other hand, when the output state of the second clock signal does not change due to the occurrence of an abnormality in the second clock circuit 151, the timer counter in the watchdog timer becomes zero and the output signal becomes L level. Therefore, the output signal of the AND circuit is always at the L level regardless of whether the operation signal is input or not. Therefore, even if the start lever 41 is operated and an operation signal is output, the start signal is not output from the AND circuit to the CPU 102 . As a result, the reels 32L, 32M, and 32R do not start rotating even though the start lever 41 is operated, and the player or the gaming facility is notified that some kind of abnormality has occurred inside the slot machine 10. concerned parties, etc.

Although the watchdog timer is used to determine whether or not the second clock signal is periodically output from the second clock circuit 151, instead of this, the duty ratio of the second clock signal is detected, A duty ratio determination circuit may be provided that outputs an L level signal when the duty ratio is not within a predetermined normal range (for example, a range of 25 to 75%).

Generally, a normal second clock signal is a pulse signal with a duty ratio of 50%. On the other hand, when the output state of the second clock signal stops changing due to some kind of abnormality occurring in the second clock circuit 151, the duty ratio is 0% (constant at L level or at high impedance). ) or approaches 100% (if H level is constant). Therefore, by determining whether the actual duty ratio is within the normal range, it is possible to determine whether the second clock signal is being output periodically. In this configuration, when the output state of the second clock signal does not change, the duty ratio determination circuit outputs an L level signal. Always L level. Therefore, even if the start lever 41 is operated and an operation signal is output, the start signal is not output from the AND circuit to the CPU 102 .

The normal range of the duty ratio of the second clock signal is not limited to the above example, and may be 10 to 90% or 40 to 80%. Also, it is not necessary to symmetrically set 50% of normal operation, and 10 to 60% or 40 to 90% may be used.

(23) In the above embodiment, the basic random number generator 150 updates the count value of the counter 150a based on the input of the second clock signal, and latches the count value of the counter 150a at the timing when the latch signal is input. 150b is latched, the following configuration may be used.

The latch circuit 150b is configured to appropriately replace the bit arrangement of the count value of the counter 150a and then latch it.

A representative example of such a configuration is a configuration in which the latch circuit 150b latches the reversed bit arrangement from the least significant to the most significant count values of the counter 150a. In such a configuration, the value latched by the latch circuit 150b changes irregularly with respect to the input of the second clock signal, thereby preventing the player from intentionally obtaining a predetermined basic random number. can.

Alternatively, the bit arrangement of the value latched by the latch circuit 150b may be changed as appropriate and then output to the CPU 102. FIG. Even with such a configuration, the random number input to the CPU 102 changes irregularly with respect to the second clock signal, and the problem that the predetermined random number is intentionally acquired by the player is avoided. can.

A plurality of clock circuits that output clock signals of different frequencies are provided, and the count value of the counter 150a is updated based on these clock signals.

In this case, a selection circuit is provided for appropriately selecting the clock signal output from which clock circuit to be used, and the clock signal selected by the selection circuit is input to the CLK terminal of the monitoring circuit 152 . In such a configuration, the selection of the clock signal by the selection circuit changes the period in which the count value of the counter 150a goes around, so that it is possible to prevent the player from intentionally obtaining a predetermined basic random number.

Instead of the counter 150a, an arithmetic unit is provided in which the random number changes each time the input state of the second clock signal changes.

Typical examples of such calculators include those that use basic random numbers up to the previous time to determine current basic random numbers, those that generate basic random numbers by the average picking method, and those that generate basic random numbers by adding prime numbers. Examples include: In these configurations as well, since the value latched by the latch circuit 150b changes in a complicated manner based on the change in the input state of the second clock signal, it is possible that the player may intentionally obtain a predetermined basic random number. can be avoided.

(24) In the above embodiment, the second clock circuit 151 for random numbers was provided as a clock source for the hardware basic random number generator 150 in addition to the first clock circuit 103 for the CPU 102. may be used as the clock source. At this time, the clock signal of the first clock circuit 103 may be frequency-modulated (divided, multiplied, etc.). In this case, if the clock signal input to the hardware basic random number generator 150 stops fluctuating due to, for example, an abnormality occurring in the circuit section that performs frequency modulation, the basic random number will always be constant. The abnormality can be found by obtaining the same effect as the embodiment.

(25) In the above embodiment, the second clock signal output from the second clock circuit 151 is input to the basic random number generator 150 and the monitoring circuit 152 without modulating the frequency of the second clock signal. However, it is also possible to adopt a configuration in which a frequency-modulated (divided, multiplied, etc.) signal is input. Specifically, a converter that performs frequency modulation is connected to the second clock circuit 151 , and the converter is connected to the basic random number generator 150 and the monitoring circuit 152 .

(26) In the above embodiment, it is determined whether or not a start command has been issued after three medals have been betted. Needless to say, the configuration may be such that it is determined whether or not an error has occurred. With such a configuration, the slot machine can be operated by performing the interrupt waiting process immediately before the process of determining whether or not the credit insertion switch has been operated (step S606, see FIG. 19) as in the above embodiment. malfunction can be more suitably avoided. This is because there may occur an opportunity that the game cannot be started with the number of bets desired by the player.

(27) In the above-described embodiment, in addition to the privilege of changing the game state and the privilege of replaying, the privilege of paying out medals is provided as the privilege to be granted, but the configuration is limited to such a configuration. Instead, any configuration may be adopted as long as the player is provided with some kind of privilege. For example, instead of paying out medals, prizes other than medals may be paid out. In addition, in a slot machine that does not have actual medal insertion and medal payout functions and that manages the medals owned by the player as credits, an increase in the number of credited medals corresponds to the granting of benefits.

(28) In the above embodiment, the slot machine has three reels arranged in parallel and has five effective lines. It may be a slot machine equipped with a slot machine or a slot machine having 7 activated lines.

(29) In the above embodiments, so-called A-type slot machines have been described, but slot machines with B-type, C-type, combination of A-type and C-type, combination of B-type and C-type, and CT games are also available. It is obvious that the present invention may be applied to any slot machine, such as a slot machine of the type described above, and in any case, the same advantages as those of the above-described embodiment can be obtained. Bonus wins in each of these types include BB wins, RB wins, SB wins, CT wins, and the like.

(30) In the above embodiment, a specific example of the slot machine 10 was shown, but it may be applied to a pachinko machine. Also, the present invention may be applied to a gaming machine in which a slot machine and a pachinko machine are combined. That is, the slot machine may be a game machine having a ball-inserting and ball-paying function like a pachinko machine instead of the medal-inserting and medal-paying functions.

REFERENCE SIGNS LIST 10: slot machine as a game machine 31: reel unit as variable display means 32: reels constituting cyclic display means and as a revolving body 41: start operation means or start lever as start operation means 42- 44... Stop switch as stop operation means, 56... First credit input switch as start operation means or input operation means, 57... Second credit input switch as start operation means or input operation means, 58... Start operation means or Third credit input switch as input operation means 63 Upper lamp constituting auxiliary effect section or auxiliary effect means 64 Speaker constituting auxiliary effect part or auxiliary effect means 65 Assist effect part or auxiliary effect means Auxiliary display section, 81... Display control device as a sub control board, 101... Main control device as a main control board, 102... CPU constituting various control means such as lottery means and main control means, 106... RAM, 111a first counter 111b second counter 111c update counter 111d delay counter 150 basic random number generator as random number generation means 150a counter as numerical information generation means 150b numerical information acquisition means 151 second clock circuit as clock signal output means 152 start signal output means, acquisition signal output means and monitor circuit as clock signal monitor 153 waveform shaping circuit 154 delay means inverter.

Claims (1)

an operating means operated to advance a game;
a signal output means for outputting a first signal when the operation means is operated and not outputting the first signal when the operation means is not operated; In a gaming machine that progresses a game based on the signal input status from
As the operation means, a first operation means operated by the player to accept a first number of game media and a second operation means operated by the player to accept a second number of game media greater than the first number. 2 operation means and a start operation means operated by a player to start a game,
first game starting means for starting a game based on input of a first signal indicating that the start operation means has been operated after receiving the first number of game media;
a second game start means for starting a game based on input of a first signal indicating that the start operation means has been operated after receiving the second number of game media;
Periodic processing executing means for periodically performing periodic processing including status confirmation processing for confirming the status of signal input from the signal output means;
A gaming machine characterized by comprising specific processing execution means for performing specific processing.

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