JP2016036521A - Game machine - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a game machine capable of suppressing complication of a control configuration for performing control in accordance with an abnormal condition.SOLUTION: A CPU for main control performs information determination about whether or not an error number assigned to a detected error state is within a range that includes error numbers (error numbers E3 to E7) assigned to an error state classifiable into a specific system and does not include error numbers (error numbers E1, E2) assigned to an error state classifiable into a non-specific system. The CPU for main control is configured to perform control in accordance with the specific system when a result of the information determination is affirmative.SELECTED DRAWING: Figure 14

Description

  The present invention relates to a gaming machine capable of detecting an abnormal state and executing control according to the detected abnormal state system.

  Conventionally, slot machines (rotating-type gaming machines) and pachinko gaming machines, which are a type of gaming machine, detect abnormal states using various sensors and execute control according to the system of the detected abnormal states doing. For example, in the gaming machine described in Patent Document 1, when an abnormal state is detected, control for notifying that an abnormal state has occurred, or control for terminating the notification on the condition of operation of a release switch, is performed. .

JP 2011-246 A

  However, in recent gaming machines, abnormal states to be detected tend to be diversified due to strengthening countermeasures against illegal gaming acts (so-called goto acts) and complexity of the gaming machine structure. There is a possibility that the control configuration for executing the control according to the abnormal state becomes complicated.

  This invention was made paying attention to the problem which exists in the said prior art, The objective is the game machine which can suppress that the control structure for performing control according to abnormal condition is complicated. It is to provide.

  A gaming machine that solves the above problems includes a detection unit that detects an abnormal state, an information storage unit that can store information assigned to each of a plurality of types of abnormal states, and an abnormal state detected by the detection unit. A first control unit capable of controlling the assigned information to be stored in the information storage unit; and a second control unit configured to execute various controls based on the information stored in the information storage unit. The abnormal state can be classified into a plurality of systems with different contents of control executed by the second control means, and the plurality of systems include a specific system that can classify a plurality of types of abnormal states. The second control means includes a non-specific system in which the information stored in the information storage means includes information assigned to an abnormal state that can be classified into the specific system and is different from the specific system. Classification possible It is configured to perform information determination as to whether or not the information allocated to the abnormal state is within a range that does not include information, and to perform control according to the specific system when the result of the information determination is affirmative This is the gist.

  Regarding the gaming machine, the information assigned to the abnormal state is a numerical value, and the second control means has a numerical value stored as the information in the information storage means within a range from a first numerical value to a second numerical value. It is preferable to execute the information determination depending on whether or not.

  For the gaming machine, the control according to each system includes notification control for notifying the occurrence of an abnormal condition and stop control for stopping the notification, and the second control means can be classified into the specific system When the information assigned to the abnormal state is stored in the information storage means, the stop control is executed on the condition that the first stop operation has been accepted, while the abnormality that can be classified into the non-specific system When the information assigned to the state is stored in the information storage means, it is preferable to execute the stop control on condition that a second stop operation different from the first stop operation is received.

  In the gaming machine, the first stop operation is an operation of a first operation means disposed inside the machine, and the second stop operation is an operation of a second operation means disposed on the front side of the machine. Preferably there is.

  Regarding the gaming machine, the abnormal state that can be classified into the specific system includes at least one of an abnormal state related to the insertion of a game medium and an abnormal state related to a payout of the game medium, and the second control means When information assigned to an abnormal state that can be classified into a system is stored in the information storage means, in addition to accepting the first stop operation, on condition that a predetermined period has passed If the information storage means stores information assigned to an abnormal state that can be classified into the non-specific system while executing the stop control, the second stop is performed regardless of the predetermined period. It is preferable to execute the stop control on condition that the operation is accepted.

  The gaming machine further includes a game medium insertion port, and a game medium detection unit capable of detecting the game medium inserted from the insertion port, wherein the detection unit has a detection mode in advance by the game medium detection unit. It is preferable that a difference from a predetermined detection mode is detected as the abnormal state, and the abnormal state can be classified into the specific system.

  The gaming machine further includes a payout device for paying out game media, and payout detection means capable of detecting a game medium payout from the payout device, wherein the detection means is a game medium by the payout detection means. It is preferable to detect that the detection mode is different from a predetermined detection mode as the abnormal state, and the abnormal state can be classified into the specific system.

  The gaming machine further includes a payout device that includes a storage unit for storing game media and performs a payout operation for paying out the game media stored in the storage unit, and the detection means stores the game media in the storage unit. Preferably, the abnormal state is detected as the abnormal state, and the abnormal state can be classified into the non-specific system.

  The gaming machine further includes a storage unit that stores the game medium that has been input, and an auxiliary storage unit that stores the game medium overflowing from the storage unit, wherein the detection unit is stored in the auxiliary storage unit It is preferable to detect that the game medium has reached a predetermined amount as the abnormal state, and the abnormal state can be classified into the non-specific system.

  Regarding the gaming machine, a gaming medium slot, a selector capable of receiving the gaming medium inserted from the slot, a guide passage for guiding the gaming medium that has passed through the selector to a predetermined storage unit, and the selector A first game medium detecting means provided and capable of detecting a game medium inserted from the insertion port; and a second game medium detecting means provided in the guide passage and capable of detecting the game medium, and further comprising: Based on the detection result by the first game medium detection means and the detection result by the second game medium detection means, the means is for game media that have been inserted from the insertion port but have not reached the storage section. It is preferable that the number of game media is estimated and that the estimated number of game media is a predetermined number is detected as the abnormal state, and the abnormal state can be classified into the specific system.

  ADVANTAGE OF THE INVENTION According to this invention, it can suppress that the control structure for performing control according to an abnormal state becomes complicated.

The schematic diagram which shows the front of a slot machine. The schematic diagram which shows the back side of a front door. The schematic diagram which expands and shows a selector. The schematic diagram which shows the inside of a slot machine. The block diagram which shows the electrical constitution of a slot machine. The flowchart which shows a game progress main process. The flowchart which shows an input error check process. The flowchart which shows a game start set process. The flowchart which shows medal management processing. The flowchart which shows an insertion check process. The flowchart which shows an error display setting process. The flowchart which shows medal payout processing. The flowchart which shows an overflow detection process. The flowchart which shows an error display process. The schematic diagram for demonstrating the relationship between the kind of error, and the cancellation | release method of error alerting | reporting.

  Hereinafter, an embodiment of a slot machine (rotating type gaming machine) which is a kind of gaming machine will be described. In the present specification, “up”, “down”, “right”, “left”, “front”, and “rear (back)” indicate respective directions when the slot machine is viewed from the front.

  As shown in FIG. 1, the slot machine 10 includes a rectangular parallelepiped main body 11 having an opening on the front surface, and a front door 12 pivotally supported on one side edge of the main body 11. Yes. In the upper part of the front face of the front door 12, an effect display device 14 that performs a display effect as a game effect is disposed. The effect display device 14 is, for example, a liquid crystal display capable of displaying a highly transmissive image so that a drum unit 13 described later can be seen through. As will be described later, in the effect display device 14 of the present embodiment, error notification is performed as an abnormality notification for notifying various abnormal states (error states) that have occurred in the slot machine 10. Further, the front door 12 is provided with a lamp LA that performs a light emission effect as a game effect and a speaker SP that performs a sound effect as a game effect.

  A center panel is provided on the back side of the effect display device 14, and the center panel has a see-through window 16 (each see-through window 16L, 16C, 16R). The drum unit 13 includes a left reel 13L, a middle reel 13C, and a right reel 13R. A plurality of types of identification symbols (hereinafter simply referred to as “symbols”) are arranged along the outer peripheral surface of each reel 13L, 13C, 13R.

  Each of the reels 13L, 13C, 13R is independently rotated and stopped in the vertical direction by a stepping motor provided corresponding to each reel. In the present embodiment, as the reels 13L, 13C, and 13R rotate, the symbols are variably displayed (scrolled) in the vertical direction from the top to the bottom in the see-through window 16, and a variation game as a game is performed. . Each reel 13L, 13C, 13R is provided with reel sensors SE1, SE2, SE3 (shown in FIG. 5) for detecting the rotation position separately. In the slot machine 10, a symbol stop line NL for defining a combination of symbols to be stopped and displayed is set in a symbol display area that can be seen through the perspective window 16. The symbol stop line NL is an effective line that can determine that a combination of symbols that are stopped and displayed is a prize.

  In addition, on the front surface of the front door 12, various information display units 17 that notify various information related to the variable game are disposed on the lower left side of the center panel. The various information display unit 17 includes a throwable display lamp, a replay display lamp, a weight display lamp, a status lamp, a bet number display unit, a stored number display unit, a prize number display unit, a game information display unit, and an error. A display unit 26 is provided.

  The throwable display lamp is turned on when the slot machine 10 is in the throwable request state. Here, the insertion request possible state is a state in which a medal as a game medium can be betted, and the inserted medal can be stored in the slot machine 10 as a credit. On the other hand, the input enabling display lamp is turned off when the slot machine 10 is in the input request disabled state. Here, the insertion request impossible state is a state in which a variable game is being executed, a state in which the maximum number of medals that can be bet in a single variable game have been bet and the credit has reached the upper limit number, Is operating. In the following description, the number of medals bet in the variable game is referred to as “bet number (bet number)”, and the maximum number of medals allowed to bet in one game is represented as “maximum bet number (maximum bet number)”. ".

  The replay display lamp is lit when a replay combination as a replay combination is won in a variable game (when a replay is activated). The weight display lamp is turned on when a start operation is detected during the wait time, and is turned off after the wait time has elapsed. The wait time is the shortest game time that is set to restrict the floating game from progressing too quickly. When a start operation is detected during this wait time, each reel is played after the wait time has elapsed. Is set to start rotating. The status lamp is turned on / off in accordance with the progress of the variable game.

  Further, the bet number display unit is composed of three light emitting units, and the lamp is turned on according to the bet number of the variable game. One lamp is lit for one bet, two lamps are lit for two bets, and all lamps are lit for three bets. The stored number display section displays the number of credits stored in the machine. The award number display portion displays the number of medals awarded to the player based on the winning when a winning occurs during the variable game. Further, the error display unit 26 can perform error notification in a manner of displaying an error number that can identify various error states that have occurred in the slot machine 10.

  In addition, on the front surface of the front door 12, a medal slot 18 as a medal slot is provided at the lower right of the center panel. Further, on the front surface of the front door 12, a MAXBET button 20 is disposed on the lower left side of the center panel. The MAXBET button 20 is a button that is operated when betting a medal amount up to the maximum bet number from the credit stored in the slot machine 10.

  Further, on the front surface of the front door 12, a checkout button 21 is disposed on the lower left side of the MAXBET button 20. The settlement button 21 is a switch operated when paying back a bet medal or a credit stored in the machine.

  A start lever 22 that is operated by the player when starting the variable game is disposed on the right side of the checkout button 21. The start lever 22 of the present embodiment functions as a start operation means capable of starting operation to start a variable game. Further, stop buttons 23L, 23C, and 23R are disposed on the right side of the start lever 22. Each of the stop buttons 23L, 23C, and 23R is associated with each of the reels 13L, 13C, and 13R, and a stop operation that triggers the display and winning (winning) of the symbols on the associated rotating reels. Each is possible.

  In addition, a medal discharge port 24 is provided at the lower center of the front surface of the front door 12. In addition, a tray 25 for receiving medals discharged from the medal discharge port 24 is disposed at the lower part of the front surface of the front door 12.

  In addition, an open lock 12 a for opening the front door 12 is disposed on the front surface of the front door 12. When the slot machine 10 is operated in the first direction (in this embodiment, counterclockwise) with the key that matches the unlocking lock 12a inserted into the unlocking lock 12a, the unlocking by the unlocking lock 12a is released, The front door 12 can be opened. The unlocking lock 12a is provided with a door opening sensor SE10 (shown in FIG. 5) that detects that the unlocking lock 12a is unlocked, that is, the front door 12 is opened. Further, the unlocking lock 12a of the present embodiment is also used as the first error release switch SW1 for releasing various error notifications. In the slot machine 10 of the present embodiment, a predetermined error notification can be canceled by operating in the second direction (clockwise in the present embodiment) with the key inserted into the unlocked lock 12a. The first error release switch SW1 (open lock 12a) of the present embodiment functions as second operation means disposed on the front side of the machine.

  As shown in FIGS. 2 and 3, a selector 30 is disposed on the back surface of the front door 12 so as to receive a medal inserted from the medal slot 18. The selector 30 includes a first passage 31 through which medals inserted from the medal insertion slot 18 can pass downward, and a second passage 32 through which medals can pass toward the left side (right side in the drawing). It is provided as a branch passage. In the second passage 32, a blocker 33 is disposed on the downstream side from the branch point of each passage 31, 32. The blocker 33 is in a first state (ON state) in which a medal inserted from the medal slot 18 can be received in the second passage 32 by an operation of a solenoid (not shown), and a medal cannot be received in the second passage 32. It can be displaced to a second state (OFF state) for guiding to the first passage 31.

  As shown in FIG. 3, the selector 30 is provided with a first insertion sensor SE4, a second insertion sensor SE5, and a third insertion sensor SE6 as sensors for detecting medals. The input sensors SE4 and SE5 are disposed on the downstream side of the blocker 33 in the second passage 32. The first input sensor SE4 is disposed upstream of the second input sensor SE5. The third insertion sensor SE6 is arranged on the medal insertion port 18 side, that is, upstream from the branch point of each of the passages 31 and 32. Each throwing sensor SE4, SE5 is, for example, a photo sensor, and the third throwing sensor SE6 is, for example, a mechanical switch. Each of the insertion sensors SE4 to SE6 of the present embodiment functions as a game medium detection unit and a first game medium detection unit that can detect medals passing through the selector 30.

  As shown in FIG. 2, a guide passage 34a for guiding medals discharged from the selector 30 through the second passage 32 to a hopper 35 (shown in FIG. 4) to be described later is arranged on the back surface of the front door 12. It is installed. On the back surface of the front door 12, a discharge passage 34 b that guides medals discharged from the selector 30 through the first passage 31 to the medal discharge port 24 is disposed. The discharge passage 34b is provided with a receiving port 34c for receiving medals paid out from the hopper 35. Further, on the back surface of the front door 12, a second error cancel switch SW2 for canceling various error notifications is provided. Since the second error release switch SW2 is disposed on the rear surface of the front door 12, it cannot be operated unless the front door 12 is opened in principle. The second error cancel switch SW2 of the present embodiment functions as a first operating means disposed inside the machine.

  A fourth insertion sensor SE7 for detecting medals is disposed at the downstream end of the guide passage 34a. The fourth input sensor SE7 is, for example, a mechanical switch. The fourth insertion sensor SE7 of the present embodiment functions as a game medium detection unit and a second game medium detection unit that can detect medals passing through the guide passage 34a.

  As shown in FIG. 4, a hopper 35 is disposed below the drum unit 13 inside the slot machine 10 (main body 11). The hopper 35 has a storage part 35a for storing medals and a payout opening 35b for paying out medals. The hopper 35 includes a rotating body that pays out medals stored in the storage portion 35a toward the receiving port 34c by rotating, and a motor that rotates the rotating body (none of which is shown). . The hopper 35 of the present embodiment functions as a payout device that performs a medal payout operation.

  The hopper 35 is provided with a payout sensor SE8 as a payout detecting means capable of detecting a medal paid out from the payout outlet 35b or detecting that a medal has been paid out. The hopper 35 pays out medals stored in the storage unit 35a on condition that the combination of symbols derived and displayed on the reels 13L, 13C, and 13R is a predetermined combination of symbols.

  Inside the slot machine 10 (main body 11), an auxiliary storage part 36 for storing medals overflowing from the storage part 35 a is disposed on the right side of the hopper 35. The auxiliary storage unit 36 is provided with an auxiliary storage sensor SE9 (shown in FIG. 5) that detects that medals stored in the auxiliary storage unit 36 have exceeded a predetermined amount.

Next, the electrical configuration of the slot machine 10 will be described.
As shown in FIG. 5, a main control board 40 that performs various processes relating to the progress of the game and outputs a control signal (control command) according to the processing result is disposed inside the slot machine 10. ing. In addition, an effect control board 41 that performs various processes relating to the execution of the game effect based on various control signals input from the main control board 40 is disposed inside the slot machine 10. The effect control board 41 controls the execution of the display effect by the effect display device 14, the light emission effect by the lamp LA, and the sound effect by the speaker SP.

First, the main control board 40 will be described in detail.
The main control board 40 includes a main control CPU 40a that executes control operations in a predetermined procedure, a main control ROM 40b that stores a control program for the main control CPU 40a, and a main control RAM 40c that can write and read necessary data. And. Reel sensors SE1 to SE3, input sensors SE4 to SE7, payout sensor SE8, auxiliary storage sensor SE9, and door opening sensor SE10 are connected to the main control CPU 40a. The error control switches SW1 and SW2 are connected to the main control CPU 40a. Various information display units 17 (error display units 26) are connected to the main control CPU 40a. Connected to the main control CPU 40a are a MAXBET button 20, a settlement button 21, a start lever 22, stop buttons 23L, 23C, and 23R, and a hopper 35.

  When a medal is detected in each of the insertion sensors SE4 to SE7, the payout sensor SE8, the auxiliary storage sensor SE9, and the door opening sensor SE10, a medal detection signal indicating that the medal has been detected is input to the main control CPU 40a. The When the error release switches SW1 and SW2 are operated, an operation signal indicating that each error release switch has been operated is input to the main control CPU 40a. When the MAXBET button 20, the settlement button 21, the start lever 22, and the stop buttons 23L, 23C, and 23R are operated, various operation signals indicating that each button has been operated are input to the main control CPU 40a. To the main control CPU 40a, a symbol signal for specifying a symbol passing through the symbol stop line NL or a symbol stopped on the symbol stop line NL is input from the reel sensors SE1 to SE3.

  The main control CPU 40a is connected to a stepping motor that drives the left reel 13L, a stepping motor that drives the middle reel 13C, and a stepping motor that drives the right reel 13R (not shown). The main control CPU 40a drives each stepping motor by switching the excitation state by outputting a drive signal (pulse) every predetermined period, and rotates and stops each reel 13L, 13C, 13R separately. .

  Further, the main control CPU 40a executes random number generation processing for updating various random number values used for various lotteries every predetermined control cycle. The random number generated by the random number generation process includes a winning information determination random number used to determine winning information (for example, a winning number) that can identify a combination (combination) of symbols that can be derived and displayed in a variable game. . In the slot machine 10 of the present embodiment, each winning information is associated with one or more combinations of symbols that can be derived and displayed in the variable game.

  The main control ROM 40b stores a main control program. In addition, the main control ROM 40b stores various tables used for executing processing relating to the variable game. Examples of such a table include a winning information determination table for determining winning information from a plurality of winning information. In addition, the main control RAM 40c stores various information such as the above-described credits that can be appropriately rewritten during the operation of the slot machine 10.

Next, the effect control board 41 will be described in detail.
The effect control board 41 includes an effect control CPU 41a that executes control operations in a predetermined procedure, an effect control ROM 41b that stores a control program for the effect control CPU 41a, and an effect control RAM 41c that can write and read necessary data. Is provided. The effect display device 14, the lamp LA, and the speaker SP are connected to the effect control CPU 41a.

  The effect control CPU 41a executes random number update processing (random number generation processing) for updating various random number values used in various lotteries at predetermined intervals. In addition, an effect control program is stored in the effect control ROM 41b. In addition, the effect control ROM 41b includes a display effect pattern that can specify the display effect mode of the effect display device 14, an audio effect pattern that can specify the sound effect mode of the speaker SP, and the light emission effect mode of the lamp LA. An illuminating effect pattern that can be specified is stored. The effect control RAM 41c stores various information that can be appropriately rewritten during the operation of the slot machine 10. For example, in the effect control RAM 41c, state information (such as a flag) related to the internal state is stored (set) by the effect control CPU 41a.

  Then, the effect control CPU 41a controls the effect display device 14, the lamp LA, and the speaker SP so as to execute a game effect based on various commands input from the main control board 40 (main control CPU 40a). In the game effect, for example, an effect that informs the player of the pressing order of the stop buttons 23L, 23C, and 23R for deriving and displaying a combination of symbols corresponding to a predetermined role, and an operation of the start lever 22 are derived and displayed. There is an effect that suggests a combination (role) of the symbols determined as possible. In addition, the effect control CPU 41a can also make a game effect corresponding to the internal state of the slot machine 10 such as during a bonus game.

Hereinafter, the process (game progress main process) regarding the variable game executed by the main control CPU 40a based on the main control program will be described.
As shown in FIG. 6, the main control CPU 40a performs a game start set process (step Sm1). Details of the game start set process will be described later. Next, the main control CPU 40a starts accepting bets for medals (step Sm2). Next, the main control CPU 40a checks the gaming state of the slot machine 10 (step Sm3). In step Sm3, the main control CPU 40a specifies whether or not the gaming state of the slot machine 10 is a bonus game.

  Next, the main control CPU 40a determines whether or not it is a re-game operation (step Sm4). The main control CPU 40a sets medal management for setting the number of bets in the current variable game based on the input of medal detection signals from the respective insertion sensors SE4 to SE7, etc., when it is not during the re-game operation (step Sm4: NO). Processing is performed (step Sm5). Details of the medal management process will be described later.

  The main control CPU 40a notifies the error state (abnormal state) occurring in the slot machine 10 when it is during re-playing operation (step Sm4: YES) or when the process of step Sm5 is terminated. Display setting processing is performed (step Sm6). Details of the error display setting process will be described later. Next, the main control CPU 40a determines whether or not the bet number in the current variation game matches the maximum bet number (step Sm7). When the re-playing operation is being performed (step Sm4: YES), the main control CPU 40a resets the bet number in the previous variation game as the bet number in the current variation game in the main control RAM 40c.

  When the bet number in the current variation game does not match the maximum bet number (step Sm7: NO), the main control CPU 40a proceeds to the process of step Sm3. That is, in step Sm7, the main control CPU 40a determines whether or not it is in a state where a variable game can be started. On the other hand, when the bet number in the current variation game matches the maximum bet number (step Sm7: YES), the main control CPU 40a determines whether or not a start operation by the start lever 22 has been accepted (step Sm8). In step Sm8, the main control CPU 40a makes an affirmative determination when an operation signal is input from the start lever 22, and makes a negative determination when an operation signal is not input from the start lever 22. When the start operation is not received (step Sm8: NO), the main control CPU 40a proceeds to the process of step Sm3.

  On the other hand, when the start operation is accepted (step Sm8: YES), the main control CPU 40a determines whether or not the number of inserted medals is normal (step Sm9). If the number of inserted medals is not normal (step Sm9: NO), the main control CPU 40a performs a process of displaying an unrecoverable error (step Sm10). “EE” is set as the error number for the unrecoverable error. In step Sm10, the main control CPU 40a controls the display content of the error display unit 26 so that the characters “EE” are displayed as information (error number) that can specify that an abnormality in the number of inserted medals has occurred. To do. Further, the main control CPU 40a generates a control command (hereinafter referred to as a notification start command) for instructing to start display of an error notification corresponding to an abnormality in the number of inserted medals, and sets it in a predetermined output buffer. Thereafter, the main control CPU 40a stands by until the power is turned off.

  When the number of medals inserted is normal (step Sm9: YES), the main control CPU 40a determines winning information (step Sm11). In step Sm11, the main control CPU 40a acquires the value of the winning information determination random number from the main control RAM 40c, and determines one winning information by lottery based on the acquired value of the winning information determination random number. To do. The process of step Sm11 is a role lottery (internal lottery) performed internally in the slot machine 10.

  Next, the main control CPU 40a determines whether or not the shortest game time (wait time) has elapsed (step Sm12). When the shortest game time has not elapsed (step Sm12: NO), the main control CPU 40a waits until the shortest game time has elapsed. When the shortest game time has elapsed (step Sm12: YES), the main control CPU 40a outputs a control signal to each stepping motor to start rotation (rotation) of each reel 13L, 13C, 13R, and fluctuates. The game is started (step Sm13).

  Subsequently, the main control CPU 40a determines whether or not a stop operation by any of the stop buttons 23L, 23C, and 23R has been received (step Sm14). In step Sm14, the main control CPU 40a makes an affirmative determination when an operation signal is input from any one of the stop buttons 23L, 23C, and 23R, and inputs an operation signal from any one of the stop buttons 23L, 23C, and 23R. If not, a negative determination is made.

  When the stop operation is accepted (step Sm14: YES), the main control CPU 40a determines the symbol to be stopped and displayed on the winning line based on the determined winning information and the operation timing of the stop button. The symbol combination control for stopping and displaying the symbol that has been displayed on the winning line is executed (step Sm15).

  When the stop operation has not been received (step Sm14: NO) and when the process of step Sm15 has been completed, the main control CPU 40a determines whether or not all of the reels 13L, 13C, and 13R have been stopped (step). Sm16). When one or more of the reels 13L, 13C, and 13R are not stopped (step Sm16: NO), the main control CPU 40a proceeds to the process of step Sm14. On the other hand, when all of the reels 13L, 13C, and 13R are stopped (step Sm16: YES), the main control CPU 40a is an error for notifying an error state (abnormal state) occurring in the slot machine 10. Display setting processing is performed (step Sm17). Details of the error display setting process will be described later.

  Next, the main control CPU 40a determines whether or not the combination of symbols stopped and displayed on the symbol stop line NL corresponds to any combination in each reel, and if it corresponds, Display symbol determination is performed to determine (step Sm18). That is, in step Sm18, the main control CPU 40a determines whether or not a winning combination that can be identified from the winning information determined in the process of step Sm11 is actually won and whether or not the winning combination is won. .

  Next, the main control CPU 40a determines whether or not to pay out medals to the player (step Sm19). In step Sm19, the main control CPU 40a makes an affirmative determination when winning a payout combination, but makes a negative determination when not winning a payout combination. When a medal is paid out (step Sm19: YES), the main control CPU 40a executes a medal payout process for driving the hopper 35 to pay out a medal (step Sm20). Details of the medal payout process will be described later. At this time, the main control CPU 40a stores in the main control RAM 40c the payout number of medals set in the winning payout combination as the payout remaining number. As described above, in the slot machine 10, medals can be paid out as a predetermined game value in accordance with a combination of symbols derived and displayed on the symbol stop line NL.

  The main control CPU 40a executes an overflow detection process for detecting whether or not the auxiliary storage unit 36 is full when the medal is not paid out (step Sm19: NO) and when the process of step Sm20 is completed. (Step Sm21). Details of this overflow detection processing will be described later.

  Then, the main control CPU 40a performs end processing for ending one variation game (step Sm22). That is, in the slot machine 10 of the present embodiment, the game can be ended by displaying the combination of symbols. In the end process of step Sm22, the main control CPU 40a gives the effect control board 41 a control for shifting the internal state according to the combination (combination) of the symbol determined to be a winning or a winning instruction command indicating that the winning is determined. Control to output. This winning instruction command causes the effect control board 41 to recognize the winning combination of the combination indicated by the variable game start command. Thereafter, the main control CPU 40a ends the game progress main process related to the execution of one variation game, and again proceeds to the process of step Sm1.

Next, the selector check process will be described. The main control CPU 40a executes a selector check process every predetermined control cycle.
In the selector check process, the main control CPU 40a determines whether or not the third insertion sensor SE6 is turned on, that is, whether or not a medal detection signal is input from the third insertion sensor SE6. When the third input sensor SE6 is not ON, the main control CPU 40a ends the selector check process. On the other hand, when the third insertion sensor SE6 is ON, the main control CPU 40a updates the medal counter value stored in the main control RAM 40c by adding 1. Here, the medal counter is information that can identify the number of medals detected by the third insertion sensor SE6 but not detected by the insertion sensors SE4 and SE5. Thereafter, the main control CPU 40a ends the selector check process.

Next, the input error check process will be described. The main control CPU 40a executes an input error check process every predetermined control cycle.
As shown in FIG. 7, the main control CPU 40a determines whether or not the third closing sensor SE6 is turned on (step Sa1). In the process of step Sa1, the main control CPU 40a makes an affirmative determination when a medal detection signal is input from the third insertion sensor SE6, but makes a negative determination when no medal detection signal is input. When the third closing sensor SE6 is ON (step Sa1: YES), the main control CPU 40a reads the monitoring timer for the third closing sensor SE6 stored in the main control RAM 40c (step Sa2). Note that the main control CPU 40a, in a process different from the input error check process, triggers the monitoring timer for the third input sensor SE6 when the third input sensor SE6 shifts from the OFF state to the ON state. The value (1 second) is stored in the main control RAM 40c. Then, the main control CPU 40a, in a process different from the input error check process, updates the time corresponding to the control period by subtracting it from the monitoring timer for the third input sensor SE6 for each control period. ing.

  Next, the main control CPU 40a determines whether or not the monitoring timer for the third closing sensor SE6 has expired (step Sa3). In the process of step Sa3, the main control CPU 40a makes an affirmative determination when the read monitoring timer value for the third closing sensor SE6 is zero, while the monitoring timer for the third closing sensor SE6 If the value is not zero, a negative determination is made.

  When the monitoring timer for the third insertion sensor SE6 has expired (step Sa3: YES), the main control CPU 40a uses the first medal clogging flag as information that can specify that a medal clogging has occurred in the selector 30. It is set in the control RAM 40c (step Sa4). In the present embodiment, a medal detection mode in which it is determined in advance that the third insertion sensor SE6 is turned off after the third insertion sensor SE6 is turned on and before the monitoring timer for the third insertion sensor SE6 is ended. Become. On the other hand, when the third closing sensor SE6 is not ON (step Sa1: NO), the main control CPU 40a clears the value of the monitoring timer for the third closing sensor SE6 stored in the main control RAM 40c ( Step Sa5).

  When the monitoring timer has not expired (step Sa3: NO), when the process of step Sa4 is terminated, or when the process of step Sa5 is terminated, the main control CPU 40a determines whether or not the medal payout operation is being performed. Determination is made (step Sa6). When the medal payout operation is not in progress (step Sa6: NO), the main control CPU 40a determines whether or not the payout sensor SE8 is turned on (step Sa7). In step Sa7, the main control CPU 40a makes an affirmative determination when a medal detection signal is input from the payout sensor SE8, while a negative determination is made when no medal detection signal is input from the payout sensor SE8.

  When the payout sensor SE8 is turned on (step Sa7: YES), the main control CPU 40a can identify information indicating that an illegal payout in which medals are paid out has occurred even though the hopper 35 is not in the medal payout operation. An unauthorized payout flag is set (set) in the main control RAM 40c (step Sa8).

  When the medal payout operation is in progress (step Sa6: YES), when the payout sensor SE8 is not ON (step Sa7: NO), or when the processing of step Sa8 is completed, the main control CPU 40a receives the second insertion sensor. It is determined whether or not the difference in the number of detected medals between SE5 and the fourth insertion sensor SE7 is equal to or greater than a specified number (step Sa9). In a process different from the input error check process, the main control CPU 40a detects a medal in the second insertion sensor SE5 when the second insertion sensor SE5 shifts from the OFF state to the ON state. . Further, the main control CPU 40a detects a medal in the fourth insertion sensor SE7 when the fourth insertion sensor SE7 shifts from the OFF state to the ON state. Then, the main control CPU 40a counts the difference in the number of detections of each medal (medal detection difference), stores it in the main control RAM 40c, and determines whether or not the specified number is exceeded. As a specific example, when the main control CPU 40a detects a medal in the second insertion sensor SE5, the main control CPU 40a increments the detection number counter assigned to the main control RAM 40c by “1”, while the fourth insertion sensor SE7. When a medal is detected at, if the detection number counter is “1” or more, the detection number counter is decremented by “1”. In the present embodiment, the difference in the number of detected medals between the second insertion sensor SE5 and the fourth insertion sensor SE7 is determined by the distance between the second insertion sensor SE5 and the fourth insertion sensor SE7 (the present embodiment). In this case, it is possible to specify that there is a possibility that medals may stay between the second insertion sensor SE5 and the fourth insertion sensor SE7.

  When the difference in the number of detected medals between the second insertion sensor SE5 and the fourth insertion sensor SE7 is equal to or greater than the prescribed number (step Sa9: YES), the main control CPU 40a can specify that a medal retention error has occurred. As information, the medal retention flag is set (set) in the main control RAM 40c (step Sa10). The medal retention error is an error in which a medal inserted from the medal insertion port 18 stays without reaching the storage portion 35a of the hopper 35. As described above, the main control CPU 40a is inserted from the medal slot 18 based on the detection result by the second insertion sensor SE5 and the detection result by the fourth insertion sensor SE7, but enters the storage unit 35a of the hopper 35. Estimate the number of medals that have not reached. Then, the main control CPU 40a detects that the estimated number of medals is a prescribed number (predetermined number) as a medal retention error.

  When the difference in the number of detected medals between the second insertion sensor SE5 and the fourth insertion sensor SE7 is not equal to or greater than the prescribed number (step Sa9: NO), or when the processing of step Sa10 is completed, the main control CPU 40a It is determined whether or not the request is possible (step Sa11). More specifically, in the processing of step Sa11, the main control CPU 40a makes an affirmative determination when information (such as a flag) that can specify that the input request is possible is set in the main control RAM 40c. If not set, a negative determination is made. If it is not in the making request possible state (step Sa11: NO), the main control CPU 40a reads the monitoring timer for the second making sensor SE5 stored in the main control RAM 40c (step Sa12). In a process different from the input error check process, the main control CPU 40a sets the monitoring timer for the second input sensor SE5 when the second input sensor SE5 shifts from the OFF state to the ON state. The value is stored in the main control RAM 40c. Then, the main control CPU 40a, in a process different from the input error check process, updates the time corresponding to the control period by subtracting it from the monitoring timer for the second input sensor SE5 for each control period. ing.

  Next, the main control CPU 40a determines whether or not the second closing sensor SE5 is turned on (step Sa13). In the process of step Sa13, the main control CPU 40a makes an affirmative determination when a medal detection signal is input from the second insertion sensor SE5, but a negative determination when no medal detection signal is input from the second insertion sensor SE5. To do.

  When the second closing sensor SE5 is turned on (step Sa13: YES), the main control CPU 40a determines whether or not the monitoring timer for the second closing sensor SE5 has expired (step Sa14). In step Sa14, the main control CPU 40a makes an affirmative determination when the read monitoring timer value for the second closing sensor SE5 is zero, while the monitoring timer value for the second closing sensor SE5 is If it is not zero, a negative determination is made.

  When the monitoring timer for the second insertion sensor SE5 has expired (step Sa14: YES), the main control CPU 40a detects a clogged medal that is detected by the second insertion sensor SE5 even though the insertion request is not possible. The second medal clogging flag is set (set) in the main control RAM 40c as information that can identify the occurrence of the occurrence (step Sa15). In the present embodiment, a predetermined medal detection mode is that the second insertion sensor SE5 is turned on in the insertion request enabled state.

  When it is in the state where the making request is possible (step Sa9: YES), when the second making sensor SE5 is not ON (step Sa13: NO), when the monitoring timer for the second making sensor SE5 has not ended (step Sa14). : NO), or when the process of step Sa15 has ended, the main control CPU 40a ends the input error check process. As described above, in the slot machine 10 of the present embodiment, the main control CPU 40a executes the input error check process for each control period, whereby the medal clogging of the selector 30, the illegal payout from the hopper 35, and the guide passage 34a. The retention of medals is detected, and information (flag) corresponding to the detection result is stored in the main control RAM 40c.

Next, the game start set process executed in step Sm1 of the game progress main process will be described.
As shown in FIG. 8, in the game start set process, the main control CPU 40a performs game start data setting (step Sb1). In the processing of step Sb1, the main control CPU 40a sets various information (flags, etc.) used for the gaming state of the slot machine 10 and effects using the drum unit 13, initialization of a predetermined storage area in the main control RAM 40c, etc. I do. Next, the main control CPU 40a determines whether or not an overflow has occurred (step Sb2). In the process of step Sb2, the main control CPU 40a makes an affirmative determination when the auxiliary storage sensor SE9 is ON, that is, when a medal detection signal is input from the auxiliary storage sensor SE9, while from the auxiliary storage sensor SE9. A negative determination is made when no medal detection signal is input. If an overflow has occurred (step Sb2: YES), the main control CPU 40a sets (sets) an overflow flag in the main control RAM 40c as information that can specify that the medal in the auxiliary storage unit 36 is full. (Step Sb3). When the process of step Sb3 is completed, or when an overflow has not occurred (step Sb2: NO), the main control CPU 40a ends the game start set process.

Next, the medal management process executed in step Sm5 of the game progress main process will be described.
As shown in FIG. 9, in the medal management process, the main control CPU 40a determines whether or not the insertion request is possible (step Sc1). More specifically, in the process of step Sc1, the main control CPU 40a makes an affirmative determination when information (such as a flag) that can specify that the input request is possible is set in the main control RAM 40c. If not set, a negative determination is made. When it is in the insertion request enabled state (step Sc1: YES), it is determined whether or not the blocker 33 is controlled to the ON state (first state) in which medals can pass (step Sc2). As described above, medals inserted from the medal insertion slot 18 are guided to the second passage 32 when the blocker 33 is controlled to be in the ON state. When the blocker 33 is controlled to be in the ON state (step Sc2: YES), the main control CPU 40a determines whether or not a medal has passed through the second passage 32 (step Sc3). In the process of step Sc3, the main control CPU 40a makes an affirmative determination when a medal detection signal is input from any of the insertion sensors SE4 and SE5, while receiving a medal detection signal from each of the insertion sensors SE4 and SE5. If not, a negative determination is made.

  When the medal passes through the second passage 32 (step Sc3: YES), the main control CPU 40a checks the insertion for adding the bet number and the credit based on the input of the medal detection signal from each insertion sensor SE4, SE5. Processing is executed (step Sc4). Details of the input check process will be described later. Thereafter, the main control CPU 40a ends the medal management process.

  When the insertion request is not possible (step Sc1: NO), when the blocker 33 is not ON (step Sc2: NO), or when no medal passes through the second passage 32 (step Sc3: NO), the main The control CPU 40a determines whether or not the settlement button 21 has been turned on (operated) (step Sc5). In the process of step Sc5, the main control CPU 40a makes an affirmative determination when an operation signal is input from the settlement button 21, while a negative determination is made when no operation signal is input.

  When the settlement button 21 is turned on (step Sc5: YES), the main control CPU 40a determines whether there is a settlement medal (step Sc6). In the process of step Sc6, the main control CPU 40a makes an affirmative determination when one or more credits are stored in the main control RAM 40c, while a negative determination is made when one or more credits are not stored. If there is a settlement medal (step Sc6: YES), the main control CPU 40a sets a throw-in request impossible state (step Sc7). More specifically, in the process of step Sc7, the main control CPU 40a clears information (such as a flag) that can specify that the input request is possible.

  Next, the main control CPU 40a executes a medal payout process for driving the motor of the hopper 35 and paying out medals (step Sc8). Details of the medal payout process will be described later. At this time, the main control CPU 40a stores the credit stored in the main control RAM 40c in the main control RAM 40c as a payout remaining number. Next, the main control CPU 40a sets the input request ready state (step Sc9). More specifically, the main control CPU 40a sets information (such as a flag) that can specify that the input request is possible in the main control RAM 40c.

  When the settlement button 21 is not turned on (step Sc5: NO), when there is no settlement medal (step Sc6: NO), or when the process of step Sc9 is completed, the main control CPU 40a performs the medal management process. finish.

Next, the insertion check process executed in step Sc4 of the medal management process will be described.
As shown in FIG. 10, in the insertion check process, the main control CPU 40a corresponds to an insertion sensor abnormal transition in which the transition of the medal detection state by the first insertion sensor SE4 and the second insertion sensor SE5 is different from the insertion sensor normal transition. It is determined whether or not to perform (step Sd1). In the present embodiment, the input sensor normal transition is [input sensor SE4, SE5 = OFF] → [first input sensor SE4 = ON, second input sensor SE5 = OFF] → [input sensor SE4, SE5 = ON] → [first]. 1 input sensor SE4 = OFF, 2nd input sensor SE5 = ON] → [input sensors SE4, SE5 = OFF]. In step Sd1, the main control CPU 40a makes an affirmative determination when the transition of the medal detection state by the insertion sensors SE4 and SE5 is different from the normal transition. That is, in the process of step Sd1, the main control CPU 40a makes a negative determination when the transition of the medal detection state corresponds to a normal passage mode in which the medal passes from the upstream side to the downstream side of the second passage 32. Thus, for example, an affirmative determination is made when it corresponds to an abnormal passage mode passing from downstream to upstream.

  When it is not an insertion sensor abnormal transition (step Sd1: NO), the main control CPU 40a makes an insertion sensor invalid transition in which the transition of the medal detection state by the first insertion sensor SE4 and the second insertion sensor SE5 is different from the insertion sensor valid transition. (Step Sd2). The input sensor invalid transition of the present embodiment is set as [input sensor SE4, SE5 = OFF] → [first input sensor SE4 = ON, second input sensor SE5 = OFF] → [input sensor SE4, SE5 = OFF]. ing. That is, in the process of step Sd2, the main control CPU 40a is disposed on the downstream side even though the first closing sensor SE4 disposed on the upstream side in the second passage 32 is turned on. An affirmative determination is made when the second closing sensor SE5 does not turn ON. In this embodiment, the insertion sensor normal transition and the insertion sensor effective transition are the predetermined medal detection modes.

  When the input sensor invalid transition is made (step Sd2: YES), the main control CPU 40a ends the input check process. On the other hand, if it is not the insertion sensor invalid transition (step Sd2: NO), the main control CPU 40a adds 1 to the bet number when the already set bet number has not reached the maximum bet number. When the number reaches the maximum bet number, 1 is added to the credit (step Sd3). Thereafter, the main control CPU 40a ends the input check process.

  If it is an insertion sensor abnormal transition (step Sd1: NO), the main control CPU 40a sets an error number E7 as information that can identify an error in which a medal illegally passes through the selector 30 (step Sd4). More specifically, the main control CPU 40a sets the error number E7 in the main control RAM 40c.

  Next, the main control CPU 40a performs an error display process for notifying an error (abnormal state) occurring in the slot machine 10 (step Sd5). Details of this error display processing will be described later. Next, the main control CPU 40a sets the input request ready state (step Sd6). More specifically, the main control CPU 40a sets information (such as a flag) that can specify that the input request is possible in the main control RAM 40c. Thereafter, the main control CPU 40a ends the input check process.

Next, the error display setting process executed in steps Sm6 and Sm17 of the game progress main process will be described.
As shown in FIG. 11, in the error display setting process, the main control CPU 40a determines whether or not the unauthorized payout flag is set in the main control RAM 40c (step Sf1). When the illegal payout flag is set (step Sf1: YES), the main control CPU 40a sets the error number E4 as information that can specify an error in which medals are illegally paid out from the hopper 35 (step Sf2). More specifically, the main control CPU 40a sets the error number E4 in the main control RAM 40c. Next, the main control CPU 40a performs an error display process for notifying an error (abnormal state) occurring in the slot machine 10 (step Sf3). Details of this error display processing will be described later. Subsequently, the main control CPU 40a clears the unauthorized payout flag set in the main control RAM 40c (step Sf4).

  Next, the main control CPU 40a determines whether or not the first medal clogging flag is set in the main control RAM 40c (step Sf5). When the first medal clogging flag is set (step Sf5: YES), the main control CPU 40a sets the error number E5 as information that can specify a medal clogging error (step Sf6). More specifically, the main control CPU 40a sets the error number E5 in the main control RAM 40c. Next, the main control CPU 40a performs an error display process for notifying an error (abnormal state) occurring in the slot machine 10 (step Sf7). Details of this error display processing will be described later. Subsequently, the main control CPU 40a clears the first medal clogging flag set in the main control RAM 40c (step Sf8).

  Next, the main control CPU 40a determines whether or not the second medal clogging flag is set in the main control RAM 40c (step Sf9). When the second medal clogging flag is set (step Sf9: YES), the main control CPU 40a sets the error number E5 as information that can identify a medal clogging error (step Sf10). More specifically, the main control CPU 40a sets the error number E5 in the main control RAM 40c. Next, the main control CPU 40a performs an error display process for notifying an error (abnormal state) occurring in the slot machine 10 (step Sf11). Details of this error display processing will be described later. Subsequently, the main control CPU 40a clears the first medal clogging flag set in the main control RAM 40c (step Sf12).

  Next, the main control CPU 40a determines whether or not the medal retention flag is set in the main control RAM 40c (step Sf13). When the medal stay flag is set (step Sf13: YES), the main control CPU 40a sets the error number E6 as information that can identify the medal stay error (step Sf14). More specifically, the main control CPU 40a sets the error number E6 in the main control RAM 40c. Next, the main control CPU 40a performs an error display process for notifying an error (abnormal state) occurring in the slot machine 10 (step Sf15). Details of this error display processing will be described later. Subsequently, the main control CPU 40a clears the medal retention flag set in the main control RAM 40c (step Sf16).

  If the above various flags (illegal payout flag, first medal jam flag, second medal jam flag, medal retention flag) are not set (step Sf1, step Sf5, step Sf9, step Sf13: NO), or step When the process of Sf16 is ended, the main control CPU 40a ends the error display setting process.

Next, the medal payout process executed in step Sm20 of the game progress main process and step Sc8 of the medal management process will be described.
As shown in FIG. 12, in the medal payout process, the main control CPU 40a sets a hopper control timer (step Sg1). More specifically, in the process of step Sg1, the main control CPU 40a sets a predetermined time (for example, 2 seconds) as a hopper control timer in the main control RAM 40c. When the hopper control timer is set, the main control CPU 40a updates the value of the hopper control timer by subtracting the time corresponding to the control cycle every predetermined control cycle.

  Next, the main control CPU 40a turns on the operation signal for the motor of the hopper 35, and controls the hopper 35 during the medal payout operation (step Sg2). Next, the main control CPU 40a determines whether or not the hopper control timer has expired (step Sg3). In step Sg3, the main control CPU 40a makes an affirmative determination when the value of the hopper control timer is zero as a result of the subtraction, but makes a negative determination when it is not zero. When the hopper control timer has not expired (step Sg3: NO), the main control CPU 40a determines whether or not the payout sensor SE8 is turned on, that is, whether or not a medal detection signal is input from the payout sensor SE8 ( Step Sg4). That is, in step Sg4, after controlling the hopper 35 during the medal payout operation, the main control CPU 40a determines whether or not the medal payout has actually started.

  When the payout sensor SE8 is not ON (step Sg4: NO), the main control CPU 40a returns to the process of step Sg3. On the other hand, when the payout sensor SE8 is ON (step Sg4: YES), the main control CPU 40a sets a payout sensor detection timer (step Sg5). More specifically, in step Sg5, the main control CPU 40a sets a predetermined time (for example, 0.1 second) as a payout sensor detection timer in the main control RAM 40c. When the payout sensor detection timer is set, the main control CPU 40a updates the value of the payout sensor detection timer by subtracting the time corresponding to the control cycle every predetermined control cycle.

  Next, the main control CPU 40a determines whether or not the payout sensor detection timer has expired (step Sg6). In step Sg6, the main control CPU 40a makes an affirmative determination when the value of the payout sensor detection timer is zero as a result of the subtraction, but makes a negative determination when it is not zero. If the payout sensor detection timer has not expired (step Sg6: NO), the main control CPU 40a determines whether or not the payout sensor SE8 is turned off, that is, whether or not a medal detection signal is no longer input from the payout sensor SE8. (Step Sg7). That is, in step Sg7, the main control CPU 40a determines whether or not the passage has ended after the medal starts passing through the payout sensor SE8.

  When the payout sensor SE8 is not OFF (step Sg7: NO), the main control CPU 40a returns to the process of step Sg6. On the other hand, when the payout sensor SE8 is turned off (step Sg7: YES), the main control CPU 40a clears the hopper control timer (step Sg8). Next, the main control CPU 40a turns off the operation signal for the motor of the hopper 35, and controls the hopper 35 during the non-medal payout operation (step Sg9).

  Next, the main control CPU 40a reads the payout remaining number stored in the main control RAM 40c and determines whether or not the read payout remaining number is 1 or more (step Sg10). When the payout remaining number is not 1 or more (step Sg10: NO), the main control CPU 40a ends the medal payout process. When the remaining payout number is not 1 or more, the medal payout has been completed. On the other hand, when the payout remaining number is 1 or more, the main control CPU 40a returns to the process of step Sg1.

  If the hopper control timer has expired (step Sg3: YES), the main control CPU 40a sets the error number E2 as information that can identify an error that the hopper 35 has an empty medal (step Sg11). More specifically, the main control CPU 40a sets the error number E2 in the main control RAM 40c. Next, the main control CPU 40a performs an error display process for notifying an error (abnormal state) occurring in the slot machine 10 (step Sg12). Details of this error display processing will be described later. Thereafter, the main control CPU 40a returns to the process of step Sg1.

  If the payout sensor detection timer has expired (step Sg6: YES), the main control CPU 40a uses the error number E3 as information that can identify an error in which the hopper 35 is jammed (hopper clogged). Set (step Sg13). More specifically, the main control CPU 40a sets the error number E3 in the main control RAM 40c. In the present embodiment, a predetermined detection mode is that the payout sensor SE8 is turned off after the payout sensor SE8 is turned on until the payout sensor detection timer ends. Next, the main control CPU 40a performs an error display process for notifying an error (abnormal state) occurring in the slot machine 10 (step Sg14). Details of this error display processing will be described later. Thereafter, the main control CPU 40a returns to the process of step Sg1.

  As described above, in the slot machine 10 of the present embodiment, when the hopper 35 is controlled during the medal payout operation, when no medal is detected by the payout sensor SE8 for a predetermined period (2 seconds), the hopper 35 is detected to be empty, and information (flag) corresponding to the detection result is stored in the main control RAM 40c. Further, in the slot machine 10 of the present embodiment, when a medal is continuously detected by the payout sensor SE8 for a predetermined period (0.1 second) during the medal payout operation, occurrence of a clogged medal in the hopper 35 is detected, Information (flag) corresponding to the detection result is stored in the main control RAM 40c.

Next, the overflow detection process executed in step Sm21 of the game progress main process will be described.
As shown in FIG. 13, in the overflow detection process, the main control CPU 40a determines whether or not an overflow flag is set in the main control RAM 40c (step Sh1). As described above, this overflow flag is a flag that can be set in step Sm1 (game start set process) of the game progress main process.

  When the overflow flag is set (step Sh1: YES), the main control CPU 40a determines whether an overflow has occurred (step Sh2). In the processing of step Sh2, the main control CPU 40a makes an affirmative determination when the auxiliary storage sensor SE9 is ON, that is, when a medal detection signal is input from the auxiliary storage sensor SE9, while inputting the medal detection signal. If not, a negative determination is made.

  When an overflow has occurred (step Sh2: YES), the main control CPU 40a sets the error number E1 as information that can identify an error that the auxiliary storage unit 36 is full (step Sh3). More specifically, the main control CPU 40a sets the error number E1 in the main control RAM 40c. Next, the main control CPU 40a performs an error display process for notifying an error (abnormal state) occurring in the slot machine 10 (step Sh4). Details of this error display processing will be described later. When the overflow flag is not set (step Sh1: NO), when the overflow has not occurred (step Sh2: NO), or when the processing of step Sh4 is ended, the main control CPU 40a ends the overflow detection processing. To do.

  As described above, when various errors are detected, the main control CPU 40a controls the main control RAM 40c to store the error number assigned to the detected error. The main control CPU 40a that performs such control functions as a first control unit, and the main control RAM 40c that stores an error number functions as an information storage unit.

Next, an error display process executed as a subroutine in each process described above will be described.
As shown in FIG. 14, in the error display process, the main control CPU 40a determines whether or not there is an error display request (step Si1). In the process of step Si1, the main control CPU 40a makes an affirmative determination when any of the error numbers E1 to E7 is set (set) in the main control RAM 40c, while setting any of the error numbers E1 to E7. If not (set), a negative determination is made.

  When there is no error display request (step Si1: NO), the main control CPU 40a ends the error display process. On the other hand, if there is an error display request (step Si1: YES), the main control CPU 40a displays an error based on the display request, that is, an error display so that an error number set in the main control RAM 40c is displayed. The display content of the unit 26 is controlled (step Si2). More specifically, the main control CPU 40a sets "E1" when the error number E1 is set, "E2" when the error number E2 is set, and sets the error number E3. In this case, the display content of the error display unit 26 is controlled so that “E3” is displayed. Further, the main control CPU 40a sets “E4” when the error number E4 is set, “E5” when the error number E5 is set, and “E5” when the error number E6 is set. Controls the display content of the error display unit 26 so that “E6” is displayed and “E7” is displayed when the error number E7 is set.

  Next, based on the error number set in the main control RAM 40c, the main control CPU 40a generates a control command (notification start command) for instructing to start displaying error notification corresponding to the error number. Then, a predetermined output buffer is set (step Si3). The notification start command set in the output buffer is output to the effect control board 41 (effect control CPU 41a) in the output process or the like in the next control cycle or later.

  Next, the main control CPU 40a determines whether or not the error numbers set in the main control RAM 40c are error numbers E3 to E7 (step Si4). Specifically, the main control CPU 40a reads the error number E3 that is the smallest numerical value, and determines whether or not the set error number is equal to or greater than the error number E3. Then, the main control CPU 40a reads the error number E7 which is the maximum numerical value, and determines whether or not the set error number is equal to or less than the error number E7. That is, the main control CPU 40a determines whether or not the error number is in the range from the error numbers E3 to E7 and not including the error numbers E1 and E2. In the present embodiment, the error number E3 functions as a first numerical value, and the error number E7 functions as a second numerical value. When the error number is not E3 to E7 (step Si4: NO), the main control CPU 40a determines whether or not a predetermined error release operation has been performed (step Si5). More specifically, in the process of step Si5, the main control CPU 40a makes an affirmative determination when both the door opening sensor SE10 and the second error release switch SW2 are ON, or when the first error release switch SW1 is ON. To do.

  When the predetermined error canceling operation has not been performed (step Si5: NO), the main control CPU 40a waits until the error canceling operation is performed by repeatedly executing the process of step Si5. On the other hand, if an error canceling operation has been performed (step Si5: YES), the main control CPU 40a controls the display content of the error display unit 26 so as to end the display of the error number (step Si6). Next, the main control CPU 40a generates a control command (hereinafter referred to as a notification end command) for instructing the end of display of the error notification and sets it in a predetermined output buffer (step Si7). Thereafter, the main control CPU 40a ends the error display process.

  On the other hand, when the error numbers are E3 to E7 (step Si4: YES), the main control CPU 40a sets a standby timer (step Si8). That is, the main control CPU 40a sets a standby timer when the set error number is any one of E3 to E7. More specifically, in step Si8, the main control CPU 40a sets a predetermined time (6 seconds in this embodiment) as a standby timer in the main control RAM 40c. When the standby timer is set, the main control CPU 40a updates the value of the standby timer by subtracting the time corresponding to the control cycle every predetermined control cycle.

  Next, the main control CPU 40a determines whether or not the standby timer has expired (step Si9). In step Si9, the main control CPU 40a makes an affirmative determination when the value of the standby timer is zero as a result of the subtraction, but makes a negative determination when the value of the standby timer is not zero. Thus, the main control CPU 40a determines whether or not a predetermined period has elapsed. When the standby timer has not expired (step Si9: NO), the main control CPU 40a waits until the standby timer expires by repeatedly executing the process of step Si9.

  On the other hand, when the standby timer has expired (step Si9: YES), the main control CPU 40a determines whether or not a predetermined error canceling operation has been performed (step Si10). More specifically, in step Si10, the main control CPU 40a makes an affirmative determination when both the door opening sensor SE10 and the second error release switch SW2 are ON. In step Si10, the main control CPU 40a does not make an affirmative determination even when the first error release switch SW1 is ON.

  When the predetermined error canceling operation has not been performed (step Si10: NO), the main control CPU 40a waits until the predetermined error canceling operation is performed by repeatedly executing the process of step Si10. On the other hand, when a predetermined error canceling operation is performed (step Si10: YES), the main control CPU 40a controls the display content of the error display unit 26 so that the display of the error number is finished (step Si6). . Next, the main control CPU 40a generates a notification end command and sets it in a predetermined output buffer (step Si7). Thereafter, the main control CPU 40a ends the error display process. The main control CPU 40a does not perform a process for advancing the variable game while the error display process is being executed, that is, while the error notification is being executed. That is, in the slot machine 10 of the present embodiment, since the progress of the variation game is stopped during the error notification, it is possible to recognize that an error has occurred from the situation where the progression of the variation game has been stopped. For this reason, in the present embodiment, stopping (stagnation) the progress of the variable game can be grasped as one of error notifications. Note that the operation of the second error release switch SW2 in a state where the front door 12 is opened functions as a first stop operation, and the operation of the first error release switch SW1 functions as a second stop operation.

  As described above, the main control CPU 40a uses each system such as notification control for notifying the occurrence of an error and stop control for stopping the notification based on the determination result of whether or not the error number is the error number E3 to E7. The control according to is performed. The main control CPU 40a that performs such control functions as second control means.

Next, an error notification display process executed in order for the effect control CPU 41a of the effect control board 41 to control the display content of the effect display device 14 to display an error notification will be described.
In the error notification display process, the effect control CPU 41a determines whether a notification start command is input from the main control CPU 40a. When the notification start command is not input, the effect control CPU 41a ends the error notification display process. On the other hand, when the notification start command is input, the effect control CPU 41a controls the display content of the effect display device 14 so that an error notification of a type identifiable from the input notification start command is displayed. More specifically, the production control CPU 41a, when instructed to start displaying the error notification corresponding to the error number EE, displays an image imitating the character string of “unrecoverable error”, for example, the error number EE. The display content of the effect display device 14 is controlled so that the error notification of the content corresponding to is started.

  In addition, as shown in FIG. 15, when the display control CPU 41a is instructed to start displaying the error notification corresponding to the error number E1, for example, an error message such as displaying an image imitating a character string “overflow” is displayed. The display content of the effect display device 14 is controlled so that the error notification of the content corresponding to the number E1 is started. When the display control CPU 41a is instructed to start displaying the error notification corresponding to the error number E2, for example, an image imitating the character string “hopper empty” is displayed. The display content of the effect display device 14 is controlled so that the notification is started.

  When it is instructed to start displaying the error notification corresponding to the error number E3, the effect control CPU 41a displays an image imitating the character string of “hopper clogged”, for example, an error corresponding to the error number E3. The display content of the effect display device 14 is controlled so that the notification is started. When the display control CPU 41a is instructed to start displaying the error notification corresponding to the error number E4, for example, an image imitating the character string “illegal payout” is displayed, and the error corresponding to the error number E4 is displayed. The display content of the effect display device 14 is controlled so that the notification is started.

  When the display control CPU 41a is instructed to start displaying the error notification corresponding to the error number E5, for example, an image imitating the character string “medal jammed” is displayed. The display content of the effect display device 14 is controlled so that the notification is started. When the display control CPU 41a is instructed to start displaying the error notification corresponding to the error number E6, for example, an image imitating the character string “medal retention” is displayed, and the error corresponding to the error number E6 is displayed. The display content of the effect display device 14 is controlled so that the notification is started. When the instruction control CPU 41a is instructed to start displaying the error notification corresponding to the error number E7, the content corresponding to the error number E7 is displayed, for example, by displaying an image imitating the character string “illegal passage of medal”. The display content of the effect display device 14 is controlled so that the error notification is started.

  Further, the effect control CPU 41a controls the display content of the effect display device 14 so that the error notification display is ended when the error notification is displayed and the notification end command is input. The effect control CPU 41a continuously displays the error notification until the notification end command is input after the notification start command is input.

Next, the operation of the slot machine 10 configured as described above will be described.
As shown in FIG. 15, the main control CPU 40a of the present embodiment determines the medal of the auxiliary storage unit 36 depending on whether or not the auxiliary storage sensor SE9 is ON at both the time when the medal reception is started and when the rotation of all reels is stopped. Is detected that an overflow error (error number E1) has occurred. The error of error number E1 simply indicates that the auxiliary storage unit 36 is full, and is an error that is unlikely to be fraudulent or that is unlikely to impair the profits of the game store. .

  Further, the main control CPU 40a controls the hopper 35 during the medal payout operation, and the hopper empty error in which the medal of the hopper 35 is empty depends on whether or not the payout sensor SE8 is not turned on even after 2 seconds have passed. It is detected that (error number E2) has occurred. The error of the error number E2 simply indicates that the hopper 35 is empty, and similarly to the error of the error number E1, there is a low possibility that fraud is being performed, or the profit on the amusement store side is impaired. This is an unlikely error.

  The main control CPU 40a detects that a medal clogging error (error number E3) has occurred in the hopper 35 depending on whether or not the continuous ON time of the payout sensor SE8 has exceeded 0.1 seconds during the medal payout operation. To do. The error of error number E3 is caused by the fact that the player is forced to pay out medals from the hopper 35 in addition to the situation where medals are actually jammed, that is, an illegal act relating to the payout of medals is performed. An error that may have occurred.

  The main control CPU 40a detects that an illegal payout error (error number E4) has occurred depending on whether or not the payout sensor SE8 is turned on during the non-medal payout operation. The error of error number E4 relates to the fact that a player who performs an illegal gaming action (so-called goto action) is actually paying out medals in a state where medals should not be paid out, that is, regarding the payout of medals. It is an error that may be fraudulent.

  Further, the main control CPU 40a generates a medal clogging error (error number E5) in the selector 30 depending on whether or not the third insertion sensor SE6 is continuously turned on for a predetermined time (in this embodiment, 1 second). Detect that Further, the main control CPU 40a determines that the medal clogging has occurred in the selector 30 depending on whether or not the second insertion sensor SE5 is turned on in the insertion request impossible state where the flow of medals into the second passage 32 is restricted by the blocker 33. An error (error number E5) is detected. In addition to the situation where medals are actually clogged, these error numbers E5 increase the number of bets and credits without throwing medals by a player who performs an illegal gaming act (so-called goto act). In other words, an error may occur in which a fraudulent act relating to the insertion of a medal may be performed.

  Further, the main control CPU 40a determines whether or not the medal discharged from the selector 30 is retained (error number E6) depending on whether or not the difference in the number of detected medals by the insertion sensors SE5 and SE7 is equal to or greater than the specified number. Detect that has occurred. For this reason, the error of the error number E6 is an error that may cause an illegal act related to the insertion of a medal, like the error of the error number E5.

  In addition, the main control CPU 40a generates an error (error number E7) that the medal passes illegally through the selector 30 depending on whether or not the transition of the medal detection state by the insertion sensors SE4 and SE5 corresponds to the insertion sensor abnormal transition. Detect what is happening. The insertion sensor abnormal transition indicates a transition different from the transition of the medal detection state when the medal is normally inserted from the medal insertion slot 18. For this reason, the error with the error number E7 is an error that may cause an illegal act related to the insertion of a medal, like the error with the error number E5.

  Therefore, in the present embodiment, the errors having the error numbers E5 to E7 are in an abnormal state related to insertion of medals (game media). In the present embodiment, the errors with error numbers E3 and E4 are in an abnormal state related to the payout of medals (game media). The errors with error numbers E3 to E7 are in an abnormal state classified into a specific system, and the errors with error numbers E1 and E2 are in an abnormal state classified into a non-specific system. Further, the main control CPU 40a for detecting these errors functions as a detecting means.

  In the slot machine 10 according to the present embodiment, the error notification having the content corresponding to the set error number is executed by the effect display device 14 and the error display unit 26. For this reason, in the present embodiment, an error that has occurred in the slot machine 10 can be easily recognized by a player, a store clerk, or the like. Therefore, the effect display device 14 and the error display unit 26 function as an abnormality notification unit that performs error notification when an abnormal state is detected by the main control CPU 40a.

  In the slot machine 10 of the present embodiment, among the plurality of types of errors, in particular, for the errors of the error numbers E1 and E2, a predetermined error release operation is performed regardless of the elapsed time from the start of error notification. The error notification in the effect display device 14 and the error display unit 26 can be terminated. Since the error notification of error numbers E1 and E2 is unlikely to have occurred due to fraudulent activity, the front door 12 is opened and the second error release switch SW2 inside the machine is operated, and the unlock lock 12a is key. Can be easily released by inserting and rotating in the second direction.

  On the other hand, for the errors of error numbers E3 to E7 that may have occurred due to fraud among a plurality of types of errors, the front door 12 is opened and the second error release switch SW2 inside the machine is turned on. The error notification cannot be canceled unless it is operated. That is, the errors of error numbers E3 to E7 cannot be canceled by operating the first error cancel switch SW1 (open lock 12a). For this reason, in the slot machine 10 of the present embodiment, a player who does not have the key of the slot machine 10 cannot easily cancel the error notification.

  In the slot machine 10 of the present embodiment, the error notification is canceled even if the error cancellation operation is performed by not accepting the error cancellation operation for 6 seconds from the start of the error notification to the end of the standby timer. I can't do it. In other words, in the present embodiment, the period from when the standby timer is set to when it is ended is a restriction period for restricting the end of the predetermined abnormality notification. The main control CPU 40a that sets the standby timer is a period setting unit. Function as.

  With such a configuration, in the slot machine 10 of the present embodiment, even if the second error release switch SW2 disposed inside the machine body of the slot machine 10 is skillfully operated, at least the waiting timer is expired. Error notification can be continued over a period of time. Therefore, in this embodiment, for example, it is possible to prevent a game store clerk or the like from noticing the error notification and causing the game store to suffer a disadvantage.

  In addition, among a plurality of types of errors, errors with error numbers E1 and E2, which are less likely to be caused by fraud, and errors with error numbers E3 to E7 that may be caused by fraud are: Each consecutive error number is specified. In particular, by classifying an error classified into a specific system and an error classified into a non-specific system, it is possible to suppress the complexity of the determination control.

Therefore, according to the above embodiment, the following effects can be obtained.
(1) It is possible to specify whether or not to execute control according to a specific system by executing information determination as to whether or not the error number is within a predetermined range. For this reason, for example, the control according to the error state is compared with the case of adopting the control configuration in which the error number and the error number assigned to each error that can be classified into the specific system are compared separately to identify the control. It can suppress that the control structure for performing is complicated.

  (2) The error number assigned to the error state is a numerical value, and it is possible to specify whether or not the control corresponding to the specific system is executed by simple determination of whether or not the numerical value is in the range of E3 to E7. It is. Therefore, it is possible to suppress a complicated control configuration for executing control according to the error state.

  (3) The stop operation for stopping the notification can be made different between the specific system and the non-specific system. Therefore, it is possible to easily understand the stop operation required for stopping the notification by associating the error state system with the stop operation for stopping the notification.

  (4) With the specific system and the non-specific system, the disposition position of the operating means operated to stop the notification can be made different between the inside of the machine and the outside of the machine. Therefore, by associating the system in the error state with the operation means that requires an operation to stop the notification, the operation means that requires an operation can be easily understood.

  (5) Error notification triggered by detection of an error state (error numbers E3 to E7) classified into a specific system is terminated even if the second error release switch SW2 is operated unless the regulation period has elapsed. I can't let you. The error state classified into the specific system is an error state related to insertion of medals and an error state related to payout of medals, and is an error state highly likely to be generated by a so-called got action. Therefore, in the present embodiment, it is possible to secure an execution period of error notification that is highly likely to be started by the goto action, and to suppress oversight of, for example, a store clerk at a game shop. On the other hand, error notification triggered by detection of an error state classified as a non-specific system that is unlikely to be caused by a goto action is terminated by operating the first error release switch SW1 regardless of the regulation period. it can. Therefore, it is possible to suppress unnecessary time and effort to cancel the error notification that is not related to the goto action.

  (6) If the detection mode of the medal inserted from the medal slot 18 (detection state transition) is different from the predetermined detection mode, it is highly possible that the so-called goto action has occurred, and thus the regulation period has elapsed. Unless it is after, the error notification cannot be ended even if the second error release switch SW2 is operated. Therefore, it is possible to secure an execution period of error notification that is highly likely to be caused by a goto action, and to prevent, for example, a store clerk at an amusement store from overlooking.

  (7) If the detection mode of the medal by the payout sensor SE8 is different from the predetermined detection mode, there is a high possibility that it is a so-called goto action. Even if SW2 is operated, the error notification cannot be terminated. Therefore, it is possible to secure an execution period of error notification that is highly likely to be caused by a goto action, and to prevent, for example, a store clerk at an amusement store from overlooking it.

  (8) The fact that no medal is stored in the storage part 35a of the hopper 35 is not directly related to the so-called goto action, and therefore, by operating the first error release switch SW1 regardless of the regulation period. Error notification during execution can be terminated. Therefore, it is possible to suppress unnecessary time and effort to cancel the error notification that is not related to the goto action.

  (9) The fact that medals are stored in the auxiliary storage unit 36 in excess of a predetermined amount is not directly related to the so-called goto action, so the first error release switch SW1 is operated regardless of the regulation period. By doing so, the error notification being executed can be terminated. Therefore, it is possible to suppress unnecessary time and effort to cancel the error notification that is not related to the goto action.

  (10) Since the prescribed number of medals inserted from the medal slot 18 but not reaching the storage portion 35a of the hopper 35 may be a so-called goto action, the regulation period has elapsed. If not, the error notification cannot be ended even if the second error release switch SW2 is operated. Therefore, it is possible to secure an execution period of error notification that is highly likely to be caused by a goto action, and to prevent, for example, a store clerk at an amusement store from overlooking.

The above embodiment may be modified as follows.
Although it is determined based on the difference in the number of detected medals between the second insertion sensor SE5 and the fourth insertion sensor SE7, it is not limited to this. For example, based on the difference in the number of detected medals between the first insertion sensor SE4 or the third insertion sensor SE6 and the fourth insertion sensor SE7, it may be determined whether or not a medal retention error has occurred. There may be.

  The medal detection difference between the second insertion sensor SE5 and the fourth insertion sensor SE7 can be changed as appropriate regardless of the calculation method such as addition, subtraction, addition value, and subtraction value as long as medal retention can be detected. is there.

  -If it is detected as a medal dwell error that the number of medals inserted from the medal slot 18 but not reaching the storage portion 35a of the hopper 35 is a prescribed number, if the number of medals can be estimated as a result, The process for estimating the number of the processes may or may not be executed.

  -The type of abnormal condition classified into a specific system may be changed. For example, detection of some errors with error numbers E3 to E7 may be omitted, or different types of errors may be detected. That is, the abnormal state classified into the specific system may include at least one of an abnormal state related to medal insertion and an abnormal state related to medal payout. As described above, the error states classified into the specific system can be appropriately changed regardless of the number (type) of error states, and the determination of the error number can also be appropriately changed.

-The input sensor invalid transition may be set as an error of error number E7.
-It is not necessary that all the error numbers classified into each system are necessarily continuous, and it is preferable that at least a part is specified. For example, an error number that is not classified into each system may be included within the range of error numbers classified into each system. As a specific example, error numbers indicating error states classified into specific systems may be error numbers E3 to E7, E9, and EB to ED, and error numbers E8 and EA are classified into non-specific systems. May be defined as an error number that is not classified into any system.

  -The types of abnormal conditions classified as non-specific systems may be changed. For example, detection of one of the error numbers E1 and E2 may be omitted, or different types of errors may be detected. As described above, the error states classified into the non-specific system can be appropriately changed regardless of the number (type) of error states, and the determination of the error number can be appropriately changed.

The first error release switch SW1 may be a separate switch without being used as the unlocking lock 12a.
The main control CPU 40a executes various controls based on the error number. However, the present invention is not limited to this. For example, the effect control CPU 41a may execute them, or a combination thereof.

  The error display unit 26 may be configured to be shared with other display units. For example, the error display unit 26 may also be used as a stored number display unit, a prize number display unit, or the like. Further, the error display unit 26 may be arranged inside the machine body of the slot machine 10.

  The error notification by the effect display device 14 may be content that notifies the slot machine 10 that some error has occurred, and may not be a mode in which the error number can be specifically recognized.

The error notification may be performed in addition to the display by the effect display device 14 or by sound output by a speaker or change in the light emission mode by the lamp LA.
Although the effect display device 14 as a transmissive liquid crystal display is disposed in front of each reel 13L, 13C, 13R, the present invention is not limited to this. For example, the reels 13L, 13C, 13R can be visually recognized by the player. If it is arrange | positioned, a transmissive liquid crystal display may not be employ | adopted. In addition, for example, a display device may be provided so as to surround the entire periphery of the reels 13L, 13C, and 13R (so-called “doughnut vision”), and the display device may be configured not to surround the entire periphery of the reels 13L, 13C, and 13R. May be provided.

Any of the error notification by the effect display device 14 and the error notification by the error display unit 26 may be omitted.
-A plurality of symbol stop lines (valid lines) may be set.

  A slot machine using a game ball (pachinko ball) as a game medium or a pachinko game machine may be embodied.

  SE4: first insertion sensor (game medium detection means, first game medium detection means), SE5: second insertion sensor (game medium detection means, first game medium detection means), SE6: third insertion sensor (game medium detection) Means, first game medium detection means), SE7 ... fourth insertion sensor (game medium detection means, second game medium detection means), SE8 ... payout sensor (payout detection means), SE9 ... auxiliary storage sensor, SW1 ... first. Error release switch (second operation means), SW2 ... second error release switch (first operation means), 10 ... pachinko slot machine (game machine), 14 ... production display device (abnormality notification means), 18 ... medal insertion Mouth (input port), 26 ... error display part (abnormality notification means), 30 ... selector, 34a ... guide passage, 35 ... hopper (dispensing device), 35a ... storage part, 36 ... auxiliary storage part, 40 ... Control board, 40a ... main control CPU (first control means, second control means, detecting means, period setting means), 40c ... main control RAM (data storage means).

Claims (10)

Detecting means for detecting an abnormal state;
Information storage means capable of storing information assigned to each of a plurality of types of abnormal states;
A first control unit capable of controlling the information storage unit to store information assigned to the abnormal state detected by the detection unit;
Second control means for executing various controls based on information stored in the information storage means,
The abnormal state can be classified into a plurality of systems with different control contents executed by the second control means, and the plurality of systems includes a specific system in which a plurality of types of abnormal states can be classified. And
The second control means includes an abnormality in which the information stored in the information storage means includes information assigned to an abnormal state that can be classified into the specific system and can be classified into a non-specific system different from the specific system It is configured to execute an information determination as to whether or not the information assigned to the state is in a range not including the information, and to execute control according to the specific system when the result of the information determination is affirmative A gaming machine characterized by The information assigned to the abnormal state is a numerical value,
2. The gaming machine according to claim 1, wherein the second control unit executes the information determination based on whether or not a numerical value stored as the information in the information storage unit is in a range of a first numerical value to a second numerical value. . Control according to each system includes notification control for notifying the occurrence of an abnormal condition and stop control for stopping the notification,
The second control means includes
When information assigned to an abnormal state that can be classified into the specific system is stored in the information storage unit, while executing the stop control on condition that the first stop operation has been received,
When information assigned to an abnormal state that can be classified into the non-specific system is stored in the information storage means, the stop is performed on the condition that a second stop operation different from the first stop operation is received. The gaming machine according to claim 1 or 2, wherein control is executed. The first stop operation is an operation of a first operation means disposed inside the machine,
The gaming machine according to claim 3, wherein the second stop operation is an operation of a second operation means disposed on the front side of the machine. The abnormal state that can be classified into the specific system includes at least one of an abnormal state related to the insertion of the game medium and an abnormal state related to the payout of the game medium,
The second control means includes
When information assigned to an abnormal state that can be classified into the specific system is stored in the information storage means, in addition to accepting the first stop operation, a predetermined period has passed. While executing the stop control to the condition,
When information assigned to an abnormal state that can be classified into the non-specific system is stored in the information storage unit, the second stop operation is accepted on condition that the second stop operation is accepted regardless of the predetermined period. The gaming machine according to claim 3 or 4, wherein stop control is executed. A game medium insertion port; and a game medium detection means capable of detecting the game medium loaded from the insertion port;
6. The detection unit according to claim 5, wherein the detection unit detects that the detection mode by the game medium detection unit is different from a predetermined detection mode as the abnormal state, and the abnormal state can be classified into the specific system. Gaming machine. A payout device for performing a game medium payout operation; and a payout detecting means capable of detecting a game medium payout from the payout device,
The detection means detects that the detection state of the game medium by the payout detection means is different from a predetermined detection aspect as the abnormal state, and the abnormal state can be classified into the specific system. 6. The gaming machine according to 6. A payout device that includes a storage section for storing game media and that performs a payout operation for paying out game media stored in the storage section;
The detection unit detects that no gaming medium is stored in the storage unit as the abnormal state, and the abnormal state can be classified into the non-specific system. The gaming machine described. A storage section for storing the inserted game media, and an auxiliary storage section for storing game media overflowing from the storage section,
The detection means detects that the gaming medium stored in the auxiliary storage unit has reached a predetermined amount as the abnormal state, and the abnormal state can be classified into the non-specific system. A gaming machine according to any one of the above. A slot for playing game media, a selector capable of receiving game media loaded from the slot, a guide passage for guiding the game media passed through the selector to a predetermined storage section, and the slot provided in the selector A first game medium detecting means capable of detecting the game medium thrown from, and a second game medium detecting means provided in the guide passage and capable of detecting the game medium,
Based on the detection result by the first game medium detection means and the detection result by the second game medium detection means, the detection means is a game that has been inserted from the insertion port but has not reached the storage section. The number of media is estimated, and it is detected as the abnormal state that the estimated number of game media is a predetermined number, and the abnormal state can be classified into the specific system. The gaming machine according to item 1.