JP3272685B2 - Ball game machine - Google Patents

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION The present invention relates to a ball-shooting game machine which is represented by the pachinko game machine and a coin gaming machine or the like and, more particularly, to a pinball game machine comprising paying out game media payout means Yu technique medium.

[0002]

2. Description of the Related Art In this type of ball game machine, a hit ball is hit into a game area on the front of a game board in accordance with a hitting operation of a player. When a predetermined game state such as a driving ball winning in a predetermined prize area occurs, a prize ball as an example of a game medium,
Game media payout means for paying out prize coins
was there.

[0003]

SUMMARY OF THE INVENTION This type of conventional ball play
Some abnormalities have occurred in the game media dispensing means on a technical machine
In case of losing or lack of game media to pay out
The number of game media actually paid out due to an abnormality
Inconvenience that is different from the predetermined number to be paid out
In some cases. For example, the actual paid out media
If the number is too small, the player will suffer damage
That means that if you try to make it into a playground,
Being embraced, it will be a big negative in management
Inconvenience occurs.

[0004] Conversely, the number of game media actually paid out is
If there is too much, it will be disadvantageous for the playground,
There is an inconvenience that the management of the technical field deteriorates. You
That is, the payout of the game media was too much or too little
In any case, the playground becomes a big negative
It is important to keep the number of
Amusement arcade needs to improve reliability
Was.

The present invention has been conceived in view of the above circumstances, and has as its object the reliability of paying out game media.
By providing a ball game machine that can improve
is there.

[0006]

SUMMARY OF THE INVENTION The present invention as set forth in claim 1, Yu technique medium (coins, pachinko balls) the paying out game media payout unit (4, Ball payout 63) pinball game machine comprising Wherein the game medium payout means is for paying out game media.
A payout member (FIG. 4, the ball feeding member 800), the bullet ball
The gaming machine controls a payout operation of the gaming medium payout means.
Payout control means (FIG. 8, microcomputer for payout control)
350) and the dispensing operation amount of the dispensing member (the ball feed in FIG. 4).
Payout operation amount detecting means for detecting the amount of rotation of the member 800)
(Semi-rotation detection sensor 802b in FIG. 8, S10 in FIG. 17)
6, S107) and payout game medium counting means (FIG. 4)
And ball counting sensors A (68c) and B (68d) in FIG.
17 (S108, S109) , and comparing the payout operation amount detected by the payout operation amount detection means with the counting result by the payout game medium counting means, to normally pay out the game medium.
Determining means for determining whether or not the operation has been performed (S118 in FIG. 17)
And characterized in that: According to a second aspect of the present invention, in addition to the configuration of the first aspect of the invention, the discriminating means is provided.
Depending on the step, the number corresponding to the dispensing operation amount of the dispensing member is
If it is determined that more game media have been paid out
Display means for displaying the effect (to the error cause display 146)
(S127 in FIG. 17) . According to a third aspect of the present invention, in addition to the configuration of the first or second aspect, the payout control
Means for dispensing the dispensing member by the discriminating means;
Only less game media are paid out than the number corresponding to the work volume
If it is determined that there is no payment ("Pay
Payout counter <I ”) to pay out the insufficient game media
(S119, S120 in FIG. 17) .

[0007]

According to the first aspect of the present invention, a game medium payment is provided.
The payout means has a payout member for paying out game media.
You. By the function of the payout control means, the payout of the game medium payout means
The output operation is controlled. The dispensing operation amount of the dispensing member is detected by the operation of the dispensing operation amount detecting means. By the function of the payout game medium counting means, the game media actually paid out from the game medium payout means are counted. Then, by the function of the determining means , the payout operation amount detected by the payout operation amount detecting means is compared with the counting result by the payout game medium counting means, and it is determined whether or not the game medium is normally paid out.
According to the second aspect of the present invention, in addition to the operation of the first aspect of the present invention, the function of the display means allows the determination means to operate.
Therefore, the number is larger than the number corresponding to the dispensing operation amount of the dispensing member.
If it is determined that the game media has been paid out,
Is displayed. According to the third aspect of the present invention, in addition to the operation of the first or second aspect, a payout system is provided.
With the further action of the control means, payout by the determination means
Game media less than the number corresponding to the
If it is determined that
Control for paying out game media is performed.

[0008]

Next, an embodiment of the present invention will be described in detail with reference to the drawings. In this embodiment, a pachinko game machine is shown as an example of a ball game machine, but the present invention is not limited to this, and may be a coin game machine or the like.

[0009] Figure 1 is a first embodiment is a front view showing a pachinko game machine 60 and card processor 62 of an example of an apparatus for pinball game according to the present invention.

A card processor 62 is provided on one side (left side in the figure) of the pachinko gaming machine 60 in the left-right direction.
0 is provided in a separable state. 130 in the figure
Is a processor usable indicator for lighting up and displaying that the card processor 62 is operating and usable. Further, the processor usable indicator 130 displays various error states described later. Card processing machine 62
Is provided with a card reader / writer control unit 134 provided with a card reader / writer. When a card is inserted from the card insertion / ejection port 133, the record information recorded on the card is read by the card reader / writer. . The card balance at the time of insertion, which is included in the read card information, is displayed by the balance display (card balance display) 50. The card processor 62 includes a CPU, R
Card processing machine control unit 135 incorporating OM, RAM, etc.
Is provided, and the card processor 62 is entirely controlled by the card processor controller 135.

If the player inserts a card into the card insertion / ejection slot 133 and the inserted card is proper and the remaining amount of the card remains, and if the ball lending operation is possible, the card processor control unit 135 , A control signal for turning on the ball lending LED is output to the pachinko gaming machine 60, and the ball lending LED (ball lending display) 48d provided in the ball storage plate 59 as an example of the ball hitting standby unit is turned on. You. The ball lending LED (ball lending display) 48d lights up and displays that a ball lending operation is possible. When the player confirms that the ball lending LED (ball lending indicator) 48d is lit, the ball lending button 4
4c is pressed. Then, a ball payout command signal is output from the card processing machine 62 to the payout control microcomputer 350 of the pachinko gaming machine 60, and a ball lending amount setting switch 13 including, for example, a rotary switch to be described later.
7 (see FIG. 2), game balls (pachinko balls) corresponding to the amount of the ball to be paid out by one ball lending operation preset in advance (hereinafter simply referred to as the ball lending amount) are paid out in the hit ball supply plate 59. Is done. The ball lending LED (ball lending display) 48d is turned off until the payout of the ball lending amount is completed. Then, when the payout of the pachinko balls for the ball lending is completed, the remaining card amount of the card inserted into the card processing machine 62 is updated to be reduced by the ball lending. The card processor 62 inputs recording information of a recording medium in which information that can specify the value of the player is recorded, and uses the value specified by the input recording information to play a ball. A ball payout command means for deriving a ball payout command signal for paying out is constituted.

In the figure, reference numeral 42c denotes a return button, and a lendable ball L
The operation is effective while the ED (ball lending indicator) 48d is on. When the return button 42c is pressed by the player, the card inserted in the card processor 62 is returned to the player from the card insertion / ejection port 133. This card insertion / ejection port 13
3 is provided with a ridge on the outer periphery of the groove portion into which the card is inserted and ejected. The inconvenience of a player who wishes to play a game with a pachinko gaming machine (not shown) installed on the left side of the card processing machine 62 by mistake inserts a card into the card insertion / ejection port 133 of the card processing machine 62. We try to prevent it as much as possible. In the drawing, reference numeral 132 denotes a card insertion lamp, which is lit when a card is inserted into the card insertion / ejection port 133 and held at a predetermined position.

The remaining amount of the card when the card is inserted and the remaining amount of the card after the ball lending is performed and the amount is updated are reduced by a remaining amount display (card balance display) 50 provided on the hit ball supply plate 59. Is displayed. In a state where the pachinko ball has been paid out into the hitting ball supply tray 59, the player operates the hitting ball operation handle 12
By operating 1, the pachinko balls are driven one by one into the game area 120 formed on the front of the game board 967. In the game area 120, starting winning prize ports 125a, 125b, 12
5c, and the starting winning prize ports 125a to 125c are provided.
5c is a variable display device 1 when a pachinko ball is won.
23 is variably started. Then, when the display result at the time of stop is a combination of specific identification information (777), a big hit state as a predetermined game state is established, and the variable winning prize ball device 124 is opened, so that a first state in which pachinko balls are easy to win is established. In addition, when the display result at the time of stopping the variable display device 123 becomes the specific identification information, the game value may be directly given by paying out the prize ball or giving the score. When a pachinko ball wins in the start winning opening 125a, n (for example, 7) prize balls are paid out to the hit ball supply plate 59 for each winning. When a pachinko ball wins in the starting winning openings 125b and 125c, m (for example, 10)
Prize balls are dispensed into the hitting ball supply tray 59. Further, when a pachinko ball wins in a normal winning opening or the variable winning ball device 124 provided in the game area 120, K (for example, 15) prize balls are placed in the hitting ball supply tray 59 for each winning. Will be paid out. The payout lamp 126 is lit or blinked during the payout of these premium balls.

The prize balls to be dispensed into the hitting ball supply tray 59 are stored in a ball tank 151 (see FIG. 2) which will be described later. If the stored balls in the ball tank 151 are exhausted, the tank ball sensor 150 Stops detecting the ball, and at that time, the ball-out indicator 127 is lit or blinks to indicate that the stored ball has run out. The surplus balls that have been filled with prize balls and cannot be stored any more are discharged into the surplus ball storage plate 122. When the surplus ball storage tray 122 is also full, when a prize ball to be paid out thereafter is generated, a credit score indicator for storing and displaying the number of the prize ball or the amount corresponding to the prize ball, and the like. May be provided on the hit ball supply tray 59. That is, in the present embodiment, as will be described later, after the payout control of the prize ball based on one winning prize ball is completed, the process of paying out the prize ball based on the next winning prize ball is further performed. After the surplus ball storage tray 122 becomes full, if there is a prize ball to be paid out based on the winning prize ball, the number of prize balls to be paid out based on the winning prize ball or the prize ball corresponds to the prize ball. After the addition and storage are completed, the addition and storage based on the next winning ball is performed.
The stored value added and stored may be displayed on a credit score display. In that case, after the number of pachinko balls in the ball storage dish 59 and the surplus ball storage dish 122 is reduced, a prize ball corresponding to the score displayed on the credit score indicator is paid out. Remaining amount display (Card balance display)
Although 50 is configured by a 7-segment display, a plurality of light emitting diodes may be provided in correspondence with the lending amount or 100 yen unit instead. Further, the amount of lending may be displayed by a remaining amount display (card balance display) 50, and another display is provided to display the lending amount or attach a sticker on which the lending amount is printed. Or you may. 1 in the figure
Reference numeral 5 denotes a speaker that emits a sound effect at the time of a big hit.

On the front side of the card processor 62, a fraction display switch 136 is provided. The fraction display switch 136 is used to display a digit when the remaining amount of the inserted card displayed by the remaining amount indicator (card balance indicator) 50 has a fraction less than a predetermined unit number (for example, 100 yen). Is switched to display a fraction less than the predetermined number of units (for example, 100 yen). That is, a predetermined number of units (for example, 100 yen) due to a change in the monetary equivalent value of a pachinko ball to be lent out due to a change in the ball lending rate.
When the fraction display switch 136 is switched when the remaining amount of the card is less than 1, first, if there is a remaining amount of 10,000 yen unit, the fraction is truncated and the remaining amount display (card balance display)
The display is blinked by 50, and when the remaining amount in the unit of 10,000 yen is exhausted, the display is automatically switched to light up to a fraction of less than 100 yen. The remaining amount display (card balance display) 50 may be provided on a curtain plate or the like.

FIG. 2 is a rear view showing a partial internal structure of the card processing machine and the pachinko gaming machine.

The card processor control unit 1 of the card processor 62
35 is connected to a relay terminal board 138 provided in the pachinko gaming machine 60 by a connector 139, and the card processing machine controller 135 and the relay terminal board 1 are connected.
38 can transmit and receive information to and from each other by wiring. The relay terminal board 138 includes a payout centralized control board 730 housed in the payout control board box 145, a game control board 148 'housed in the game control board box 148, a terminal box 149 for a gaming machine, The ball payout board 70 is connected via connectors 141, 144, 143 and 142, respectively.
Further, the above-described various indicators and switches of various operation buttons provided on the hit ball supply tray 59 are connected to the relay terminal board 138 via the connector 140. It is to be noted that various indicators and switches of various operation buttons provided on the card processor control unit 135 and the hitting ball supply tray 59, and a payout central control board 730 in the payout control board box 145.
May be directly connected without wiring via the relay terminal board 138, and the payout central control board 730 and the ball payout board 70 may be connected via the relay terminal board 138. Further, the card processor control unit 135 and the payout central control board 730 may be directly connected by a connector.

On the back side of the card processor 62, a lending amount setting switch 137 for previously inputting and setting a lending amount to be paid out by one ball lending operation is provided. 100 yen, 200 yen, 300 yen, 400 yen,
Five kinds of amounts of 500 yen can be input and set. For example, if the ball-playing amount is set to 300 yen as shown in the figure by an attendant at the amusement arcade, the 300-yen is set as the ball-playing amount, and the microcomputer 30 of the card processor control unit 135 is used.
0 (see FIG. 6). Then, the player inserts the card into the card insertion / ejection port 133, and the ball lending button 44
By pressing c, the lending amount (30
Pachinko balls worth 0 yen) are paid out in the hitting ball supply tray 59 and are reduced from the card balance. In the figure, reference numeral 134 denotes a card reader / writer control unit including a card reader / writer and its control circuit, and 131 denotes a remaining balance indicator at the time of insertion.

The dispensing control board box 145 is provided with an error cause display 146 so that when the dispensing of the pachinko balls is abnormal by the ball dispenser 63, the type of the abnormal cause can be displayed. ing. Then, when the staff in the game hall repairs the abnormality that has occurred, the reset button 147 is operated to reset the ball payout control program. Instead of providing the error cause display 146 in the payout control board box 145, the error cause is displayed by the remaining amount display (card balance display) 50 provided in the ball storage tray 59, and separately provided on the front side of the gaming machine. An error cause display may be provided, the flashing mode of the payout lamp 126 may be changed depending on the error cause, or the display may be performed by a hall management computer. The ball lending machine 63 is detachably attached to a mechanism plate 751 of the pachinko gaming machine 60 with screws or the like, and the pachinko balls stored in the ball tank 151 are supplied through the tank rail 67. It is configured as follows. In the course of the supply path of pachinko balls from the tank rail, ball confirmation sensors A (68a) and B (68b) respectively.
Is provided so that it can be confirmed whether or not the pachinko ball supplied to the ball dispenser 63 exists. The ball payout device 63 is provided with a payout motor 223, and the pachinko balls are paid out into the hit ball supply tray 59 by using the driving force of the payout motor 223. A ball counting sensor A (68) for counting the number of payout balls in the middle of the payout path.
c) and B (68d) are provided. Further, the pachinko balls in the ball tank 151 can be discharged to the outside and extracted by reversing the payout motor 223. In the drawing, reference numeral 771 denotes a motor drive display for lighting or blinking display indicating that the payout motor 223 is being driven. In the figure, reference numeral 180 denotes a ball removal switch, which is used to detect a ball removal operation by a staff member of the game arcade and to reverse the payout motor 223.
The method of mounting the ball dispenser 63 on the mechanism plate 751 is not limited to screwing, but may be removably mounted by another method such as locking with a locking metal or elastic holding using an elastic holding member. Further, it may be fixedly attached so that it cannot be removed.

When the pachinko balls hit into the game area 120 win the start winning holes 125a, 125b, 125c (see FIG. 1), the winning balls are detected by the start winning ball detection switches 128a, 128b, 128c. The game control board 148 'in the game control board box 104 is controlled by the variable display device 123 (FIG. 1) based on the detection signal.
(See Reference). The detection signal of the start winning prize ball detection switch 128a is input to the game control microcomputer 370 (see FIG. 8) of the game control board 148 'and is used for control described later. On the back side of the game board 81 forming the game area 120, a winning ball collecting gutter composed of a first winning ball collecting gutter and a second winning ball collecting gutter is formed in two layers. . And the starting winning opening 125
The winning balls a, 125b and 125c are guided to the second winning ball collecting gutter and detected by the winning ball sensor A (170a). On the other hand, the pachinko ball that has won the normal winning opening or the variable winning ball device 124 is guided to the first winning ball collecting gutter and detected by the winning ball sensor B (170b). In the drawing, 171a and 171b are payout solenoids,
This is for dropping the winning balls for which the prize balls have been paid out one by one downward. If a pachinko ball wins in the center starting winning opening 125a shown in FIG. 1, n (for example, 7) prize balls are paid out for each winning prize ball, and the starting winning prize holes 120b and 120c provided on the left and right are paid out. If any of the pachinko balls wins, m (for example, 10) prize balls will be paid out for each winning ball. On the other hand, if a pachinko ball wins in the normal winning opening other than the starting winning opening 125a, 125b, 125c or the variable winning ball device 124, k (for example, 15) prize balls are supplied for each winning ball. Dispensed into the plate 59. The number (n, m, k) of prize balls to be paid out per winning prize ball is set and stored as fixed information on the game control board 148 '.

The surplus balls that have been discharged from the ball dispenser 63 due to the pachinko balls and the hit ball supply tray 59 is full and can no longer be stored are discharged into the surplus ball tray 122, and the surplus ball tray 122 is also full. Becomes full, the full tank detection switch 162 detects that the tank is full,
The payout of the ball is controlled to be stopped.

The stored balls in the ball tank 151 are discharged from the ball dispenser 63.
Ball sensor 150 in the middle of the tank rail 67 leading to
Is provided. The tank ball sensor 150 detects that the stored ball in the ball tank 151 has run out,
The detection signal is transmitted to the game control board 149, the relay terminal board 1
The payment centralized control board 730 in the payout control board box 145 is input to the payout control board box 145 through 38. This tank ball sensor 150
When the ball no longer detects the ball, the ball-out indicator 127 is illuminated and displayed, and only the pachinko ball payout operation by ball lending is deactivated as described later (S7 in FIG. 15).
4). The ball tank 151 has a replenishing device 1 including a replenishing ball detector for pachinko balls from a replenishing gutter 152 provided on the island.
53. The supply ball supplied to the ball tank 151 is detected by the supply ball detector of the supply device 153. One pulse is detected by detecting that a predetermined number a (for example, 10) of pachinko balls have been supplied. A signal is output from the replenishment ball detector. The output signal is transmitted to connector 154. Instead of paying out the pachinko balls in the ball tank 151 to the ball supply tray 59 in response to the ball lending request signal from the card processor 62, the player lends the ball lending purchased from the ball lender into the ball supply tray 59. In the case of a conventional general-purpose pachinko game machine which is inserted into a game machine, the connector 154 is connected to the connector 155 connected to the management computer for the hall, and the detection signal from the supply ball detector is used for the hall. The number is transmitted to the management computer, and the number of disadvantageous balls which is disadvantageous for the game hall is detected based on the transmitted detection signal by the hall management computer. However, as in the present embodiment, in a pachinko game machine of a system in which a part of the stored balls in the ball tank 151 is paid out into the hit ball supply tray 59 based on a ball lending request signal from the card processor 62, A lending ball which does not become a disadvantage ball for the game hall is supplied from the supply gutter 152 to the ball tank 151, and the supplied lending ball is detected by the replenishment ball detector and the disadvantage ball count is increased. The information is input to the hall management computer, which causes a problem that the hall management computer cannot accurately count the number of disadvantage balls. Therefore, in the pachinko gaming machine of the present embodiment, the connector 155 connected to the hall management computer is disconnected from the connector 154 connected to the replenishing ball detector of the replenishing device 153, and the terminal box 1 for the gaming machine is used.
The connector 156 is connected to the connector 156. Every time the number of prize balls to be paid out based on the winning of the pachinko balls reaches a predetermined number a (for example, 10), a predetermined pulse signal is output from the payout central control board 730, and the predetermined pulse signal is used for a gaming machine. It is configured to be transmitted to the hall management computer via the terminal box 149, the connector 156, and the connector 155. With this configuration, no pulse signal as information on the number of disadvantaged balls is input to the hall management computer when renting pachinko balls, and the pulse signal is used only for paying out prize balls accompanying a prize. The information is transmitted to the management computer, and the hall management computer can collect accurate information on the number of disadvantageous balls.

The winning ball driven into the game area 120 and winning in the winning opening and the out ball collected in the out opening join and drop into the driving ball tank 159, and the driven ball is detected by the driven ball detector. After being detected by the (hit ball counter) 160, it falls on the collecting gutter 161 provided on the island. In this embodiment, the output of the driven ball detector 160 is configured to be directly input to the hall management computer as in the related art. 730, on the condition that the ball removal process based on the abnormality of the payout is not performed,
It may be configured such that the data is input to the hall management computer from 0. In this way, accurate profit ball count information can be totaled. In addition, you may comprise so that the pachinko ball from which the ball was removed does not fall into a driving ball tank. In the figure, 158 and 157 are connectors for connecting the gaming machine terminal box 149 and the hall management computer, and a unit sales signal (see S125 in FIG. 17) described later is transmitted to the hall management via these connectors 158 and 157. Sent to computer. In the figure, reference numeral 966 denotes a game board holding member for holding the game board 967 against the front frame side, and is configured to be rotatable. The game board 967 can be removed by being rotated by manual operation. ing.

FIG. 3 is a sectional view for explaining the structure and operation of the winning prize processing mechanism 445. Winning ball sensor A
At the side of each of (170a) and B (170b), oscillating bodies 29a and 29b oscillated by payout solenoids A (171a) and B (171b) are provided. The rockers 29a and 29b are rotatably mounted on support shafts 31a and 31b, and have weights 33a and 3b, respectively.
3b is provided. And the dispensing solenoid B (17
1b) in a state where the excitation is released as shown in the figure,
The oscillating body 29b rotates clockwise in the figure due to the weight of the weight 33b. In this state, the actuator 25b of the payout solenoid B (171b) enters the first winning ball collecting gutter 45, and the winning actuator sensor 25b causes the winning ball to be detected by the winning ball sensor B (17).
0b). When the dispensing solenoid B (171b) is excited, the actuator 25a is disengaged like the dispensing solenoid A (171a) on the left side of the drawing.
Is pulled away from the second winning ball collecting gutter 47, and the rocking body 29a is
a and is rotated clockwise in the figure and enters the first winning ball collecting gutter 47 from the upper end thereof. The winning ball supported by the actuator 25a falls downward, and the winning ball located above the winning ball is supported and held by the upper end of the rocking body 29a. As described above, each time the payout solenoid is excited once, one prize ball is discharged into the ball ejection path 1 and discharged outside the machine.

When a winning ball guided to the first winning ball collecting gutter 47 is detected by the winning ball sensor A (170a), a predetermined number of prize balls are paid out, and when the payout is completed, a payout solenoid is provided. A (171a) is excited once to release. Then, the next winning ball is the first winning ball collecting gutter 47.
Is detected again by the winning ball sensor A (170a), and a predetermined number of prize balls are paid out as described above. The winning ball guided to the second winning ball collecting gutter 45 is detected by the winning ball sensor B (170b), and a predetermined number k (for example, 15) of prize balls are paid out, and the payout solenoid B (170b). Is excited, and if there is a next winning ball, a predetermined number k of prize balls are paid out again. As described above, even if the winning ball is continuously generated, the swinging body 2
According to 9a and 29b, only the prize ball for which the payout of the prize ball has been completed flows down, and the prize ball for which the payout of the prize ball has not yet been completed is prevented from flowing down, so that the first and second prize ball collecting gutters 47, 45. This is advantageous in that troubles relating to the number of prize balls to be paid out can be prevented. Instead of storing the proof balls, the number of winnings or the like may be stored by a microcomputer or the like, and the payout control may be performed based on the stored value. In this case, it is desirable to use a backup power supply to prevent the stored values from being erased due to a power failure or the like.

The dispensing solenoids A (171a), B
If (171b) breaks down and becomes non-excitable, the actuator 25a or 25b will be switched to the first winning ball collecting trough 47.
And the second winning prize ball collecting gutter 45 remains in a state, so that the pachinko ball is a prize ball sensor A (170a) or a prize ball sensor B ( 170b), and the winning ball detection signal is continuously derived.
The continuous ON state of the prize ball sensor is detected to determine that the payout solenoid A (171a) or B (171b) is out of order and to notify the abnormal state. The winning ball sensors A (170a), B
(170b) is a so-called proximity switch in which the output signal changes from a predetermined voltage as the pachinko ball passes, and this winning ball detection sensor A (17)
When the output signals 0a) and B (170b) are disconnected, the voltage of the output signal becomes 0V. Therefore, it is detected that the output signal has become 0V and the winning ball sensors A (170a) and B (170b) are disconnected. The notification may be made by performing the determination of. Further, when the winning ball sensors A (170a) and B (170b) are short-circuited, the output voltage becomes an abnormal voltage exceeding a normal voltage, and the abnormal voltage is detected and short-circuited. May be determined, and a notification to that effect may be made.

FIG. 4 is a longitudinal sectional view for explaining the internal structure of the ball dispenser 63. FIG. 5 is a cross-sectional view for explaining the internal structure of the ball dispenser 63. The ball dispenser 63
A pair of housings 804a and 804b are combined, and a payout motor 223 is provided in the pair of housings 804a and 804b. The member 800 is fixedly provided. A spiral convex portion 801 is formed on the outer periphery of the ball feed member 800, and the payout motor 22
By rotating the ball feeding member 800 by the rotation force of No. 3, the pachinko balls can be moved in the direction along the rotation axis of the ball feeding member 800 by the convex portion 801. The cross-sectional shape of the convex portion 801 has a trapezoidal shape in which both side portions 811 are formed in a tapered shape, as shown in FIG. Has become.

Two pachinko balls flowing down from the two ball guide rails 67 (see FIG. 2) are used as ball passages 64a and 64b.
(64b is not visible in the drawing) and is supplied into the ball dispenser 63. The ball passages 64a and 64b are provided with ball confirmation sensors A (68A) and B (68b) (68b is not visible in the drawing) for confirming that there is a pachinko ball supplied to the ball dispenser 63. ing. Ball passage 64a, 6
The two pachinko balls supplied through 4b are led to the ball feed passages 805a and 805b, respectively, and the payout motor 223 rotates forward to rotate the ball feed member 800 so that the pachinko balls are turned out of the payout ports 419a and 419a. It is sent to the 419b side. FIG. 5A shows a state in which the pachinko ball P1 is pushed out to the payout port 419b by the convex portion 801 of the ball feeding member 800. FIG. 5B shows a state in which the payout motor 223 has rotated forward and the ball feed member 800 has rotated halfway from this state. In this state, the pachinko ball P2 is pushed out to the payout port 419a by the projection 801. You.

A groove 81 penetrating in the radial direction of the ball feeding member 800 is provided at the right end of the ball feeding member 800 in the figure.
3 is formed, and a light projector (LED) 802 a is provided on the central axis of the ball feeding member 800 and in the groove 813. Further, a half-rotation detecting sensor 802b for receiving the light projected from the light projector 802a is provided.
The light from the light projector 802a is notched 8
13, the light is received by the half-rotation detecting sensor 802b, and when it is further rotated, the light is interrupted, and the position becomes a half-turn from the position shown in FIG. One pachinko ball is alternately dispensed from each of the payout ports 419a and 419b every time the ball feeding member 800 makes a half turn. Ball detection sensors A (68c) and B (68
d) is detected.

On the other hand, when the payout motor 223 rotates in the reverse direction and the ball feed member 800 rotates in the reverse direction, the ball feed path 805a,
Each time the pachinko balls on 805b are sent to the left in the figure and rotated a half turn, one pachinko ball is discharged from the ball ejection holes 803a and 803b. These ball holes 803a, 803b
The pachinko balls that have fallen into are discharged out of the machine from the discharge path 1 (see FIG. 2). In the figure, reference numeral 806 denotes ball paths 64a and 64b.
Is a ball pressure receiving member that receives ball pressure due to its own weight of the pachinko ball supplied from the ball path, and the ball pressure of the pachinko ball supplied from the ball passages 64a and 64b is the ball pressure receiving member 806.
To the ball feed passages 805a, 805
There is an advantage that the ball pressure of the pachinko balls supplied on b is reduced. Reference numerals 771a and 771b in the figure denote motor drive indicators. When a drive output is given to the payout motor 223, the motor drive indicators 771a and 771b are turned on. As a result, it is useful to find out when the payout motor 223 has failed. Each of the motor drive indicators 771a and 771b is provided with one to be lit when the payout motor 223 rotates in the normal direction and one to be lit when the payout motor 223 is rotated in the reverse direction. 8 in the figure
Reference numeral 08 denotes a wiring hole, and a wiring 810 connected to the light projector 802a, the half-rotation detection sensor 802b, and the motor drive indicators 771a, 771b is connected to the payout central control board 730 through the wiring hole 880. Reference numeral 809 denotes a motor base for mounting the payout motor 223. The ball dispenser 63 is mounted on the mechanism plate 7
51 is attached.

FIG. 6 is a block diagram showing a control circuit of the card processor control unit. The card processor control unit 135 (see FIG. 2) incorporates a card processor controller microcomputer 300. The card processor controlling microcomputer 300 has a function of controlling the operation of various devices as described below. For this reason, the card processing machine control microcomputer 300 is composed of, for example, an LSI of several chips, and includes a CPU 301 capable of executing a control operation in a predetermined procedure, and a CPU 301.
ROM 302 for storing the operation program data, and a RAM 303 for writing and reading necessary data.

Further, the card processing machine control microcomputer 300 receives an input signal and provides input data to the CPU 301, and receives an output data from the CPU 301 and outputs the same to the outside. A power-on reset circuit 305 for giving a reset pulse, a clock generation circuit 306 for giving a clock signal to the CPU 301, and a clock signal from the clock generation circuit 306 is frequency-divided to give a reset pulse to the CPU 301 periodically (for example, every 2 msec). A pulse dividing circuit (periodic reset circuit) 307;
An address decode circuit 308 for decoding address data from the PU 301 is included.

The address decode circuit 308 is connected to the CPU 30
1 is decoded and the ROM 302,
A chip select signal is given to the RAM 303 and the input / output circuit 304, respectively.

In this embodiment, the ROM 302 has a programmable ROM so that its contents can be rewritten, that is, if necessary, program data for the CPU 301 stored therein can be changed. Is used. The CPU 301 provides control signals to various devices according to the program data stored in the ROM 302 and in response to the output of each control signal described below.

The microcomputer 300 for controlling a card processor receives the following signals as input signals.

The staff at the game hall sets the ball lending amount setting switch 137.
By operating (see FIG. 2) to set the ball lending amount,
The setting signal is input to the card processing machine control microcomputer 300 via the detection circuit 309. When the fraction display switch 136 (see FIG. 1) is operated, the switch operation signal is input to the card processing machine control microcomputer 300 via the detection circuit 309. When the player presses the ball lending button 44c (see FIG. 1), the pressing operation is detected by the ball lending operation detector 44d, and the detection signal is sent to the card processing mechanism via the relay terminal board 138 and the detection circuit 309. The data is input to the control microcomputer 300. Player returns button 42c
When a pressing operation is performed (see FIG. 1), the pressing operation is detected by the return operation detector 42d, and the detection signal is input to the card processing machine control microcomputer 300 via the relay terminal board 138 and the detection circuit 309. . From the card reader / writer control unit 134 (see FIGS. 1 and 2), a card acceptance signal, a card abnormal signal, and a card processing completion signal, which will be described later, are input.

From the payout control microcomputer 350 through the relay terminal board 138 and the information input circuit 312,
A payable signal, a ball lending preparation signal, a ball lending completion signal,
A ball lending possible signal is input. The information input circuit 312 has a built-in photocoupler, and the various signals described above from the payout control microcomputer 350 are transmitted to the card processing machine control microcomputer 3 via the photocoupler.
00 is input. Since the signal is input through the photocoupler in this way, the adverse effect caused by the failure generated in the payout control microcomputer 350 does not reach the card processing machine control microcomputer 300. Card processing machine control microcomputer 300 due to failure
The inconvenience of failure can be prevented as much as possible.

Next, the card processing machine control microcomputer 300 outputs a control signal to the following circuits and devices.

LED drive circuit 310, relay terminal board 13
8, ball lending indicator 48d, card balance indicator 5
0 (see FIG. 1) to output a display control signal.
Through the lamp drive circuit 311, the card insertion indicator 13
2. A display control signal is given to the processor usable indicator 130, respectively. Card reader / writer control unit 134 (FIG. 1,
2), a current balance data, a card write / discharge command signal, a balance zero data, and a card collection command signal, which will be described later, are output. A ball lending request signal to be described later is output to the payout control microcomputer 350 via the information output circuit 313 and the relay terminal board 138. Unit box 83
0. A unit sales signal to be described later is output to the ball lending card central management computer via the card processor terminal box 320. This ball lending card centralized management computer is a centralized management computer installed in a ball lending card issuing company or the like. It is connected by a communication line via 320. A unit sales signal is transmitted to the hall management computer via the unit box 830, and a predetermined power is supplied to the card processor 62.

FIG. 7 is a schematic circuit diagram showing a circuit for transmitting and receiving signals between the pachinko gaming machine side and the card processing machine side.

Power supply 7 provided on the pachinko machine side
24 is supplied to the power supply circuit 70 on the card processor side.
1 is input. The power supply circuit 701 is a general power supply circuit including a rectifier, and is for converting an alternating current into a direct current VC (+12 V) and applying it to various circuits and electronic devices. Each of the LED displays 50a, 5 constituting the above-mentioned card balance display 50 provided on the pachinko gaming machine side
A common electrode drive circuit 310a for applying a voltage to each of the common electrodes 0b and 50c is provided on the card processing machine side. The common electrode drive circuit 310a is for applying a voltage to the common electrode of each of the LED displays 50a to 50c based on a control signal from the microcomputer for controlling the card processor. The common electrode drive circuit 31
0a is a switch circuit 702a, 7 including a photocoupler.
02b and 702c, so that the control signal from the microcomputer for controlling the card processor is once converted into light and then converted again into an electric signal.

A segment-corresponding electrode drive circuit 310b for applying a voltage to the electrodes corresponding to the seven display segments of each of the LED displays 50a to 50c is provided on the card processor side. The segment-corresponding electrode drive circuit 310b selects a desired segment-corresponding electrode based on a display control signal from the microcomputer for controlling the card processor and applies a voltage thereto.
Then, on condition that a voltage is applied to the common electrode, the segment corresponding to the applied segment corresponding electrode is switched to the display state. The segment corresponding electrode drive circuit 310b also has switch circuits 703a to 703g each composed of a photocoupler. The display control signal from the microcomputer for controlling the card processor is once converted into light and then converted again into an electric signal. And the segments are applied to the corresponding electrodes. Even if the switch circuits 702a to 702c and 703a to 703g cause an abnormal state such as an abnormally high voltage of the display control signal from the microcomputer for controlling the card processor, the LED displays 50a to 50c are not affected. Failure can be prevented as much as possible.

The ball lending operation detector 44d and the return operation detector 42d provided on the pachinko gaming machine side are input to the card processor controlling microcomputer through the detection circuit 309 described above. This detection circuit 309
Includes a switch circuit composed of a photocoupler corresponding to each of the detectors 44d, 42d.
The detection signal from 42d is once converted into light, then converted into an electric signal again, and input to the card processing machine control microcomputer 300. Thereby, each detector 42
Even if the detection signals from d and 44d are abnormal signals having abnormally high voltages, it is possible to prevent the circuit and the electronic device on the card processor side from being damaged by the influence of the abnormal signals as much as possible.

Ball lending L provided on the card processing machine side
The ED drive circuit 310c includes a switch circuit 705 composed of a photocoupler. The display control signal from the card processing machine control microcomputer 300 is once converted into light and then converted again into an electric signal, and the ball is lent by the electric signal. The display of the display 46d is controlled. Thereby, it is possible to prevent the ball lending display 46d from being damaged by the influence of the abnormality of the display control signal from the card processing machine control microcomputer 300 as much as possible.

A ball lending request signal, which will be described later, is sent from the card processing machine control microcomputer 300 to a switch circuit 706 comprising a photocoupler provided on the card processing machine side and a switch circuit 707 comprising a photocoupler provided on the pachinko gaming machine side. It is input to the payout control microcomputer 350 via the CPU. Also, the card is a card processing machine 6
2, a control signal is input from the card processing machine control microcomputer 300 to the switch circuit 708 comprising a photocoupler, and the control signal is once converted into light and then converted again into an electric signal, and then converted into a pachinko machine. The signal is input to a switch circuit 709 composed of a photocoupler provided on the gaming machine, converted into light once, converted into an electric signal again, and input to the payout control microcomputer 350. These switch circuits 707, 7
06 is a power supply circuit 70 provided on the card processor side.
1 is connected in series with the switch circuit 709,
708 is also connected to the power supply circuit 701 in series.
Then, the switch circuits 706 and 708 on the card processing machine side
The switch circuits 707 and 70 on the pachinko machine side
9 is switched on and off, and when switched on, the photocoupler is operated by the DC voltage VC from the power supply circuit 701 on the card processor side. Switch circuit 70 on pachinko machine side
7 and 709 are operated by the DC voltage VC of the power supply circuit 701 on the card processing machine side because the voltage applied to the switch circuits 707 and 709 on the pachinko gaming machine side is changed by the switch circuit on the card processing machine side thereafter. 706,7
08, the switch circuits 707 and 70
If 9 is configured to be operated by a DC voltage from the power circuit of the pachinko gaming machine, a part of the voltage from the power circuit of the pachinko gaming machine enters the card processing machine, As a result, an abnormally high voltage may partially enter the card processing machine due to a failure of the power supply circuit of the pachinko gaming machine or the like, and the card processing may be affected by the failure of the power supply circuit or the like of the pachinko gaming machine. The inconvenience that the circuit and the electronic device on the machine side break down occurs, and this is to solve such an inconvenience. In addition, switch circuits 706, 707, 70 comprising photocouplers
According to 8,709, as described above, it is possible to prevent the voltage abnormality of one device from adversely affecting the other device on the pachinko gaming machine side and the card processing machine side. In this embodiment, the card insertion signal is always output from the card processor to the pachinko gaming machine during the period in which the card is inserted, but, for example, a ball lending request signal is sent to the pachinko gaming machine. The card insertion signal may be output only when the signal is output.

A ball lending preparation signal and a ball lending completion signal, which will be described later, are input from a payout control microcomputer 350 to a switch circuit 710 composed of a photocoupler. It is input to a switch circuit 711 composed of a photocoupler on the side, is once converted to light, is again converted to an electric signal, and is input to the microcomputer 300 for controlling a card processor.
Also, a payout enable signal from the payout control microcomputer 350 is input to a switch circuit 712 composed of a photocoupler, which is once converted into light and then converted again into an electric signal, which is then switched into a switch circuit 713 composed of a photocoupler on the card processor side. The signal is once converted into light, converted into an electric signal again, and input to the card processor controlling microcomputer 300. Since the switch circuits 710, 711, 712, and 713 composed of photocouplers are provided, the abnormal voltage of one device is prevented from adversely affecting the other device as much as described above. The common electrode drive circuit 310a, the segment corresponding electrode drive circuit 310b, the detection circuit 309, the ball lending LED drive circuit 31
0c, switch circuits 706, 708, 711, 713
Are applied to the DC electrode VC of the power supply circuit 701, respectively. FIG. 7 shows, for example, the relay board 1 shown in FIG.
38 is omitted in the drawing. 730a to 730g in the figure
Are the display units 50a, 50b, 50c of the balance display 50.
Is a resistor incorporated in order to make the magnitude of the voltage applied to a desired value. That is, each of the indicators 50a, 50
The voltages applied to b and 50c are voltages generated in the power supply circuit 701 of the card processor 62, and the balance indicator 50 of the pachinko gaming machine 60 connected to the card processor 62.
May not always be appropriate. In that case, the resistors 730a to 730 having a predetermined resistance value
g is incorporated so that a desired voltage is applied to the balance indicator 50. Resistors 731, 73 for the same reason
2 are provided, and the voltages applied to the switch circuits 707 and 709 can be set to desired values by the resistors 731 and 732. In this embodiment, the card insertion signal is always output from the card processor to the pachinko gaming machine while the card is being inserted. For example, a ball lending request signal is output to the pachinko gaming machine. The card insertion signal may be output only when the operation is performed.

FIG. 8 shows a payout control board box 145.
It is a block diagram which shows the payout control circuit of the payout control board 730 stored in (refer FIG. 2).

The payout control circuit is provided with a payout control microcomputer 350. The payout control microcomputer 350 has a CPU 351 and a CPU 351 similarly to the card processor control microcomputer 300 in FIG.
ROM 352, RAM 353, power-on reset circuit 355, clock generation circuit 356, pulse dividing circuit 35
7, an address decode circuit 358, and an input / output circuit 354, and the description is not repeated here. In addition,
The payout control microcomputer 350 is constituted by a whip-chip microcomputer in which the above-described various circuits are formed into whip-chips.

The following signals are supplied to the payout control microcomputer 350 as input signals.

When the staff at the game hall presses the reset button 147 (see FIG. 2), the reset switch 147 is pressed.
Is turned on, and a reset operation detection signal is input from the detection circuit 359 to the payout control microcomputer 350. When the surplus ball tray 122 (see FIG. 1) is full and the full tank switch 162 (see FIG. 2) is turned on, the ON signal is given to the payout control microcomputer 350 via the relay terminal board 138 and the detection circuit 360. . When a pachinko ball exists in the ball passage opening 64a (see FIG. 4), the presence of the ball is confirmed by the ball confirmation sensor A (68a), and the confirmation signal is transmitted to the relay terminal board 138 and the detection circuit 360. It is input to the payout control microcomputer 350 via the CPU. When a pachinko ball exists in the ball passage 64a, the presence of the ball is confirmed by the ball confirmation sensor B (68b), and the confirmation signal is transmitted to the relay terminal board 1
38, and is input to the payout control microcomputer 350 via the detection circuit 360. When the pachinko balls are paid out from the ball payout device 63 to the payout port 419a (see FIG. 4), the discharged pachinko balls are detected by the ball counting sensor A (68c) (see FIG. 4), and the detection signal is relayed. It is input to the payout control microcomputer 350 via the terminal board 138 and the detection circuit 364. When the pachinko ball is paid out from the ball payout device 63 to the ball payout port 419b, the discharged pachinko ball is detected by the ball counting sensor B (68d), and the detection signal is sent to the relay terminal board 138 and the detection circuit 3
The data is input to the payout control microcomputer 350 via 60. If the staff at the game arcade performs the ball-dropping operation, the ball-dropping switch 180 (see FIG. 2) detects the ball-dropping operation, and the detection signal is sent to the payout control microcomputer 35 via the relay terminal board 138 and the detection circuit 360.
Input to 0.

The detection signal of the half-turn detection sensor 802b provided in the ball dispenser 63 is supplied to the dispensing control microcomputer 3 via the relay terminal board 138 and the detection circuit 360.
50 is input. When the winning ball sensor A (170a) provided in the winning ball processing mechanism 445 detects a winning ball, the detection signal is transmitted to the relay terminal board 138 and the detection circuit 36.
0 to the microcomputer 370 for game control. If a winning ball is detected by the winning ball sensor B (170b) provided in the winning ball processing mechanism 445,
The detection signal is input to the game control microcomputer 370 via the relay terminal board 138 and the detection circuit 360. This game control microcomputer 370
Includes a CPU, a RAM, a ROM, and the like. The presence or absence of a ball in the ball tank 151 is detected by the tank ball sensor 150 (see FIG. 2). Is input to A pachinko ball winning signal described later is input from the game control microcomputer 370 to the payout control microcomputer 350 via the relay terminal board 138 and the information input circuit 365. A ball lending request signal is input from the card processor controlling microcomputer 300 via the relay terminal board 138 and the information input circuit 365. The information input circuit 365 is provided with a photocoupler, and the aforementioned signals input from the game control microcomputer 370 and the card processing machine control microcomputer 300 are sent to the payout control microcomputer 350 via the photocoupler. Is entered. as a result,
It is possible to prevent adverse effects such as failures occurring in the game control microcomputer 360 and the card processing machine control microcomputer 300 from reaching the payout control microcomputer 350, and to control the game control microcomputer 370 or the card processing machine control microcomputer. The inconvenience of causing the payout control microcomputer 350 to fail due to the failure occurring in the 300 can be prevented as much as possible.

Next, the payout control microcomputer 3
50 outputs the following control signals to the following circuits and devices.

LED drive circuit 361, relay terminal board 13
8, a light projector 80 provided in the ball dispenser 63
The light emission control signal is output to 2a, and the motor drive display signals 771a and 772b provided in the ball dispenser 63 are respectively output control signals for motor drive display. In addition, LE
An error cause indicator 446 is provided via the D drive circuit 361.
A control signal for displaying the cause when the error occurs (see FIG. 2) is output. A payout motor drive control signal is output to the payout motor 223 provided in the ball payout device 63 via the motor drive circuit 400 and the relay terminal board 138. Solenoid drive circuit 362, relay terminal board 13
8, a control signal for exciting the discharge solenoid is output to each of the discharge solenoids A (170 a) and B (171 b) provided in the winning ball processing mechanism 445. A payout lamp lighting control signal is output to the payout lamp 126 via the lamp drive circuit 363, the relay terminal board 138, and the game machine terminal box 149. Information output circuit 364, relay terminal board 138, terminal box 149 for gaming machine
A unit sales signal and a prize ball dispensing signal, which will be described later, are output to the hall management computer via. Information output circuit 3
66, a ball lending preparation signal, a ball lending completion signal, a payout possible signal, and a ball lending enable signal are output to the card processing machine control microcomputer 300 via the relay terminal board 138. The information output circuit 364 is provided with a relay switch, and the above-described various processing signals output to the gaming machine control terminal box 149 are output via the relay switch. As a result, the adverse effect of the failure occurring in the payout control system is prevented from reaching the hall management computer, and the inconvenience of causing the failure of the hall management computer due to the failure occurring in the payout control system can be prevented as much as possible. .

FIG. 9 is a diagram showing a circuit for transmitting and receiving data of the number of prize balls to be paid out between the payout central control board 730 and the game control board 148 '.

When the pachinko gaming machine 60 and the card processing machine 62 are connected via the connector 139 (see FIG. 2), a voltage of VL (+18 V) is applied to the photocoupler 852 and provided on the game control board 148 '. A signal is input to the game control microcomputer 370 via the photocoupler input circuit 854. Only when a signal is input to the control microcomputer 370 via the photocoupler input circuit 854, the pachinko gaming machine 60 becomes operable. The game control microcomputer 370 of the game control board 148 'has the number of prize balls to be paid out according to the winning mode of the pachinko balls, that is, n
(7 pieces), m (10 pieces), and k (15 pieces) are stored. The output circuit 850 of the game control board 148 '
It has five output ports 0, D1, D2, D3, and D4, and can output a 4-bit prize ball number signal (prize ball payout number signal) through four output ports D0 to D3. Is configured. Since the output circuit 850 has an output port for a prize ball number signal composed of 4 bits, 1 to 15 15 types of prize ball number signals can be output. The output port D4 of the output circuit 850 is for outputting a sensor type signal described later, and outputs a prize ball based on a detection signal of the winning ball sensor A (170a) or a detection signal of the winning ball sensor B (170b). The output port D4 outputs a signal for identifying whether or not a prize ball is paid out based on the above.

The payout centralized control board 730 is provided with five photocouplers 855 to 859, and each of the photocouplers 855 to 859 is connected to each port D0 of the output circuit 850 of the game control board 148 '.
To D4.

Each of these photocouplers 855-85
9 is supplied with a coupler power supply Vp supplied from the game control board 148 'side, and signals from the output ports D0 to D4 are input to the corresponding photocouplers 855 to 859, so that the input photo A signal from the coupler is input to the input circuit 851 of the payout central control board 730.

When the pachinko ball wins the start winning opening 126a, it is detected by the start winning ball detection switch 128a, and the detection signal is input to the game control microcomputer 370 of the game control board 148 ', and the start winning is achieved. The winning ball that has won the mouth 125a is further detected by the winning ball sensor A (170a), and the detection signal is input to the game control microcomputer 370 via the detection switch input circuit 853. In the game control microcomputer, the detection signal from the start winning ball detection switch 128a and the winning ball sensor A (170)
Based on the detection signal from a), a signal for paying out n (7) prize balls is output to the output circuit 850, and n (7) prize balls are output from the output ports D0 to D3 of the output circuit 850. A signal (for example, 0111) for paying out a prize ball is output to the payout central control board 735. When the pachinko ball wins one of the start winning ports 125a and 125b, the winning ball is detected by the winning ball sensor A (170a), and the detection signal is sent to the game control microcomputer 370 via the detection switch input circuit 853. Is entered. Then, in the game control microcomputer 370,
A control signal for paying out m (10) prize balls is output to the output circuit 850. In the output circuit 850, a signal (for example, 1010) for paying out m (10) prize balls from the output ports D0 to D3 is issued from the centralized control board 73.
Output to the 0 side. If a pachinko ball wins in a normal winning opening other than the starting winning opening or in the variable winning ball device, it is detected by the winning ball sensor B (170b), and a detection signal thereof is transmitted via the detection switch input circuit 853 to the microcontroller for game control. It is input to the computer 370. The game control microcomputer 370 outputs a control signal for paying out k (15) prize balls to the output circuit 850. In the output circuit 850, k from the output ports D0 to D3
A signal (for example, 1111) for paying out (15) prize balls is output to the payout central control board 730 side.

In the payout centralized control board 730, each of the photocouplers 855 to 858 receives the prize ball number signal output from the game control board 148 ', and receives the prize ball number signal from each of the photocouplers 855 to 858. The payout number signal is input to the payout control microcomputer 350 from the input circuit 851. Then, the payout control microcomputer 350 controls payout of the number of prize balls corresponding to the number of inputted prize balls. On the other hand, when the detection signal from the winning ball sensor A (170 a) is input to the game control microcomputer 370, a high level signal is output from the output port D 4, and the high level signal is input to the input circuit 851. Will be. Based on the output of the high-level signal from the output port D4, a signal indicating that the prize ball is being paid out based on the winning ball sensor A is a payout central control board 730.
Is input to On the other hand, when the detection signal of the winning ball sensor B (170b) is input to the microcomputer 370 for game control, the output port D4 becomes low level, and the low level signal is input to the input circuit 851. A signal indicating that the prize ball is being paid out based on the detection signal of the winning ball sensor B (170b) is input to the payout central control board 730. It is to be noted that the winning ball sensors A and B are, for example, only the winning ball sensor A, and the starting winning port 125a,
The winning balls that have won 125b and 125c may be collectively detected by the winning ball sensor A. In this case, a start winning prize ball detection switch 128b is provided not only in the start winning prize opening 125a but also in the start winning prize opening 125b.
The n (7) prize balls number signal is output based on the detection signal from the CPU, and the m (10) prize balls are detected based on the detection signal of the starting prize ball detection switch 128b and the detection signal of the prize ball sensor A. The number signal is output, and based on the fact that only the detection signal of the winning ball sensor A is input, k (15) winning ball number signals are output.

FIGS. 10 to 13 are flow charts for explaining the operation of the control circuit shown in FIG.

In step (hereinafter simply referred to as S) 1,
The setting reading of the lending amount is performed. The “reading of the setting of the lending amount” is a process of reading the lending amount set by the lending amount setting switch 137 shown in FIG.

Next, the process proceeds to S2, where the processor usable indicator 130 is displayed.
(See FIG. 1) is lit to indicate that it can be used. Next, proceeding to S3, it is determined whether or not a card acceptance signal has been received from the card reader / writer control section. If not, the process returns to S3. If the card reader / writer accepts an appropriate card during the loop, the card reader / writer controller determines that a card acceptance signal has been received, and proceeds to S7. On the other hand, if a card error signal is output from the card reader / writer control unit, Y is determined in S4.
The ES is determined, and the process proceeds to S5, in which control for displaying the cause of the card abnormality on the card balance display 50 (see FIG. 1) using a code is performed. Specifically, a code indicating the type of the cause of the abnormality, such as an inability to read the inserted card or a security error, is displayed on the card balance display 50. And
Proceeding to S6, the processor usable indicator 130 (see FIG. 1) is turned on and off. The control at the time of this abnormality will be described in detail with reference to a flowchart of a self-diagnosis process described later. If there is an abnormality in the recording data of the card, a command signal for collecting the abnormal card is output to the card reader / writer control unit 134. On the other hand, in S7, the card insertion display 132 and the ball lending display 48d are turned on, and the card balance display 50 displays the current card balance.

Next, the process proceeds to S8, in which it is determined whether or not a ball lending operation has been performed. If there is no ball lending operation, the process proceeds to S9, in which it is determined whether or not a return operation has been performed. If not, the process returns to S8. Then, if the player presses the return button 42c (see FIG. 1), the process proceeds to S10, the ball lending indicator 48d is turned off, and the process proceeds to S26 to perform control for returning the inserted card thereafter. On the other hand, if the player presses the ball lending button 44c (see FIG. 1), the process proceeds to S11, where the current balance of the inserted card, that is, the card balance display 50 (see FIG. 1).
Is determined to be greater than or equal to the balance set by the lending amount setting switch 137 (see FIG. 2). If the current balance is equal to or more than the set amount, the process of setting the set amount to the ball lending amount is performed in S12, and the process proceeds to S14. On the other hand, if the current balance is less than the set amount, the process proceeds to S14 after setting the current balance to the lending amount in S13. In other words, if the current balance of the inserted card is less than the set amount, it is not possible to set the set amount to the lending amount and pay out pachinko balls for the set amount, so it is possible to pay out with the inserted card A process of setting the maximum amount of money, that is, the current balance of the inserted card, to the lending amount is performed.

Next, in S14, a process of turning off the ball lending indicator 48d (see FIG. 1) is performed. Since the ball lending operation is performed once and the ball lending operation based on the ball lending operation is completed, the next ball lending operation is not accepted.
Until the ball lending indicator is turned on by 3, the ball lending indicator 48d is turned off to display that the ball lending operation cannot be performed. Next, the process proceeds to S15, in which control for starting output of the ball lending request signal to the payout control microcomputer is performed.
Next, proceeding to S16, the timer T1 is set, and proceeding to S17, it is determined whether or not a ball lending preparation signal has been input from the payout control microcomputer. The payout control microcomputer receives the ball lending request signal in S15, performs preparation control for ball lending if the ball lending is possible, and then sends the ball lending preparation signal to the card processing machine control microcomputer in S77. Is output. The microcomputer for controlling the card processor is S1.
If the ball lending preparation signal is received before the timer T1 set at 6 expires, a YES determination is made at S17, and a ball lending command signal is output to the payout control microcomputer at S20, and then the payout control signal is output. A process is performed to wait for transmission of a signal indicating that the microcomputer has finished lending balls. On the other hand, if the ball lending preparation signal has not been input from the payout control microcomputer until T1 ends, the process proceeds to S19, where the processing of stopping the output of the ball lending request signal and clearing the ball lending amount is performed, and S8 is performed. Proceed to.

When the pachinko gaming machine 60 has already paid out a lending ball or pays out a prize ball accompanying a prize, S100, S101, S76, S
Since the process of 77 is not performed, the payout control microcomputer does not output the ball lending preparation signal until T1 is completed. In that case, the process of S19 is not performed. The time T1 is, for example, about 10 msec or more and about 10 sec or less.

On the other hand, after the ball lending command signal is output in S20, a process of subtracting the unit amount from the current balance and subtracting the unit amount from the lending amount is performed in S21. If the ball lending command signal in S20 is given to the payout control microcomputer, the pachinko ball corresponding to the unit amount (for example, 100 yen) is controlled by the pachinko gaming machine as will be described later. The unit amount corresponding to the pachinko ball to be lent is subtracted from the current balance of the inserted card, and the unit amount is subtracted from the lending amount set in S12 and S13. Next, in S22, a process of outputting a unit sales signal to the terminal box for the card processing machine via the unit box is performed. The unit sales signal transmitted to the card processing machine terminal box is output to the ball lending card central management computer, and the ball lending card central management computer sums up the data for the ball lending card. The sales signal output from the card processing machine terminal box to the ball lending card centralized management computer may be performed in real time, or may be collectively performed at regular time intervals or daily. In S23, a process of outputting a unit sales signal to the hall management computer is performed. As a result, the hall management computer can obtain sales information from both card processing machines and pachinko machines,
Compare sales information by taking information from both sides,
By determining an abnormality when they do not match, a failure or the like can be found quickly.

Next, the routine proceeds to S27, where the timer T3 is set. The timer T3 is set to, for example, about 10 seconds in consideration of the time required for paying out the lending ball on the pachinko gaming machine side. If a ball lending completion signal is input from the payout control microcomputer before the timer T3 expires, the process proceeds to S31.
If the ball lending completion signal has not been input even if the processing has been completed, the process proceeds to S30, the processor usable indicator 130 (see FIG. 1) is turned off, and the process proceeds to S24. Then, the return control of the inserted card after S24 is performed. That is, although the ball lending preparation signal is input from the payout control microcomputer and the ball lending control should be performed by the payout control microcomputer, the ball lending completion signal is paid out even after the end of T3. The fact that no data is transmitted from the control microcomputer means that some kind of abnormality has occurred in the ball payout device or the like of the pachinko gaming machine, and in that case, the inserted card is returned to the player.

On the other hand, if a ball lending completion signal is input from the payout control microcomputer before the end of T3, S
Proceeding to 31, it is determined whether or not the lending amount = 0. If there is a remaining unpaid portion of the pachinko balls corresponding to the lending amount set in S12 and S13, the lending amount is not “0”, so the determination of NO in S31 is made. Is made and the process proceeds to S15, where a ball lending request signal is output to the payout control microcomputer again. On the other hand, if all the pachinko balls have been paid out for the lending amount, since the lending amount is 0, S
Proceeding to 32, it is determined whether or not the current balance = 0. If the current balance of the inserted card still remains, the process proceeds to S33, where the ball lending indicator 48d is turned on,
Proceeding to S8, the operation of accepting the ball lending operation and the return operation again is performed. On the other hand, if it is determined in S32 that the current balance is 0, the process proceeds to S34, and a process of outputting a balance 0 and a card write / discharge command signal to the card reader / writer control unit is performed. As a result, the card reader / writer control unit updates the card balance of the inserted card to “0” and returns the inserted card to the player.

Next, the card insertion indicator is turned on and off at S35, and the timer T4 is set at S36. This timer T4 is set in consideration of a time sufficient for the card reader / writer to return the inserted card after updating the balance of the inserted card to "0", and the timer T4 ends. If the card processing completion signal has not been received from the card reader / writer control unit before, S39
Then, a process of displaying a card processor abnormality by a code on the card balance display 50 is performed, and the processor available indicator 130 is controlled to blink. Specifically, for example, a code is displayed to indicate that the balance “0” cannot be written to the inserted card, an error when the written data is read and confirmed, and the like.

On the other hand, if a card processing completion signal is input from the card reader / writer control section before the timer T4 expires, the flow advances to S40 to display a card insertion display for displaying that a card is inserted. Bowl 132
(See FIG. 1) is turned off, and it is determined whether or not there is a ball lending abnormality in S41. If there is no ball lending, the process proceeds to S3, and control for accepting insertion of a new card into the card reader / writer is performed. When there is a ball lending abnormality, the process proceeds to S42, and the reception control of the payout possible signal is performed from the payout control microcomputer.

As described above, each time a pachinko ball (for example, 25 pieces) corresponding to a unit amount (for example, 100 yen) is rented out on the pachinko gaming machine side, the microcomputer for controlling the payout changes the microcomputer for controlling the card processing machine. A ball lending completion signal is output. Each time the card processing machine control microcomputer inputs the output signal, it determines whether or not all the pachinko balls for the lending amount (see S12 and S13) have been lent. If there is an unlent portion that has not been lent yet, the lending of the unit amount (for example, 100 yen) of pachinko balls is repeated until all the unlent portion is lent.

FIG. 12 and FIG.
FIG. 12 is a flowchart showing an interrupt program executed once every c. FIG. 12 shows a flowchart for self-diagnosis processing, and FIG. 13 shows a flowchart for fraction display processing.

At S43, a self-diagnosis is performed to determine whether or not the result is appropriate. If determined to be appropriate, a determination is made at S44 as to whether or not a payout enable signal has been input from the payout control microcomputer 350 of the pachinko gaming machine 60 to the card processing machine control microcomputer 300. Returns to S43. If there is any abnormality as a result of the self-diagnosis, a NO determination is made in S43. The types of abnormalities are roughly classified into two types: errors that can be recovered by errors in the card processor and errors that cannot be recovered by errors in the card processor. An error that cannot be recovered by an error in the card processor is called a special error, and an error that can be recovered by an error in the card processor is called a normal error.

As a specific example of the normal error, for example, when the inserted card is clogged in the card reader / writer, when an unauthorized card such as a forged card is inserted, predetermined data such as new balance data is inserted into the inserted card. If the write data is read and confirmed and the read data is not proper data, it is an error or the like due to poor communication with the card processor terminal box. Note that the unit sales signal is transmitted from the card processing machine 62 to the card processing terminal box 320. If communication failure with the card processing machine terminal box 320 occurs, the unit sales signal to be transmitted is transmitted. The amount data is stored in the card processor 62, and the error is usually generated only when the stored data reaches the limit of the storage capacity.

Specific examples of special errors that cannot be recovered due to an error in the card processor, such as an error that cannot be recovered without restarting the power supply, or a failure of the card processor and failure of the card processor The error indicates that the processor 62 needs to be replaced. As a specific example of the error on the pachinko gaming machine side among the special errors, the ball lending preparation signal and the ball lending completion signal, whose signals change only when the above-described predetermined condition is satisfied, have changed from the beginning when the power is turned on. In this case, if the above-mentioned payout possible signal is not transmitted when the power is turned on, if the ball lending completion signal is not transmitted within T3 (see S29), the aforementioned payout possible signal is turned on during operation.
When it becomes FF, that is, there is a power cut-off on the pachinko gaming machine side or a disconnection of the signal line.

As a result of the self-diagnosis, if it is determined that there is any abnormality, or if it is determined that there is no input of a payout enable signal, the card processing control is interrupted in S45 and whether or not a special error is detected in S46. A decision is made. If the error that has occurred is a special error, S4
8 turns off the processor usable indicator 130 (see FIG. 1). On the other hand, if the error is not a special error, that is, if the error is a normal error, control for displaying a code indicating an abnormal location on the card balance display 50 (see FIG. 1) is performed in S47. In the case of a normal error, in addition to the display of S47, the processor usable indicator 130 is displayed.
Is controlled to blink.

Next, the fraction display process will be described with reference to FIG. In step S49, the fraction display switch 131
It is determined whether or not (see FIG. 1) has been operated, and if it has been operated, it is determined in S50 whether or not the ball lending process is being performed. If the ball lending process is not being performed, the process directly proceeds to S51. If the ball lending process is being performed, the display operation is invalidated. When the ball lending process is being performed, the process may proceed to S51 after the ball lending process ends. In S51, it is determined whether or not an error is occurring. This error includes a normal error and a special error as described above. If it is determined in S51 that no error has occurred, the process proceeds to S52, and based on S52 to S56, the card balance indicator 50 (see FIG. 1) displays the fraction, and the lending amount setting switch 137 (see FIG. 2). Display of the set value of the set lending ball, display of the balance when a card is inserted, display of a unit number for specifying a set of units composed of the card processor 62 and the unit box 830, change with the game The current balance of the inserted card to be inserted is displayed. The various displays are sequentially switched and displayed at predetermined time intervals (for example, one second) in the order described above. Finally, the current balance display is performed in S56, and the current balance display is continuously displayed until the next display switching based on the operation of the fraction display switch 136 is performed.

Next, if the error determined to be in error in S51 is a special error, the flow advances to S58, and the card balance display 50 is displayed in accordance with S58 to S63.
(Refer to FIG. 1), an error code display for displaying the location of the abnormality or the content of the abnormality by a code, a fraction display, a set value display, a balance display at the time of insertion, a unit number display, and a current balance display in a predetermined time ( The display is switched at intervals of, for example, one second. Finally, the current balance is displayed, and the current balance is displayed until the next display switching based on the operation of the fraction display switch. As described above, the error code is displayed only after the fraction display operation is performed.

Next, if the error determined to be in error in S51 is a normal error, the process proceeds to S64, and the current balance is displayed on the card balance display 50 (see FIG. 1) according to S64 to S69. The display is switched at predetermined time intervals (for example, one second) in the order of display, fraction display, set value display, ball display at insertion, unit number display, and error code display. Finally, the error code is displayed, and the error code is continuously displayed until the next display is switched based on the operation of the fraction display switch.

FIGS. 14 to 19 are flow charts for explaining the operation of the control circuit shown in FIG.

While the program shown in the flowcharts of FIGS. 15 to 19 is being executed, the interrupt program shown in FIG. 14 is executed, for example, once every 2 nsec. First, the interrupt program will be described with reference to FIG.

FIG. 14 shows an interrupt program for outputting a payout enable signal from the payout control microcomputer 350 to the card processing machine control microcomputer 300. Payout of balls to the pachinko gaming machine by S158. A determination is made as to whether there is an abnormality. A specific example of the payout abnormality will be described as a cause of the display of the payout abnormality code in FIGS. 15 to 19 described later. If there is an abnormality in payout, S
The output of the payout enable signal is stopped by 160, and if there is no abnormality in the payout, the payout enable signal is output in S159.

Next, the control operation for paying out balls will be described with reference to FIGS. First, in S70, it is determined whether or not both of the ball confirmation sensors A and B detect the presence of a ball. Then, when the pachinko ball is not present at both the detection positions of the ball confirmation sensor A (68a) and the ball confirmation sensor B (68b), the process proceeds to S91, and the ball counting sensors A (68c) and B (68d). It is determined whether or not any one of the pachinko balls has flowed down (see FIG. 4). If not, the ball confirmation sensor A (68a),
It is determined whether or not any of B (68b) (see FIG. 4) has detected the flow of the ball.
Then, it is determined whether the payout motor 223 (see FIG. 4) is rotating or not.
Return to 0. If the payout motor 223 (see FIG. 4) is rotating during the circulation of the loop consisting of S70, S91 to S94, the process proceeds to S95, and the payout abnormality is indicated by the error cause indicator 1
46 (see FIG. 2), and
After performing the ball removal process by 96, the process proceeds to S141. The determination of whether or not the payout motor is rotating in S94 is as follows.
Specifically, the half-turn detection sensor 802b (see FIG. 4) detects the light projection from the light projector 802a and
Is performed based on the detection of the rotation of. This S9
The determination of YES is made when the payout motor 223 rotates even though the pachinko ball payout control is not performed. Such an abnormality is determined by the motor drive circuit 400 (see FIG. 8). ) May be out of order. In such a case, the motor drive circuit is informed of the failure, and the ball removal processing is performed to remove the pachinko balls in the ball tank 151 and the tank rail 67 (see FIG. 2). This prevents a large amount of pachinko balls from being drawn out to the hitting ball supply tray 59 (see FIG. 1) by mistake. Next, when either of the ball counting sensors A and B or the ball confirmation sensors A and B detects the flow of the ball,
Proceeding to 93, an abnormality is notified that the pachinko balls have been paid out even though the pachinko ball payout control has not been performed, and a ball removal process is performed in S97.

Next, if a pachinko ball is present at the detection position of the ball confirmation sensor A (68a) and the ball confirmation sensor B (68b), the flow advances to S71 to determine whether or not the full tank detection is performed. Is performed. Premium ball storage tray 122 (FIG. 1)
If the surplus ball storage tray 122 is not yet full, the process proceeds to S83, and if the surplus ball storage tray 122 is not yet full, the process proceeds to S83.
A determination is made as to whether it is zero. This "number of unpaid"
Means the number of pachinko balls that have not been paid out of the pachinko balls to be paid out, and S76 and S101.
Are set to the respective values, the count value of the payout counter is decremented in S119, and is cleared in S81.

If the number of unpaid items is “0”, S
Proceeding to 73, it is determined whether a ball lending request signal has been received from the card processing machine control microcomputer.
The determination in S73 is repeated until the timer T7 expires. If there is no ball lending request signal from the card processor controlling microcomputer until the timer T7 ends, the flow proceeds to S100. This timer T7 is provided for giving priority to the reception of the ball lending request over the reception of the winning prize ball only for a certain period of time.
Is set by On the other hand, before the timer T7 expires, if a ball lending request signal is sent from the card processing machine control microcomputer to the payout control microcomputer, the process proceeds to S74, and whether the tank ball sensor has detected a ball. A determination is made as to whether or not it is. If there is no pachinko ball in the ball storage tank 151, the payout control of the ball cannot be performed based on the ball lending request signal.
If the ball tank sensor 150 (see FIG. 2) detects that pachinko balls are present in the ball storage tank 151, the process proceeds to S76, where the unpaid number I is set to p, and the payout state is changed. The control for the ball lending operation is performed by setting to "ball lending". The control for the ball lending operation is prioritized until T7 ends, and S1 is not set until T7 ends.
Since the payout control of the prize ball based on the winning prize ball after 00 is performed, the set amount (see S12 and S13) is 2
In the case of 00 yen or more, the control for the ball lending operation is given priority over the payout control of the premium ball. Note that S7
The p of 6 is the number of pachinko balls corresponding to the unit amount (see S21), and is set to, for example, 25. Next, the process proceeds to S77, in which a process of outputting a ball lending preparation signal to the card processing machine control microcomputer 300 is performed, and the process proceeds to S78. After timer T9 is set in S78, S
Proceeding to 79, it is determined whether or not there is a ball lending command signal from the card processor. If not, control is performed in S80 so that the determination in S79 is repeated until the timer T9 times out. Meanwhile, by S20,
If a ball lending command signal has been transmitted, the process proceeds to S82, control for starting blinking of the ball lending indicator is performed, and the process proceeds to S105. If no ball lending command signal has been transmitted, the unpaid number has been cleared by S81. The process returns to S72 later.

In S100, it is determined whether or not the prize ball payout number data is input from the game control microcomputer 370 to the payout control microcomputer 350. Game control microcomputer 37
There are three types of prize ball payout number data sent from 0: m payout command signal at S155, n payout command signal at S165, and k payout command signal at S164.
If none of them has been input, the process returns to S72, but if any of them has been input, the process proceeds to S101, and the number of unpaid prizes I (m or n or k) Is set. Next, the process proceeds to S102, and after starting to turn on the payout display lamp, the process proceeds to S102.
The process proceeds to the payout control of balls 105 and thereafter.

At S105, the rotation of the payout motor 223 is controlled, and the routine proceeds to S106, where the half-turn detection sensor 80
It is determined whether or not 2b (see FIG. 4) has been turned on. If it has not been turned on yet, the process returns to S70.
Then, the determinations in S72, S71, and S83 are performed. At this stage, since the number of unpaid items is p, n, m, or k, a NO determination is made in S83, and S is performed again.
Proceed to 105. If the ball feed member 800 makes a half turn and the half turn detection sensor 802b is turned ON, the process proceeds to S107, and the rotation counter is incremented by "1". As described above, the rotation counter is incremented by “1” every time the ball feeding member 800 makes a half rotation, and is cleared by S117 described later. Next, the process proceeds to S108, where it is determined whether or not the payout ball counting sensors 68c and 68d are turned on. If not, the process proceeds to S115. On the other hand, as described above, the pachinko balls are paid out to the payout ports 419a and 419b every time the ball feeding member 800 makes a half turn. And the payout counter is incremented by "1". Next, the process proceeds to S110, in which it is determined whether or not the payout state is “ball lending”. If the payout state is “ball lending”, the process proceeds to S115. If the prize ball is in the payout state, the process proceeds to S111, and a process of increasing the number of prize balls by "1" is performed. That is, the prize ball is 1 based on the winning prize ball.
Each time the individual is paid out, the process of adding the prize ball payout number by "1" is performed in S111. next,
At S112, it is determined whether or not the number of prize balls has been paid out is "a". If not, the process proceeds to S115. A prize ball payout signal is output to the hall management computer via the connectors 156 and 155. The hall management computer detects the number of disadvantageous balls that are disadvantageous for the game arcade based on the premium ball payout signal. Thus, each time a predetermined number of prize balls are paid out, a prize ball payout signal is output to the hall management computer by one pulse. The number of balls to be paid out is “a”, and is set to, for example, ten.
This “a” is the same value as the number of output units of the supply ball detector of the supply device 153. When the prize ball payout signal is output, the number of prize ball payouts is cleared in S114, and the process proceeds to S1.
Proceed to 15.

In S115, it is determined whether or not the rotation counter (see S17) has reached the unpaid number I. If not, the flow returns to S70. As described above, this rotation counter is incremented by "1" each time the ball feeding member 800 makes a half rotation and one pachinko ball is paid out to the payout side, so that this rotation counter is used. Should be the same as the number of pachinko balls paid out as long as the normal payout is performed. When the rotation counter matches the unpaid number I, the flow proceeds to S116, the payout motor is stopped, the rotation counter is cleared in S117, and the flow proceeds to S118. In S118, a magnitude relationship between the value of the payout counter and the number of unpaid payouts I is determined.
If the ball dispenser 63 is operating normally, the value of the payout counter should be equal to the number of unpaid I when the rotation counter reaches the number of unpaid I, in which case S121
The program proceeds to S122 after clearing the unpaid number I and the payout counter. On the other hand, if the value of the payout counter is smaller than the unpaid number I due to malfunction of the ball payout device 63 or clogging of the pachinko ball to be paid out, the process proceeds to S119, and “unpaid number I−payout” is performed. The calculation result of the "counter value" is updated to the new unpaid number I, the payout counter is cleared in S120, and the process returns to S105. In other words, if the number of pachinko balls actually paid out is less than the number of pachinko balls that have to be paid out, the shortage of pachinko balls is calculated in S119, and the shortage is newly calculated. The number of payouts is set, and the processing of paying out the shortage of the pachinko balls is performed by the processing after S105. On the other hand, if the value of the payout counter exceeds the unpaid number I due to an operation failure of the ball payout device 63 or the like, the process proceeds to S127, and the error cause display 146 indicates that a payout abnormality has occurred.
Performs a process of displaying by the code. Next, the process proceeds to S128, and after the ball removing process is performed, the process proceeds to S149.
Proceed to.

In S122, it is determined whether or not the payout state is "ball lending".
The process proceeds to S30, but if it is "ball lending", the process proceeds to S123, in which a process of outputting a ball lending completion signal to the microcomputer for controlling the card processor is performed. The process proceeds to output a unit sales signal to the hall management computer via the gaming terminal box 149 and the connectors 158 and 157. The “unit amount sales signal” is a sales signal of a unit amount of pachinko balls due to a unit amount (see S12 and S13) of pachinko balls being lent using a card, and this signal is received. The management computer for the hall calculates the sales amount using the card. Then S1
26 sets the timer T7 and returns to S70.

If the prize ball is paid out based on the winning of the hit ball and the prize ball is paid out, a negative determination is made in S122 and S1 is performed.
From 30 onward, control is performed to discharge one prize ball for which the prize ball payout control has been completed to the outside of the machine. First, S
At 130, the timer T8 is set. This timer T8 is for measuring the time required for checking the payout ball discharging process. Next, in S131, the payout display lamp 126 (see FIG. 1) is turned off, and in S132, it is determined whether or not there is prize ball payout number data. As described above, the prize ball payout number data is transmitted from the game control microcomputer 370 to the payout control microcomputer 350 (S130), and the winning ball sensors A (170a) and B (17).
As long as the detection signal from 0b) (see FIG. 3) is input to the game control microcomputer 372, the prize ball payout number data is continuously transmitted from the game control microcomputer 370 to the payout control microcomputer 350. During the payout control of the prize ball based on the prize ball, an abnormality occurs and the prize ball sensor 17
When the detection signals from 0a and 170b are no longer input to the game control microcomputer 370, the prize ball payout number data is also sent from the game control microcomputer 370 to the payout control microcomputer 35.
0 is no longer input, and in that case, the process proceeds to S133, and the occurrence of the dispensing abnormality is indicated by the error cause indicator 14.
In addition to displaying the code by using the code 6, the processing of removing the ball is performed from S134, and the process proceeds to S141. On the other hand, when the prize ball payout number data is input, the process proceeds to S135, and it is determined whether or not the sensor identification data is “sensor A”. This determination is made based on whether the output port D4 of the output circuit 850 of FIG. 9 is at a high level or a low level. If the prize ball payout control described above is performed based on the detection output from the prize ball sensor A (170a), a high level signal is output from the output port D4, and as a result, YES is determined in S135. Is determined, and S143 is determined.
Will go on. On the other hand, if the prize ball payout control described above is performed based on the detection output of the winning ball sensor B (170b), a low level signal is output from the output port D4. Has S1
A determination of NO is made by 35 and the process proceeds to S136.

In S143, the discharge solenoid A (171)
a) is turned on to retract the actuator 25a, which is located at the detecting portion of the winning ball sensor A (170a) and prevents the slingshot ball from falling, so that the winning ball can be dropped downward. Next, the process proceeds to S144, where it is determined whether or not there is prize ball payout number data. At the stage where the actuator 25a is retracted backward, the winning ball sensor A (170a)
The pachinko ball located at the detecting portion of the prize starts to fall downward, and after the fall starts, the winning ball detection sensor A
Until the pachinko ball falls out of the detection section (170a), the detection output from the winning ball detection sensor A (170a) is continuously input to the game control microcomputer 370, and as a result, the game control microcomputer 374 Control microcomputer 350
Will continue to output the prize ball payout number data.
In the meantime, YES is determined in S144 and S
Proceeding to 145, it is determined whether the timer T8 has expired, and the processes of S143 and S144 are repeatedly executed until the timer T8 ends. If the pachinko ball falls outside the detection portion of the winning ball detection sensor A (170a) before the timer T8 expires, a negative determination is made in S144, the process proceeds to S146, and the discharge solenoid A (170)
a) is controlled to be OFF, and the process returns to S70. However, even if control is performed to turn on the discharge solenoid A (171a) due to clogging of the balls or a malfunction of the discharge solenoid A (170a), the prize ball payout number data is not changed until the timer T8 ends. If the input has not been stopped, the process proceeds to S139, and such an error cause is displayed by a code on the error cause indicator 146. Next, the process proceeds to S140, in which ball removal processing is performed, and in S141, it is determined whether or not a reset operation has been performed, and the process waits until a reset operation is performed. This reset button 1
If 47 (see FIG. 2) is operated, the process returns to S72.

If the sensor identification data is not "Sensor A", in order to drop one prize ball located at the detecting portion of the prize ball sensor B (170b) in accordance with the steps of S136 to S138 and S142. Is performed, and this control is performed in steps S143 to S146 described above.
Since the control is the same as that described above, the description is not repeated here.

Next, S84, S97, S96, S13
FIG. 19 shows the specific contents of the ball dropping process shown in FIG.
It will be described based on. First, at S170, the timer T
11 is set. This timer T11 is used for the ball tank 1
This is for measuring a sufficient time required to discharge all the pachinko balls 51 and the pachinko balls in the tank rail 67 outside the machine. Next, in steps S171 and S172, the payout motor 223 (see FIGS. 4 and 5) until the timer T11 expires.
), And remove the pachinko balls by removing the balls 803a, 8
03b and discharged outside the machine. Next, in S173, the payout motor is stopped, and the ball ejection processing ends. As a condition for stopping the payout motor, the payout motor may be stopped when a predetermined time has elapsed since the ball confirmation sensor stopped detecting the ball.

FIG. 20 is a flowchart showing the control operation by the microcomputer 370 for game control.

First, at S150, it is determined whether or not a card processor connection signal has been input. If not, the flow advances to S151 to set an error flag. This card processor connection signal is transmitted to the photocoupler 85 described with reference to FIG.
2 is a signal input to the game control microcomputer 370 via the photocoupler input circuit 854. The card processing is performed by electrically connecting the card processor 62 and the pachinko gaming machine 60. The device connection signal is input. On the other hand, when the error flag is set in S151, the power flag of the pachinko gaming machine 60 is turned on again to clear the error flag and the pachinko gaming machine 60 becomes operable. If YES is determined in S150, S
At 152, it is determined whether or not the winning ball sensor A (170a) detects the presence of a ball. When the presence of a ball is detected, the process proceeds to S153, the sensor A detection flag is set, and the sensor identification data is set to "sensor A". Is set to
Next, the process proceeds to S154, and it is determined whether or not the winning memory is "0". This prize memory is the starting prize port 125
"1" due to S157 to win a pachinko ball in a
When the payout control of the prize ball based on the winning prize in the starting winning opening 125a is completed, the prize is subtracted by 1 from S161. When the winning memory is not "0", that is, when the pachinko ball is used as the starting winning port 12
At the stage where the player has won 5a and the payout control of the prize ball based on the winning ball has not been completed, the process proceeds to S165, where the process of transmitting the n payout command signal to the payout control microcomputer 350 is performed, and the process proceeds to S156. Thereby, when the pachinko ball wins the starting winning opening 125a, n
The payout control of (seven) prize balls is performed.
On the other hand, if the winning memory is "0", that is, if the pachinko ball has won one of the start winning ports 125b and 125c, the m-payout instruction signal is transmitted to the payout control microcomputer in S155. As a result, when the pachinko ball has won one of the start winning ports 125b and 125c, the payout control of m (10) premium balls is performed. Next, the process proceeds to S156, in which it is determined whether or not a detection signal has been input from the start winning ball detection switch 128a. If there is no detection signal, the process returns to S150. After returning to step S150, the process returns to S150.

The payout control microcomputer 130 based on the m payout command signal or the n payout command signal described above.
The payout control of the prize ball is performed by this, and at the stage when the payout control is finished, as described above, the winning ball sensor A (170)
The control for dropping one winning ball located in the detecting portion of a) downward is performed. When the winning ball falls downward, the winning ball sensor A does not detect the presence of the ball. A NO determination is made based on the result S152, and S
Proceed to 158. In S158, it is determined whether or not the sensor A detection flag is set. If the flag is set, the process proceeds to S159, where the sensor A detection flag is cleared. A determination is made as to whether or not there is any.
After subtracting “1” from the winning memory from 1, the process proceeds to S162,
If the winning memory is "0", the process proceeds to S162.

In S162, the winning ball sensor B (170)
It is determined whether or not b) detects the presence of a ball.
If it has not been detected, the process proceeds to S156, but if it has been detected, the process proceeds to S163, where the sensor identification data is set to "sensor B", and after the k payout command signal has been transmitted to the payout control microcomputer in S164, the process proceeds to S156. Proceed to. As a result, the pachinko balls are activated starting winning ports 125a, 12
When a prize ball other than 5b and 125c is won and a prize ball is detected by the prize ball sensor B (170b) and a prize ball is detected by the prize ball sensor B (170b), a payout command signal of k (15) prize balls is paid out. Sent to the microcomputer.

FIG. 21 is a diagram showing a timing chart for explaining the operation timing of the card processing machine and the pachinko gaming machine.

First, the power is turned on (power on), and at the time point A, the ball lending preparation signal line is turned on, and a payout enable signal on the pachinko gaming machine side is output. Next, at the time point B when the card is accepted, the card insertion indicator 132 and the ball lending indicator 4
8d is turned ON. Next, the ball lending operation detector 44d
It becomes N, and the ball lending operation of the player is detected. At the time of C, the detection of the ball lending operation is performed. At this point, the ball lending indicator 48d is turned off and turned off, the ball lending signal line is turned on, and the card processor 62 enters the ball lending enabled state. At a time point D at which a predetermined delay time a (for example, 20 msec) has elapsed from the time point C, the ball lending request signal line is turned on, and the ball lending request signal is output from the card processor 62 to the pachinko gaming machine 60 side. . The reason why the predetermined delay time a is provided is to provide a sufficient time for the pachinko gaming machine to determine that the ball lending possible signal line has been turned on, thereby preventing a malfunction due to noise.

From the time point D, the ball lending preparation signal confirmation time b (b ≦ T) measured by the timer T1 shown in S18.
At the time point E at which 1) has elapsed, the payout state signal line is turned ON, and a ball lending preparation signal is output from the pachinko gaming machine 60 to the card processing machine 62. From this point, the ball lending command signal confirmation time c (c ≦ T) measured by the timer T9 shown in S80.
At the time point F when 9) has elapsed, the ball lending request signal line is turned off, and as a result, a ball lending command signal is output from the card processor 62 to the pachinko gaming machine 60. At the time point G at which the ball lending completion signal confirmation time d (d ≦ T3) measured by the timer T3 shown in S29 has elapsed from this point, the payout state signal line is turned off, and accordingly, the ball lending completion signal Is the card processing machine 6 from the pachinko gaming machine 60 side.
It is output to the second side. From this point, S
75, the ball lending request signal line is turned on at the time point D when the next ball lending request signal confirmation time e (e ≦ T7) measured by the timer T7 has elapsed, and the next ball lending request signal is sent to the card processor 62.
Is output to the pachinko gaming machine 60 side, and the output of the ball lending preparation signal, the output of the ball lending command signal, and the output of the ball lending completion signal are repeated in the same manner as described above. In FIG. 21, the output of the ball lending request signal, the output of the ball lending preparation signal, the output of the ball lending command signal, and the output of the ball lending completion signal are repeated three times in total, and the time when the last ball lending completion signal is output When no ball lending request signal is output during the next ball lending request signal confirmation time e, the ball lending enable signal line is switched to OFF. Next, return operation detector 4
When 2d is turned on and H is detected, the presence of the player's return operation is detected. At that time, the card insertion display 132 blinks and the ball lending display 48d is turned off and turned off. Then, at the time of I, the card is returned to the player.

Second Embodiment Next, a second embodiment of the present invention will be described with reference to FIGS.

FIG. 22 shows a ball dispenser 63 according to the second embodiment.
FIG. 2 is a vertical cross-sectional view for explaining a peripheral device.
The ball dispenser 63 has a mechanism plate 751
The pachinko balls sent from the ball guide rail 67 are aligned in two rows from the ball passage 6.
4a and 64b supply the ball to the ball dispenser 63. The ball dispenser 63 includes a dispensing motor 223, a ball feeding member 800 rotated by the dispensing motor 223, a projector 802 a provided in a notch 813 formed at the left end of the ball feeding member 800 in the drawing, and a ball feeding member. A half-rotation detection sensor 802b that receives light emitted from the light projector 802a every time the 800 makes a half rotation is provided. Further, the light emitter 102a, the half rotation detection sensor 802b, the payout motor 22
3 are connected to the payout centralized control board 730 through the wiring holes 808. The structure of the ball dispenser 63 provided with such various components is the same as that of the first embodiment.

At the bent portion of the ball guiding rail 67, a ball removing member 881 is provided so as to be swingable. The ball removing member 881 normally has a posture of closing a bent portion of the ball guiding rail 67 as shown by a solid line in the drawing. Then, a staff at the amusement arcade operates a control rod (not shown) from the front of the front frame.
When the operation of opening the ball-dropping member 881 is performed by the above operation, the ball-dropping member 881 swings in the counterclockwise direction in the drawing and assumes the posture shown by the broken line in the drawing. Then, the ball guide rail 67
The pachinko ball in the ball tank 151 (see FIG. 2) is released from the bent portion of the ball through the ball guide rail 67 and the discharge path 1 and discharged out of the machine. Further, when a staff member of the game arcade operates the operation rod again, the ball removing member 881 rotates clockwise to the closed position shown in the illustrated embodiment, and is locked in the closed position.

In the ball passages 64a and 64b, ball sensing members 920a and 920b are provided rotatably. When the pachinko balls are not supplied from the ball guide rail 67, the ball sensing members 920a and 920b rotate clockwise in the drawing to the posture shown by the broken line, and detect the rotation of the ball sensing members 920a and 920b. The ball confirmation sensors A (68a) and B (68b) are turned off. On the other hand, if a pachinko ball is supplied from the ball guiding rail 67, the ball sensing member 920 is generated by the weight of the supplied pachinko ball.
a, 920b rotate counterclockwise, and assume the posture shown in the illustrated embodiment. Then, the ball confirmation sensors A (68a) and B
(68b) turns ON.

A ball guiding member 882 is provided below the ball dispenser 63.
Is provided. The ball guiding member 882 is provided with convexities 883a and 883b for guiding the flow of the balls, and the pachinko balls discharged from the payout ports 419a and 419b are guided by the convexities 883a and 883b and smoothly. It is configured to fall downward. The ball dispenser 63 has a ball feeding member 800 as in the first embodiment.
Is not configured to discharge the balls outside the machine by reversing the rotation of the pachinko balls. Therefore, payout ports 419a and 419b are formed only in the feeding direction of the pachinko balls that are fed forward by the ball feeding member 800. ing. In the figure, 805
Reference numerals a and 805b denote ball feed passages, 880a and 880b denote ball passage members, and 806 denotes a ball pressure receiving member.

FIG. 23 is a longitudinal sectional view as seen from a direction perpendicular to the rotation axis of the ball feeding member 800. Ball dispenser 63
Ball passage members 880a and 880b that supply pachinko balls to the ball inlets 884a and 884b of the ball inlets 884a and 884b.
The shape is adjusted to the height position of 4b. Ball dispenser 6
In a portion slightly below the third ball inlets 884a and 884b, a ball pressure relaxing member 885 is provided, and the ball passages 64a and 6b are provided.
4b, the ball pressure of the pachinko balls supplied thereto is applied to the shape portion of the ball pressure reducing member 885, and the ball feed passage 8
The ball pressure applied to the pachinko balls 05a and 805b is reduced. A space 886 is formed in the ball pressure reducing member 885, and the light projector 802a, the half-turn detection sensor 8
The wiring of 02b is drawn out to the outside through this space 886. An end of the ball feeding member 800 is provided with a pair of convex portions 887 and a cut portion, and a notch 813 is formed between the pair of convex portions 887. The light projector 802a is provided so as to be located between the pair of projections 887. In the state shown in FIG.
The light projected from 02a is blocked by the convex portion 887 and is not detected by the half rotation detection sensor 802b. Then, when the ball feeding member 800 rotates 45 degrees from the state shown in FIG. 23, the light emitted from the light projector 802a reaches a half-rotation detection sensor 802b through a space between the pair of projections 887, Eventually, the ball feed member 80
Each time 0 rotates a half turn, the half-turn detection sensor 802b enters a state of receiving light emitted from the light projector 802a. A cover 888 made of black synthetic resin is provided below the half-turn detection sensor 802b so that light emitted from other than the light projector 802a does not reach the half-turn detection sensor 802b. Note that this cover 888
Is configured to be substantially the same width as the ball pressure relaxing member 885 as shown in the figure, so that pachinko balls falling from both sides do not collide with the cover 888. Incidentally, reference numeral 915 in the figure denotes a cover.

FIG. 24 is an exploded perspective view for explaining the structure of the ball dispenser. The ball dispenser 63 mainly includes a pair of housings 804a and 804b, a dispensing motor 223, a ball pressure relaxing member 885, and an optical detector 802.

The dispensing motor 223 is provided with a ball feed member 800 having a notch 813 formed therein. The dispensing motor 223 is connected to the housing 80 via a motor mounting bracket 899.
4a. This motor mounting bracket 899 includes
A motor mounting hole 900 is provided, and the dispensing motor 223 is screwed into the motor mounting hole 900. Further, a mounting hole 90 formed in the motor mounting bracket 899 is provided.
1 and a motor mounting bracket 899 is attached to the housing 8.
It is screwed and fixed to the mounting hole 04a. The mounting hole 9
01 is also configured so that a wiring press fitting 906 is screwed and fixed. The wiring 810 of the payout motor 223 is held by the wiring press fitting 906 so as not to be obstructed. Drawn to. A connector 907 is provided at the end of the wiring 810 of the payout motor 223.
Is connected to the relay terminal board 138 via the.

The optical detector 802 has a cover made of black synthetic resin.
A half-rotation detection sensor 802b that receives the light emitted from a is provided to face. The optical detector 802 has groove-shaped recesses 890 and 891 formed therein.
The convex portion 910 formed in the optical detector storage space 898 of 4a is inserted into the concave portions 890 and 891, and a pair of housings 804a and 804b are assembled, whereby the optical detector 802 is fixed. . Further, it may be formed integrally with the ball pressure relaxing member 885.

A pair of projections 894 protrude from the internal space of the ball pressure relaxing member 885, and the wiring 810 connected to the optical detector 802 passes through the internal space of the ball pressure relaxing member 885. When being pulled out of the dispenser 63, the wiring 810 is locked by the convex portion 814 so that the wiring 810 is not hung down below the ball pressure fitting member 885. This can prevent the wiring 810 from hanging down and coming into contact with the ball feeding member 800. A connector 909 is provided at the end of the wiring 810 of the optical detector 802, and the connector 909 is connected to the relay terminal board 138. Further, a hole 892,
A pair of holes 892 are provided at symmetric positions on the left and right, respectively, and bosses 896 and 897 formed on the housings 804a and 804b (the bosses formed on the housing 804b are omitted in the drawing). , 893 to fix the ball pressure relaxing member 885.

In the housing 804a, a ball inlet 884a, a ball outlet 419a, a ball feed passage 805a, a ball pressure receiving portion 806, and the like are formed. On the other hand, the method of the housing 804b also includes a ball inlet 884b, a ball outlet 819b, a ball pressure receiving portion 806, and a ball feed passage 805b. On the other hand, the housing 804b has a slit hole 905 serving as a heat radiation hole of the payout motor, and has a convex portion 902 formed therein.
A concave portion 896 is formed in a portion of the housing 804a corresponding to the convex portion 902, and a pair of the housings 804a, 804
The projection 902 is configured to fit into the recess 896 when 04b is fitted. And a pair of housings 8
The housings 804a and 804b are integrally fixed by screws with the 04a and 804b together. Also,
A screw is inserted into a hole 904 for mounting the ball dispenser 63 formed in the housing 804b, and the screw dispenser 6 is
3 is attached to the mechanism plate side.

In the above-described embodiment, as an example of giving a game value to a player, an example is described in which a prize ball is paid out. However, the present invention is not limited to this, and for example, a hit ball wins. Based on the occurrence of the predetermined game state, a score of a predetermined size is added, and the score obtained by the player at the end of the game is recorded on a recording medium such as a card, and is provided to the player side. A so-called card-type gaming machine configured to be discharged may be used.

[0113]

Effects of the Invention According to the present invention described in claim 1, a game in which the game medium payout means is actually paid out a payout amount of operation of the dispensing member as long as you payout operates the game media normally by discharging member The consistency should be maintained between the counting result of the medium and the dispensing operation amount and the counting result.
Since it is determined whether or not the game medium has been normally paid out, the reliability of the payout of the game medium can be improved. According to the second aspect of the present invention, in addition to the effects of the first aspect of the present invention, the discriminating means allows the payout member
More game media are paid out than the number corresponding to the payout operation amount.
Is displayed when it is determined that
More game media than the number corresponding to the payout amount of the payout member
It is possible for a staff member of the game arcade to detect that a payout abnormality has occurred and to deal with it. According to the third aspect of the present invention, in addition to the effects of the first or second aspect of the present invention, the discriminating means allows the payout member to be moved .
Pay out less game media than the number corresponding to the payout amount
If it is determined that the game media has not been
Since the control for paying out the body is performed , the payout of the game media by the number corresponding to the payout operation amount is performed, and the reliability of the payout of the game media can be further improved.

[Brief description of the drawings]

FIG. 1 is an overall front view showing a pachinko game machine and a card processing machine as an example of a ball game machine according to the present invention.

FIG. 2 is a rear view showing a partial internal structure of the card processing machine and the pachinko gaming machine.

FIG. 3 is a vertical sectional view of a main part for describing the structure and operation of a winning ball processing device.

FIG. 4 is a longitudinal sectional view showing the structure of the ball dispenser.

FIG. 5 is a cross-sectional view showing the structure of the ball dispenser.

FIG. 6 is a block diagram showing a control circuit of the card processor.

FIG. 7 is a circuit diagram showing a circuit for transmitting and receiving signals between a pachinko gaming machine and a card processor.

FIG. 8 is a block diagram showing a control circuit of the payout central control board.

FIG. 9 is a diagram showing a circuit for transmitting and receiving prize ball payout number data between a payout central control board and a game control board.

FIG. 10 is a flowchart illustrating an operation of the control circuit shown in FIG. 6;

FIG. 11 is a flowchart for explaining the operation of the control circuit shown in FIG. 6;

FIG. 12 is a flowchart for explaining the operation of the control circuit shown in FIG. 6;

FIG. 13 is a flowchart for explaining the operation of the control circuit shown in FIG. 6;

FIG. 14 is a flowchart illustrating an operation of the control circuit shown in FIG. 8;

FIG. 15 is a flowchart for explaining the operation of the control circuit shown in FIG. 8;

FIG. 16 is a flowchart illustrating the operation of the control circuit shown in FIG. 8;

FIG. 17 is a flowchart for explaining the operation of the control circuit shown in FIG. 8;

18 is a flowchart illustrating an operation of the control circuit shown in FIG.

FIG. 19 is a flowchart illustrating the operation of the control circuit shown in FIG. 8;

FIG. 20 is a flowchart showing a control operation by the game control microcomputer.

FIG. 21 is a timing chart for explaining operation timings of the card processing machine and the pachinko gaming machine.

FIG. 22 is a longitudinal sectional view showing a ball dispenser and its peripheral devices in a second embodiment.

FIG. 23 is a longitudinal sectional view showing a ball dispenser and its peripheral devices in a second embodiment.

FIG. 24 is an exploded perspective view illustrating the structure of a ball dispenser according to a second embodiment.

[Explanation of symbols]

63 is a ball dispenser, 730 is a dispensing central control board, 148 '
Is a game control board, 250 is a payout control microcomputer, 62 is a card processing machine, 60 is a pachinko gaming machine,
445 is a winning ball processing mechanism, 370 is a game control microcomputer, 223 is a payout motor, 800 is a ball feed member, 802a is a light projector, and 802b is a half rotation detection sensor.

──────────────────────────────────────────────────続 き Continued on the front page (58) Field surveyed (Int.Cl. ⁷ , DB name) A63F 7/02

Claims (3)

(57) [Claims] 1. A pinball game machine comprising paying out game media payout means Yu technique medium, the game medium payout means supplying section for paid out gaming media
It has a timber, the bullet ball gaming machine, a payout control hand for controlling the dispensing operation of the game medium payout means
Steps, payout operation amount detecting means for detecting the payout operation amount of the payout member , payout game medium counting means for counting the game media actually paid out by the game medium payout means, and detection by the payout operation amount detection means. Discriminating means for comparing the calculated payout operation amount and the counting result by the payout game medium counting means to determine whether or not the game medium has been normally paid out. Gaming machine. 2. The dispensing member according to claim 2 , wherein
More game media are paid out than the number corresponding to the payout operation amount.
The ball game machine according to claim 1, further comprising a display unit that displays, when it is determined that the game has occurred, that fact . 3. The dispensing control means according to claim 1 , wherein:
Therefore, the number is smaller than the number corresponding to the dispensing operation amount of the dispensing member.
If it is determined that only game media have been paid out
The ball game machine according to claim 1 or 2, wherein control for paying out a shortage of game media is performed in such a case .