JPH0226579A - Prize-winning device for pinball machine - Google Patents

Abstract

PURPOSE:To facilitate the works of an assembly and a repair by unitedly composing a slot machine type display, a mobile wing piece, a large prize-winning port detected, an accessory successive operator, a large prize-winning port prize-winning number display body, a successive number display body, etc., and mounting and removing them on a game board. CONSTITUTION:A slot machine type display 17 to execute a fluctuation display in periods to be different, respectively, to plural display bodies by the prize winning detection of specific prize-winning ports 8-10 is provided, and when the displays of respective display bodies are all made to coincide at the time of the display fluctuation completion of the device 17, a large prize-winning port 19 is opened. The device 17, a mobile wing piece 22 to open the large prize-winning port 19, the driver of the mobile wing piece 22, large prize-winning port detectors 29 and 30 to detect the prize winning to the large prize-winning port 19 to be opened, an accessory successive operator 21 to cause the large prize-winning port 19 to execute a successive opening action, a display body 18 to display the number of prize winnings detected by the devices 29 and 30, and a successive number display body 20 to display the number of prize winnings to the device 21 are unitedly composed as an accessory unit 16, and it is mountably and removably mounted on the game board.

Description

[Detailed description of the invention] Industrial applications The present invention is applied to a winning device of a pachinko machine.

Conventional technology In the case where a slot machine type display device is provided, a plurality of display bodies provided on the slot machine type display device display fluctuating displays at different cycles, and all the displays of each display body match at the end of the display fluctuation. A conventional pachinko machine that opens a big prize opening at a time has a slot machine type display 1ffl, a winning device that forms a big winning opening, and various winning detection devices (big winning opening detection device, A variety of display devices 1 for displaying the prize winning status (such as a display for the number of winnings in the winning opening, a display for the consecutive number of winnings, etc.) are separately arranged on the game board. The prize-winning device forming the mouth and various display necks were also often arranged separately.

Problems to be Solved by the Invention Therefore, the conventional pachinko machine inevitably has a complicated electrical circuit configuration and connections, and it is troublesome to assemble the free ftA5Jl and to disassemble it for repair work in the event of a failure. Ta.

On the other hand, from the player's perspective, if the slot machine type display device, the winning device forming the big winning opening, the various display devices displaying the winning status, etc. are arranged at separate locations, -
There is also the problem that it becomes difficult to instantly check the current playing state, making it difficult to concentrate on playing.

SUMMARY OF THE INVENTION Therefore, an object of the present invention is to provide a winning device for a pachinko machine that facilitates the assembly work of the game board and the repair work in the event of a failure, and also allows the user to instantly check the playing status.

Means for Solving the Problems In order to achieve the above object, the present invention provides a slot which has a plurality of display bodies and performs a variable display on each of the plurality of display bodies at different intervals upon detection of a winning in a specific winning opening. A pachinko machine that houses a machine-type display device and opens a big prize opening when all the displays on each display body match when the display variation of the slot machine-type display device ends, the slot machine-type display device; A movable wing that opens the big winning hole, a drive device for the movable w piece, a big winning hole detection device that detects winnings in the opened big winning hole, and a function that causes the big winning hole to perform continuous opening operation. An object continuous actuation device device, a big winning hole winning number display body that displays the number of winnings detected by the big winning hole detection device, and a continuous number display body that displays the number of winnings to the accessory continuous actuation device are integrated. It has a structure characterized in that it is constructed as an accessory unit and is removably mounted on the game board.

In the functional unit, there is a slot machine type display device, a movable wing drive device that opens the big winning hole, a big winning hole detection device that detects winnings in the opened big winning hole, and a machine connected to the big winning hole. An accessory continuous operating device that performs the opening operation, a winning opening number display that displays the number of wins detected by the winning opening detection device, and a continuous number display that displays the number of winnings to the accessory continuous operating device. After configuring and connecting the electric circuit to be sealed, the accessory unit can be attached to the game board as is or removed.

An accessory unit consisting of a slot machine type display device, a winning device forming a big winning opening, various display devices displaying winning states, etc. is arranged at a specific location on the game board.

Actual R example An embodiment of the present invention will be described below.

In Fig. 1 showing the game board surface of a pachinko machine, there is a grand prize opening 1 in the center of the top, right and left prize openings 2 and 3 on the left and right below it, and left and right passing days 4 below that.
．． 5 is provided. A left opening/closing accessory 6 and a right opening/closing accessory 7 are provided below the left and right passing day 4.5, respectively, and a left opening/closing opening 8. A center first starting port 9 degrees and a right third starting port 10 are provided. In addition, code 11 is a rotating body equipped with a decorative flashing indicator light, code 12
are simple rotating bodies, each of which is rotatably supported on the game board. Reference numerals 13 and 14 are decorative blinking indicator lights, which blink alternately with the blinking indicator lights provided on the rotating body 11. Reference numeral 15 is the mouth for receiving the out ball.

In FIG. 1, the symbol @16 shown in the center is an accessory unit equipped with a big prize opening 1, and as shown in FIGS. 2a and 2b, the machine frame 16a of the cough accessory 1 knit 16 is dot matrix LEDs 17a to 17C constituting the display body of the slot machine type display device 17; human win slot winning number display LEDs 18. A continuous count display LED 20 constituting a continuous count display body. One town that rotates and opens the big prize opening 19 when all the displays match at the end of the display fluctuation of the accessory continuous operation device 21 and the slot machine type display device 17! 22 hats of JJ'A piece are attached integrally. The movable wing piece 22 is connected via a rotation shaft 23 and a lever 24 to a solenoid 5OL1, which is attached to the left and right sides of the back of the machine frame 16a and serves as a drive device for the movable wing piece 22, and when the solenoid 5OL1 is activated. Big prize opening 1
9 is opened. In FIG. 2a, the two-dot chain line indicates the closed position of the movable wing piece 22, and the solid line indicates the open position, that is, the open state of the big prize opening 19.

Note that numeral 25 indicates the number of memories 1. ED, and the codes 26, 27, and 28 are decorative flashing indicator lights.

In addition, as shown in FIG. 3, which shows the cross section Δ-A in FIG. 21a is used to detect pachinko balls falling downward in Figure 2a,
In this embodiment, a proximity sensor is used. code 2
9.30 is a big winning opening detection device constituted by a proximity sensor, and when the big winning opening 19 was opened, a prize was won in one big winning opening, but no prize was won in the above-mentioned accessory continuous operation device 21. It detects pachinko balls.

In addition, in this embodiment, the wiring for various display devices, solenoids, sensors, etc. that are integrally attached to the accessory unit 16a as shown in FIGS. 2 and 3 are connected to removable bin connectors, etc. It is connected to the control device section (not shown) on the side of the game board main body through the electrical circuit configuration,
The connections are made more efficiently, the assembly of the game board itself is simplified, and the accessory unit 16 can be easily removed from the game board, making repair work in the event of a failure easier.

In addition, first! As shown in FIG. 4, the if+ shift opening 8.9.10 is equipped with a proximity sensor 31 provided with a hole 31a on the upper end surface, and when a pachinko ball passes through the hole 31a, it enters the first starting opening. It is detected as a sphere.

FIGS. 5 and 6 are main part configuration diagrams of a prize ball payout device 32 that selectively pays out pachinko balls at the time of winning according to the number of balls to be paid out that is set corresponding to the winning opening. The prize ball dispensing device 32 is disposed between the pachinko ball tank and the prize ball dispensing opening like the conventional prize ball dispensing device, but as shown in FIG.
In FIG. 6, only the prize ball payout device 32 is shown.

As shown in FIG. 6, the prize ball dispensing device 32, which has two rows of ball passages 33 and 34, is provided with a left elevating plate 35 on its negative side (left side in FIG. 5). The left elevating plate 35 is connected to an articulating rod 36 driven by a motor (hereinafter referred to as motor M) that is activated when a ball enters the ball, and is slid upward by the operation of the articulating rod 36. The left lifting plate 35 is provided with ball stop pieces 38, 39 that engage with holes 37 provided in each of the ball passages 33, 34. Further, a prize ball dispensing stop 40 having a claw-like tip 40a is provided below the left elevating plate 35 and is rotatably supported in the direction of the arrow in FIG. In the state shown in FIG. 5, the left side of the engaging portion 40b provided at the upper end of the piece 40 engages with the lower part of the drop plate 35, thereby inhibiting rotation of the prize ball payout valve 40. On the other hand, on the other side of the prize ball dispensing device 32 (on the right side in Fig. 5), the right side is rIJvJ upwardly moved by the solenoid 5QL2 (Fig. 6) that is activated when a ball enters the central first starting port 9. A lift plate 41 is provided, and the right lift plate 41 has holes 4 provided in each of the ball passages 33 and 34.
A ball stopper piece 43 that engages with the ball stopper 2 is provided.

In such a configuration, when normally detecting a ball entering the ball, that is, when detecting a winning in a position other than the central first starting port 9, the articulated rod 36 is actuated by the drive of the motor M, and the left elevating plate 35 is moved upward in FIG. to slide. Therefore, the ball stopper pieces 38 and 39 provided on the left lifting plate 35 are connected to the τ ball passage 33.3 through the hole 37.
4 protrudes inside and supports the pachinko/balls above the eyeball stopper piece 38 and 39 to prevent them from falling, and furthermore, as the left elevating plate 35 rises, the lower part of the left elevating plate 35 and the prize ball payout stop piece 40 Since the engagement with the engagement part 40b provided at the upper end is released, the pachinko balls below the ball stopper pieces 38 and 39 push the prize ball payout stopper 40 by their own weight via the claw-like tips 40a. The prize ball is rotated in the direction of the arrow in FIG. 5 and is ejected from the prize ball dispensing opening. In addition, in the return operation after the end of the payout, after the prize ball payout stop piece 40 rotates in the opposite direction of the arrow due to its own weight and returns to the position shown in FIG. As the left elevating plate 35 descends, the ball stoppers 38 and 39 are retracted from the inside of the ball passage 33 and 34, returning to their initial state and being ejected. Pachinko balls are replenished from the pachinko ball tank into the ball passages 33 and 34.

Further, reference numeral 44 is an operation detection switch that detects the operating state of the left elevating plate 35, and the left elevating plate 35 moves to LF or LF when the motor M rotates in one direction. When the protruding portion 35a separates from the switch 44, the motor M turns ON, and after the left elevating plate 35 reaches its upper limit due to the rotation of the motor M, it descends and returns to the initial position M! It will turn off when you return home.

Incidentally, the raising and lowering operations of the left elevating plate 35 due to the unidirectional rotation of the motor M are realized by a crank mechanism rather than a cam.

On the other hand, when a ball entering the central first starting port 9 is detected, the solenoid 5QL2 is driven along with the above operation, and the right lifting plate 41 is raised to raise the ball stopper piece 43 provided on the right lifting plate 41. 43 protrudes into the inside of the ball passage 33.34 through the hole 42 and supports the pachinko balls above the eyeball stopper piece 43 to prevent them from falling, so that only the pachinko balls below the ball stopper piece 43 are ejected. That will happen. Thereafter, in the same manner as described above, the left lifting plate 35 returns to the initial state #li and the operation detection switch 44 is turned off, and the solenoid 5QL2 returns to the initial state and the ball stopper piece 43.
Pachinko balls are evacuated from the inside of 34 and the ejected pachinko balls are replenished from the pachinko ball tank.

In addition to the above-mentioned components, the badinko machine adopted in this example includes a ball hitting handle equipped with a touch switch,
Although it includes a ball hitting device, an audio device (speaker) that generates sound effects, etc., these devices are already known and have no direct relation to the gist of the present invention, so a description of their configuration will be omitted.

Next, the main parts of the control system of this embodiment will be explained.

In FIG. 7 showing a block diagram of the main parts of the control system, a touch switch 45 provided on a ball hitting handle (not shown) and a proximity sensor 3 attached to each of the first starting ports 8, 9, and 10 are shown.
1. Big winning opening detection device 29°30, accessory continuous operation device 2
1, and the detection output of the operation detection switch 44 of the left lifting plate 35 is sent to the central processing bag 2t (hereinafter referred to as
Each bar display circuit, drive circuit, etc. controlled by the CPU 47 are connected to an output circuit 48 from the CPU 47.

Reference numeral 49 is an LED display circuit, which displays the number of dot matrixes LE, D17a to 17C1, which constitute the slot machine type display device 17, based on the command from CPLJ47, and displays the number of memories ED25. Displays the number of consecutive times and ED20. Driving and controlling the large winning opening winning number display LE018. Further, reference numeral 50 denotes a solenoid drive circuit, which drives and controls two solenoids 5OL1 that drive the movable blade 22 and a solenoid 5QL2 that drives the right lifting plate 41 according to instructions from the CPU 47. The output circuit 48 further includes a flashing indicator light 11.1.
3.14, 26, 27.
A motor drive circuit 54 for driving and controlling the motors is connected to each of the motors. The reference numeral 55 is a ROM that stores the υ control program of the CPtJ47, display data to be displayed on the dot matrix LEDs 17a to 17c, sound effect data tables, etc., and the reference numeral 56 is a ROM that stores intermediate data and various counter values regarding the processing of the CPU 47. This is a RAM that temporarily stores information such as data and flags.

The operation of this embodiment will be described below based on flowcharts (FIGS. 8 to 13) outlining the processing operations executed by the CPU 47.

First, the CPU 47 executes initial settings when the power is turned on, and
Confirm the data of AM56 and select the display data to be displayed on the slot machine type display device W117 for the first time (
Step 81). Note that in this embodiment, the CPU 47
Once all processes have been completed, the process returns to step S2 and starts the same process again, so the process from step S2 onwards is repeatedly executed at predetermined intervals. After completing the initial 11 settings, the CPLI 47 then determines whether the touch switch 45 provided on the ball hitting handle is ON, that is, whether the game has already started (step 82).

If the touch switch 45 is ON, the game has already started, and the processing from step S4 onwards will be executed.

The processing operations of the CPIJ 47 during Ir1fa will be described below, but the processing from step 84 to step 813 shown in FIG. 8 mainly relates to winning detection.

If it is determined in step S2 that the game has already started, the CPU 47 next determines whether or not a winning has been detected by the detection sensors provided in the various winning openings (step S4). If so, it is determined in step S5 whether or not this winning has been detected by the first starting opening detection sensor 31, that is, whether or not it is a winning at the first starting opening 8, 9, 10. ), if the winning is in the first starting opening, 1 is set in the counter C311 that stores the number of winnings in the first starting opening (hereinafter referred to as starting opening winning number storage counter).
Step S to add and remember the number of winnings in the first starting slot.
6), further, it is determined whether or not this winning is a winning in the central first starting port 9 (Step S7), the central first starting port 9
If it is a win, 1 is added to a counter (hereinafter referred to as a low payout number storage counter) C4 that stores 8 payouts and is stored (step 88).

In addition, if it is determined in step S7 that the winning is not in the central first type starting opening 9, a counter that stores 13 payouts (hereinafter referred to as a normal m payout number storage counter)
Add 1 to C and H and store them (step 89).

On the other hand, if it is determined in step S5 that the winning is not in the first starting port 8.9.10, it is further determined in step 510 whether or not the winning is in the accessory continuous actuation device 21.
), a counter that stores the number of wins in the accessory continuous operation device 21 (hereinafter referred to as a continuous operation f/jJ device winning number storage counter) if the prize is won in the accessory continuous operation device 21.
After adding 1 to and storing the number of winnings to the accessory continuous operation device 6c1 (step 511), the process moves to step S9, and 1 is added to the normal payout number storage counter CPH and stored. Further, in step S10, the accessory continuous actuation device ff2
If it is determined that the winning is not in the winning slot 1, the big winning opening detection bag f2ff29.3 provided in the big winning opening 19 is further detected.
Step S12)
, Big winning opening detection device i! If the prize is won in 29.30, the counter that stores the number of wins in the big winning opening detection device f29.30 (hereinafter referred to as the big winning opening winning number storage counter)
Add 1 to C3 and store the number of winnings in the big winning opening detection device 29.30 (step 813), step S9
Then, 1 is added to the normal amount payout count storage counter CPH and stored. On the other hand, if it is determined in step S12 that the winning is not to the big winning opening detection devices 29, 30, the process moves to step S9 and 1 is added to the normal payout number storage counter C3H and stored (step 89). .

In addition, if a prize is confirmed in each prize opening, the CPU 47
Based on the sound effect data set in the data table of the ROM 55 corresponding to the winning opening, the lamp driving device 51 and the audio output circuit 53 are driven to turn on the blinking indicator light 11.13.
．． 14. 26, 27° 288 and speaker 52 are operated to perform a blinking display and audio output. In addition, when the values of the starting opening winning number memory counter C3g, the successive operating device winning number H1, the number of winnings memory counter C6A, and the big winning opening winning number memory counter CJP are updated due to winning detection, the LED display is based on the value of each counter. Drives the circuit 49 and displays the memory number display LED
25.3! 1 Continuation number display LED 20° Large winning opening Displays the number of winnings, switches the display output of the ED 18, and updates each display data.

After the winning status is stored in the process of steps 84 to 813 described above, the CPU 47 executes step 8 shown in FIG.
14, processing related to prize ball payout is started. Steps 314 to 823 shown in FIG.
The processing of FJ is mainly related to the payout of prize balls. It is.

In step 814, it is determined whether the operation detection switch 44, which detects the operation state of the left lifting plate 35, is ON.

If the operation detection switch 44 is OFF, the left elevating plate 35 has returned to its initial position, and the prize ball payout device 32 itself is in a non-operating state, but in this case, the previous payout operation by the prize ball payout device 32 There are cases where the drive of the motor M has not been stopped due to the direct attack, so next, output a drive stop command to the motor M (step 515), and if the previous payout was 8 shots, the right Since the solenoid 5QL2 that drives the lifting plate 41 may be in operation, a drive stop command is further output to the solenoid 5QL2 (step 516).

Next, step 817 determines whether the small amount payout number storage counter C3S is O, that is, whether or not the winning to the central first starting port 9 is stored and it is necessary to execute the 8-shot payout. ), small amount payout number memory counter C38
If it is necessary to execute 8 shots instead of 0, drive the solenoid 5QL2 that drives the right elevating plate 41 (step 818), drive the motor M that drives the left elevating plate 35 (step 819), and move the ball path. From 33.34, the payout of 8 pachinko balls (4 shots in total) is started, and 1 is subtracted from the small payout number storage counter C1S to remember that one 8-shot payout has been performed (step 820). If it is determined in step 817 that there is no need to execute the 8-shot payout, the normal m payout number storage counter C, .
It is determined whether or not it is SO, that is, whether it is necessary to execute a 13-shot payout (Step 521), and if the normal m payout number storage counter CPH is not O and it is necessary to execute a 13-shot payout. In this case, only the motor M that drives the left elevating plate 35 is driven (step 822), and the payout of 6 pachinko balls from the ball path 33, 7 shots from the ball path 34, and 8113 balls is started. Payout number memory counter CPN to 1
It is remembered that one payout of 13 shots was made by subtracting the
Step 523). In addition, when the payout by the prize ball payout device 32 is completed and it is confirmed that the operation detection switch 44 is turned off in step S4 from the next cycle onward, the driving of the motor M and the solenoid 5QL2 is stopped as described above.

In addition, if it is determined in step 814 that the operation detection switch 44 that detects the operating state of the left lifting plate 35 is ON, the prize ball dispensing device 32 that was started operating in the process before the cycle is in operation. Yes This means that the previous payout process is continuing, so the motor M
And the drive stop process of solenoid 5QL2 and the process related to new payout are not executed. In this way, C
The PU 47 proceeds to step S24 shown in FIG. 10 and starts a process of changing the left display displayed by the dot matrix LED'17a. The processing from step 824 to step 837 shown in FIG. 10 is processing for variably displaying the left display displayed by the dot matrix LED 17a.

In step 824, the left display confirmation flag FxF is set when the left display variation ends during other display variation processing.
Determine whether or not has already been set. If the left display confirmation flag FxF is not set, it means that the left display variation process has not started yet, or that the left display variation process has already started in the process before the cycle.

If the left display confirmation flag FxF is not set, it is determined whether or not the starting opening winning number memory counter C8H, which indicates the number of winnings at the first starting opening 8.9.10, is O, that is, whether the left display is still If the fluctuation processing has not been started, it is determined in J3 whether or not it is necessary to start the fluctuation processing of the left display pattern in the relevant cycle (step 525). Therefore, if the starting opening winning number storage counter C311 is not 0 and the number of winnings at the first starting opening 8, 9, 10 is stored,
The processing from step S26 onwards is continued, and the processing for changing the left display is started. In addition, if the left display is already changing in the relevant cycle, it is clear that the value of the starting slot winning number storage counter C3H is not 0 in step 325, and the processing from step S26 onwards is continued as in the case of Bamboo record. The variable display shown on the left will be displayed.

In step 825, the starting opening winning number memory counter C
If it is determined that 311 is not O, that is, if it is determined that it is necessary to start the fluctuation processing of the left display in the relevant cycle, or if the left display is already fluctuating in the relevant cycle, the dot matrix LED 17a A flag indicating that the timer tx that monitors the switching time of the LED output is in operation (hereinafter referred to as the left display switching timer operation flag) Fx
,/Jt? Whether it is before the timer tx starts or the dot matrix LED
It is determined whether the time for switching the LED output of i7a has elapsed (step $26).

When starting the left display variation processing in this period, the timer tx has not yet started and the left display switching timer activation flag Fxt has not been set.
In order to display the display selected in the initial setting among the display data stored in step 5 and start the fluctuation processing of the left display (step 527), immediately set a predetermined time in the timer tx and start it, and see the progress from the LED output switching. Time monitoring begins (step 828). In addition, if the left display variation process has already started in the process before the relevant cycle, this means that the time for switching the display data switched and displayed in the previous process has passed, so the CPU 47 turns the dot matrix LED 17a After switching the LED output (step 527), a predetermined time is immediately set and started in the timer tx, and monitoring of the elapsed time from the LED output is started (step 528). Also, step 8
26, if the left display switching timer activation flag Fxt is not set, the dot matrix LED
If it is determined that the time for switching the LED output of I7a has not elapsed, the previous display state is maintained.

Next, it is determined whether the set time of the timer tx that monitors the switching time of the LED output of the dot matrix LEDI 7a has expired (step 829), and if the set time of the timer has not expired, the left display is switched. The timer operation flag Fxt is set (step 530), and if the timer operation flag Fxt has been completed, the left display switching timer operation flag Fxt is reset (step 531). Then, when it is confirmed that the left display switching timer activation flag Fxt has been reset in subsequent cycles, the LED outputs of the dot matrix LEDs 17a are sequentially switched as described above.

The processes from step 826 to step 831 are repeatedly executed at predetermined intervals after the start of the fluctuation process shown on the left.
It is performed every set time r of x, and the dot matrix L
The display displayed on the ED 17a is updated while being variably displayed, and it visually appears as if a plurality of displays drawn on the rotating drum are rotating. Note that in this embodiment, the dot matrix LED 17a
Alphabet A to G and 1. J and L are displayed in cycles.

Next, the CPU 47 determines whether a flag indicating that the timer Tx that monitors the variable display time on the left display is in operation (hereinafter referred to as the left display variable timer operation flag) FX□ is set, that is, whether or not the timer Tx is started. If it is before the start of the timer Tx, immediately set a predetermined time in the timer Tx and start it (step 833), and set the left display fluctuation timer activation flag FX□. Step 834), starts monitoring the variable display time of the left display.

Next, it is determined whether or not the set time of the timer Tx for monitoring the variable display time of the left display has expired (step 535).
If the left display variation display time has ended, the display data displayed in the dot matrix LE017a at this time is stored in the register Rx, and the left display variation is completed (step 836), and the left display confirmation flag FXF is set. On the other hand, the left display switching timer activation flag Fxt and the left display variation timer activation flag FX1 are reset to return to their initial states (step 537).

That is, the display data displayed on the dot matrix LED 17a is sequentially switched each time the set time of the timer tx elapses, and is displayed when the predetermined time set on the timer Tx has elapsed after the start of the fluctuation processing of the left display. The display data will be stored in the register RX as a final display.

In this way, the CP that has finished the process of changing the left display
The U47 proceeds to step 838 shown in FIG. 11 and starts the process of changing the middle surface water displayed by the dot matrix LED 17b, but the process from step 838 to step S51 shown in FIG. Steps 324 to 8 of the process of changing the left display described above
37, the same processing as described above is performed except that the dot matrix LED used for display is different, so a detailed explanation will be omitted. In addition, in Fig. 11, F indicates the middle surface water confirmation flag, F and t indicate the middle surface water switching F timer operation flag, FYT indicates the middle surface water fluctuation timer operation flag, and LE of the dot matrix LED 17b.
The time set for the timer Ty that monitors the switching time of the D output and the timer Ty that monitors the fluctuating display time of the middle surface water are set longer than those for the processing that fluctuates the left display, so the times set in the middle table The fluctuation of the water is slower than the fluctuation of the left display, and the display is also determined after the left display is determined. In this embodiment, the dot matrix LED 17b has alphabets A-G and 1.
J, L, O, S, T, and Z are displayed in rotation.

The CPU 47, which has finished the process of changing the middle and surface water, next performs the following steps.
The process moves to step 852 shown in FIG. 12 to start the process of changing the right display displayed by the dot matrix LED 17c, but the process from step 352 to step S63 shown in FIG. Corresponding to steps 825 to 836 of the process of changing the display, the same process as described above is performed except that the dot matrix LED used for display is different, so a detailed explanation will be omitted.

In Fig. 12, Fzt indicates the right display switching timer faJ flag, FZT indicates the right display variation timer activation flag, and the timer tz that monitors the switching time of the LED output of the dot matrix LED 17c and the middle surface water variation display. Since the time set in the timer T2 that monitors the time is set better than in the case of the above-mentioned process of changing the middle surface water, the fluctuations shown on the right will be slower than the fluctuations of the middle surface water, and the Determination of the intermediate and surface waters will also be made after the determination of the intermediate and surface waters. In addition, in this embodiment, the dot matrix LED 17G has alphabets A-G, 1, J,
L, O, S, T, Z,? I am trying to cycle through and display them.

The above processing is completed by processing every predetermined cycle, and the left display,
The CPIJ47s has determined that the middle and right displays have been determined, and has stored each of the determined display data in the registers RX, RV, and RZ.Next, it is determined whether or not all of the determined display data match (step 564). If they match, 1 is added to the display-number memory counter C6, which stores the number of matches in the display, to store the number of matches in the display (step 565), and 1 is subtracted from the starting opening winning number memory counter C3!1. , It is assumed that one display combination has been completed by winning the first starting slot (step 866), and the left display confirmation flag FX is set.
F' display confirmation flag F91. The right display switching timer operation flag Fzt' and the right display variation timer operation flag F7□ are reset (step 567).

In this way, the left display confirmed data RX, the middle display confirmed data Ry, and the right display confirmed data RZ match.

The CPU 47, which has determined and stored the discrepancy, then
The process moves to step 868 shown in the figure to start processing regarding opening of the big prize opening 19.

The processes from step 868 to step 883 shown in FIG. 13 are mainly related to opening the big prize opening 19.

In step 868, it is determined whether the flag FJP indicating that the grand prize opening 19 is open is set, that is, whether the grand prize opening 19 is currently open or not, and the grand prize opening 19 is closed. If so, next, it is determined whether the continuous operating device winning number memory counter CCA is O or not, that is,
In the case where the opening operation of the big prize opening 19 has already been performed,
During the opening operation, it is determined whether or not there is a winning in the accessory continuous operating device 21 (step 569). Continuous work fjJ
If the device winning number memory counter C6A is not Or:, then 1 is subtracted from the continuous operating device winning number memory counter C6A and a winning is made to the accessory NR operating device 21 to open the big winning opening 1.
Step S72) to remember that 9 is opened, and add 1 to the triple opening number storage counter C81 to store the number of consecutive openings of the big prize opening 19 due to winning in the accessory continuous operating device 21 (Step 573); Step 57: Drive 5OL1 to rotate the movable wing piece 22 to open the big prize opening 19.
4) Set and start a predetermined time on a timer T that monitors the opening time of the big prize opening 19 (step 575);
The flag FJP indicating that the big prize opening 19 is being opened is set (step $76), and the process moves to step S2.

On the other hand, if it is determined in step 869 that the continuous operating device winning number memory counter CcA/fiO is present, it is further determined whether or not the value of the display number number memory counter CCD is O, that is, the first starting opening. Step 570)
, If the value of the display number storage counter C6 is not O, then 1 is subtracted from the display number storage counter C60, and it is remembered that the grand prize opening 19 is opened when the display matches.Step 871), 5OL1 Step 374: Drive the movable π piece 22 to rotate the big prize opening 19.
), start by setting a predetermined time to the timer T that monitors the opening time of the big prize opening 19 (step 575),
The flag EJP indicating that the big prize opening 19 is being opened is set (step 376), and the process moves to step S2. In addition,
'M consecutive operating device winning number storage counter C6A9 display - number of winnings storage counter C6, if both are 0, the process moves to step S2 without executing the big win or opening of hole 19.

If it is determined in step 868 that the big prize opening 19 is open, then it is determined whether or not the set time of the timer T that monitors the opening time of each of the 11 big winning openings has ended. In step 577), if the set time of the timer T has not ended, the big winning opening winning number storage counter CJP and the continuous operating device entry τr number storage counter C6A
! The added value, that is, the entry τ into the big winning opening while opening the big winning 11 opening 19! It is determined whether or not the total number of pachinko balls played is less than 10 (step 878), and if it is less than 10, the process moves to step S2 with the grand prize opening 19 kept open.

On the other hand, if it is determined in step 878 that the total number of pachinko balls that entered the big winning hole while the big winning hole is open is 10 or more, the drive of 5QL1 is stopped and the big winning hole 19 is opened. After closing (step 581), reset the big prize opening flag FJP (step 582),
A big winning opening winning number storage counter CJP is set to O (step 583), and the process moves to step S2. Further, if it is determined in step 877 that the set time under the timer for monitoring the opening time of the big prize opening 19 has ended, it is further determined whether or not the consecutive opening number storage counter CoI has reached 10, that is, Step 579) determines whether or not the continuous opening operation of the grand prize opening 19 due to winning in the continuous role actuating device 21 has been executed 10 times.If it is less than 10 times, the drive of 5OL1 is stopped and the grand prize opening 1 After closing one (step 581), reset the grand prize opening flag EJP (step 582), set O in the grand prize opening winning number memory counter CJP (step 383),
The process moves to step S2. On the other hand, if it is determined in step 879 that the continuous opening number storage counter Co1 has reached 10, the continuous operating device winning number storage counter CCA and the consecutive opening number storage counter C81 are set to 0 (step 880). Step 581: Stop driving of 5OL1 and open big prize opening 19.
), reset the 7 lag EJP during the number of big winning openings (Step 582), set the big winning opening number of winnings memory counter CJP to 0
is set (step 883), and the process moves to step S2.

Therefore, even if the opening time of the grand prize opening 19 has not reached the set time, if the number of open balls exceeds 10, the grand prize opening 19 is closed (step 878.
Step 381), and the successive opening operation of one big winning hole due to winning in the accessory continuous operation device 21 is limited to a maximum of 10 times (step S79. Step 380
).

As mentioned above, in this embodiment, the winning detection process shown in FIG. 8, the prize ball payout process shown in FIG. 9,
The display fluctuation processing and display matching determination processing shown in FIGS. 10 to 12, and the big winning opening opening processing shown in FIG. 13 are executed at predetermined intervals as one routine. If the non-operation state of the touch switch 45 is detected in step $2, the termination process shown in FIG. 14 is executed, and the small amount payout number storage counter C
331 Since the above routine is repeatedly executed until both the normal amount payout number storage counters CPN reach O, the payout of prize balls is repeated until the values of these counters reach 0 in the prize ball payout process shown in FIG. becomes.

Effects of the Invention The present invention provides a slot machine type display device, a movable wing that closes the i-slot in case of a big win, a drive device for the movable wing, and a system that detects a win in an opened big win slot. A big winning opening detection device, an 8 accessory series device that causes the big winning opening to perform continuous opening operation, a big winning opening winning number display body that displays the number of winnings detected by the big winning opening detection device, and an accessory It is integrally configured with a continuous number display that displays the number of winnings on the continuous operating device, and
Since it is removably attached to the approximate center of the game board, the accessory unit includes a slot machine type display device, a drive device for the movable wing pieces that opens one opening when the jackpot is won, and a system that allows you to enter a prize into the opened jackpot. A big winning opening detection device that detects a big winning opening, an accessory continuous operation device that causes the big winning opening to perform a continuous opening operation, a big winning opening winning number display body that displays the number of winnings detected by the big winning opening detection device, and an accessory. The electrical circuit structure and connection to the continuous number display unit that displays the number of winnings to the continuous operating device can be done rationally, and 'i! 1. When assembling the board or in the event of a malfunction! 1 It is easy to disassemble for recovery work, and moreover, the slot machine type display device, the contribution device that forms the big prize opening, and the various display devices that display the winning status are concentrated in one place on the game board. Since the game is arranged in such a way that the current playing status can be confirmed by visual inspection by Shun, it becomes easier for 12-year-olds to concentrate on playing.

[Brief explanation of the drawing]

Fig. 1 is a front view showing the play board surface of a pachinko machine according to an embodiment of the present invention, Fig. 2a is a front view showing an accessory unit of the pachinko machine, Fig. 2b is a perspective view of Fig. 2a, and Fig. 3 The figure is a plan sectional view taken along section A-A in Figure 2, Figure 4 is a perspective view showing the first starting port of the Pachinko machine, and Figures 5 and 6 are of the prize ball dispensing device of the Pachinko machine. A sectional view showing the main parts,
FIG. 7 is a block diagram of the main parts of the ailJ system of the same pachinko machine, and FIGS. 8 to 14 are flowcharts showing the outline of processing operations of the central processing unit included in the same pachinko machine. 1... Big winning opening, 2... Left winning opening, 3... Right winning opening, 4... Left passing opening, 5... Right passing opening, 6... Left opening/closing accessory, 7... Right opening/closing accessory, 8... Left first starting port, 9... Center first starting port, 10... Right first starting port, 11.12... Rotating body, 13 .14,26.27.28...Flashing indicator light, 15
... Out ball receiver is mouth, 16 ... Accessory unit, 17
...Slot machine type display device, 17a to 17G...
・Dot matrix LED. 18... Big winning opening winning number display LED, 19... Great winning opening, 20... Continuous number display LED, 21... Accessory continuous operation device, 22... Movable wing piece, 23...・Rotation axis, 24...Lever, 25...Memorized number display LED, 2
9.30... Big prize opening detection device, 31... Proximity sensor, 32... Prize ball payout device, 33.34... Ball passage, 35... Left lifting plate, 36... Series Nodal stick, 37.4
2... Hole, 38.39.43... Ball stopper piece, 40.
・・Prize ball payout piece, 41 ・・Left right hand, 44・・
・Operation detection switch, 45...touch switch, 46
...Input circuit, 47...Central processing unit, 48...
Output circuit, 49... ED display circuit, 50... Solenoid drive circuit, 51... Lamp drive circuit, 52...
- Speaker, 53...Audio output circuit, 54...Motor drive circuit, 55...ROM, 56...RAM. Figure b: Pacall〉Ko-ballri〉Ritake prize ball payout port No.5 mouth No.14 Figure: First cause

Claims (1)

[Claims] A slot machine type display device having a plurality of display bodies and performing variable display on each of the plurality of display bodies at a different cycle upon detection of a winning in a specific winning opening, and when the display variation of the slot machine type display device ends; In a pachinko machine that opens the grand prize opening when all the displays on each display match,
The slot machine type display device, a movable wing piece that opens the big winning opening, a drive device for the movable wing piece, a big winning opening detection device that detects winning in the opened big winning opening, and a big winning opening. An accessory continuous operating device that causes the mouth to perform a continuous opening operation, a large winning opening winning number display that displays the number of winnings detected by the winning opening detection device, and a winning number display to the accessory continuous operating device. A winning device for a pachinko machine, characterized in that a continuous number display is integrally formed as an accessory unit, and this is detachably mounted on a game board.