JPH08309006A - Pachinko game machine - Google Patents

Abstract

PURPOSE: To highten expectation for the generation of a specific game all the more and to increase interest by generating a specific game state by a rotary panel display member and an emission display means based on judged output from a specific display mode judging means which judges a prescribed stop and display result state. CONSTITUTION: A variable display device comprises plural rotary panel display members (variable displays 435, 436) in which identification information is arranged in a circumferential direction, a driving control means (for example, accessary controller, driving motor 460, rotation stopping devices 466, 467) which drives/stops the rotary panel display member, and a visible display part which visually displays the rotary panel display member to a player. The visible display part is provided with the emission display means (display lamp 432c) which displays by variably emitting plural display modes, and also, provided with the specific display mode judging means which judges the prescribed stop result mode of the rotary panel display member and the prescribed display result mode of the emission display means, and generates the specific game state based on the judged output of the judging means.

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a pachinko gaming machine which prevents an illegal game using radio waves from a wireless device or the like.

[0002]

2. Description of the Related Art Conventionally, a variable start game is provided in a game area of a game board, and a variable display game is executed based on the detection of the starting prize detector by the winning in the starting prize hole. Such as a pachinko gaming machine equipped with a display device and a variable winning device for converting into a special game state that gives the player a lot of award balls depending on the result of the variable display game by the variable display device 2. Description of the Related Art Various pachinko gaming machines are known in which a game that benefits the player's interest is played based on the detection of a start winning detector.

[0003]

However, in the above-mentioned conventional pachinko game machine, there is no countermeasure against an illegal radio wave that causes an illegal voltage in the detection circuit such as the starting winning detector, so that the player is illegal. For the purpose of
For example, when a radio is transmitted near the start winning port and emits a radio wave, a magnetic field (electric field) is generated in a detection circuit such as a start winning detector in synchronization with the transmission cycle, and an induced voltage (logical level) of the alternating electromagnetic field ( An illegal voltage) is generated, and the operating section malfunctions based on the induced voltage to convert the illegal state into a state advantageous to the illegal player in the game, which may cause an unexpected disadvantage in the game store.

Further, this induced voltage may completely disable the microcomputer for game control, which may give an unexpected disadvantage to the game shop.

Recently, in a pachinko gaming shop, there has been a problem that an illegal player using such a wireless device appears and causes a great disadvantage, and there is a problem to be solved such a problem. there were.

The present invention has been made for the purpose of achieving such a subject.

[0007]

In order to achieve the above-mentioned object, a pachinko gaming machine according to the present invention detects an illegal signal from an external illegal action means for generating an illegal voltage in a detection unit necessary for a game. Illegal action detecting means, and an operating part necessary for a game to stop the game based on detection of an illegal signal from the external illegal action detecting means by the external illegal action detecting means And

[0008]

In the case where the player tries to obtain an unjustified profit by applying an illegal voltage to a detection unit necessary for the game such as a start winning a prize detector by using an external illegal action means such as a wireless device,
The illegal signal from the external illegal action means is detected by the external illegal action detecting means, and the operating parts such as the hitting ball launching device and the accessory control device are stopped based on the detected signal to disable the game.

[0009]

BEST MODE FOR CARRYING OUT THE INVENTION

[First Embodiment] FIG. 1 shows a configuration example of the front surface of a pachinko gaming machine according to the first embodiment to which the present invention is applied. The front surface of a game board 1 (shown in more detail in FIG. 2). Is provided with a guide rail 3 for guiding a hit ball launched by a hit ball launching device 20 driven by operating a lower operation dial 20a to an upper portion of the game board 1, and a guide rail 3 on the front surface of the game board 1. A game area 2 is formed in a space surrounded by the glass plate. And, in the center of the game area 2, there is a variable display device 4 as an auxiliary game device having three variable display parts A, B, C, winning storage display parts 411e to 411h, etc. Although forming a part of the game area 2, an attacker-type variable winning device 5 for converting into a winning area when a specific game mode occurs in the variable display device 4 is installed.

Around the variable display device 4, a rolling guide member 13 (so-called windmill direction changing member for hitting a ball) is rotatably installed.

The first starting prize winning devices 6 and 6 are located at the left and right positions diagonally below the variable winning device 5, and the second starting winning device 8 is located directly below the variable winning device 5. Pocket type general winning a prize openings 9 are installed at the left and right positions of the display device 4 and the outer positions of the first starting winning devices 6 and 6, respectively.

Then, in the starting prize winning devices 6, 6 and 8, there are starting prize detectors 61 (SW ₁ ), 61 (SW ₂ ), 81 (SW ₃ ) which detect the game balls flowing into them. ,
Inside the variable winning device 5, a continuous winning detector 550 (SW
₄ ) and the winning number detector 562 (SW ₅ ) are installed respectively, and various detectors are installed in each part of the variable display device 4 and the like.

A first display is provided inside the upper side of the variable display device 4.
External fraudulent effect detector 1001 of the second, the second external fraudulent effect detector 1002 in the lower inside of the variable winning apparatus 5 and the third and fourth external fraudulent effect inside the starting winning apparatus 6,6. The action detectors 1003 and 1004 are the fifth inside the starting prize winning device 8.
The external action detector 1005 of No. 6, the sixth external action detector 1006 is installed on the back side of the lower right part of the game board 1.

Further, obstacle nails 7 are planted (shown in detail in FIG. 2) at appropriate positions in the game area 2,
An out-ball collecting port 10 is provided in the lower center part of the.

Further, side lamp devices 90, 90 as probability display devices are installed at the left and right positions in the game area 2.

Also, in the upper left portion of the game board 1, a prize ball number indicator 22a for small discharge (for example, 7 discharges) and a prize ball number display 22b for normal discharge (for example, 13 discharges). Is installed. These prize ball number indicators 22a, 22b are
It consists of a semi-transparent panel with a number such as "7" or "13" and a lamp arranged inside it. The number of prize balls is displayed by turning on the lamp corresponding to the required number. I am going to do it.

Further, a completion indicator 23 is installed in the upper right portion of the game board 1 to inform that the expected prize ball discharge value of the pachinko gaming machine has ended (being stopped).
The completion indicator 23 is composed of a semitransparent panel and a lamp installed inside thereof. Further, a driving motor (described later) of the ball striking device 20 is activated when the operation dial 20a on the lower right side of the game machine is operated in the upper center of the holding frame 100 of the pachinko game machine which holds the game board 1 having the above configuration. A pilot lamp 24 is installed to inform the user that it is on. Display lamps 25, 25 are installed at the left and right positions of the pilot lamp 24 to notify that a specific game called "big hit" or "middle hit" is occurring or an illegal game is being played.

Further, on the opening / closing panel 101 attached to the lower part of the holding frame 100, a supply plate 102 for holding the hit balls to be supplied to the hit ball launching device 20 is attached, and below the supply plate 102, prizes overflowing from the supply plate 102. A saucer 103 for storing balls is provided.

A variable time reduction button 1 for stopping the variable display device 4 driven by the winning of the starting winning devices 6, 6, 8 is provided on the left side of the opening / closing panel 101.
05 is installed so that it can be pressed.

Further, a firing stop button 106 for stopping the firing operation of the hitting ball by the hitting ball launching device 20 is installed above the operation dial 20a so that it can be pressed.

Further, a seventh external unauthorized action detector 1007 is installed on the back side of the upper right portion of the holding frame 100, and an eighth external unauthorized action detector 1008 is installed inside the left side portion of the supply tray 105. ing.

The pachinko gaming machine having the above-mentioned general structure is controlled by the control means (described later) such as a computer system installed therein in the following manner.

When electricity is supplied to the pachinko gaming machine by operating a power switch (not shown), the lamps in the winning storage display sections 411e to 411h of the variable display apparatus 4 and the lamps in the winning number display section 515 of the variable winning apparatus 5 are displayed. Start blinking so that all flow at the same time or in a certain direction. The open / close door 513 of the variable winning a prize device 5 is maintained in a closed state, and the left and right guide members 514, 514 are maintained in a vertically upward closed state.

Then, with the player's hand touching the metal portion 20b of the operation dial 20a, the operation dial 2 is operated.
When 0a is rotated, the switch 1 of the firing motor (described later)
When 07 is turned on and the pilot lamp 24 is turned on, the hitting ball launching device 20 is operated and a normal game is started. At the time of this normal game, the prize ball number indicator 22b for normal discharge is turned on for each winning, and the normal number (for example, 13) of prize balls is discharged.

Then, the ball hit into the game area 2 by the operation of the ball launching device 20 is a starting winning device 6, 8
When the inside winning is made, it is detected by the starting winning detectors 61 and 8a respectively installed in the flow paths of the starting winning devices 6 and 8. Based on the detection signal, all the lamps of the memory display portions 411e to 411h of the variable display device 4 are once turned off. After that, the green lamps in the memory display sections 411e and 411f are turned on in the order of a and b in the number corresponding to the number of winning in the first starting winning apparatus 6, and the winning in the second starting winning apparatus 8 is achieved. Memory display unit 4 corresponding to the number
The red lamps in 11g and 411h are turned on in the order of C and D.

The display of the three variable display portions A, B, C of the variable display device 4 changes independently of each other on the basis of the winning memory stored in the starting prize winning devices 6, 8 after a lapse of a certain time after the lighting. To be done.

The manner of variation of the display is based on the memory of winning in the first starting winning device 6 and the second starting winning device 8.
It is different when it is based on winning memory.

That is, based on the winning memory for the first starting winning device 6, the three variable display portions A, B, C of the variable display device 4 display numbers and the like (including all displays other than colors). ) Is also changed, and the color (emission color) is also changed independently for each of the display units A, B, and C at a different speed from the change in the numerical display (alternately changed to red and green). At the time of the change, the side lamps 90, 90 blink, for example, in green to notify that the "big hit" occurrence rate is lower. Further, the lamps (a, b) of the memory display portions 411e, 411f that are in a lighting state at the same time when the fluctuation starts.
One of them is turned off. On the other hand, in the case of being based on winning a prize memory in the second starting winning device 8, all three variable display portions A, B, and C of the variable display device 4 display one color (e.g., red or green) having the same color (emission color). Only one color is changed at a high speed.

During the change, the side lamps 90, 90
Blinks in red, for example, to notify that the "big hit" occurrence rate is higher. Further, at the same time as the start of the change, the memory display portions 411g, 41 which are in the lighting state
One of the 1h lamps (C, D) is turned off.

In either case, when a predetermined time elapses from the start of fluctuation or when the fluctuation time reduction button 105 is pressed, the fluctuations are changed one by one with a random time shift from the left. Display A, B, C
The change of the display (only the numerical display or the change of both the numerical display and the color (emission color)) is stopped and becomes the confirmed display.

Each time a prize is won in the starting prize winning device 6 or 8,
Alternatively, when there is a prize in the starting prize winning device 6, 8 and the number of unprocessed coins is lit and stored in the memory display units 411e to 411h, the three variable display units A, B, C are displayed.
The above-described fluctuation (change in display) of the display is repeated.

Then, as a result of stopping the fluctuation, 3
When the combination of the display (number display and color display) of the two variable display portions A, B, and C becomes a specific mode, the game states of "big hit (special game mode)" and "middle hit" Occurrence occurs, and all other combinations of display are “out”.

In other words, in the case of this embodiment, the "big hit (special game mode)" is a combination in which the number displays of the number display portions A, B, C are all the same (for example, "1, 1, 1",
"3, 3, 3", etc., and those numerical displays A,
This occurs when the emission colors of B and C have the same color. Therefore, in the case of this embodiment, when the variable display portions A, B, C are changed by winning in the first start winning a prize device 6, 6, it is only the numerical display (6 types in this embodiment). Since the color (the two types of green and red in this embodiment) is also changed, the probability of occurrence of "big hit" is 1/1
44. On the other hand, when the variable display portions A, B, and C are changed due to winning in the second starting winning device 8, only the numerical display is changed and the color remains unchanged, so that a "big hit" occurs. Established quadrupled to 1/3
It has a probability of 6. That is, when the variable display portions A, B, and C are changed by the winning in the second starting winning device 8, the probability that the "big hit" is generated increases because the color is not changed.

In the case of this embodiment, when the "big hit" is caused by the winning in the first starting prize winning device 6, 6, and when it is caused by the winning in the second starting prize winning device 8. The game contents (mode of operation and profit) of "big hit" are the same without any difference.

This "big hit (special game mode)" gives the player a chance to acquire a lot of prize balls. In this embodiment, for example, the opening / closing door 5 of the variable winning device 5 is used.
13 is opened and left and right guide members 514, 514
Is opened in an inverted "C" shape and the state is continued for a predetermined time (for example, 30 seconds), or a predetermined number (for example, 10) of hit balls are won in the variable winning device 5 and the number of prizes is won. Continue until 10 lamps on display 515 are lit,
After that, the original state is restored. In this way, the open state is repeated a predetermined number of times (for example, up to 10 times) by satisfying a certain condition described later. The number of prize balls discharged per winning in this "big hit" is the same as that in the normal game, and the prize ball number display 22b for the normal discharge is turned on at each discharge and the normal number (for example, 13
The prize balls will be ejected.

The occurrence display mode of "middle hit" is variable when the batted ball is won in the first starting prize device 6 and the variable display device 4 is activated, and when the batted ball is won in the second starting prize device 8. It differs from when the display device 4 is activated.

That is, when the variable display device 4 is actuated when a hit ball is won in the first start-winning device 6, the occurrence display mode of "middle hit" is, for example, the variable display part A,
If the numbers displayed as the operation results of B and C are all the same combination (for example, "1, 1, 1", "3, 3, 3", etc.), they are generated independently of the color.

On the other hand, when the variable display device 4 is actuated when a hit ball is won in the second starting prize winning device 8, for example, a variable display device 4
When the numerical display of the numerical display portions A and B as the operation result of is different and only the numerical display of the numerical display portion C is different (for example,
“1,1, ×”, “2,2, ×”, etc.). At this time, the colors are always the same,
Since it is not possible to distinguish between "big hit" and "medium hit" by the color, it is decided to distinguish them by the numerical display.

In the case of this embodiment, when the "middle hit" is caused by the winning in the first starting prize winning device 6, 6, and when the winning in the second starting prize winning device 8 is caused. With and without making a difference in the game content (mode of operation and profit) of "middle hit", the content is the same.

This "middle hit" gives a possibility of winning more prize balls than the "big hit" and less than in the normal game. In this embodiment, the variable winning device 5 Only the open / close door 513 is opened, and the left and right guide members 5
14, 514 remain closed. The state is continued for a shorter time (for example, 10 seconds) than when it is a "big hit", or a smaller number (for example, 7) is hit in the variable winning device 5 than when it is a "big hit" and the number of prizes is displayed. The number of lamps in the section 515 is the same as the number of lamps (eg, 7 lamps).
It continues until it lights up, and then returns to its original state. Such an opening operation is repeated up to a smaller number of times (for example, up to 5 times) than in the “big hit” by satisfying a certain condition described later.

Variable winning device 5 at the time of this "middle hit"
The number of prize balls to be given to the winning a prize is smaller than that in the case of "big hit", for example, a small discharge of 7 balls per winning, and at the time of the discharge, the small discharge award ball number indicator 22a is turned on. However, even in this "middle hit", the number of prize balls given to the prizes other than the variable winning device 6, 8, 9, 12, 413, etc. is the same as in the normal game or "big hit". For example, 13 normal discharges are performed. At the time of this normal discharge, the prize ball number indicator 22b for normal discharge is turned on.

When the specific game state of "big hit" or "middle hit" occurs, the lamp in the variable display device 4 blinks, and the lamps in the starting prize winning devices 6 and 8 blink.

By the way, in the case of the "big hit", not only the guide members 514 and 514 open in an inverted "C" shape, so that the probability of the hit ball flowing into the winning opening of the variable winning device 5 is increased. By the guide inclined portions 514a, 514a at the tips of the open guide members 514, 514, the hit ball that has flowed down there is guided to the direction of the starting winning devices 6, 6 to facilitate winning into the starting winning devices 6, 6. As a result, the chances of operating the variable display device 4 increase, and new "big hit" and "medium hit" are likely to occur. By adjusting the obstacle nail 7 (FIG. 2) on the starting winning apparatuses 6 and 6, the winning probability into the starting winning apparatuses 6 and 6 can be changed.

In addition, when the combination of the numerical display of the numerical display portions A, B, C and the like is one other than the above "big hit" and "middle hit", it is all "off" and the normal game is played as it is. Is continued.

In addition, a player who plays a game with a pachinko gaming machine configured as described above attempts to carry out a fraudulent game using a fraudulent signal (illegal radio wave or the like) from an external fraudulent means such as a communication device. However, depending on the illegal signal, the start winning prize detectors 61 (SW ₁ ), 61 (S
W ₂ ), 81 (SW ₃ ), the continuous winning detector 550 (SW ₄ ) and the winning number detector 562 (S) of the variable winning device 5.
W ₅ ), malfunctions do not occur in various detectors and the like of the variable display device 4, and the unauthorized signal is detected by any of the first to eighth external unauthorized action detecting means 1001 to 1008, Based on the detection signal, the hitting ball launching device 20, etc., which is an operation unit necessary for the game, is stopped to put it in a game-disabled state, and the display lamps 25, 25 blink to inform that the dishonesty is illegal.

Next, the variable display device 4, the variable winning device 5, the starting winning device 6, and the side lamp device 90 of the pachinko gaming machine will be described in order.

First, the variable display device 4 will be described. The variable display device 4 comprises a display section 400 shown in FIG. 3 and a drive section 450 shown in FIG. 5, and the display section 400 and the drive section 450 are shown in FIGS. As shown in FIG. 13, it is configured as follows.

The display section 400 is attached to the front frame 410 so as to project toward the front side of the opening of the board of the game board 1.
And a display frame 42 attached to the front side of the front frame 410.
It has 0 and.

The front frame 410 is provided with a flange-shaped attachment plate portion 411 along the outer periphery thereof, and the attachment plate portion 411 is formed in the upper center of the game area 2 of the game board 1 for attachment. By being screwed to the front surface side of the peripheral edge portion in a close contact state, the front surface side is installed in a state of protruding into the game area 2.

At the center of the front frame 410, three display openings 411a to 411c are formed with a triangular vertex arrangement, and stepped portions 411aa, 411ba, 411ca are provided in each of the display openings 411a to 411c. ing. Of these openings 411a to 411c, arcuate ball hitting guides 413 and 413 are provided on the lower left and right openings 411b and 411c, respectively, on the diagonally lower sides. Further, an armor portion 412 is provided on the front side of the center upper end portion of the front frame 410 in a state of protruding toward the front side. At the upper end of the armor portion 412, a hitting ball inflow guide portion 412a and the guide portion 4
The winning entrance 1 for winning the hit ball guided by 12a
2 is provided, and a winning ball outflow gutter 12a for guiding a winning ball into the winning hole 12 to the back of the game board 1 is provided on the back of the winning hole 12.
Is provided. In addition, on the front side of the armor portion 412, green prize memory display portions 411e, 411 serving as prize memory display windows.
11f (a, b) and red winning memory display section 411
g and 411h (c and d) are provided respectively, and an external fraudulent action detector installation opening 412b is provided above them. The first external fraud detector 1001 and the lamp board 415 are attached to the back side of the armor portion 412. The first external fraudulent effect detector 1001 is faced in the opening 412b so that the tip of the first external fraud detector 1001 is flush with the front surface of the armor 412, and a seal labeled "Radio Detector" is attached to the tip of the opening 412b. 1001A is attached. In addition, the display lamp 41 installed on the lamp board 415.
6a and 416b are the winning memory display section 411e, respectively.
~ 411h to the back side, the illumination light can be visually recognized by the player through the winning storage display unit 411e ~ 411h.

A transparent display frame 420 is attached to the front center of the front frame 410. This display frame 420
The display openings 411a to 411c of the front frame 410 are
Display portions 421a to 421c corresponding to the above are provided, and two arc-shaped protrusions 421d to 421f for decoration are provided on the front surface side of these display portions 421a to 421c, and two variable display portions A as display windows are provided. , B, C are provided close to each other. A display plate 416 is attached to the back surface of each of the display units 421a to 421c. The portion of the display plate 416 corresponding to the variable display portions A, B, C is a transparent lens portion 416a, and the other portion is an opaque semi-transparent portion. With the display plate 416 attached to the back side of the display frame 420, the display frame 420 is displayed on the front frame 410 as shown in FIG.
It is fitted in a state of being closely attached to the inside of c.

In addition, the driving unit 450 includes the front frame 410.
Mechanism board 430 attached to the back side of the machine and the mechanism board 430
And a machine frame 440 installed on the back side of the machine.

The display frame 420 is provided on the front side of the mechanical board 430.
As shown in FIG. 5, surrounding frames 431a to 431c having shapes corresponding to the variable display portions A, B, and C are provided at positions corresponding to the variable display portions A, B, and C, respectively.

A lamp board 432 is installed on the back side of the mechanism board 430 as shown in FIGS. 6 and 10. The lamp board 432 is provided with a pair of green and red display lamps 432a (green) and 432b (red) facing each other in the surrounding frames 431a to 431c of the mechanism board 430 and a display lamp 432c for decoration. , As shown in FIG.
Each reaches the front side of the mechanism board 430 through an opening provided in the mechanism board 430.

On the back side of the lamp board 432, sensor boards 433 are installed at a predetermined interval. Sensor mounting hole 433a for mounting the sensor S _1, S _2, S ₃ to be described later to the sensor substrate 433, ‥‥ is provided.
The variable display units 434 to 436 are rotatably installed so as to penetrate the sensor substrate 433 from the back side to the front side. As shown in FIG. 10, each of the variable indicators 434 to 436 includes rotating shafts 434a to 436a rotatably supported by a mechanism board 430 and a base frame 440. Discs 434b to 436b as variable display plates, detection plates 434t to 436t, and ratchet gears 434c to 4 are provided near the tip end portions of the rotary shafts 434a to 436a and near the tip end portions.
36c are attached to the rotary shafts 434a to 436a such that they cannot rotate relative to each other. Also, these rotary shafts 4
Ratchet gears 434c-43 of 34a-436a
Power transmission gears 434d to 4 which are slidable and rotatable with respect to rotary shafts 434a to 436a on the inner side of 6c.
36d is fitted. These power transmission gears 434d
˜436d are urged toward the ratchet gears 434c to 436c by coil springs 434e to 436e mounted on the rotary shafts 434a to 436a, so that a snap ring 434h, which will be described later, installed immediately after the ratchet gears 434c to 436c. The pressure is set to ˜436 h. Thereby, the disks 434b-436
b, detection plates 434t to 436t, ratchet gear 434
c to 436c and the rotary shafts 434a to 436a always rotate integrally with the power transmission gears 434d to 436d, but when a deterrent force acts on the ratchet gears 434c to 436c as described below, the power transmission gears 434d to 434d 43
6d only Discs 434b to 436b, detection plate 434t
.About.436t, the ratchet gears 434c to 436c, and the rotation shafts 434a to 436a can be freely rotated. The detection plates 434t to 436t, the ratchet gears 434c to 436c, and the coil springs 434e to 436e are snap rings 434h to 436h and 434i mounted on the rotary shafts 434a to 436a.
Rotation shafts 434a to 436a, respectively.
Of the coil springs 434e to 436e and the power transmission gears 434d to 43 are restricted.
6d and coil springs 434e to 436e
Washers 434f to 436f and 434g to 436g are respectively interposed between and the snap rings 434i to 436i.

A drive motor 460 for applying a rotational drive force to the power transmission gears 434d to 436d is installed on the back side of the base frame 440 as shown in FIGS. A drive gear 461 fixed to the drive shaft of the drive motor 460 meshes with the power transmission gears 434d and 435d, and is rotatably installed next to the drive gear 461 as shown in FIGS. 5 and 9. An intermediate gear 462 that is in mesh with is meshed with the power transmission gear 436d. In this embodiment, when the motor 460 is driven, the disks 434b and 435b move the power transmission gear 43.
4d and 435d, the disk 436d is rotated clockwise when viewed from the front, and the disk 436d is rotated counterclockwise when viewed from the front via the power transmission gear 436d.

By the way, each of the variable display devices 434 to 43.
6, rotation stop devices 465 to 467 for preventing the rotation of the disks 434b to 436b are installed.

These rotation stop devices 465 to 467 are solenoids 465a to 467a and solenoids 465a.
~ 467a rotation locking lever 465a
~ 467a. More specifically, the solenoids 465a to 467a are contracted against the elastic force of the return springs 465c to 467c at the time of demagnetization, and are expanded and returned by the elastic force of the return springs 465c to 467c at the time of excitation, so that the operating rods 465b to 467b are returned. Is equipped with. On the other hand, the bases of the locking levers 465d to 467d are rotatably pin-coupled to the tips of the operating rods 465b to 467b, and the ratchet gear 46 is attached to the tips.
5f to 467f are provided respectively. When the solenoids 465a to 467a are in the demagnetized state, the operating rods 465b to 467b extend to cause the locking levers 465a to 467a to engage the hooked portions 465f to 467f at the tips thereof with the ratchets 434c to 436c. Is rotated back to the disk 434b-4
36b is in a state of being locked in a non-rotatable state. on the other hand,
When the limit solenoids 465a to 467a are excited, the operating rods 465b to 467b contract to cause the locking levers 465a to 467a to disengage the hook-shaped portions 465f to 467f at their tips from the ratchets 434c to 436c. Rotated to disk 434b
~ 436b is made rotatable.

Further, the disks 434b to 436b are made of a light-transmissive material, and their front portions are shown in FIGS.
Concave portions 435k to 436k are formed, and the concave portions 435k to 436k are displayed on the front surface at equal angular intervals (in this embodiment, "1, 3, 5, 7, 9,
Semi-transparent display board 434m with a display of "crown"
436m is fixed. In that case, the disk 434
As shown in FIG. 8, positioning of the display plates 434m to 436m with respect to the concave portions 435k to 436k on the front surface of the b to 436b is performed by the bocce 4 provided in the concave portions 435k to 436k.
The rotary shafts 434a to 436a and the discs 434b to 436b are positioned by aligning the notches 434n to 436n provided on the display plates 434m to 436m with the rotary shafts 434a to 436b.
Positioning plane portions 434p to 4 provided at the tip of 6a
A disc 434b provided corresponding to these on the 36p
This is done by aligning the positioning flat surface portions 434q to 436q in the shaft holes 434r to 436r of to 436b. In this manner, the hook-shaped portions 465f to 4 of the locking levers 465d to 467 of the rotation stopping devices 465 to 467 are provided.
When 67f is caught on the ratchet gears 434c to 436c and the disks 434b to 436b are stopped, the indications on the display plates 434m to 436m are always displayed on the variable display portions A,
It comes to the center of B and C. Also, the rotating shaft 434a-
The discs 434b to 436b are attached to the 436a after the shaft holes 434r to 436r provided on the back side of the discs 434b to 436b are fitted on the discs 434b to 436b.
Discs 434b to 436b using 4s to 436s
Is attached to the tips of the rotating shafts 434a to 436a.

On the back side of the machine casing 440, a wiring relay board 470 is installed in a state that it is housed in a cover 471 having a rear opening as shown by the chain line in FIG. A plurality of wiring relay connection terminals 472 are installed on the wiring relay board 470. Then, connectors 473 to 476 attached to the rear ends of the lead wires from the lamp board 432, sensors (described later), rotation stop devices 465 to 467, and the like.
And the like are guided to the back side of the machine frame 440 through an opening 441 formed in the lower rear part of the machine frame 440, and the wiring relay board 4
It is fitted to the wiring relay connection terminal 472 of 70. Inside the base frame 440, a binder 441 that locks the middle portion of the lead wire with the connectors 473, 474, 475 is installed.

The reference numeral 800 in FIG. 10 is a glass plate on the front of the game board 1.

The variable display device 4 configured as described above operates as follows.

Normally, the motor 460 is stopped,
The variable display devices 434 to 436 are stopped without rotating.
In addition, the solenoid 465 of the rotation stop devices 465 to 467.
a to 467a are normally in the demagnetized state, the locking lever 4
The hook-shaped parts 465f to 467f of 65d to 467d are ratchet gears 434c to 436 of the variable display devices 434 to 436.
The discs 434b-436d are held stationary by engaging c. And each disk 434b-4
Variable display plates 434m to 436m attached to 36b
One of each of the above displays appears in the center of the variable display portions A, B, and C and is stationary.

Further, the lamp substrate 432 of the variable display device 4 is used.
Lamps 432a (green) and 432b installed in
The display lamp 432c for (red) or for decoration is in the off state.

In this state, if there is a winning or a winning memory to the first starting winning device 6,6, the rotation stopping devices 465-46.
7 solenoids 465a to 467a are excited to rotate the locking levers 465d to 467d, so that the hook-shaped portions 465f to 467f of the ratchet gears 434c.
Remove from ~ 436c. Immediately after that, the motor 46
The variable display units 434 to 436 are differentiated by 0 being differentiated.
Discs 434b to 436b are power transmission gears 434d.
Power is transmitted from ˜436d to rotate, and the display of the variable display portions A, B, C is changed accordingly. At the same time, the display lamp 432a installed on the lamp board 432.
The (green) and 432b (red) are also blinked at high speed alternately in green and red independently for each of the variable display portions A, B and C. On the other hand, if there is a winning or winning memory for the second starting winning device 8, the disks 434b of the variable display devices 434 to 436 are the same as the case based on the winning or winning memory for the first starting winning device 6,6.
˜436b is rotated and the display of the variable display portions A, B, C is changed. However, at this time, the green display lamp 432 on the back side of the variable display portions A, B, C installed on the lamp substrate 432.
There is no change in color when a is lit.

In either case, the motor 46
When the disks 434b to 436b are rotated by the operation of 0, a predetermined time (for example, about 6 seconds) has elapsed from the start of the change of the display of the variable display portions A, B, C, or the variation time reduction button. When 150 is pushed, the solenoid 4 of the rotation stop device 465-467
65a to 467a are sequentially demagnetized with a random time lag, and the hook-shaped portions 46 of the locking levers 465d to 467d are demagnetized.
By engaging 5f to 467f with the ratchet gears 434c to 436c, the disks 434b to 436b of the variable indicators 434 to 436 are stopped. In accordance with the stop, display of the variable display portions A, B, C (displaying only numbers and symbols or displaying numbers and symbols and display lamp 432a (green),
Both of the alternate blinking operations of 432b (red) are stopped and the respective display modes are confirmed. Depending on the confirmed display mode, a specific game of "big hit" or "middle hit" is generated, or a normal game is continued as "off".

FIG. 11 shows the above three variable display devices 434-.
The control for randomly shifting the stop time of the disks 434b to 436b of 436 to prevent the deviation of the display mode (display combination) of the variable display portions A, B, C and the aim by the player is shown as an explanatory diagram.

The variable display device 4 is operated based on the winning or the winning memory to the starting winning device 6 or 8 and the display of the variable display portions A, B and C starts to change at the same time. The time during which the display (numbers, symbols, and colors) continues to change and the time lag of stoppage of each of the variable display units A, B, and C are not constant with each operation of the variable display device 4.

That is, the time from the start of the display change of the variable display units A, B, C to the stop of the display change of the variable display units A, B, C is TA (second) and TB, respectively.
(Sec) and Tc (sec), TA = T + α TB = TA + γ + β TC = TB + γ + δ

Here, T is a fixed time (for example, 6 seconds) after the change of the display of the variable display portions A, B and C is started.
Or the time until the variable time reduction button 105 is pressed,
γ is a fixed time (for example, 40 msec), α, β, and δ are not constant, for example, 10 msec to 30 msec, respectively.
It is a time randomly set at each start time of the display changes of the variable display portions A, B, and C between 10 ms to 50 ms and 10 ms to 40 ms.

As described above, the display change stop timings of the variable display portions A, B, and C are random timings as long as the uncertain time elements α, β, and δ are included. Therefore, the display (numbers, symbols, and The time during which the change in color) is continued and the time lag in stoppage of each of the variable display units A, B, C are not constant for each operation of the variable display device 4, and as a result, the variable display units A, B, C It is possible to prevent the display mode (combination of displays) from being unbalanced and the player's aim.

FIGS. 12 to 15 show variable display parts A,
The explanatory view of the determination process of the display modes of B and C (excluding the emission colors of the display lamps 432a and 432b) is shown.

The display plates 434m to 434m of the variable display device 4
As shown in FIG. 12, the front surface of 36 m is, for example, 6 in the circumferential direction.
It is divided into two parts, for example, "1, 3, 5, 7,
"9, crown" is displayed. When the variable display is stopped as described above, one of the displays is the variable display portion A,
It is visible through B and C.

The display plate 43 of the disks 434b to 436b to which the display plates 434m to 436m are attached.
Detecting plates 434t to 434t for 4m to 436m sections
As shown in FIG. 13, 0 to 3 detection pieces a _{1 to} a ₉ are attached to the back side of the 36t at a distance r ₁ , r ₂ , r ₃ from the center of the disks 434m to 436m, respectively. There is. That is, the disk 434 corresponding to the partition of the variable display plates 434m to 436m on which the numerical display "1" is displayed.
Detecting pieces a ₁ , a ₂ , a ₃ are displayed at the positions distant from the center of the back side of b to 436b by r ₁ , r ₂ , and r _3, respectively, and the numerical display is “3”.
Variable display panel 434m but the detection piece a ₄ to a position r ₂ away from the back side of the center of the disk 434b~436b corresponding to the partition portion of the variable display board 434m~436m displayed, the numeral display "5" is displayed The detection pieces a ₅ are attached to the discs 434b to 436b corresponding to the partitions of up to 436 m at positions distant from the center of the back side by r ₃ . In addition, the variable display plate 434m-displaying the numeral display "7"
Disks 434b to 436 corresponding to the partition of 436m
No detection piece is attached to the back side of b, and r ₁ , r ₂ , from the center of the back side of the disks 434b to 436b corresponding to the partition parts of the variable display plates 434m to 436m on which the numerical display “9” is displayed. Detecting pieces a ₆ , a ₇ , a _{8 at} a position separated by r ₃
However, the detection piece a ₉ is attached at a position r ₁ away from the center of the back side of the disks 434b to 436b corresponding to the partition portions of the variable display plates 434m to 436m on which the crown is displayed.

[0075] On the other hand, the sensor S ₁ to S ₃ on the front side by three so as to correspond to respective disks 434b~436b of the sensor substrate 433 located on the back side of the disk 434b~436b is disposed. That is, as shown in FIG. 13, the sensor S ₂ is r ₂ from the center of the disks 434b to 436b.
At a remote position, the sensor S ₁ has disks 434b-436.
The sensor S ₃ is located on the disk 4 at a position r ₃ away from the center of b.
Respectively, from the center of 34b~436b to r ₁ away it is installed in a state of shifted by one compartment worth sequentially counterclockwise. Then, as shown in FIG.
When the numerical display of “1” is “1”, the sensor S ₁ only encounters the detection piece a _{3 on} the back side of the numerical display “1”, and the sensors S ₂ , S ₃ are respectively on the back side of the crown display and the numerical display “ 3 "
It is located on the back side of and does not meet any of the detection pieces.

With such a configuration, the display displayed on the variable display portions A, B, C is determined as follows depending on the detection mode of the sensors S _{1 to} S ₃ .

That is, as shown in FIG. 14, when the sensor S ₁ is "on" and the sensors S ₂ , S ₃ are "off", the variable display (A, B, C) displays "1", When the sensors S ₁ and S ₃ are “off” and the sensor S ₂ is “on”, the variable display (A, B, C) displays “3”, and the sensors S ₁ and S ₂ are “on”. When S ₃ is “OFF,” the variable display (A,
B, C) is “5”, and when the sensors S ₁ and S ₂ are “OFF” and the sensor S ₃ is “ON”, the variable display (A, B,
View C) is "7", the variable display portion when the sensor S _1, S ₃ sensors S ₂ is "on" and "off" (A, B, C) is displayed in the "9", the sensor S ₁ Is "off" and the sensors S ₂ , S ₃
When is ON, the display of the variable display portions (A, B, C) is "crown", and it can be determined for each variable display portion A, B, C.

FIG. 15 is a control block diagram for determining the display mode (including the numerical display and the emission colors of the display lamps 432a and 432b) when the display of the variable display portions A, B and C is stopped.

As shown in the figure, a sensor S for determining the stop position of each of the disks 434b to 436b, that is, the display contents of the variable display portions A, B, C by the determination means in the accessory control device 610.
₁ , S ₂ , S ₃ are connected. These sensors S ₁ ,
The outputs from S ₂ and S ₃ are input to the determination means in the accessory control device 610, which will be described later, and the display modes of the variable display portions A, B, and C are "big hit", "middle hit", and "display" based on the input signal. It is determined whether it is "off".

Next, the variable winning device 5 will be described with reference to FIGS. 16 to 21.

As shown in FIG. 16 and FIG. 17, the variable winning device 5 includes a constituent base frame 510A attached to the opening of the board surface of the game board 1, and a rear base frame installed on the back side of the constituent base frame 510A. 530 and a drive substrate 540 installed on the back side thereof.

A relatively large rectangular winning opening 511 is provided on the component base frame 510A.
An opening / closing door 513 is installed on the left and right sides, and a pair of guide members 514 and 514 are attached to the left and right sides thereof. In addition, LEs are provided on the left and right sides of the lower half of the front side of the component base frame 510A.
A plurality of winning number display devices 515 of D are installed, and a transparent window 523 is provided below the winning opening 511. Below the transparent window 523, an external fraud detector installation opening 519 is provided. In addition, winning a prize mouth 5
A continuous prize-winning detector 550 (FIG. 20) is provided at the center position of 11.
Is installed.

More specifically, the opening / closing door 513 is
As shown in FIGS. 16 and 20, two fan-shaped weight pieces 513c and 513c protruding to the front side are provided, and an engaging piece 513B (FIG. 20) is provided to the back side from the lower end. Then, as shown in FIG. 17, the left and right sides of the lower end of the support shafts 513A, 5
In a state where the free end side is rotatably supported by 13A, the free end side is erected as shown by the chain line in FIG. 20 and the winning end 511 is closed, and the free end side is tilted toward the front side as shown by the solid line. Then, it can be changed to a state in which it is directed obliquely upward.

On the rear side of the opening / closing door 513, as shown in FIG. 20, an operating lever 533 has its base portion supported by the support shaft 53.
It is rotatably supported by a bearing portion 536 that is integrally provided with the component base frame 510A via the 3A. The tip of the operating lever 533 is arranged in contact with the engaging piece 513B on the back side of the lower end of the opening / closing door 513.

As shown in FIG. 20, a solenoid 544 for moving the opening / closing door 513 is installed on the back side of the game board 1, and the solenoid 544 is provided with an operating rod 544a protruding downward. A coil spring 544b for returning the operating rod 544a to the lowered state is attached to the operating rod 544a.
The lower end of the contact lever is arranged in contact with the upper surface of the operating lever 533.

Further, the guide members 514 and 514 have their lower ends fixed to the rotating shafts 524 and 524 (FIG. 17), respectively, and their free ends are reversed from the upright and closed state shown in FIG. Opened in the shape of "C" (Fig. 2)
It is freely rotatable up to the range. These guide members 5
Inclination guide parts 514A, 514A are formed at the free ends of 14, 514, respectively, so that the opposite sides are shortened.

Solenoids 542 and 542 (FIGS. 16 and 17) as driving means for moving the guide members 514 and 514 are attached to the drive board 540 (FIG. 16).

Each of the solenoids 542 and 542 is provided with actuating rods 542A and 542A protruding downward, and these actuating rods 542A and 542A are provided with these actuating rods 542.
Coil springs 542B and 542B (FIG. 18) for returning A and 542A to the lowered state and a horizontally long hole 54 at the upper end.
3A having actuating members 543, 543 (FIG. 16, FIG.
7) and are attached.

On the other hand, the rotation shafts 524 and 524 to which the guide members 514 and 514 are attached are the constituent base frames 510.
It projects to the rear of A (FIG. 17), and the bases of the operating arms 526 and 526 are fixed to their rear ends. The operation pins 527A and 527A are fixed to the rear ends of the tips of the operation arms 526 and 526, respectively.
7A, 527A is an operating member 5 attached to the operating rods 542A, 542A of the solenoids 542, 542.
43, 543 are inserted into the horizontally long holes 543A, 543A at the upper ends.

In addition, a second external unauthorized action detector 1002 is installed below the back side of the structural base frame 510A via a holder type mounting member 1002B. In the installed state, the tip of the second external unauthorized action detector 1002 reaches the opening 519 (FIG. 16) at the bottom of the component base frame 510A, and its tip surface is the same as the entire face of the component base frame 510A. It becomes a flat surface, and a sticker 1002A labeled "Radio Detector" is attached to the front end surface thereof. The mounting member 1002
B is fixed to the back side of the constituent base frame 510A by screws 1002C or the like.

With the above construction, the opening / closing door 513 and the guide members 514, 514 are operated as follows by the solenoids 544, 542, 542 as the driving means.

That is, during the normal game, the solenoid 54
4 and the solenoids 542, 542 are in a demagnetized state in which they are turned off, and their operating rods 544A, 542A, 5
42A is its own weight and coil springs 544B and 542
B, 542B (FIG. 17, FIG. 18) has been lowered and returned. The one operation rod 544A that has been lowered and returned rotates the opening / closing door 513 through the operation lever 533 in the direction in which its free end side is erected, and as shown by the chain line in FIG. 20, the winning opening of the component base frame 510A. 511 is returned to the closed state. In addition, the operating members 543 and 543 attached to the other lowered and returned operating rods 542A and 542A cause the operating pins 527A and 527 to operate.
The actuating arms 526 and 526 are turned in a downward direction from the inside via A, and the turning shafts 524 and 524 turned by the actuating arms 526 and 526 cause the winning holes 511 to have guide members 514 and 514 on both left and right sides. However, they have been returned to a state in which their free end sides are raised (substantially vertically upward).

In this state, as described above, when the "big hit" occurs, the solenoids 544 and 542, 54
2 is turned on and excited. Then, the solenoid 544
Of the operating lever 544A is raised against the coil spring 544B (FIG. 20), and the operating lever 53
The rotation restriction of 3 in the direction in which its tip end side is lifted is released. As a result, the open / close door 513 is opened by the weight of the weight pieces 513c, 513c projectingly provided on the front side thereof so that the upper end side thereof is tilted toward the front side and opened, and the weight is opened as shown by a solid line in FIG. The one end of each of the pieces 513c and 513c stops at a position in contact with the front surface of the component base frame 510A.
When the door is stopped, the opening / closing door 513 is maintained in a state in which the upper end side thereof faces slightly obliquely upward. At the same time, the operating rods 542A and 542A are connected to the coil springs 542B and 54
Elevated against 2B (FIG. 18). The operating pins 527A and 527 are operated by the operating members 543 and 543 attached to the raised operating rods 542A and 542A.
The actuating arms 526 and 526 are turned in the direction of rising from the inside via A, and the turning shafts 524 and 524 turned by the actuating arms 526 and 526 cause the guide members 514 and 514 to move so that their free end sides are Rotate outward and open in the shape of an inverted "C". When it is opened, the hit ball is guided by the guide members 514 and 514 and the winning opening 5
Not only is it easier to win the 11 prizes, but also the hit balls that reach the inclined guide parts 514A, 514A at their tips are easily guided into the starting prize winning devices 6, 6.

On the other hand, when the "middle hit" occurs, only the solenoid 544 is excited, so that only the opening / closing door 513 is rotated and the winning opening 511 is opened.
The solenoids 542 and 542 are not excited and the guide member 51
4,514 remains closed. Therefore,
In the case of this "middle hit", the probability of winning in the winning hole 511 or in the starting winning devices 6, 6 is lower than in the case of "big hit", and the profit given to the player is small.

Further, on the front side of the rear base frame 530, a plurality of right occurrence display lamps 538 blinking when a "big hit" or a "middle hit" occurs and one continuation condition satisfaction display lamp 538a that lights up when the continuation conditions are satisfied. Is installed, and the blinking display can be visually recognized by the player through the transparent window 523 of the component base frame 510A.

Further, a collecting passage frame 560 (FIG. 21) for collecting hit balls that have flowed into the winning port 511 and guiding them in a collecting gutter direction (not shown) is attached to a lower portion on the back side of the base frame 510A. Collecting channel 5 of this collecting channel frame 560
The winning number detector 562 is provided in the inside 61 through a mounting frame 563.
Is installed. Then, the hit ball that has flowed into the winning port 511 and has reached the collecting channel 561 passes through the detection hole 562A at the tip of the winning number detector 562, so that the winning port 5
The number of winning prizes in 11 is detected. The winning number detected by the winning number detector 562 is represented as the number of lights of the winning number indicator 515.

FIG. 22 shows the left side of the side lamp devices 90, 90 as the probability display means.

The side lamp device 90 is composed of a side lamp device body 91 attached to an opening (not shown) on the side of the game area 2 of the game board 1 and a semi-translucent cover 92 attached to the body 91. ing.

A part of the center of the side lamp device body 91 is a bulging portion 91a which bulges in the back direction, and green and red display lamps 93a (green) are contained in the bulging portion 91a.
93b (red) is installed. Further, screwing holes 91c, 91c are provided at both ends of the main body 91, and rectangular engaging holes 91d, 91d are provided at positions inward of the screwing holes 91c, 91c. Circular engagement holes 91e, 91e are provided at the positions.

On the other hand, the cover 92 is formed in the shape of a concave container covering the front side of the main body 91, and the edge portion facing the main body 91 is engaged with the engaging holes 91d, 91d of the main body 91. Pieces 92a, 92a (one of which does not appear in the drawing) are provided and engaging holes 91e, 9 of the main body 91 are provided.
Cylindrical engaging projections 92b, 92b that fit in 1e are provided. The engaging pieces 92a, 92a are formed in an L-shape with their tips bent outward at a substantially right angle, and the engaging pieces 92a, 92a are formed on the edge portion of the cover 92 on which the engaging pieces 92a, 92a are formed. Notch 9 that facilitates elastic deformation
2c and 92c are formed to match the width of the engaging pieces 92a and 92a. Then, when the cover 92 is attached to the main body 91, the engaging piece 92a is elastically deformed inwardly and then passed through the engaging hole 91d to release the elastic deformation of the rear engaging piece 92a, thereby engaging the engaging piece 92a. Figure 23 shows the L-shaped bent part of
The engaging hole 91d is hooked as shown in FIG.

At the portion where the bent portion of the engaging piece 92a on the rear side of the engaging holes 91d and 91d of the main body 91 is caught,
As shown in FIG. 23, the bent portion of the engaging piece 92a is the main body 91.
An escape portion 91f is formed so as not to project to the back side of the.

In the side lamp devices 90, 90 in which the cover 92 is attached to the main body 91 having the above-described structure, the bulging portion 91a is fitted in the opening (not shown) on the side of the game area 2 of the game board 1. It is attached in close contact with the board surface of the game board 1 in this state.

FIG. 24 shows an exploded perspective view of the starting winning device 8, and FIG. 25 shows a partial vertical side view thereof.

As shown in the figure, the starting winning device 8 is a pocket from a support frame 82 attached to a board surface opening (not shown) of the game board 1 and an inflow frame 83 attached to the front side of the support frame 82. The start prize winning detector 81 faces the inside thereof.

That is, the support frame 82 is made of an elastically deformable semi-translucent material in a substantially U-shape as a whole, and is attached in close contact with the front side of the board surface opening (not shown) of the game board 1. The mounting piece 82a is provided, and a U-shaped inflow portion 82b is provided at the center of the mounting piece 82a. Guide pieces 82 are provided on the left and right portions of the upper portion of the inflow portion 82b.
c and 82c are provided so as to project to the front, and support pieces 82 for supporting the start winning award detector 81 are provided on both sides of the back slightly below.
d and 82d are integrally provided. These support pieces 8
2d and 82d project slightly inward (in the direction toward each other) from the U-shaped inflow portion 82b, and forwardly bent locking portions 82e and 82e are provided at their lower end positions. Also, below the guide pieces 82c, 82c and the support pieces 82d,
Engagement holes 82f, 82f are formed on the outer side of 82d.

On the other hand, the inflow frame 83 is formed in a frame shape having an open upper portion and a rear portion, and engaging pieces 83a, 83a protruding rearward are provided at upper end portions of both left and right side pieces of the inflow frame 83, respectively. , 83a have hook-shaped parts 82c, 8 which engage with the edges of the engaging holes 82f, 82f of the support frame 82.
2c is provided. A locking projection 83b is provided on the back side of the front plate of the inflow frame 83.

Further, the starting winning prize detector 81 is provided with a winning ball detector 81a at the tip thereof, and the winning ball detector 81a.
Is formed with a winning ball passage hole 81b penetrating in the vertical direction, and a microswitch piece 903 (FIG. 25) is formed inside the hole.
Is being transformed. Slide grooves 81c are vertically provided on the left and right sides of the rear portion of the winning detection section 81a, respectively.
81c is formed.

When assembling the starting winning device 8 constructed as described above, first, the inflow frame 83 is opposed to the support frame 82 as shown in FIG.
The upper end surfaces of the engagement pieces 83a, 83a are brought into close contact with and in close contact with the lower end surface of 2c so that the upper end surfaces of the engaging pieces 83a, 83a slide. Then, the engaging piece 83
a, 83a tip inclined surface portions 83d, 83d of the hook-shaped portions 83c, 83c hit the edges of the engagement holes 82f, 82f of the support frame 82, and the hooks 83c elastically deform the engagement pieces 83a, 83a inward. , 83c are engaging pieces 82f, 82f
The engaging pieces 83a, 83a elastically return to the direction of opening to the both sides when they dive inside and reach the back side of the mounting piece 82a, and the hook-shaped parts 83c, 83c are hooked on the back side edge portions of the engaging pieces 82f, 82f. . As a result, the inflow frame 83 is attached to the support frame 82.

After the inflow frame 83 is attached to the support frame 82 in this way, the winning ball detecting section 8 of the starting winning detector 81 is detected.
When the 1a is fitted from above so as to reach the upper end opening defined by the support frame 82 and the inflow frame 83, the slide groove 8 is formed.
1c and 81c are guided by the support pieces 82d and 82d, and the winning detection portion 81a is completely fitted into the upper end opening thereof.
At the end of the fitting, the winning detection section 81a reaches between the locking projection 83b of the inflow frame 83 and the locking sections 82e, 82e at the lower ends of the support frames 82d, 82d, and the locking projection 83b and the locking sections 82e, 82e. Thus, the vertical movement of the winning detection unit 81a is restricted.

By thus fitting the prize detecting portion 81a into the upper end opening defined by the support frame 82 and the inflow frame 83, the specific prize detector 81 is attached to the starting prize winning device 8.
Is attached.

A fifth external unauthorized action detector 1005 is installed below the back side of the support frame 82 via a holder-type mounting member 1005B.

That is, the fifth external unauthorized action detector 1005
Is held in a state that the rear side thereof is housed in the mounting member 1005B, and in this state, the mounting member 1005B is supported by the support frame 8
2 It is fixed to the mounting columns 82g, 82g on the back side with screws 1005C or the like. And in that state, the fifth
The front end surface of the external unauthorized action detector 1005 is located on the same plane as the front surface of the U-shaped inflow portion 82b.

The hit ball that has flowed into the starting winning device 8 thus assembled is the fifth external improper action detector 10.
It is possible to dive under the 05 and flow out to the back side of the U-shaped inflow portion 82b.

FIG. 26 shows the back surface of the game board 1, and the back surface side thereof is covered with a collecting gutter 71. The collecting gutter 71 collects the winning balls by flowing down along the back surface of the game board 1, and has a gap width of at least one ball from the back surface of the game board 1, side walls at both left and right ends, and a lower part. A downflow gutter 71a that is gently inclined from one side (right) to the other side (left) is formed in the. A prize ball processing device 78 (FIG. 45) described later is swingably installed at the end of the flow gutter 71a to separate the prize balls that have entered the flow gutter 71a one by one. In the present embodiment, an example is shown in which the drain gutter 71a is integrally formed on the lower side of the collecting gutter 71, but the present invention is not limited to this, and the lower side of the collecting gutter 71 is opened, and the drain gutter 71a is described later. It may be formed on the back mechanism board 800.

In the figure, the parts indicated by 1A to 1N are game boards 1
Is a through hole formed so as to penetrate through. Among these, the through hole 1A provided at the upper center is the variable display device 4
The through hole 1B provided at the lower center is a through hole provided for attaching the variable winning device 5. Also, through holes 1C, 1D
Is the starting winning device 6,6, 1E, 1F, 1M, 1N is the pocket-type general winning opening 9, 9, 7, 7 respectively 1G
Is a through hole provided for installing each of the starting winning devices 8. In addition, the through hole 1H is a prize ball number indicator 22.
a, 22b, 1I is a completion indicator 23, and 1J, 1K are through holes provided for installing the side lamp devices 90, 90, respectively. Further, the through hole 1L is a ball outlet forming the out ball collection port 10.

Then, on the back surface of the game board 1, the winning balls that have flowed out from the ceiling winning opening 12 of the variable display device 4 to the back side of the through hole 1A through the downflow guide portion 721 are guided to the side of the collecting trough 71. Winning ball guiding trough 141a, winning ball guided by the guiding trough 141a, and winning ball that guides the winning ball reaching the back side of the through hole 1N from one general winning port 7 on the side of the variable display device 4 to the downflow trough 71a. Guide gutters 141b and 141
c, and the other general winning opening 7 beside the variable display device 4
The prize winning ball guiding troughs 141d and 141e for guiding the prize winning balls reaching the back side of the through hole 1M to the downflow trough 71a are installed, respectively.

The winning balls guided by the winning ball guiding troughs 141a to 141e onto the downflow trough 71a, the starting winning devices 6, 6, 8 and the general winning holes 9, 9, 7, 7 through the through holes 1C, 1D, 1G. And the winning ball guided directly onto the downflow gutter 71a via 1E, 1F, 1M, and 1N, and the downflow gutter guided from the winning opening 511 of the variable winning device 5 to the back side of the through hole 1B by the collecting channel frame 560. The winning ball that has reached above 71a flows down along the downflow gutter 71a and is guided to the winning ball processing device 78.

The variable display device 4 is provided in the through hole 1A.
External fraud detector 1001 mounted on
But the through-hole start winning detector 8a installed in the starting winning device 8 to 1G (SW ₃₎ and the fifth external fraud action detector 1005, through-hole 1D, start winning device to 1C 6 , A winning award detector 61 (SW ₁ ) installed in 6,
61 (SW ₂ ) and the third and fourth external unauthorized action detectors 1003 and 1004 are provided in the through hole 1B as the variable winning device 5.
Continuous prize-winning detector 550 installed in the winning port 511 of
(SW ₄ ) has a second external unauthorized action detector 1002 attached to the variable winning a prize device 5 at the bottom of the through hole 1B.
The winning number detector 562 (SW ₅ ) installed in the collecting channel 561 of the collecting channel frame 560 of the variable winning device 5 is diagonally below the through hole 1B, and the sixth wrong action detector is on the lower left side. 1006 are arranged respectively.

27 to 29 show an example of an electric circuit related to the first to eighth external unauthorized action detectors 1001 to 1008.

First to eighth external fraudulent effect detectors 1001
Since all the electric circuits related to No. 1008 have the same configuration, the electric circuit related to the first external unauthorized action detector 1001 will be described as a representative.
A power source (AC12V) 1030 is connected to the input side of the, while one end of an induction coil 1025 that configures the relay circuit 1020 is connected to the output side, and the other end of the induction coil 1025 is grounded. Then, in the relay circuit 1020, a hitting ball launching control motor 20 described later is provided.
The switch 1023 of c is exposed.

As shown in FIG. 28, the external tampering detection circuit housed in the package covering the detector 1001 includes an oscillating unit 1010 and a PNP that is on / off controlled by an output signal of the oscillating unit 1010. Type transistor T
r, a Zener diode D ₁ connected to the collector side of the PNP transistor Tr, and a resistor R connected in parallel with the PNP transistor between the power supply voltage (+12 V) and the cathode terminal of the Zener diode D _1.
1 and a protective Zener diode D ₂ .

As shown in FIG. 29, the oscillating unit 1010 includes an oscillating circuit 1012 having an oscillating coil 1011.
Detection circuit 1 for detecting the oscillation output of the oscillation circuit 1012
013 and a waveform shaping circuit 1014 for shaping the output signal of the detection circuit 1013 to output a rectangular signal.

When the oscillation circuit 1012 receives a radio wave or the like from an external illegal means such as a communication device, an induced voltage is generated in the coil 1011 and the amplitude of the oscillation output Vosc is changed by the induced voltage. The detection circuit 1013 outputs a signal corresponding to the envelope of the wave of the oscillation output Vosc. Then, the output signal is waveform-shaped by the waveform shaping circuit 1014 and output as a square wave. This waveform shaping circuit 1
The output of 013 is applied to the base of the PNP transistor Tr of FIG.

External unauthorized action detector 1001 as described above.
To the internal circuit of, for example, the hitting launch control motor 20c (FIG. 60) is connected via the relay circuit 1020,
The normally open switch 1023 of the motor 20c in the relay circuit 1020 is always set to the external unauthorized action detector 1001.
The coil 2025 inside the relay circuit 1020 connected to the output side of the motor 20 is closed by the electromagnetic force generated by the current flowing from the detector 1001.
When the radio wave or the like by the external improper action means acts on the external improper action detector 1001 in a state in which C is activated and a hitting ball can be fired, the detector 1001 causes the relay circuit 1020 inside The current no longer flows through the coil 1025, the magnetic force of the coil 1025 disappears, and the normally open switch 1023 returns to the open state, whereby the motor 20c is stopped and the firing of the hit ball is disabled. .

That is, in a normal state where the electromagnetic wave or the like by the external illegal means does not act on the oscillation coil 1011,
The induced voltage is not generated in the oscillation coil 1011 and the output signal of the waveform shaping circuit 1013 of the oscillation unit 1010 is at the L (low) level, so that the PNP transistor Tr is in the ON state. Then, a large current from the transistor Tr passes through the Zener diode D ₁ and flows into the coil 1025 inside the relay circuit 1020, whereby an electromagnetic force is generated in the coil 1025, and the electromagnetic force closes the switch 1023 of the motor 20c. The motor 20c is actuated by the motor 20c, whereby the ball can be fired.

In such a state, when the player brings an external fraudulent means such as a communication device close to the pachinko gaming machine for the purpose of fraud, and emits an illegal radio wave or the like, the illegal radio wave or the like is generated by the oscillation unit 1010. When the output signal of the waveform shaping circuit 1013 of the oscillating unit 1010 becomes H (high) level based on the induced voltage generated by acting on the oscillating circuit 1012, the PNP transistor Tr is turned off. Therefore, the current flowing through the coil 1025 inside the relay circuit 1020 via the Zener diode D ₁ becomes minute and the electromagnetic force of the coil 1025 disappears, whereby the switch 1023 of the motor 20c is returned to the open state and the motor 10c is restored. 20c is stopped, so that the ball cannot be fired.

In this way, the illegal radio waves or the like from the external illegal means are detected by the first to eighth external illegal action detectors 110 to 10.
The motor 20c
Is stopped so that the ball cannot be fired, thereby preventing an illegitimate player from unjustly gaining, while preventing a great loss in the game store.

FIG. 30 shows a modification of the electric circuit relating to the first to eighth external unauthorized action detectors 1001 to 1008.

Also in this case, since the electric circuits related to the first to eighth external unauthorized action detectors 1001 to 1008 all have the same configuration, the electrical circuits related to the first external unauthorized action detector 1001 are electrically connected. To explain the circuit as a representative, a power supply (AC12V) is connected to the input side of the detector 1001, while a time constant circuit and a Schmitt including, for example, a resistor R ₂ , a resistor R ₃ and a capacitor C are provided on the output side. An external circuit consisting of a trigger circuit (or inverter) ST is connected.

With this structure, a large amount of illegal action detector 100 is generated when an illegal radio wave or the like from the external illegal action means is detected by any one of the first to eighth aspects.
The currents on the output side of 1 to 1008 are made to act as a stop signal of the microcomputer 612 (FIG. 66) constituting the accessory control device 610 (FIG. 60) via the time constant circuit and the Schmitt trigger circuit (or inverter) ST. In this way, the game is disabled.

As described above, the unauthorized radio waves or the like from the external unauthorized action means are detected by the first to eighth external unauthorized action detectors 1001-1.
When detected by any one of 008, the microcomputer 612 (FIG. 66) constituting the accessory control device 610 (FIG. 60) is stopped and put into the inoperable state. While an unreasonable gain can be prevented, it is possible to prevent a great loss at a game shop.

FIG. 31 shows a detection circuit 900 of the start winning prize detector 81 (SW ₃ ) installed in the central starting prize winning device 8.

This detection circuit 900 is, as shown in the figure, a microcomputer (CPU) 612 (FIG. 6) which constitutes an accessory control device for controlling the pachinko game.
6) is provided with an output line 901 connected to 6) and a ground line 902 connected to the ground, and a ball detection unit 920 at the tip of the output line 901 faces the detection unit of the starting winning device 8 and is contacted and separated from each other by the micro switch 903. It is like this.

The rear ends of the output line 901 and the ground line 902 are once relay-connected to the relay board 630 (FIG. 60) installed on the back side of the game board 1, and then the back side of the back side of the pachinko gaming machine 100. Main board 610A (FIG. 6) of the accessory control device installed on mechanism mounting board 800 (FIG. 46).
0).

Then, the output line 90 of the relay board 630 portion
1 and the ground line 902, a capacitor 930 (for example, a capacity of 1000 PF) as an induced voltage attenuator.
Is installed.

The rear end of the output line 901 led to the main board 610 (FIG. 60) is connected to a control chip microcomputer (CPU) 612 which constitutes a accessory control device via a filter 906 and a Schmitt inverter 910. The ground line 502 has a rear end connected to the ground.

In the filter 906, an operating voltage of + 5V is applied to the upstream portion of the output line 901 via a resistor 907, a resistor 908 is arranged in the middle portion, and a capacitor 909 connected to the ground is connected to the downstream portion. It is configured by

The detection circuit 900 with the countermeasures against fraud constituted as described above is normally operated by the microswitch 9
03 is in the OFF state, the operating voltage of 5V is applied to the output line 901 in the upstream portion of the filter 906 portion, and the capacitor 909 in the downstream portion is charged, so that the upstream portion a of the Schmitt inverter 910 is The voltage at the point is at H level because it maintains 5 V as shown in FIG. Then, the H-level voltage signal is inverted by the Schmitt inverter 910, and the voltage signal at the downstream point b is at the L level.

In this state, when a game ball flows into the starting winning opening 8 of the detecting section 920, the micro switch 903 is temporarily turned on at the time of the inflow, so that the output line 901 is upstream of the Schmitt inverter 910. The H-level voltage on the side of the Schmitt inverter 910 is grounded and escaped via the ground line 902, so that the voltage at the point a on the upstream side of the Schmitt inverter 910 temporarily drops to about 1.2 V and becomes L-level. Inverter 910
The voltage at the point b on the downstream side of H becomes H level, and the detection signal of the game ball is sent to the microcomputer (CPU) 612 (FIG. 66) which constitutes the accessory control device 610 (FIG. 60).
Based on the signal, the variable winning device 4 is adapted to be converted into a preliminary game state.

In the detection circuit 900, the relay board 6
Between the output line 901 and the ground line 902 of the 30th part, a capacitor 930 (for example,
Since a capacity of 1000 PF) is installed, a player can generate a magnetic field (electric field) in the detection unit 920 of the detection circuit 900 by causing the radio device 530 to approach the starting winning device 8 and emit a radio wave for the purpose of fraud. Even if an induced voltage (for example, −5 V) is generated on the output line 910, the induced voltage is attenuated by the capacitor 930 as an induced voltage attenuating means, and the voltage at the point a on the upstream side of the Schmitt inverter 910 due to the radio wave is the radio wave. 5V to about 3.
Although it fluctuates to about 8V, the voltage value thereunder is not converted to an L level state of 1.2V or less, and the radio wave does not cause a malfunction of the accessory control device.

In the conventional detection circuit 900, since the capacitor 930 is not provided, the induced voltage is not attenuated and the lower voltage is converted to the L level state of 1.2 V or less as shown by the chain double-dashed line in FIG. Microcomputer 61
2 was malfunctioning.

FIG. 34 shows the detection circuit 900 shown in FIG.
The 1st modification of is shown.

In this modification, the capacitor 930 as the induced voltage attenuator is not the relay board 630 but the output line 901 of the main board 610A of the accessory control device.
It is installed between the ground line 902 and the ground line 902.
Its damping effect is the same as that shown in FIG.

Capacitor 93 as means for attenuating induced voltage
If the installation position of 0 is between the output line 901 and the ground line 902, the attenuation effect does not change wherever it is installed.

FIG. 35 shows the detection circuit 900 shown in FIG.
The 2nd modification of is shown.

In this modification, a capacitor 930 as an induced voltage attenuating means is installed between the output line 901 and the ground line 902, and coils 913, 914 (for example, as another induced voltage attenuating means) are provided. 15 μH) are respectively provided at the tips of the output line 901 and the ground line 902 in the vicinity of the micro switch 903, so that a more effective damping effect can be obtained.

FIG. 36 is a plan sectional view showing the starting winning prize detectors 61 (SW ₂ , SW ₃ ) installed in the left and right starting winning devices 6, 6.

The starting prize winning detector 61 includes a sphere detecting unit 1070 installed in the starting winning unit 6 and the sphere detecting unit 10.
70, a lead wire 1080 guided rearward, and a connection terminal 109 attached to the rear end of the lead wire 1080.
It has 0 and.

The sphere detection unit 1070 is a detection unit composed of an optical sensor and is formed in a U-shaped frame, and the center thereof is the sphere passage unit 10.
71, the left and right are arm portions 1072 and 1073. Then, the light emitting unit 107 is provided in the one arm 1072.
4 is provided, and a light receiving unit 1075 that receives light from the light emitting unit 1074 is provided in the other arm frame. One end of the lead wire 1076 is connected to the substrate 1076 in the sphere detecting portion 1070 in which the light emitting portion 1074 and the light receiving portion 1075 are installed, and the connecting terminal 1090 is connected to the other end of the lead wire 1076. Then, the connection terminal 1090 is once relay-connected to the relay board 630 (FIG. 60), and then the accessory control device 6 on the back side of the pachinko gaming machine 100.
Connected to 10.

FIG. 37 shows an electric circuit diagram of the sphere detector 1070.

The ball detecting unit 1070 is arranged so that the winning ball is the ball passing unit 1.
In a state where it does not reach 071, the light receiving element 1113 of the light receiving unit 1075 receives the light from the light emitting element 1111 that is generating pulsed light by the oscillator 1112. When the light receiving element 1113 receives the light, it is converted into an electric signal, and the electric signal is amplified by the amplifier 1114 and sent to the synchronization detector 1115. Then, the synchronization detector 1115 takes the AND of the pulse from the amplifier 1114 and the pulse from the oscillator 1112 and sends the AND to the demodulation unit 1116.

The demodulation unit 1116 demodulates the output pulse from the synchronization detector 1115 to "H" or "L" for a certain period of time. In the embodiment, three consecutive pulses from the synchronization detection unit 1115 are set as one set. Considering this, it is determined to be "H" when there are three pulses and "L" when there are not three pulses.

When the winning ball does not reach the ball passing portion 1071, the light emitting element 1111 emits light in synchronization with the pulse of the oscillator 1112. Therefore, the output sent from the amplifier 1114 is synchronized with the signal from the oscillator 1112. As a result, the demodulator 1116 outputs an “H” level signal.

When the "H" output from the demodulation unit 1116 acts on the switching transistor 1117, the switching transistor 1117 is turned on, and the current from Vcc flows through the switching transistor 1117 to the ground (GND).

In this way, when the light from the light emitting element 1111 reaches the light receiving element 1113 without being blocked by the sphere, the output of OUT, that is, the start winning award detector 61.
Output becomes "L", and it is detected that the ball has not passed.

On the other hand, the sphere passage section 107 of the sphere detection section 1070.
When the winning ball passes through the inside of 1, the end of this ball blocks the light from the light emitting element 1111 and the light receiving element 1073 does not receive the light.

When the light receiving element 1113 does not receive light, the output from the amplifier 1114 continuously becomes "L" as shown in FIG. 38. Therefore, the synchronization detecting section 1115 cannot take AND, and the synchronization detecting section 1115. The output from is continuously "L".

Therefore, the output from the demodulation unit 1116 is converted to "L", the switching transistor 1117 is turned off, and the current from Vcc flows to OUT. Therefore, the output of OUT, that is, the output of the start winning award detector 61 is converted into "H", and it is possible to detect that the winning ball is passing.

When the winning ball passes,
The light receiving element 1113 again receives the light from the light emitting element 1111 and the output of the demodulation section 1116 becomes “H” at the falling edge of the third pulse of the synchronization detection section 1115.
As a result, the switching transistor 54 is turned on again, and the current from Vcc flows to the ground (GND). Therefore, the output of OUT, that is, the output of the start winning detection device 61 returns to "L".

In the case of this embodiment, the oscillator 11
Since the presence or absence of the sphere is determined on the condition that three sets of pulses are input in synchronization with the 12 pulses, even if the light receiving element 1113 receives the external light, if the light is external light, Since the above conditions are rarely met, the false detection by external light is virtually nonexistent.

The light from the light emitting element 1111 is
The light is emitted in the direction of the light receiving element 1111 only through the small opening windows 1077, 1078 provided inside the arm portions 1072, 1073 provided along the optical axis that goes straight to the light receiving element 1013.
Even if the light from 6 is emitted in a direction other than the regular optical axis, the light is not received by the light receiving element 1073.

FIG. 39 shows a detection circuit 950 for the left and right starting prize detectors 61 (SW ₂ , SW ₃ ) using the optical sensor.

This detection circuit 950, as shown in the figure, has a power supply voltage line 951, an output line 952, and a ground line 9.
53 and a sphere detection unit 10 including those optical sensors.
70 is exposed in the starting winning opening 6.

The power voltage line 951, the output line 952, and the rear end side of the ground line 953 are once relay-connected to the relay board 630 installed on the back side of the game board 1, and then the back mechanism of the back side of the pachinko gaming machine 100. It is guided to the main board 610A (FIG. 60) of the accessory control device 610 installed on the board 800 (FIG. 46).

A capacitor 980 as an induced voltage attenuator is installed between the output line 952 and the ground line 953 of the relay board 630.

Power supply voltage line 9 led to the main substrate 610
A power supply voltage of 12 V is supplied to the rear end portion of 51 through a resistor 957. Further, the rear end portion of the output line 952 led to the main substrate 610 is a microcomputer (CPU) 612 (FIG. 66) described later that constitutes a accessory control device via a filter 956 and a Schmitt inverter 915.
, And the rear end of the ground line 953 is grounded.

The voltage dividing resistors 958 and 959 for generating an operating voltage of 5 V are installed in the upstream portion of the filter 956 portion, the resistor 960 is arranged in the middle portion, and the grounded capacitor 961 is provided in the downstream portion. It is connected.

In the detection circuit 950 thus constructed, the power supply voltage (12 V) is normally applied to the output line 952, and the capacitor 980 is charged by the voltage. Then, in the filter 956, the voltage dividing resistor 95
The voltage of 12V is divided by 8,959 so that the voltage at the point C becomes 5V. The voltage of 5V is applied to the capacitor 961 via the resistor 960, and the capacitor 961
Is charged to 5 V, the voltage at the upstream point d of the Schmitt inverter 915 becomes the H level shown in FIG. Then, the H-level voltage signal is inverted by the Schmitt inverter 910, and the voltage signal at the downstream point e is at the L level.

In this state, when the game ball flows into the starting winning device 6 where the ball detecting section faces, the game ball is detected by the ball detecting section 1070 at the time of the inflow, and the power supply voltage line 9 is detected.
Since the H-level voltage of 51 and the output line 952 is released via the ground line 953, the voltage at the upstream portion d point of the Schmitt inverter 910 temporarily becomes L level, while the downstream portion e point of the Schmitt inverter 915. The voltage of H becomes the H level, and the detection signal of the game ball constitutes the accessory control device microcomputer 612 (CPU).
And the variable winning a prize device 4 is converted into a preliminary game state based on the signal.

In the detection circuit 950, the relay board 6
Since the capacitor 980 as the induced voltage attenuating means is installed between the output line 952 and the ground line 953 of the 30th portion, the player can use the wireless device 530 for the purpose of cheating.
By bringing radio waves closer to the starting winning device 6 and transmitting a radio wave, a magnetic field (electric field) is generated on the detection unit 1070 of the detection circuit 950 and the wire (including 3 lines), and an induced voltage (for example, -5V) is generated on the output line 952. ) Occurs, the induced voltage is attenuated by the capacitor 980 as the induced voltage attenuating means, and the voltage at the point d at the upstream portion of the Schmitt inverter 915 due to the radio wave is changed from 5 V according to the cycle of the radio wave as shown in FIG. Although the voltage fluctuates to about 3.8V, it is not converted to the L level state below the voltage value of 1.2V, and malfunction of the accessory control device 610 due to the radio wave is eliminated.

FIG. 40 shows the detection circuit 950 shown in FIG.
The 1st modification of is shown.

In the first modification, the capacitor 980 as the induced voltage attenuating means is provided between the output line 956 and the capacitor 953 on the main board 610A of the accessory control device 610, not on the relay board 630. Although installed, the effect is the same as that shown in FIG. 39.

FIG. 41 shows the detection circuit 950 shown in FIG.
The 2nd modification of is shown.

In the second modification, the capacitor 980 as the induced voltage attenuating means is not the relay substrate 630 but the output line 9 of the base portion for fixing the start winning award detector 61.
It is installed between 52 and the ground line 953,
The effect is the same as that shown in FIG. 39.

Capacitor 98 as means for attenuating induced voltage
If the installation position of 0 is between the output line 952 and the ground line 953, the effect is the same no matter where it is installed.

FIG. 42 shows the detection circuit 950 shown in FIG.
The 3rd modification of is shown.

In the third modification, the output line 95
The capacitor 980 as the induced voltage attenuating means is attached between the second and the ground line 953, and the coils 954 and 955 as the other induced voltage attenuating means are respectively provided in the vicinity of the ball detecting portion 1070 of the start winning detection device 61. It is provided in the output line 952 and the ground line 953 part of the above, and a more effective damping effect can be obtained.

FIG. 43 shows the detection circuit 1200 of the continuous winning detector 550 (SW ₄ ) and the winning number detector 562 (SW ₅ ) installed in the variable winning device 8.

The detection circuit 550 (562) is, as shown in the figure, an output line 1201 connected to a microcomputer 612 which constitutes a accessory control device for controlling a pachinko game and a ground line 1 connected to the ground.
202, and a continuous winning prize detector 550 (winning number detector 562) at the tip of the 202 faces the detecting unit of the variable winning device 5.

The output line 1201 and the ground line 1
The rear end side of 202 is guided to the main board 610A (FIG. 60) of the accessory control device installed on the back mechanism board 800 (FIG. 46) on the back side of the pachinko gaming machine 100.

The rear end portion of the output line 1201 led to the main substrate 610A is connected to the microcomputer 612 which constitutes the accessory control device via the filter 1230 and the Schmitt inverter 1211 and the ground line 1
The rear end of 202 is grounded.

A resistor 1203 is provided at the portion of the output line 1201 in front of the filter 1230, and a power supply voltage (+12 V) is applied to the downstream side thereof via the resistor 1204.

The filter 1230 includes a PNP transistor 1205 having a voltage (+ 12V) applied to the emitter side and a resistor 1206 connected to the collector side thereof.
And a feedback diode 1209 disposed in parallel with 1208, the resistors 1206-1208 are grounded via a resistor 1207, and the downstream side of the resistor 1208 is grounded via a capacitor 1210.

Then, coils 1212 and 1213 as induced voltage attenuating means are provided at the tips of the output line 1201 and the ground line 1202 near the detector 550 (562) at the tip.
Is connected.

In the detection circuit configured as described above, the PNP transistor 1205 does not operate at all times and the output on the collector side thereof is at the L level. The output of the microcomputer 6 is inverted by the Schmitt inverter 1211 to generate an H level signal.
12 has been entered.

In this state, when the winning ball flows into the detection portion of the variable winning device 5 facing the detector 550 (562) and reaches the detection hole of the detector 550 (562), at that time point. The voltage (+12 V) applied through the resistor 1204 on the output line 1201 side is released through the ground line 1202, so that the PNP transistor 12
The base voltage of 05 becomes "0" and the transistor 120
5 operates, a current flows from the emitter side to the base side and the collector side, the capacitor 1210 is charged by the current, and the potential on the collector side becomes H level. That H
The potential of the level is inverted by the Schmitt inverter 1211 and the input to the microcomputer 612 that constitutes the accessory control device 610 is inverted to the L level, whereby the inflow of the winning ball is detected.

After that, the winning ball is detected by the detector 550 (5
When it passes through the detection hole of 62), the transistor 120
When the base voltage of 5 is returned to the H level (+ 12V) again, the transistor 1205 is stopped and the potential on the collector side returns to the L level, and the L level potential is inverted by the Schmitt inverter 1211 and the microcomputer 612. The input to is returned to the H level again.

In this detection circuit 1200, since the coils 1212 and 1213 as the induced voltage attenuating means are connected to the tips of the output line 1212 and the ground line 1213 near the detector 550 (562) at the tip, the game is executed. For the purpose of fraud, a person brings an external fraudulent means such as a wireless device close to the detector 550 (562) to emit a radio wave to cause a magnetic field (electric field) to the tip detection portion of the detection circuit 1200.
Even if an induced voltage (for example, −5 V) is generated on the output line 1212 and the ground line 1213 due to the occurrence of the induced voltage, the induced voltage is attenuated by the coils 1212 and 1213 as the induced voltage attenuating means, and depending on the radio wave, the transistor 1205
Does not drop to the operating potential, and the accessory control device 610 does not malfunction.

FIG. 44 shows the detection circuit 1 shown in FIG.
The 1st modification of 200 is shown.

In this modification, a donut-shaped ferrite core 1204a is used as the induced voltage attenuating means instead of the coils 1212 and 1213 shown in FIG. 42, and the output line 1201 and the ground are connected to the ferrite core 1204a. The tip side of the wire 1202 is wound.

Even with such a configuration, the output line 1201 and the ground line 1 may be changed by an external illegal action means such as a wireless device.
By attenuating the induced voltage generated in 202, it is possible to prevent the accessory control device 610 from malfunctioning.

FIG. 45 shows the detection circuit 120 shown in FIG.
A second modified example of 0 is shown.

In this modification, a capacitor 1250 is provided as an induced voltage attenuator between the output line 1201 and the ground line 1202 in addition to the coils 1212 and 1213 shown in FIG. .

With such a structure, the output line 1201 and the ground line 12 can be operated by the external illegal action means.
The induced voltage generated at 02 can be attenuated more effectively than that shown in FIG.
The malfunction of 10 can be prevented more effectively.

FIG. 46 shows a structural example of a back mechanism attached to the back of the back mechanism board 800.

This back mechanism constitutes a prize ball discharge processing mechanism, and a storage tank 72 for storing spare balls (prize balls before payout) is installed above the back surface of the back mechanism board 800.
The guide gutter 7 so as to face the lower end opening of the storage tank 72.
3 are installed. A ball supply foot plate lever 74 is rotatably installed around the pin 74a at the starting end of the guide trough 73, and when the storage tank 72 is emptied, the foot plate lever 74 moves upward to detect the ball shortage detector. This is detected by 34, and a ball supply request is made to a central control room (not shown).

The guide trough 73 makes a U-turn while gently inclining downward and is connected to the flow lower end of the guide trough 73. It is arranged to be swingable as a core.

A ball removing device 75 is provided at the U-turn portion of the guide gutter 73. When the ball removing device 75 is operated, a spare ball in the storage tank 72 is in the middle of the guide gutter 73. It is designed to be pulled out to the outside through the ball removing trough 76.

At the start end side of the lower guide gutter 73, there is a tread plate lever 110 for stopping the prize ball processing, and a restoring force in the direction in which the tip end side rises with the pin 111 as an axis serves as a weight on the other end side. It is rotatably installed in the state given by 112. A connecting rod 113 is attached to the lower end of the tread lever 110.
Are connected at one end. The connecting rod 113 is slidably installed along the lower side of the lower guide gutter 73.
The tip end side of the locking claw 114 is connected to the other end.
The locking claw 114 is rotatably installed around the pin 115 as an axis and is in a position where it can be engaged with the engaging piece 77S provided on the ball sheath case 77.

When the auxiliary ball is sufficiently supplied into the guide gutter 73, the weight of the auxiliary ball lowers the tip end side of the tread lever 110, so that the connecting rod 11
The engaging claw 114 is engaged with the engaging piece 77 of the ball-sheath case 77 through
It is rotated to an angular position where it cannot engage with S, and the prize-ball discharging operation of the ball-sheath case 77 is possible.

However, when the supply of the preliminary ball into the guide gutter 73 becomes insufficient, the tip end side of the tread lever 110 rotates in the direction in which it is lifted by the weight of the weight 112. The locking lever 114 is rotated through the rod 113 to a position where it can be engaged with the engagement piece 77S of the ball-sheath case 77 to prevent the prize-ball discharge processing operation of the ball-sheath case 77.

On the other hand, the winning ball processing device 78, which is swingably arranged at the lower end of the downflow gutter 71a, rotates clockwise when the winning ball flows into the downflow gutter 71a. It rotates one step (predetermined angle), and temporarily stops while holding the winning ball.

The rotation of the winning ball processing device 78 turns on the switch sensor SWA (to be described later, FIG. 49) to drive the prize ball discharging motor 820, and the motor 820 drives the crank cam 130 and the crank cam 130 constituting the drive control mechanism. The continuous chunk cam 140 is driven. And the crank cam 13
By 0, the ball sheath case 77 is tilted via the actuating lever 210, the connecting rod 801, and the link mechanism 804 having the pin 804a as an axis to perform prize ball discharging processing. At the same time, the winning ball processing device 7 is operated by the continuous chunk cam 140.
8 is rotated (further rotated) in two steps, and the winning balls held therein are discharged onto the downstream flow gutter 71b provided below the flow gutter 71a. The released winning balls are further flown down through the winning ball outflow gutter 79 and collected.

As described above, the prize balls ejected from the case 77 by tilting the ball-sheath case 77 absorb the shock of the fall, and the prize ball discharge trough 803 on the cushion lever 806 and the downstream side thereof. Further, it is discharged to a supply plate (not shown) on the front of the gaming machine through the outlet 803a. When the supply tray is full, it flows out through the overflow gutter 805 to a lower tray (not shown).

When the ball sheath case 77 is tilted and the prize balls are discharged as described above, the prize winning ball processing device 78 in the tilted state is returned to the original state by the continuous chain cam 140 via the continuous chain lever 230. It is turned back and after that,
The ball-sheath case 77 in the tilted state as described above is connected to the connecting rod 8.
The crank cam 130 returns to the original state through 01.

FIG. 47 shows the details of the prize ball discharging device mainly composed of the ball sheath case 77.

Back mechanism board 80 joined to the back side of the game board 1
A holder 41 constituting the first prize ball number setting means 40 is fixed to the upper part of 0 (FIG. 46). A plurality of slits 41a are formed in a substantially vertical direction on the lower surface of the holder 41, and a pair of restricting pieces 43a and 43b are inserted into any two of the slits 41a, and a screw 42a is provided.
It is detachably attached by. The above restriction piece 4
One of the 3a and 43b (43a in the figure) is a guide gutter 7
3 has a claw projecting into the inner storage portion of the ball-sheath case 77 formed to have two storage portions, and the other restricting piece 43b is inside the outer storage portion of the ball-sheath case 77. It is formed so as to have a claw protruding inward. Thereby, by selecting the slit 41a into which the pair of restriction pieces 43a and 43b is inserted, the ball-sheath case 77 is selected.
It is possible to change the number of spheres that flow into the storage section, that is, the number of prize balls that are discharged at one time, within a range of 13 to 15, for example.

Reference numeral 77a denotes a rotating shaft of the ball-sheath case 77, and reference numeral 77b denotes a weight accommodating portion into which a weight for balancing the ball-sheath case 77 is inserted. Further, a blocking piece 77c for blocking the subsequent spare ball in the guide trough 73 from flowing out when the case 77 is tilted for discharging and the tip is raised at the tip of the ball sheath case 77. It is provided.

Further, the ball-sheath case 77 of this embodiment is used.
A downflow prevention lever 93 is rotatably attached to the upper end of a support piece 77d fixed to both side walls by a shaft 77e, and the downflow prevention lever 93 is provided in the center of the separation wall 77f of the ball-sheath case 77. A notch 77g with which the locking claw 93a at the tip of 93 can be engaged is formed. In other words, the flow-down prevention lever 93 is arranged so as to straddle the two accommodating portions inside the ball-sheath case 77, and when the locking claw 93a at the tip is rotated downward so as to fit into the cutout portion 77g. ,
When the ball-sheath case 77 is tilted, the flow of the prize balls in the two storage parts on the upstream side of the tilt is prevented at the same time, and only seven prize balls on the downstream side are discharged. The downflow lever 93 is always urged by a torsion spring 93c fitted to the shaft 77e in a direction in which its tip end side rises.

Further, above the flow-down prevention lever 93, a rotation lever 91 is rotatably attached to a support column 96 integrated with the back mechanism panel 800 with the pin 96a as an axis.
And a limit solenoid 92, which is a drive source thereof, are arranged, and they are mutually connected by an operating lever 94 to a pin 94.
It is rotatably connected via a and 94b. on the other hand,
An arcuate projection 93b is formed on the upper surface of the flow-down prevention lever 93.

When the limit solenoid 92 is in the demagnetized state, the spring 92b causes the plunger 92a to move.
Is extended, the pivot lever 91 is pivoted through the actuating lever 94 in the direction in which the tip end side is lowered, and the protrusion 9
3b is pressed and the locking claw 93a of the downflow prevention lever 93 is fitted into the notch 77g, so that only the prize ball on the downstream side in the ball-sheath case 77 can flow out.

When the limit solenoid 92 is excited,
The plunger 92a contracts, and the turning lever 91 is turned via the actuating lever 94 in such a direction that the tip end side thereof is raised.
Along with that, the flow-down prevention lever 93 rotates in a direction in which the tip end side thereof rises due to the restoring force of the torsion spring 93c, and the locking claw 93a comes out of the notch 77g, and the inside of the ball-sheath case 77 is closed. All prize balls can be leaked.

As shown in FIG. 48, the ball-sheath case 77 is provided with a pin 98 fixed to one downstream side, and the link 8 is attached thereto.
04 is connected to the crank cam 1 as described above.
By means of 30, the operating lever 210, the connecting rod 801, and the link mechanism 804 having the pin 804a as an axis are tilted in the downward direction to discharge prize balls.

FIG. 49 shows a winning process device 78, a winning ball deriving trough 79, a drive control mechanism 200, and the drive control mechanism 20 of the above-mentioned back mechanisms attached to the back mechanism board 800.
Back cover 11 on which a motor 820 for operating 0 is installed
3 parts etc. are shown in detail as an exploded perspective view.

In the figure, the operating lever 210 is rotatably installed via a support shaft 211 at one corner of the lower side of the back mechanism board 800. A connecting rod 80 for tilting and returning the ball-sheath case 77 to the outer end of the operating lever 210.
1 is rotatably attached via a pin 212, and an operating pin 213 for obtaining a turning force of an operating lever 210 from a motor 802 via a crank cam 130 is provided at an inner middle portion in a protruding manner.

The winning ball processing device 78 is swingably installed above the operating lever 210 via a pin 78a. The tip portion of the winning ball processing device 78 (see FIG.
9, the upstream side) has a concave hole 78c (see FIG. 5) for separating winning balls.
3 to FIG. 55), and a turning range restricting piece 78b and a detecting piece 78d are projected on one side of the other end. The rotation range control piece 78b and the detection piece 78d are the back mechanism board 8
Through the openings 112a and 112b formed in No. 00. An operating pin 78e is provided on the tip side of the winning ball processing device 78 so as to project therefrom.
Is projected to the back side through an opening 112c formed in the back mechanism board 800. Then, when the winning ball processing device 78 is rotated, the rotation range is restricted by the rotation range restricting piece 78b contacting the upper edge and the lower edge of the opening 112a. In addition, the detection piece 78d detects the U-shape of the switch sensor 221 (SWA) installed below the opening 112b on the back side of the back mechanism board 800 when the tip side of the winning ball processing device 78 is returned to the raised state. The motor 820 is in a stopped state by being fitted in the portion 221a.

Further, a continuous chain lever 230 is rotatably installed on a back mechanism board 800 portion located on the side of the winning ball processing device 78 with a support shaft 231 as an axis. An engagement hole 232 that meets the opening 112c is provided at the tip of the chain lever 230, and the operation pin 78e on the tip side of the winning ball processing device 78 is loosely fitted in the engagement hole 232. The continuous chain lever 230 is in a state in which an engaging pin 233 projectingly provided on a side portion thereof is engaged with a continuous chain cam 140 that is rotated by meshing with the crank cam 130, and the continuous chain cam 140 rotates. The spring 234 applies a turning force in a direction in which the tip end side descends.

On the other hand, the drive control mechanism 200 for rotating the operating lever 210 and the continuous chain lever 230 has a one-to-one correspondence between the gear parts 131 and 141.
The crank cam 130 and the continuous chain cam 140 that mesh with each other (mesh ratio). Each of the crank cam 130 and the continuous chunk cam 140 includes cam portions 133, 142 on the front surface side and detection pieces 134, 143 having fan-shaped detection portions 134a, 143a on the back surface side. The cam portion 133 of the crank cam 130 is arranged to be engaged with the operation pin 213 of the operating lever 210, and the cam portion 142 of the continuous chain cam 140 is arranged to be engaged with the operating pin 233 of the continuous chain lever 230. . In addition, the detection piece 13 of the crank cam 130
The detection unit 134a of No. 4 is a U-shaped detection unit 223a of the switch sensor 223 (SWC) installed in the vicinity of the outer periphery thereof.
Located immediately before the inside, the detection piece 1 of the continuous chunk cam 140
The detection unit 143 a of the reference numeral 43 is a U-shaped detection unit 222 of the switch sensor 222 (SWB) installed near the outer periphery thereof.
a.

By the way, the crank cam portion 133 of the crank cam 130 and the continuous chunk cam portion 142 of the continuous chunk cam 140 are constructed as follows, as shown in FIG. 50 as an explanatory view seen from the back side.

First, the crank cam portion 133 is constructed as a cam groove 135 surrounded by an inner cam protrusion 133a and an outer cam protrusion 133b, which are shown by hatching in FIG.
The cam groove 135 is composed of groove areas (a) to (d).

The groove area (a) is a groove surrounded by an arcuate inner cam protrusion 133a and an outer cam protrusion 133b whose distances from the center sharply increase in the clockwise direction. Operation pin 2 at the start point of this groove area (a)
13, the operating lever 210 and the ball sheath case 77 start to start from the steady state (state in which prize balls are not discharged) shown in FIG. 56, and as the crank cam 130 rotates counterclockwise, Groove area (a) is the operating lever 21
The operating pin 213 of 0 is lowered. This operating pin 213
When the lever is moved downward, the operating lever 210 is rotated clockwise, and the ball-sheath case 77 is tilted to the state shown in FIG. 52 (b) (the most inclined position) via the connecting rod 801 and the link 804. The prize ball discharging process is started.

The groove area (b) is an inner cam projection 133 having an arc shape with a constant curvature that is farthest from the center.
It is a groove surrounded by a and the outer cam protrusion 133b. This groove area (b) is the operating pin 21 of the operating lever 210.
3 is encountered, the operating lever 210 moves to the 52nd position.
By maintaining the state of FIG.
Is producing the discharge time of the ball from.

The groove area (c) is a groove surrounded by a substantially linear inner cam protrusion 133a and outer cam protrusion 133b whose distances from the center sharply decrease in the clockwise direction. When this groove region (c) meets the operating pin 213 of the operating lever 210, the operating lever 210 is given a turning force in the counterclockwise direction in FIG. The operating pin 213 is moved in the ascending direction along with the counterclockwise rotation. With the upward movement of the operating pin 213, the operating lever 210 rotates counterclockwise, and the ball-sheath case 77 is tilted to the state shown in FIG. 56 via the connecting rod 801 and the link 804, whereby the steady state is achieved. Will be returned to.

The groove area (d) is an inner cam projection 13 having an arc shape with a constant curvature that is closest to the center.
It is a groove surrounded by 3a and the outer cam protrusion 133b. This groove area (d) is the operating pin 21 of the operating lever 210.
3 is encountered, since the groove area (d) has a constant curvature, the operating pin 213 does not displace the operating lever 210, and the ball-sheath case 77 maintains the state shown in FIG. The time for refilling the ball sheath case 77 with balls is prepared in preparation for the prize ball discharging operation.

On the other hand, the continuous chunk cam portion 142 is shown by hatching in the figure, and the outer peripheral surface cam 146 of the cam projection 145 is shown.
And the outer peripheral surface cam 146 has a surface area (h) to
It is composed of (wo).

The surface area (h) is the outer peripheral surface of the cam projection 145 having an arc shape with a constant curvature. When this surface area (h) meets the operating pin 233 of the continuous chain lever 230, the continuous chain lever 230 is pivotally returned to the steady position, and the winning ball processing device 78 has the operating pin 78e of the continuous chain lever 230. It has returned to the position where it comes into contact with the upper edge of the engagement hole 232 of 230. At this time, the bottom surface of the concave hole 78c (FIG. 53) of the winning ball processing device 78 substantially coincides with the upper surface position of the downflow gutter 71a, and the winning ball flowing down on the downflow gutter 71a flows down into the concave hole 78c. It is possible. At this time, the detection piece 78d at the end of the winning ball processing device 78 is in a state of being inserted into the U-shaped detection portion 221a of the switch sensor 221 (SWA). In this state,
When the winning ball flows into the concave hole 78c, the winning ball processing device 78 reaches the position where the operating pin 78e contacts the lower end edge of the engaging hole 232 of the continuous chain lever 230 due to the weight of the winning ball.
Is rotated and stopped at that position, and the detection piece 78d at the end of the winning ball processing device 78 is switched to the switch sensor 221.
The state comes off from the U-shaped detection section 221a in (SWA). In this state, the tip side of the winning ball processing device 78 is tilted backward so that the tip side is low, and the winning ball in the concave hole 78c moves toward the exit, but flows down at the exit. The recessed hole 78 is locked by a locking piece 71c as a winning ball outflow preventing means provided vertically at the end of the gutter 71a.
It is in a state of being stored in c.

The surface area (r) is the outer peripheral surface of the cam projection 145 having an arc shape with a constant curvature having the smallest radius of curvature from the center. When this area (ri) encounters the operating pin 233 of the continuous channel lever 230, the continuous channel lever 2
30 is in a state of being rotated by the spring 234 in the direction in which its tip end side is lowered. Along with that, the winning ball processing device 78 is released from the rotation restriction in the direction in which the tip end side is lowered by the continuous channel lever 230, and the lower end of the tip end is guided downward by the weight of the winning end ball in the concave hole 78c. The winning ball in the concave hole 78c is unlocked by the locking piece portion 71c, and the lower guide gutter 71 is rotated.
It will flow out on b.

The surface area (nu) is the outer peripheral surface of the arc-shaped cam projection 145 whose distance from the center sharply increases in the counterclockwise direction. This area is a continuous lever 230
When you encounter the operating pin 233 of
With the rotation of 40 in the clockwise direction, the continuous chain lever 230
Is rotated in the direction in which the tip end side thereof is lifted, and its engaging hole 2
When the operation pin 78e is pushed up by the lower end edge of 32, the winning ball processing device 78 is rotated in the direction in which the tip side thereof is pushed up, and is forcibly returned to the steady position.

The surface area (L) is the outer peripheral surface of the arc-shaped cam projection 145 having the constant curvature with the largest radial distance from the center. When this surface area (le) meets the operation pin 233 of the continuous channel lever 230, the winning ball processing device 78 is forcibly maintained in the state where it is returned to the steady position by the continuous channel lever 230. At this time, the operating pin 233 is in contact with the lower end edge of the engaging hole 232 of the continuous channel lever 230, and the winning ball on the downflow gutter 71a has the concave hole 78.
Even if it flows into c, the winning ball processing device 78 is maintained in the stationary position. Even if the preparation time for the next prize ball discharging process is gained, winning balls are continuously generated, and even if a large ball pressure is applied to the ball locking piece 78h of the winning ball processing device 78, the ball is surely returned to the steady position. Is able to. At this time, the detection piece 78d at the rear end of the winning ball processing device 78 is returned to the U-shaped detection portion 221a of the switch sensor 221 (SWA).

The surface area (o) is the outer peripheral surface of the substantially linear cam projection 145 whose distance from the center sharply decreases counterclockwise. When this surface area (wo) encounters the operating pin 233 of the continuous channel lever 230, the continuous channel cam 14
With the rotation of 0 in the clockwise direction, the operating pin 233 moves to the area 14
6 abruptly descends to a position where it comes into contact with the winning ball processing device 7
No. 8 is maintained at the steady position in which the tip end side is raised due to its own weight and the weight of the return weight ball 78g (FIG. 53) accommodated in the accommodation chamber 78f on the terminal end side, and only the tip end side of the continuous chain lever 230 is lowered. It rotates in the direction to rotate and returns to the normal position. In the returned state, the winning ball processing device 78 has the concave hole 78c (see FIG. 5).
3) is in an initial state in which the winning ball on the downflow gutter 71a can flow in, and the operating pin 233 is located in the vicinity of the upper edge in the engagement hole 232 of the continuous chain lever 230 in the steady state, The winning ball on the gutter 71a is a concave hole 78c (Fig. 53).
When it flows in, the operating pin 233 causes the continuous lever 2 to
The winning ball processing device 78 is in an initial state in which the winning ball processing device 78 can be rotated to a position in contact with the lower edge of the engaging hole 232. Also,
This surface area (wo) also has a hook-like function of preventing reverse rotation of the motor 820.

The crank cam 130 and the continuous chunk cam 1
40 is a gear part 13 as shown by the arrow in FIG.
1, 141 has a rotation ratio of 1: 1 and is approximately 15 in the direction of the groove area (b) (clockwise direction) from the boundary between the groove areas (a) and (b) of the cam groove 135 of the crank cam 130. °
The displaced area and the surface area of the continuous chunk cam 140 (h) and (h)
It is meshed so that the boundary between and meets.

Next, the operation of the cams 130 and 140 and the operations of the ball-sheath case 77 and the winning ball processing device 78 which form the winning ball processing device will be described with reference to FIGS. 50 to 52.

First, the state in which the ball-sheath case 77 stands by in preparation for discharge of prize balls before the prize-winning ball processing device 78 is operated will be described.

Initially, as shown in FIG. 51, the detection portion 134a of the detection piece 134 of the crank cam 130 is in a state immediately before it encounters the switch sensor 223 (SWC), and
The detection unit 143a of the detection piece 143 of the continuous chunk cam 140 is in a state where it meets the switch sensor 222 (SWB), the motor 820 is stopped, and the crank cam 130 and the continuous chunk cam 140 are in a stopped state. The start end side of the groove area (a) of the cam groove 135 formed on the crank cam 130 meets the operation pin 213 of the operation lever 210, and forms a prize ball discharging device.
In the state shown in FIG. 56, the steady state is restored, and the ball stands by in preparation for prize ball discharge. Further, the starting end side of the surface area (h) of the outer peripheral surface cam 146 formed on the crank cam 140 is shown in FIG.
As shown in FIG. 1, the operating pin 233 of the continuous chain lever 230 is encountered, and the continuous chain lever 230 is displayed as shown in FIG.
Is forced by the continuous chunk cam 140, and the winning ball processing device 78 has its own weight and the accommodation chamber 78 on the rear end side.
Due to the weight of the return weight ball housed in f, the ball is returned to the normal position, and at this time, the operation pin 78e of the winning ball processing device 78 is located at the upper end edge of the engagement hole 232 of the continuous chain lever 230. It is in contact with them. The detection piece 78d at the rear end of the winning ball processing device 78 is the switch sensor 22.
It is in the state of meeting 1 (SWA).

In this state, when the winning ball flowing down on the guide trough 71a flows into the concave hole 78c of the winning ball processing device 78 (only one can flow), the weight of the winning winning ball is won. The ball processing device 78 rotates clockwise in the figure, and as shown in FIG. 54, the operation pin 78e stops in a state where it is in contact with the lower end edge of the engagement hole 232 of the chain lever 230.
In the process of the rotation, the winning piece processing device 78 has a detection piece 78 at the rear end.
When d is separated from the switch sensor 221 (SWA), the output of the switch sensor 221 (SWA) becomes "H" (high) level at the time of the separation, and the motor 820 is operated by the output, and the crank is generated by the motor 820. The cam 130 is rotated in the counterclockwise direction and the continuous channel cam 140 is rotated in the clockwise direction, and a series of prize ball discharging processing is performed as follows. Until this process is completed, FIG.
As shown in FIG. 5, the winning ball in the concave hole 78c of the winning ball processing device 78 has a locking piece portion 71c at the tip of the downflow gutter 71a at the exit portion thereof.
Thus, the winning balls are prevented from flowing out onto the downflow gutter 71a.

From this state, the motor 820 rotates the crank cam 130 in the counterclockwise direction and the detection piece 134.
The detection unit 134a of (1) encounters the switch sensor 223 (SWC), the switch sensor 223 (SWC) is turned on, and the continuous chunk cam 140 is also rotated clockwise. The actuating pin 213 is lowered by the groove area (a) of the cam groove 135 formed on the crank cam 130, so that the ball-sheath case 77 causes the actuating lever 210 and the connecting rod 80 to move.
57, the ball is rotated counterclockwise through the link 1 and the link 804 to perform the prize ball discharging process.

The starting end portion of the groove area (b) of the cam groove 135 formed on the crank cam 130 is the operating lever 21.
Immediately before encountering the operating pin 213 of 0, that is, the sheath case 7
57, the surface area (i) of the outer peripheral surface cam 146 formed on the continuous chain cam 140 immediately before the crank cam 130 is rotated the most as shown in FIG.
When encountering the operating pin 233 of 0, the continuous chain lever 230
55 is rotated clockwise as shown in FIG. 55, and the winning ball processing device 78 is further rotated clockwise by the weight of the continuous channel lever 230 and the winning ball. Then, the winning ball in the concave hole 78c, which was prevented from flowing out by the locking piece 71c at the tip of the downflow gutter 71a, is released from the locking by the locking piece 71c and flows out onto the lower downflow gutter 71b. .

After that, the groove area (b) of the crank cam 130
Encounters the actuating pin 213 of the actuating lever 210, and the state where the ball-sheath case 77 tilts as described above (a sufficient time for discharging the prize ball) is continued for a while. At the same time, the continuous swing lever 230 and the winning ball processing device 78 are rotated and tilted as shown in FIG. 55 (for a sufficient time to discharge the held balls) for a while.

On the other hand, when the winning ball processing device 78 continues to be in the most tilted state, the crank cam 130
The groove area (b) of the cam groove 135 of (1) is continuously in contact with the operating pin 213 of the operating lever 210, and the ball-sheath case 77 is also kept in the most counterclockwise tilted state as shown in FIG.

After a lapse of a certain time, the groove area (c) of the crank cam 130 is changed to the operation pin 2 of the operation lever 210.
13, when the outer peripheral surface cam 146 of the continuous chain cam 140 meets the operation pin 78e of the continuous chain lever 230, the ball-sheath case 77 is returned to the steady state shown in FIG. The channel lever 230 forcibly returns the winning ball processing device 78 to the steady state, and the detection piece 78d at the rear end of the winning ball processing device 78 is returned to the state where it meets the switch sensor (SWA), and the crank cam 130 The groove area (d) meets the operation pin 213 of the operation lever 210, and the surface area (le) of the outer peripheral surface cam 146 of the continuous channel cam 140 meets the operation pin 233 of the continuous channel lever 230.

A state in which the surface area (L) of the outer peripheral cam 146 of the continuous chain cam 140 meets the operation pin 233 of the continuous chain lever 230 and the winning ball processing device 78 is forcibly maintained in the steady state by the continuous chain lever 230. After a certain time (preparation time for the next prize ball discharging process) has passed, the initial state shown in FIG. 51, that is, the groove area (a) of the crank cam 130.
Encounters the operating pin 213 of the operating lever 210, the surface area (h) of the outer peripheral surface cam 146 of the continuous chain cam 140 returns to the state where it meets the operating pin 233 of the continuous chain lever 230, and the spherical sheath case 77 is shown in FIG. To a steady state,
The continuous chain levers 230 are respectively returned to the steady state shown in FIG. 53, and in the state where the continuous chain levers 230 are returned to the steady state, the operation pin 78e of the winning ball processing device 78 is connected to the continuous chain lever 2.
The initial state is that the upper edge of the engaging hole 232 of 30 is substantially in contact.

In this way, when one prize ball discharging process is completed and the crank cam 130, the continuous chum cam 140, the ball sheath case 77, the winning ball processing device 78, and the continuous changle lever 230 are returned to the initial state. , Chuncham 1
The detection unit 143a of the 40 detection piece 143 encounters the switch sensor 222 (SWB), and the sensor output is “L”.
When the level becomes (low), the motor 820 is stopped and the state returns to the standby state in preparation for the next prize ball discharging process.

In the above, the normal state, that is, the guide gutter 73
The one-time operation of ejecting the prize balls in the state where the balls are sufficiently filled and the guide gutter 73 is not clogged, etc., but the guide gutter 73 is not sufficiently filled with the balls. State, and an abnormal state such as ball clogging in the guide trough 73, that is, the tip side of the treadle lever 110 for stopping the prize ball discharge rises and the connecting rod 113 operates so that the locking piece 114 causes the ball sheath case 77. When a winning ball is generated while the tilting of the ball-sheath case 77 is locked by being engaged with the engaging piece 77s, the ball-sheath case 77 and the winning ball processing device 78 are as follows. Initially, both the crank cam 130 and the continuous chunk cam 140 are the same as in the previous time.
In the state shown in FIG. 0, the winning ball that flows down on the guide trough 71 in this state flows into the concave hole 78c of the winning ball processing device 78, and the winning ball processing device 78 moves to the position shown in FIG.
52. The operation pin 78e shown in FIG. 52 is rotated clockwise from the state shown in FIG. As a result, the switch sensor 2
The motor 82 starts to rotate by the output of 21 (SWA). Then, the operating pin 213, which is in contact with the surface area (a) of the crank cam 130, tries to rotate the operating lever clockwise, but the engaging claw 114 is engaged with the engaging piece 77s of the ball-sheath case 77. Therefore, the rotation of the motor 820 is forcibly stopped, and the clockwise rotation of the operation pin 213 is also stopped in a state where the crank cam 130 is in contact with the middle of the surface area (a). In this state, the operating pin 233 of the continuous chunk cam is in contact with the surface area (h), and the winning ball processing device 78 is stopped in the state shown in FIG. 54. Here, the replenishing device is operated to replenish the balls, or the ball clogging is removed, and the tip end side of the treadle lever 110 for stopping the prize ball discharge is pushed down by the weight of the balls.
3 is operated and the locking claw 114 engages the engaging piece 7 of the ball-sheath case 77.
By disengaging from the 7s and allowing the tilting of the ball-sheath case 77, the motor 820 continuously starts to rotate from the above state to perform the prize ball discharging operation. As described above, according to the state of the ball of the guide gutter 73, the ball sheath case 7
Since 7 is locked and the winning ball processing device 78 is held in the state shown in FIG. 54, it is possible to prevent troubles between the player and the amusement store that the winning balls are not discharged even though the player has won the prize. It has become.

The detection unit 143 of the detection piece 143 of the continuous chunk cam 140 encounters the switch sensor 222 (SWB) and the detection unit 134a of the detection piece 134 of the crank cam 130 is switched to the switch sensor 223 a certain time before the motor 820 is stopped. Leave (SWC).

Next, based on FIGS. 58 and 59, the two-system discharge process in the prize ball discharge process, that is, the normal discharge process (eg, 13-piece discharge process) and the small discharge (eg, 7-piece discharge process).
The timing and operation of will be described.

The normal discharge processing (eg, 13 pieces discharge processing) is
In the case of this embodiment, it is performed for all winnings during a normal game or a "big hit" operation.

At the time of this normal discharge processing, the limit solenoid 92 is excited by the control means described later, and the 53rd
As shown by the solid lines in FIGS. (A) and (b), the operating rod 92a
When the lever is contracted, the pivot lever 91 is pivoted in the clockwise direction in the figure via the actuating lever 94, and the tip end side of the flow-down prevention lever 93 is returned to the upper position by the force of the spring 93c (FIG. 47) and locked. Since the claws 93a are detached from the ball-sheath case 77 and all the prize balls (13 pieces) waiting in the ball-sheath case 77 are ready to flow out, the ball-sheath case 77 is reversed from the state shown in FIG. When it turns clockwise to reach the state shown in FIG. 59, all the prize balls (13 pieces) waiting therein are discharged.

Even when the prize ball discharge process is completed and the ball sheath case 77 returns to the normal state, the limit solenoid 92 is excited and the locking claw 93a of the downflow prevention lever 93 is removed from the ball sheath case 77. Since the ball has been removed, the reserve ball as a prize ball waiting in the guide gutter 73 is fully filled in the ball sheath case 77.

On the other hand, in the case of this embodiment, the small discharge processing (eg, seven pieces) is carried out only for the winning in the winning opening 511 of the variable winning device 5 during the "middle hit" operation.

During this small discharge process, the limit solenoid 92 is demagnetized by the control means described later, and the operating rod 92a is extended by the force of the spring 92b as shown by the chain line in FIGS.
The rotation lever 91 is rotated in the counterclockwise direction in the figure through the locking claw 93a into the ball-sheath case 77, and the prize balls (6 pieces) on the upstream side in the ball-sheath case 77 flow out. When the ball-sheath case 77 enters the blocked state and rotates counterclockwise from the state shown in FIG. 58 to the state shown in FIG. 59, the downstream of the prize balls (13 pieces) waiting in that state. Only the prize balls (7 pieces) on the side are discharged.

When the ball-sheath case 77 is returned to the steady state after the prize ball discharge processing is completed, the limit solenoid 92 is excited by the control means to be described later and the turning lever 93 is rotated clockwise. The locking claw 93a is rotated away from the inside of the ball-sheath case 77, and the guide gutter 73
The reserve ball as a prize ball waiting above will be quickly filled.

FIG. 60 shows the back structure of a pachinko gaming machine. The back mechanism board 800 is installed on the back side of the game board 1 (FIG. 2) installed on the holding frame 100 that constitutes the outer frame of the game machine.

An information board 600 is installed at the upper right corner of the back surface of the back mechanism board 800, and the information board 600 has an external connection terminal board 601 relating to ball break information, an external connection terminal board 907 relating to induced voltage generation information, and a hit ball. Launching device 20 (FIG. 6)
0) is connected to the external connection terminal 602 and the power supply terminal 603 involved in the firing control, and the power supply terminal 603 has a lead wire 6 having an insertion plug 604 to the power supply (not shown) at one end.
05 is connected. A fuse 606 is attached in the middle of the lead wire 605.

A seventh tampering detector 1007 is installed on the upper left side of the back surface of the back mechanism board 800.

Further, the accessory control device 610 is installed on the left side of the middle rear surface of the back mechanism board 800, and the relay boards 620 and 630 are installed on the back side position of the game board 1 on the right side thereof.

Further, at the lower left of the back side of the pachinko gaming machine, below the back mechanism board 800, a hitting ball launching device 20 and a launching motor 20c for driving the device 20 are installed.

A speaker 640 is installed in the lower center of the back side of the back mechanism board 800, and the prize ball box 6 is placed under the speaker 640.
50 are installed.

A case wiring board 655 and a completion lamp switch 660 are installed below the back mechanism board 800 at the lower right of the back side of the pachinko gaming machine.

FIG. 61 shows a wiring relationship diagram of the pachinko gaming machine.

The information base 60 is provided on the back side of the back mechanism board 800.
0, prize ball discharge circuit 680, launcher control circuit 670, etc. are arranged, and relay boards 620, 630 are provided on the back side of the game board 1.
Is installed.

The information base 600 includes the external connection terminals 601, 602 and 607 and the power supply terminal 603.
Is provided. A power supply terminal 603 is connected to a connector 603a of a lead wire 605 having a plug 604 for inserting into a power supply (not shown), and electricity is supplied from the power supply terminal 603 to the accessory control device 610 via a lead wire 603b. It has become so. Also, the connection terminal 60
1 is connected to a ball break information switch 34 via a lead wire, and a ball break information signal is sent to an external management device (not shown) via the connection terminal 601 to a supply device (not shown). Is sent. A switching mechanism (not shown) such as a relay is connected to the connection terminal 602 via a connector 602a, so that the operation control of the firing motor 20c can be freely set outside, for example, in a management device (not shown). There is. Also, the terminal board 60
7 is connected to a connection terminal 611x of the accessory control device 610 via a lead wire 607a, and is also connected to an external management device (not shown) to the lead wire 607b.

The prize ball discharging circuit 680 is a control circuit (not including a control circuit for discharging two systems) involved in the prize ball discharging operation.
In addition to the power supply terminal 681, the prize ball motor 820 terminal 682 and the switch sensor 221 (SWA) are mounted on the board on which is installed.
Terminal 683 and switch sensor 222 (SWB) terminal 684 are provided, and a power source (not shown) is connected to these terminals 681 to 684 via connectors 681a to 684a, respectively.
Prize ball motor 820, switch sensor 221 (SWA),
The switch sensors 222 (SWB) are connected to each other.

Further, a power source (not shown) is connected to the launcher control circuit 670 through a lead wire 605 having the plug 604, and the pilot lamp 24 and an overflow are provided through the respective lead wires. The switch 671 and the metal portion 20b of the operation dial 20a are connected.

When the player turns the operation dial 20a while touching the metal portion 20b of the operation dial 20a, the firing motor 20c starts operating and the pilot lamp 24 is turned on. However, the conditions for operating the firing motor 20c are that the firing stop button 106 is not operated, the overflow switch 671 is not in the on state, and the out-of-ball information switch 34 is not on. The light is turned on only when the firing motor 20c is operating.

Further, the accessory control device 610 is provided with a control unit such as a computer system for operating the variable display device 4 as the accessory, the variable winning device 5, and the like. The accessory control device 610 includes a connection terminal 611 a for operating the variable display 43 of the variable display device 4 and a lamp 422 of the variable display device 4.
a, 422b, 423a, 423b, 424a, 425
Connection terminals 611b for a, etc., a connection terminal 611c for a right generation display lamp (not shown) of the starting winning apparatus 8, a connection terminal 611d for the variable time reduction button 105, a connection terminal 622e for the prize number detector 562, and the number of prize balls. Vessels 22a, 22
b lamp connection terminal 611f, prize number indicator 515
Connection terminal 611g of the lamp, the opening / closing door 513 of the variable winning apparatus 5 and the connecting terminals 611h of the solenoids 542 and 542 for opening / closing the guide members 514, 514, the starting winning apparatus 6,
6 right generation indicator lamp 65 connection terminals 611i, 61
1j, a connection terminal 611k of the speaker 640, and a connection terminal 611x related to the induced voltage generation information.

The variable time reduction button 105 is connected to the connection terminal 611d of the accessory control device 610. In addition, the first to eighth external unauthorized action detectors 1001 to 1001
1008 is connected to the connection terminal 611x of the accessory control device 610 via the connector 611y.

The control by the accessory control device 610 will be described later.

The relay board 620 is located behind the variable display device 4, and includes the light emitting diodes 431k and 431l of the variable display device 43, the lamps 422a, 422b, 423a, 423b and 424a of the variable display device 4.
425a, etc. and the wiring of the lamps of the winning number display 515 are once consolidated, and the connectors 611l, 611m, 611 are collected.
These connection terminals 611a, 611b, 611 via r
connected to g.

The relay board 630 is installed on the back surface of the winning ball collecting gutter 71.
The specific game display lamp 25 and the prize ball number display 22
lamps a and 22b are connectors 631d and 63, respectively.
Connection terminals 631a, 63 of the relay board 630 via 1c
It is integrated by being connected to 1b. Also,
The relay base 630 has a limit solenoid 92 for switching the number of prize balls, and a switch sensor 23 of the crank cam 130.
3 (SWC), starting prize detector 61 (SW ₁ ), 61
(SW ₂ ), 81 (SW ₃ ), continuous winning award detector 550 (S
W ₄ ) and the winning number detector 562 (SW ₆ ) are connected. Also, this relay board 630 is a connector 611.
via q, 611s, 611t, 611u, and 611p, the connection terminals 611f and 611f of the accessory control device 610, respectively.
It is connected to 611h, 611i, 611j, and 611e.

In FIG. 62, the starting winning award detector 61 (S
W ₁ ), 61 (SW ₂ ), 81 (SW ₃ ), continuous prize detector 550 (SW ₄ ), prize detector 562 (SW ₅ ) and crank cam switching sensor 223 (SWс) to the accessory control device 610. The input wiring diagram of is shown.

Starting prize winning detectors 61 (SW ₁ ), 61 (S
As shown in the figure, W ₂ ) and 81 (SW ₃ ) are connected to the relay board 630 once the intermediate portions of the lead wires 901, 902, 951 to 953 are once connected to the relay board 630, and then the lead wires 901 and 902. , 952 to 953 are connected to the accessory control device 610 by fitting the connectors 921 attached to the connection terminals provided on the main board of the accessory control device 610. In the figure, reference numeral 93
What is denoted by 0,980 is a capacitor as the above-mentioned induced voltage attenuating means.

Further, in the continuous winning award detector 550 (SW ₄ ) and the award winning number detector 562 (SW ₅ ), as shown in the figure, the intermediate portions of the lead wires 1201 and 1202 are once relayed to the relay board 630. After being connected, the connector 1221 attached to the tips of the lead wires 1201 and 1202 is connected to the main board 610A of the accessory control device 610.
It is connected to the accessory control device 610 by being fitted to the connection terminal provided on the. In the figure, reference numeral 121
Reference numerals 2, 1213 are coils as the above-mentioned induced voltage attenuating means.

Further, the crank cam switching sensor 2
23, as shown in FIG.
The intermediate portion of 902, 951 to 953 is once the relay board 630.
Connector 995 attached to the tips of the lead wires 991 to 993 after being relay-connected to the connector board 610A of the accessory board control device 610, the accessory board control device is installed. It is connected to 610. In the figure, reference numeral 990 indicates a capacitor arranged between the output line 992 and the ground line 993.

FIG. 63 shows sensors (S _{1 to} S ₃ ), (S _{1 to} S ₃ ), (S ₁ to) for detecting the rotation stop positions of the disks 434b to 436b as the first to third variable display plates. shows an input wiring diagram of the character object control unit 610 of the S _3).

Disk 434 as first variable display plate
The sensors S _{1 to} S ₃ for detecting the rotation stop position of b are installed on the sensor substrate 433 as shown in FIG. Then, the power supply lines 1522 and 1532 of the sensors S ₂ and S ₃ are respectively connected to the power supply line 1512 of the sensor S ₁ to be grouped, and then relayed to the relay board 630. Also,
The anode 1534 of the sensor S ₃ is the cathode 1 of the sensor S ₂ .
525, an anode 1524 of the sensor S ₂ are respectively connected to the cathode 1515 of the sensor S _1, the anode 1514 of the sensor S ₁ is relayed connected to the relay board 630. Further, the output lines 1513 and 152 of the sensors S _{1 to} S ₃ are
3, 1533 are relay-connected to the relay board 630 separately as they are.

A sensor S for detecting the rotation stop positions of the disks 435b and 436b serving as the second and third variable display plates.
The relay connection of _{1 to} S ₃ and S _{1 to} S _{3 to} the relay board 630 is the same as that of the sensor (S _{1 to} S ₃ ) for detecting the rotation stop position of the disk 434b as the first variable display plate. It is done in the way.

The disk 43 as the first to third variable display plates relay-connected to the relay substrate 630 as described above.
Lead wires (1511-1514, 1523, 153) from the sensors (S _{1 to} S ₃ ), (S _{1 to} S ₃ ), (S _{1 to} S ₃ ) that detect the rotation stop positions of 4 b, 435 b, and 436 b.
3), (1541-1544, 1553, 1563),
(1571 to 1574, 1583, 1593) are further connected to the accessory control device 610 as follows.

That is, the first to third disks 434b, 4
Sensors for detecting the rotation stop positions of 35b and 436b (S
_{1 to} S ₃ ), (S _{1 to} S ₃ ), and (S _{1 to} S ₃ ), ground lines 1511, 1541, 1571 and power supply lines 1512, 1542, 1572 relay-connected to each are one ground line 1601 and In the state where it is gathered up in the power supply line 1602, the other parts are extended as they are,
The connector 1700 attached to the tip ends of the connectors 1700 is connected to the accessory control device 610 by being fitted to the connection terminals provided on the main board of the accessory control device 610.

[0279] Furthermore, each sensor as shown in FIG. (S ₁ ~
_{S 3), (S 1 ~S} 3), the output lines of the (S ₁ ~S ₃₎ (151
3,1523,1533,1543,1553,156
3,1573,1583,1593) and ground lines (1511,1521,1531,1541,155)
1, 1561, 1571, 1581, 1591), a capacitor 1710 as an induced voltage attenuator is provided.

As described above, the sensors (S _{1 to} S ₃ ), (S _{1 to} S ₃ ), (S ₁ to) for detecting the rotation stop positions of the disks 434 b to 436 b as the first to third variable display plates. S ₃ )
Since the capacitor 1710 as the induced voltage attenuating means is disposed between each output line and the ground line of the detector 550 (562), the player uses an external abusive means such as a wireless device for the purpose of cheating. ) To transmit radio waves to the respective sensors (S _{1 to} S ₃ ), (S _{1 to} S ₃ ), (S ₁
Even if a magnetic field (electric field) surrounding the output line etc. of (.about.S ₃ ) is generated and an induced voltage is generated in the output line, the induced voltage is attenuated by the capacitor 1710 as the induced voltage attenuating means and depending on the radio wave, the accessory device. The malfunction of 610 does not occur.

FIG. 64 shows an input wiring diagram of the winning ball processing device switch sensor 221 (SWA) to the winning ball discharging circuit 680 (FIG. 67).

Winning ball processing device switch sensor 221 (S
WA) is connected to the prize ball discharge circuit 680 (FIG. 67) through a connector 1715 attached to the tips of the power supply line 1711, output line 1712 and ground line 1713.

The output line 1712 and the ground line 171 of the mounting substrate portion of the switch sensor 221 (SWA).
A capacitor 17 as a means for attenuating the induced voltage is provided between
16 are installed.

Since the condenser 1716 as the induced voltage attenuating means is installed between the output line 1712 and the ground line 1713 of the winning sphere processing device switch sensor 221, the player uses the wireless device for illegal purposes. Even if an external improper action means such as the like is brought close to the switch sensor 221, and a radio wave is oscillated, a magnetic field (electric field) is generated around the output line 1712 and an induced voltage is generated in the output line 1712, but the induced voltage is induced. It is attenuated by the capacitor 1716 as the voltage attenuating means, and the malfunction of discharging the prize ball does not occur due to the radio wave.

FIG. 65 shows a winning wiring diagram of the continuous chunk switch sensor 222 (SWB) to the prize ball discharging circuit 680 (FIG. 67).

Continuous chunk switch sensor 222 (SW
B) is a connector 1 attached to the tips of the power supply line 1811, the output line 1812, and the ground line 1813.
It is connected to the prize ball discharge circuit 680 (FIG. 67) via 815.

This continuous chunk switch switch sensor 222
A capacitor 1816 is installed as an induced voltage attenuator between the output line 1812 and the ground line 1813 on the (SWB) mounting board portion.

As described above, the output line 1812 and the ground line 18 of the continuous chunk switch sensor 222 (SWB).
A capacitor 18 as a means for attenuating the induced voltage between
Since 16 are installed, the player uses the switch 222 (S
WB) to oscillate the radio wave and output line 18
Even if a magnetic field (electric field is generated around 12 and the like and an induced voltage is generated in the output line 1812, the induced voltage is attenuated by the capacitor 1816 as an induced voltage attenuating means, and a malfunction of prize ball ejection does not occur depending on the radio wave. .

Next, an embodiment of the control of the accessory control device 610 for controlling the pachinko gaming machine configured as described above will be described with reference to the block diagram shown in FIG.

In this embodiment, the accessory display controller 61 controls the variable display device 4 and the variable winning device 5 as an accessory.
It is designed to be performed using a computer system as 0.

The computer system includes a CPU (Central Processing Unit) 612, a ROM 613 as a read-only memory,
It has a RAM 614 which is a memory that can be read and written at any time.

Of these, in the ROM 613, the three display portions A, B, C of the variable display device 4 are caused to perform display changes for a predetermined time, and the solenoids 544, 542, 542 are turned on according to the display mode as a result of the stop. Open and close the door 51
3 and fixed data such as opening the guide members 514 and 514 are stored.

On the other hand, in the RAM 614, the starting winning device 6,
The number of detection signals from the eight winning detectors 61 and 81 is temporarily stored, and a register area forming a soft timer and a work area (work area) of the computer system are provided.

Further, the CPU 612 has the time creating means 61.
5 and the power supply circuit 616 are connected, and the time creating means 615 controls the operating time of the variable display device 4 and the solenoids 544, 54.
It functions to create the operating time of 2,542.

On the input side of the CPU 612, the prize-winning detectors 61, 61, 81 installed in the starting winning devices 6, 6, 8 are provided.
Detection switch SW _1, SW ₂ as, SW _3, sensor S ₁ disposed on the sensor substrate 433 of the back of the disk 434b~436b, S _2, S _3, installed continuation winning detected variation winning device 5 Switch 550 (SW ₄ ) and prize number detector 562 (SW ₅ ) as switch SW ₅ ,
The detection sensor 223 (SWC) of the crank cam 130 has an induced voltage attenuator 620 and a switch input processor 6 respectively.
19 and the input / output port 617. Further, the variable time reduction switch 105 and the first to eighth induced voltage detectors 1001 to 1008 installed on the front side of the pachinko gaming machine are connected via the switch input processing unit 619 and the input / output port 617.

On the other hand, on the output side of the CPU 612, the rotation stop devices 465 to 467 for stopping the display changes of the display portions A, B and C of the variable display device 4 via the input / output port 617 and the drive circuit 618, respectively. , Continuation number indicator (not shown), limit solenoid 9 for switching the number of prize balls
2. Red and green lamps in the side lamps 90, 90 for displaying the probability of occurrence of the right, green lamps and 411 in the specific winning storage display sections 411e, 411f of the variable winning device 4.
g, 411h red lamp, open / close solenoid 542 of the guide members 514, 514 of the variable prize device 4, decoration display lamp 432c, open / close solenoid 544 of the open / close door 513 of the variable prize device 5, 7 prize balls Number display 22a,
22b, a display lamp 538a for satisfying the continuation condition in the variable winning device 5, a speaker 640, a lamp of the winning number display 515 of the variable winning device 5, a right generation display lamp 538 in the variable winning device 5, etc. are connected respectively. There is.

First, a power switch (not shown)
When electricity is supplied to the pachinko gaming machine when
From PU 612 to input / output port 617 and drive circuit 61
Lamps 416a, 4 of the specific winning storage display sections 411e to 411h of the variable display device 4 in response to a command signal via
16b and the like are moved so as to flash. By the blinking movement of these lamps and the like, the decorative effect of the game board 1 during the normal game is enhanced.

At the time of this normal game, the prize ball number switching limit solenoid 92 is excited by a command from the CPU 612, and the prize balls are ejected for each winning of all the winning openings 12, 6, 8 and the like. The number is 13.

In this state, when a hit ball is won in any of the starting prize winning devices 6, 6 and 8, the starting prize detectors 61 and 6
Corresponding ones of the detection switches SW ₁ , SW ₂ , SW ₃ as ₁ , 81 are turned on, and the switch input processing unit 61
9 is processed and then input to the RAM 614 of the computer system via the input / output port 617 and temporarily stored. Based on the storage, a command signal is sent from the CPU 612 via the input / output port 617 and the drive circuit 618, and the lamps 41 of the storage display units 411e to 411h are sent.
6a and 416b are once turned off, the green one 416a (a, b) or the red one 416b (c, d) (FIG. 1, FIG. 3) corresponding to the stored number is a, b, or h. The lights are turned on in this order. Then I / O port 61
7 and the rotation stop device 465 of the variable display device 4 according to a command signal from the CPU 612 via the drive circuit 618.
By exciting 467, the disks 434b-4
The rotation of the block 36b is released, and the disk motor 460 is actuated to randomly change the displays on the variable display portions A, B, and C. At the same time, the variable display device 4
The decoration display lamp 432c therein is blinked.

In this case, when the change in the display of the variable display portions A, B, C is caused by the winning of the first starting winning apparatus 6, 6, the numerical display is changed (discs 434b to 434b).
Not only (by rotation of 436b) but also the color is alternately changed between green and red at a speed different from the numerical display and the green lamp 93a in the side lamp 90 blinks. On the other hand, when the color is caused by the winning of the second start winning device 8, the color remains one color (only the green display lamp 432a on the back side of the variable display portions A, B, and C is lit) and the numerical display (disks 434b to 436b). (Due to rotation) and the red lamp 432b in the side lamp 90 blinks. Simultaneously with the start, the number of winning prizes stored in the starting prize winning devices 6, 6, 8 by the RAM 614 is decremented by “1”, and the lamp 416a on the side corresponding to the operation among the lighting lamps of the memory display parts 411e to 411h. (Green) or 4
One of 16b (red) is turned off. Then, a predetermined time elapses, or a stop signal from the variable time reduction switch 105 is input to the CPU 612 and sent to the drive circuit 618 via the input / output port 617 to demagnetize the rotation stop devices 465 to 467 in order and rotate these rotations. Stop device 4
The disks 434b to 436b are sequentially stopped by 65 to 467, and at the same time, the lamps 432a (green) and 43 in the variable display portions A, B and C are instructed by the CPU 612.
The display of the variable display portions A, B, and C is changed (lamp 432a by stopping the blinking of 2b (red) alternately.
(Including change in color due to alternate blinking of (green) and 432b (red)) is stopped sequentially from the left with a predetermined time difference.

Whether the three variable display parts A, B and C of the stopped variable display device 4 are combined with the numerical display and the luminescent color is "big hit", "middle hit" or "out". The CPU receives signals from the sensors S ₁ , S ₂ and S ₃ installed on the back side of the disks 434b to 436b.
612. Then, if necessary, corresponding command signals are sent from the CPU 612 to the input / output port 61.
7 is sent to the drive circuit 618, the limit solenoid 92 for switching the number of prize balls, the solenoids 542, 542, 544 for opening and closing the variable winning a prize device 5, the right generation display lamp in the starting prize winning device 6 and the variable prize winning device 5 65, 538 and the operation of the continuation condition establishment display lamp 538a, the speaker 640, the lamp of the winning number display 515 of the variable winning device 5, and the like.
Flashes etc.

The “big hit” is a combination of the displays of the variable display portions A, B, and C (for example, “1, 1, 1”, “3,”).
The probability of occurrence is extremely low, such as when it is limited to the case of "3, 3" or three crowns) and the same color (either red or green).

In the case of this embodiment, the variable display portions A,
When the change of B and C is due to the winning in the second starting winning device 8, the color remains the same, so "big hit"
The probability of occurrence is 1/36, and the first starting winning device 6,
It is four times higher than when it is due to the winning of 6 (the color changes at this time, so the probability of "big hit" is 1/144).

In the case of "big hit", a voice command signal is sent from the CPU 612 to the drive circuit 618 through the input / output port 617, and the speaker 640 outputs a sound (fanfare, etc.) to notify the occurrence of "big hit" and the drive circuit. A blinking command signal is issued to 618 and the variable display device 4
The decoration display lamp 432c, the lamp 65 in the starting winning apparatus 6 and the lamp 538 in the variable winning apparatus 5 are blinked.

At the same time, an operation command signal is issued from the CPU 612 to the drive circuit 618 via the input / output port 617 to excite the solenoids 544, 542 and 542, so that the open / close door 513 of the variable prize winning device 5 and the left and right doors. The guide members 514 and 514 are both opened, and the state is continued for a predetermined time (for example, 30 seconds), and then a stop command signal is issued and the solenoids 544 and 542 and 542 are both demagnetized, so that they are in the original state. Return to and finish. The hit ball that has won in the winning opening 511 by the end is detected by the winning number detector 562, and based on the detection signal, a display command signal is sent to the drive circuit 618 and the number of winning numbers corresponding to the number of winning numbers. Indicator 51
5 is turned on. Then, within 30 seconds, 10 hit balls are won into the winning opening 511 of the variable winning device 5 and
When the number of winning balls is detected by the winning number detector 562, the CPU 612 is detected at that time even before 30 seconds have passed.
A stop command signal is output from the solenoids 542 and 542.
Is demagnetized, the door 513 and the guide member 5
14, 514 are returned to the original state, and the process ends.

However, before the end of the "big hit" cycle, the hit ball that entered the winning port 511 of the variable winning device 5 passes through the center of the winning port 511 to the continuous winning detector 550 installed in the center. Upon detection, the detection signal is received and the detection is temporarily stored in the RAM 614, and at the same time, the CPU 612 issues a continuation condition satisfaction display command signal to the drive circuit 618 to cause the continuation condition satisfaction display lamp 538a in the variable winning a prize device 5. Is lit. In this way, if the continuation condition is satisfied before the end of the cycle (or after the end of the cycle as long as it is within the valid time), the next cycle of the “big hit” similar to the above is performed after the end of the cycle. Be done. In the case of "big hit", up to 10 cycles are repeated for each cycle provided that the continuation condition is satisfied. However, if the continuation conditions are not met,
At the end of the cycle, the "big hit" state ends.

At the time of this "big hit", as in the case of the normal game, any winning opening (the winning opening 5 of the variable winning device 5)
Even if a player wins a prize (including 11), the number of discharged prize balls for each prize is 13.

When the "big hit" state is over, the variable display device 4 is activated by a command signal from the CPU 612.
The decoration display lamp 432c therein, the lamp 65 in the starting winning apparatus 6 and the lamp 538 in the variable winning apparatus 5 are turned off, and the winning number display 515 of the variable winning apparatus 5 is converted into a blinking movement state in which it flows. Then, the game is returned to the normal game state.

[0309] The variable display portion A in which "middle hit" is generated,
The display modes of B and C are different depending on whether the operation of the variable display device 4 is based on the winning in the first starting prize winning device 6, 6 or the winning in the second starting prize winning device 8, and the first starting winning prize. Variable display units A, B, based on winning in the devices 6, 6.
For example, when the combination of the C number display is irrelevant to the color, for example, when the display is the same (eg, "1,1,1", "3,3,3" or when three crowns are displayed). It is said that it occurs in the first place, and the occurrence frequency is higher than that of the "big hit". On the other hand, when the display on the variable display portions A and B is the same and only the display on the variable display portion C is different based on the winning of the second start winning device 8, for example, “1, 1, ×”, “3, 3 ，
It is said that it is generated when it becomes "X" etc., and when this "middle hit", it is different from a sound such as a fanfare that notifies the occurrence of "middle hit" by a command signal from the CPU 612 (a sound different from a "big hit"). ) Is emitted, and the decoration display lamp 432c in the variable display device 4, the lamp 538 in the starting winning device 5 and the like blink.

At the same time, the solenoid 544 is excited by a command signal from the CPU 612, so that the open / close door 513 of the variable winning a prize device 5 is opened. However, since the left and right guide members 514, 514 are not opened, the probability of winning in the winning port 511 and the probability of winning in the starting winning devices 6, 6 are lower than in the case of "big hit". Also, the opening time per cycle (eg, 10 seconds), the point at which the cycle ends at the time when five prizes are won in the winning opening 511 before the opening time elapses, and the fluctuation before the end of each cycle A continuous winning detector 550 installed in the center of the winning opening 511 of the winning device 5 through the center of the winning opening 511.
The CPU 612 is controlled to be different from the case of the “big hit” in that it is repeated up to 5 cycles under the condition that it is detected as a continuous condition.

As described above, the profit given at the time of "middle hit" is made smaller than the profit given at the time of "big hit", and the chance of occurrence of "middle hit" is given accordingly. There is. In this embodiment, when there is a ball hitting the winning opening 511 of the variable winning device 5 in the "middle hit", the number-of-wins detector 562 (S) for detecting the number of winning balls.
The detection signal from W ₅ ) is input to the CPU 612 and counted, and the counted number is stored in the RAM 614. If there is such a memory, the switch sensor 223 (SW
When the detection signal from C) is input to the CPU 612, C
The operation command is issued from the PU 612, and the number-of-prize-balls switching limit solenoid 92 is degaussed for a certain period as described above, so that the number of discharged prize balls per time is reduced. In this embodiment, the variable winning device 5 during the "middle hit" game
For example, the number of prize balls discharged per winning prize is 7
The number of prize balls discharged in the "middle hit" is smaller than that in the "big hit".

When the "middle hit" state is finished, the decoration display lamp 432c in the variable display device 4 and the lamp in the start winning a prize device 5 are blinked by a command from the CPU 612, as in the case when the "big hit" is finished. To be done.

In this embodiment, except for the combination of the display for generating the "big hit" and the "middle hit", all become "out", and when "out", the normal game state is continued as it is. Controlled.

Further, even if a player attempts an illegal game by using an illegal signal (illegal radio wave or the like) of an external illegal action means such as a communication device, the illegal signal induces an induced voltage generated in each detecting section. The voltage is attenuated by the voltage attenuator 620, and the start winning award detectors 61 (SW ₁ ) and 61 (S
W ₂ ), 81 (SW ₃ ), the sensors (S _{1 to} S ₃ ), (S _{1 to} S ₃ ), (S _{1 to} S ₃ ) of the disks 434 b to 436 b, and the continuous winning detector 550 of the variable winning device 5. (SW ₄ ), winning number detector 562 (SW ₅ ), crank cam switch sensor 223 (SW с) does not cause an erroneous input to the microcomputer (CPU) 612, and an incorrect signal thereof causes the above first to eighth problems. External unauthorized action detecting means 100
Detected by any one of 1 to 1008, based on the detection signal, the hitting ball launching device 20 as an operating unit necessary for the game is stopped to disable the game, and the display lamps 25, 25 blink to notify. To be done.

Note that, instead of stopping only the hitting ball launching device 20 based on the detection signals from the first to eighth external improper action detecting means 1001 to 1008, the microcomputer 612 is stopped and the game is disabled. You may allow it.

FIG. 67 shows a block diagram of control of the prize ball discharging motor 820 by the prize ball discharging circuit 680.

As described above, when the winning ball processing device 78 is rotated by the weight of the winning ball, the switch sensor 2
21 (SWA) is turned on, and the signal is input to the prize ball discharge circuit 680. Then, an operation command signal is output from the prize ball discharging circuit 680 to the drive circuit 685, and the prize ball discharging motor 820 is driven, whereby the prize ball discharging operation is performed.

As soon as the continuous chunk cam 140 is rotated by the drive of the motor 820, the switch sensor 222 is soon reached.
(SWB) is turned on, and once it is turned on, the winning ball processing device 78 is rotated and returned to the switch sensor 221.
Even if (SWA) is turned off, the motor 820 continues to be driven until the prize ball discharging process is completed. Then, with the further rotation of the continuous chunk cam 140, the switch sensor 222 (SWB) is turned off at the time when the prize ball discharging process is completed,
At that time, a prize command is issued from the prize ball discharge circuit 680, and the prize ball discharge motor 820 is stopped.

Further, as shown in the control block diagram of the prize ball discharging motor 820 by the prize ball discharging circuit 680, the winning ball processing device switch sensor 221 (SWA) and the continuous chunk cam switch sensor 222 (SWB) are respectively induced. Since the player is connected to the prize ball discharging circuit 680 through the voltage attenuator 620, the player tries to play an illegal game by using an illegal signal (illegal radio wave or the like) of an external fraudulent means such as a communication device. However, the induced voltage generated in the detection units by the incorrect signal is attenuated by the induced voltage attenuator 620, and the sensors 221 (SWA),
There is no erroneous input from 222 (SWB) to the prize ball discharge circuit 680, and accordingly, the malfunction of prize ball discharge does not occur.

FIG. 68 shows an example of a control procedure such as illegal monitoring and game processing of the pachinko gaming machine configured as described above.

When the power of the game machine is turned on, first, in step R2, the states of the switches SW _{1 to} SW ₅ , SWC, etc. are input to remove chattering, and the formation is made to be usable in other phases. Control goes to step R4.

At step R4, it is determined whether or not the power-on start-up is started. If the power-on start-up is not started, the process proceeds to step R6 to inspect the specific RAM 614 area to check the RAM6.
It is determined whether or not 14 is normal, and when it is determined to be normal, the process directly proceeds to step R10. on the other hand,
If it is determined in step R4 that the power-on is started, or if the RAM 614 is not normal in step R6, the process proceeds to step R8 to initialize the RAM 614 area, and then proceeds to step R10.

In step R10, it is determined whether or not there is any injustice, and if it is determined that there is no injustice, then the process proceeds to step R12.
Step R20 after performing a fraudulent process by moving to 18
Move to

At step R12, the switches SW _{1 to} S ₁
Game operation processing corresponding to the state of W ₅ , 105, etc. is performed. Then, the process proceeds to step R14, where the logical output information set in each phase is edited into the output information corresponding to each output port, and then the process proceeds to step R16. Then, in step R16, the output edit data is output to the input / output port 617 (FIG. 66), and then step R
Then, the process proceeds to step 20 to update the random number, that is, to generate a random number for the display change of the variable display device 4. In other words, the random number is changed even when the variable display operation is not being performed inside the CPU 612, so that the display mode of the variable display device 4 becomes more random.

FIG. 69 shows an example of a storage processing control procedure of winning in the starting winning apparatuses 6, 6 and 8 in the game processing (performed by the accessory control device 610) in step R12 of FIG.

First, in step R30, it is determined whether or not a hit ball has been won into the first starting winning devices 6, 6, and if it is determined that a prize has been won, the process proceeds to step R32, and if it is determined that no prize has been won, step R36. Move to.

In step R32, it is determined whether or not the storage counter A has already reached the predetermined memory number,
When it is determined that it has been reached, the process directly proceeds to step R36, and when it is determined that it has not been reached, step R34 is performed.
And the memory counter A is incremented by "+1" to display the winning memory display section 411e or 411f (a or b).
Is turned on (green) and then the process proceeds to step R36.

In step R36, it is determined whether or not a hit ball has entered the second starting prize device 8. If it is determined that a prize has been won, the process proceeds to step R38, and if it is determined that no prize has been won, the process returns to step R30.

At step R38, it is judged whether or not the storage counter B has already reached a predetermined memory number,
When it is determined that it has been reached, the process directly returns to step R30, and when it is determined that it has not been reached, the process proceeds to step R40, the storage counter B is incremented by "+1", and the winning storage display section 411g or 411h (c or d) is turned on. After making (red), the process returns to step R30.

FIG. 70 shows an example of the control procedure of the operation process of the variable display device 4 and the operation result determination process in the game process (performed by the accessory control device 610) in step R12 of FIG. .

First, at step R50, it is determined whether or not the memory counter A is larger than "0", in other words, is there any one of the first starting prize winning devices 6 and 6 which is unprocessed. Determine whether or not. When it is determined that there is no unprocessed object, the process proceeds to step R52, and when it is determined that there is no unprocessed item, the process proceeds to step R54.

In step R54, it is determined whether the disk motor 460 of the variable display device 4 is operating,
When it is determined that the engine is operating, the process returns to step R50, and when it is determined that the engine is not operating, the process proceeds to step R56.

In this way, when the process proceeds to step R56, the probability generation unit A determines that the probability of "big hit" is 1/144.
Is set to That is, the disc 43 of the variable display device 4
Not only rotation of 4b to 436b but also variable display portions A, B, C
The lamps 432a (green) and 432b (red) on the back side are alternately blinking green and red, so that the variable display portions A, B, and C of the variable display device 4 are not only displayed as numbers but also the colors (red and green) are displayed as numbers. It is set so that it is alternately changed to green and red at a speed different from the change of the display or the like. Then, the next step R58
While blinking the green lamp 93a in the side lamps 90, 90 to inform that the method is performed with a low probability, the process proceeds to step R60 and the rotation stop devices 465-4
The lock of the disks 434b to 436b by 67 is released, and the process goes to the next step R62 to operate the disk motor 460 to operate the disks 434b to 434b.
Rotate 436b. At the same time, in the next step R64, the lamps 432a (green), 4 on the back side of the variable display portions A, B, C are displayed.
After the alternate blinking of 32b (red) is started, the memory counter A is counted down by "1" in the next step R66 to turn off the winning memory display portion (a or b), and the process proceeds to the next step R80.

On the other hand, when the process shifts from step R50 to step R52 as described above, in step R52, it is determined whether or not the memory counter B is larger than "0", in other words, into the second starting winning device 8. It is determined whether or not there is an unprocessed prize. When it is determined that there is no unprocessed item, the process returns to step R50, and when it is determined that there is an unprocessed item, step R50.
Move to 68.

In step R68, it is determined whether or not the variable display device 4 is in operation. When it is determined that it is in operation, the process returns to step R50, and when it is determined that it is not in operation, the process proceeds to step R70.

Thus, when the process proceeds to step R70, the probability generation unit B sets the occurrence probability of "big hit" to 1/36. That is, the green lamp 432a (green) on the back side of the variable display units A, B, C is turned on and the variable display device 4 is operated.
By rotating the disks 434b to 436b, the variable display units A, B, and C of the variable display device 4 are set so that only the numerical display is changed while keeping the color of one color (for example, green). Then, in the next step R72, the red lamp 93b in the side lamps 90, 90 is made to blink to inform that the operation is performed with a higher probability, and the step R7 is performed.
4, the locks of the disks 434b to 436b by the rotation stop devices 465 to 467 are released, and the process goes to the next step R74 to operate the disk motor 460 to rotate the disks 434b to 436b. After that, the process proceeds to step R77 to light the green lamp 432a on the back side of the variable display portions A, B, and C, and then the process proceeds to the next step R78, where the memory counter B is decremented by "1" to display the winning memory. The section (C or D) is turned off, and the process proceeds to step R80.

In any case, step R80
After starting the timer set for a fixed time (for example, 6 seconds), the process proceeds to step R81.

In step R81, it is determined whether or not a certain time set by the timer has elapsed. If it is determined that the certain time has elapsed, then the process proceeds to step R83, and if it is determined that it has not elapsed then the process proceeds to step R82. And
In step R82, it is further determined whether or not the variable time reduction switch 105 is turned on. When it is determined that it is turned on, the process proceeds to step R83, and when it is determined that it is not turned on, the process returns to step R81. In other words, the routine proceeds to step R83 after waiting for the fixed time set in the timer in steps R81 and R82 to pass or for the variable time reduction switch 105 to be turned on. Then, in step R83, the timer for a fixed time (for example, 6 seconds) is reset, and then the process proceeds to step R84.

In step R84, it is determined which of the probability generators A and B the operation of the variable display device 4 is based on. If the operation is based on the probability generator A, the process proceeds to step R85. If it is based on the above, the process proceeds to step R88.

When the routine proceeds to step R85, the solenoids 465a to 467a of the rotation stopping devices 465 to 467a.
Are sequentially turned off and the disks 434b to 436b are sequentially stopped. Then, in the next step R86, the alternate flashing of the determination lamps 432a (green) and 432b (red) is stopped, and then the routine proceeds to step R87, where the variable display portions A, B, C are displayed.
The determination means determines whether the display mode as the stop result corresponds to "big hit", "middle hit", or "miss", and then proceeds to step R90.

On the other hand, when the routine proceeds to step R88, the solenoids 435a-4 of the rotation stop devices 465-467 are rotated.
67a is sequentially turned off and the disks 434b to 436b are sequentially stopped. Then, in the next step R89, it is determined by the determination means whether the display mode as the stop result of the variable display portions A, B, C corresponds to "big hit", "medium hit", or "out", and then step R90. Move to.

At step R91, the disk motor 46
0 is turned off, and then the process proceeds to step R91 and the lamp 92a (green) or 92 of the side lamp device 90, 90 is turned on.
After the blinking of b (red) is stopped, the process proceeds to step R92.

In step R92, step R87 or R
It is determined whether or not the determination result in 89 is "big hit". If it is "big hit", a big hit process (described later) is performed and then the process proceeds to step R93. If not, the process directly goes to step R93.

In step R93, it is determined whether or not the determination result in step R87 or step R89 is "middle hit". If it is "middle hit", a middle hit process (described later) is performed and the process returns to step R50. "Medium hit"
If not, the process directly returns to step R50. When the process returns to step R50, step R5 is executed again.
Execute a routine of 0 or less.

In the case of this embodiment, the game contents of "big hit" and "middle hit" are not distinguished by the difference in the occurrence probability of "big hit" and "middle hit".

FIG. 71 shows an example of the control procedure of the "big hit" game performed by the accessory control device 610.
In this case, the accessory control device 610 has a continuous counter,
A winning number counter and a flag are prepared in advance.

When a "big hit" occurs, first step R
At 100 to R104, the continuation number counter, winning number counter, and flag are reset as initial settings.

Thereafter, after a wait time (for example, 2 seconds) is set as a preparation period in step R106, the process proceeds to step R107, and the drive source timer (for example, 30 seconds).
Second) start. Then, the process proceeds to step R108, where the solenoids 544 and 54 as the drive sources are
2, 542 is turned on (excited) to open the open / close door 513 and the guide members 514, 514. And the next step R
At 110, the decoration display lamp 432c in the variable display device 4, the lamp 65 in the start winning device 6 and the lamp 538 in the variable winning device 5 are changed to a blinking state, and then the process proceeds to step R112.

In step R112, it is determined whether or not the continuous winning award detector 550 is turned on, in other words, whether or not the continuation condition for the next cycle is satisfied, and it is determined that the continuation condition is not satisfied. Moves to Step R124, and if it is determined that the continuation condition is satisfied, moves to Step R114.

In step R114, it is determined whether or not the flag is "0", in other words, whether or not the continuation condition is first met. If yes, the process directly proceeds to step R124. If not satisfied, the process proceeds to step R116 to increment the continuation counter by “+1” and then to step R1.
Go to 18.

At step R118, it is judged whether or not the continuation number counter has already reached "10", in other words, whether or not the "big hit" has already reached the final 10th cycle, and if it has reached, If not, the process proceeds to step R120 to turn on (light) the continuation condition satisfaction display lamp 538a in the variable winning device 5, and then the process proceeds to step R122 to set the flag to "1". Then, the process proceeds to step R124.

In step R124, it is determined whether or not the number-of-wins detector 542 is turned on, that is, whether or not a hit ball has been won in the winning opening 511 of the variable winning device 5, and it is determined that no prize has been won. In that case, the process proceeds to step R130 as it is, and if it is determined that a prize has been won, the process proceeds to step R126 to increment the prize number counter by "+1", and at the next step R128, the prize number indicator 515 of the variable winning device 5 is displayed. After one lighting is added, the process proceeds to steps R130 and R131.

In steps R130 and R131, the winning number counter is already at the upper limit of the winning number limit of "1".
Whether it has reached 0 "or a predetermined time (for example, 30 seconds)
It is determined whether or not the time has elapsed, and if it is determined that the time has not yet been reached, the process returns to step R108 until the time is reached, and the step R is performed.
The routine below 108 is repeated.

If it is determined in steps R130 and R131 that the winning number counter has reached "10" or that a predetermined time (for example, 30 seconds) has elapsed, the routine proceeds to step R132, where a solenoid 544 as a drive source,
And 542, 542 are turned off (demagnetized) to close the opening / closing door 513 and the guide members 514, 514 to the original state, and in the next step R134, the decoration display lamp 432c and the start winning device are set in the variable display device 4. 5
After turning off the lamps 538 and the like therein, step R136
Move to

At step R136, it is determined whether or not the flag is "0", that is, the continuation condition for the next cycle is satisfied, and the flag is "0", that is, the continuation condition is satisfied. When it is determined that it is not, the game of "big hit" is ended at that time, and when it is determined that the flag is not "0", that is, the continuation condition is satisfied,
Returning to step R102, a new cycle of the "big hit" game is started.

FIG. 72 shows an example of the control procedure of the "middle hit" game performed by the accessory control device 610.
In this case, the accessory control device 610 has a continuous counter,
A winning number counter and a flag are prepared in advance.

When the "middle hit" occurs, first the step R
At 200 to R204, the continuation number counter, the winning number counter, and the flag are reset as initial settings.

Then, after waiting time (for example, 2 seconds) as a preparation period in step R206, the driving source timer (about 15 seconds) is started in step R207, and the process proceeds to the next step R208 to set the driving source. The solenoid 544 is turned on (excited) to open the opening / closing door 513. Then, in the next step R210, the decoration display lamp 432c in the variable display device 4, the lamp 65 in the starting winning device 6 and the lamp 538 in the variable winning device 5 are made to blink, and then the process proceeds to step R212.

In step R212, it is determined whether or not the continuous winning award detector 550 is turned on, in other words, whether or not the continuation condition for the next cycle is satisfied, and it is determined that the continuation condition is not satisfied. Moves to Step R224, and if it is determined that the continuation condition is satisfied, moves to Step R214.

In step R214, it is determined whether or not the flag is "0", in other words, whether or not the continuation condition is first met. If yes, the process directly proceeds to step R224. If not satisfied, the process proceeds to step R216 to increment the continuation counter by “+1” and then to step R2.
Go to 18.

In step R218, it is determined whether or not the continuation number counter has already reached "5", in other words, whether or not the "middle hit" has already reached the final fifth cycle. Goes to step R224 as it is, turns on (lights up) the continuation condition satisfaction display lamp 538a in the variable winning device 5, then goes to step R222 to set the flag to "1", and then goes to step R224.

In step R224, it is determined whether or not the number-of-wins detector 542 is turned on, that is, whether or not a hit ball has been won in the winning port 511 of the variable winning device 5, and it is determined that no prize has been won. In that case, the process directly proceeds to steps R232 and R233, and if it is determined that the prize is won, the process proceeds to step R226 and the winning number counter is set to "+".
1 "count up, and next step R228
Then, one winning number display 515 of the variable winning device 5 is lit up and added. Then, in the next step R230, the prize ball discharge counter for small discharge (for example, seven discharges) is incremented by "+1", and then the process proceeds to steps R232 and R233.

In steps R232 and R233, the winning number counter is already at the upper limit of the winning number limit of "7".
It is determined whether or not the drive source timer has been reached, or if the drive source timer has timed out, and if it is determined that the timer has not yet been reached, or until a predetermined time (for example, 15 seconds) has elapsed, step R2.
Returning to 08, the routine from step R208 is repeated.

Then, in step R232, whether the winning number counter reaches "7" or a predetermined time (for example, 15
If it is determined that seconds have elapsed, the routine proceeds to step R234, where the solenoid 544 as a drive source is turned off (demagnetized) to close the open / close door 513 to the original state,
Further, in the next step R236, the decoration display lamp 432c in the variable display device 4, the lamp 65 in the starting winning device 6 and the right generation display lamp 538 in the variable winning device 5 are turned off (extinguished), and then in step R238. Transition.

In step R238, it is determined whether or not the flag is "0", that is, whether or not the continuation condition for the next cycle is satisfied, and the flag is "0", that is, the continuation condition is satisfied. When it is determined that it is not, the game of "middle hit" is ended at that time, and when it is determined that the flag is not "0", that is, the continuation condition is satisfied,
Returning to step R202, a new cycle of the "medium hit" game is started.

FIG. 73 shows an example of the control procedure of the two-system prize ball discharge processing (normal discharge and small discharge) performed by the accessory control device 610.

First, in step R300, the prize ball number switching solenoid 92 is turned on to set the prize ball discharge system to the normal discharge (for example, 13) state, and then the routine proceeds to step R302.

At step R302, it is determined whether or not the switch sensor 211 (SWA) is turned on by tilting the winning ball processing device 78 by the winning ball.
If it is not turned on, the process returns to step R300, and if it is turned on, the process proceeds to step R304.

At step R304, it is determined whether or not the prize ball discharge counter is "0", that is, whether the normal discharge or the small discharge should be performed, and "0", that is, the normal discharge should be performed. When it is determined that the normal ball discharge is performed, the process proceeds to step R306, the prize ball discharging motor 82 is turned on (operated), and then the process proceeds to step R308.
It is not "0", that is, a small discharge should be performed (This occurs when a hit ball is won in the winning opening 511 of the variable winning device 5 at the time of a "medium hit" game and the prize ball discharge is unprocessed. ), The process proceeds to step R310 to turn on (operate) the prize ball discharging motor 82 in order to perform small discharge, and then proceeds to step R312.

In step R308, it is determined whether or not the switch sensor (SWA) is in the ON state with the winning ball processing device 78 still tilted by the winning ball. If it is determined to be in the ON state, the step S308 is executed. R30
Returning to 6 and maintaining the prize ball discharge motor 82 in the operating state,
When it is determined that the state is not on, step R3
Move to 20.

At step R320, it is determined whether or not the switch sensor 222 (SWB) which is turned on / off in accordance with the rotation of the continuous chunk cam 140 is in the on state,
If it is determined to be in the on state, the process returns to step R306 to maintain the prize ball discharging motor 820 in the operating state, and if it is determined to not be in the on state, the prize ball discharging motor 82 is turned off (stopped) and the process proceeds to step R300. Return.

On the other hand, in step R312, it is determined whether or not the switch sensor 223 (SWC) which is turned on / off in accordance with the rotation of the crank cam 130 is in the on state, and when it is determined not to be in the on state, the step R31 is performed.
After shifting to 4 and setting the prize ball number switching solenoid 92 to the on state, the normal discharge state is obtained, and then step R3
If it is determined to be in the on state, the process proceeds to step R316 to set the prize ball switching solenoid 92 in the off state to the small discharge state, and then the process proceeds to step R318.

In step R318, it is determined whether or not the switch sensor 221 (SWA) is in the ON state with the winning ball processing device 78 being tilted by the winning ball. If it is determined that the switch sensor 221 (SWA) is in the ON state. Step R
Returning to 310, the prize ball discharging motor 820 is maintained in the operating state, and in step R316, the prize ball number switching solenoid limit solenoid 92 is maintained in the off state, and it is determined that the switch sensor 221 (SWA) is not in the on state. Sometimes the process moves to step R324.

In step R324, it is determined whether or not the switch sensor 222 (SWB) which is turned on / off in accordance with the rotation of the continuous chunk cam 140 is in the on state,
If it is determined to be in the on state, the process returns to step R310 to maintain the prize ball discharging motor 820 in the operating state, and in step R316, the prize ball number switching limit solenoid 92 is maintained in the off state, and the switch sensor (SW
When it is determined that B) is not in the on state, the process proceeds to step R326.

Then, in step R326, the prize ball discharge counter is counted down by "1", and then in step R328.
Then, the prize ball discharging motor 820 is turned off (stopped), and then the process returns to step R300.

In FIG. 74, two systems of prize ball discharge (normal discharge,
The timing chart at the time of performing (small discharge) is shown.

The limit solenoid 92 is always energized during normal prize ball discharge, which is performed for all winnings except for the case of winning in the winning opening 511 of the variable winning device 5 during the "middle hit" game. Since the locking claws 93a of the flow-down blocking lever 93 are removed from the inside of the ball-sheath case 77, 13 hit balls are waiting in the ball-sheath case 77 for normal discharge. And winning areas 6, 7,
The hit ball that entered in 8, 9, 12, 511 (only during the "big hit" game) flows down the downflow gutter 71a on the back side of the game board 1 and flows into the concave portion 78c of the prize ball processing device 78. When the winning ball processing device 78 rotates one step in the direction in which its front side falls with the weight (FIG. 54), the winning ball processing device 7
The detection piece 78d at the rear end of 8 is the switch sensor 221 (SW
When the switch sensor 221 (SWA) is turned on when it is removed from the U-shaped detection section 221a of A), the output becomes "H" (high) level and the motor 820 is driven. When the motor 820 is driven, the crank cam 130
And the continuous chunk cam 140 is rotated, and first, the detection portion 134a of the detection piece 134 of the crank cam 130 encounters the U-shaped detection portion 222a of the switch sensor 222 (SWB), and its output becomes "H" (high) level. Become. After that, the winning ball processing device 7 is rotated along with the rotation of the continuous chunk cam 140.
When the switch 8 is restored, the detection piece 78d at the rear end of the switch sensor 221 (SWA) has a U-shaped detection portion 221.
Then, the output of the switch sensor 221 (SWA) becomes "L" (low) level, and thereafter, the detection portion 134a of the detection piece 134 of the crank cam 130 detects the U-shaped detection of the switch sensor 223 (SWC). The sensor output becomes "L" (low) level by removing from the portion 223a. Then, when the time T ₂ (seconds) elapses thereafter, the detection unit 143 of the detection piece 143 of the continuous chunk cam 140.
When a again meets the switch sensor 222 (SWB), its sensor output becomes low level “L”. At the falling edge of the output of the switch sensor 222 (SWB), the motor 820 is stopped and returns to the initial state.

A small discharge (eg, 7 discharges) is stored in the prize ball discharge counter of the accessory control device 610 as an unprocessed prize in the winning opening 511 of the variable winning device 15 during the "middle hit" game. It is done when The switch sensors 221 (SWA) and 222 (SW) during this small discharge
B) and 223 (SWC) sensor output rise and fall timings and the start and stop timings of the motor 820 are the same as those during normal discharge. And, especially at the time of this small discharge, the winning opening 51 of the variable winning device 5
If the winning of 1 is stored in the storage unit of the control means (not shown), the switch sensor 223 (SW
In synchronism with the “H” (high) level of C), the limit solenoid 92 becomes the “L” (low) level to be in the demagnetized state, and the locking claw 93 a at the tip of the downflow prevention lever 93 is placed in the ball sheath case 77. Only a part of the prize balls (for example, 7 balls) in the ball-sheath case 77 can enter and be discharged. Then, in this state, the crankcase 130 is used to form the ball-sheath case 7.
7 is tilted and a small amount of discharge (eg, seven discharges) is performed, the continuous chunk cam 140 makes one rotation, and the switch sensor 22
The output of 2 () SWB returns to "L" low level and the motor 820 is stopped, and the limit solenoid 92 is demagnetized at the rising edge of the switch sensor 223 (SWC) before the time T ₁ (seconds) before the bulb sheath case. The locking claw 93a at the tip of the downflow prevention lever 93 is removed from the inside of 77, and the spare ball as a prize ball is replenished from the guide gutter 73 into the ball sheath case 77. That is, shortly before the ball-sheath case 77 finishes returning with the rotation of the crank cam 130, the locking claw 93a at the tip of the flow-down blocking lever 93 comes out of the guide trough 77 and quickly moves into the ball-sheath case 77 as a prize ball. Spare balls are replenished. And the continuous Chan sensor 140 is 1
When the detection section 143a of the detection piece 143 rotates and encounters the switch sensor 222 (SWB) and the sensor output thereof falls to the "L" (low) level, the storage section of the control means (not shown) wins the prize. The number of memories is counted down by "1".

FIG. 75 shows an outline of the procedure of the illegal processing performed by the central control unit (not shown) in the central control room.

First, at step RA, it is detected by the fraud detecting means whether or not the following states (1) to (5) have occurred.

A state in which the detection switch SW ₄ as the continuous winning award detector 550 is continuously turned on for a fixed time (for example, 2 seconds) or more. In this state, a ball clogging occurs in the collecting flow passage 561 of the variable winning device 5 or a ball is caught. It occurs when it occurs.

The state where the detection switch SW ₅ as the winning number detector 562 is continuously turned on for a fixed time (for example, 2 seconds) or more. This state occurs due to the same reason as above.

[0383] State This state in which the detection switch SW ₅ of the winning number detector 562 not turned ON continuously successively a predetermined time or longer or have been unplugged connector detection switch SW ₅ of the winning number detector 562, code It occurs when is disconnected. In such a case, there is no limit on the number of winning prizes in each cycle.

The detection switch SW ₅ is turned on even once within the effective time (for example, 30 seconds + 1.9 seconds) of the detection switch SW ₅ as the winning number detector 562A during the "big hit" or "medium hit" operation. This is the state in which the winning number detector 5 is activated even though the wiring is normal.
It occurs when 62 is moved.

This is based on the precondition that no single ball should be won while the variable winning device 5 is open.

When the variable prize winning device 4 is opened by turning on the solenoids 542 and 542, the detection switch SW _{4 serving} as the continuous prize detector 550 is turned on,
A state in which the detection switch SW ₅ as the winning number detector 562 is not turned on even after 2 seconds have passed from this time. In this state, the winning number detector 562 is moved or the collecting flow path frame 560 of the variable winning device 5 is provided with another state. It occurs when an outlet is opened.

If at least one of the above states (1) to (4) is detected by the fraud detecting means, it is regarded as fraud and the process proceeds to the monitoring process by the fraud removal monitoring means in the next step RB.

As the illegal removal method in the above case, ball clogging, ball biting, etc. are removed. In case of, perform maintenance such as disconnection of the cord. In the case of, a ball is put into the variable winning device 5 and the defective portion is corrected.

In the illegal removal monitoring means, the variable winning device 5 is opened by turning off the solenoids 542 and 542.

[0390] Right occurrence display section 740, rotating body 750,
The display lamps in the starting winning devices 6 and 8 blink.

An incorrect sound is output from the speaker 640.

Display of recovery time (variable display portions A, B, C
May be done).

Turn off other lamps and LEDs. After performing processing such as the above, monitoring is performed until all the causes of fraud disappear.

When all the causes of fraud disappear, the process returns to the next step RC and the returning means restores the state where the game can be restarted.

FIG. 76 shows a more detailed control procedure for the above-mentioned illegal processing.

First, in step R400, it is determined whether any of the induced voltage detectors 1001 to 1008 is turned on. When it is determined that the induced voltage detectors 1001 to 1008 are not turned on, the process proceeds to step R402, and when it is determined that they are turned on. The process moves to step R412.

In step R402, it is determined whether or not the detection switch SW ₅ as the winning number detector 562 is continuously turned on for a fixed time (for example, 2 seconds) or more, and continuously turned on for a fixed time or more. When it is determined that the above condition is not satisfied, the process proceeds to step R404. Then, in step R404, the solenoid 54
When 2,542 is turned on and the variable winning device 5 is open, a hit ball is won in the winning opening 511, and thus the detection switch SW ₄ as the continuous winning detector 550 is turned on for a predetermined time ( Within 2 seconds, it is determined whether or not the detection switch SW ₅ as the winning number detector 562 is turned on.

When it is determined in step R400 that any of the induced voltage detectors 1001 to 1008 is turned on, or in step R402, the winning number detector 5
When it is determined that the detection switch SW ₅ as 62 is continuously turned on for a predetermined time or more, or step R
At 404, when the solenoids 542 and 542 are turned on and the variable winning device 5 is open, a hit ball is won in the winning opening 511, so that the detection switch SW ₄ as the continuous winning detector 550 is turned on. When it is determined that the detection switch SW ₅ as the winning number detector 562 is not turned on within the fixed time, the process proceeds to step R412, and when it is determined that it is neither of them, step R406.
Move to

In step R412, it is determined whether or not the "big hit" or "medium hit" is occurring. If it is determined that the "big hit" or "medium hit" is not occurring, the process proceeds to step R414, and if it is determined that it is occurring, the process proceeds to step R428. In either case, the game process is interrupted there.

At step R406, the continuous winning award detector 55
It is determined whether or not the detection switch SW ₄ as 0 is continuously turned on for a fixed time (for example, 2 seconds) or more. If it is turned on, the process proceeds to step R414, and if it is not turned on, step R408 is performed. Move to.

At step R408, the winning number detector 56
It is determined whether or not the detection switch SW ₅ as 2 is continuously turned off for a fixed time (for example, 2 seconds) or more. If it is turned off, the process proceeds to step R414, and if it is not turned off, step R410 is performed. Move to.

At step R410, it is determined whether or not the detection switch SW ₅ as the continuous winning detector 550 is never turned on during the "big hit" or "middle hit" operation. When it is determined not to be turned on, step R414 is performed. Moved to
When it is determined that it is turned on, it is determined that there is no injustice, and the process directly proceeds to the game processing.

The routine proceeds from step R400 to R410 to step R414 to interrupt the game processing, and at next step R416, the solenoids 542 and 542 are turned off to return the variable winning device 5 to the closed state. Then, in the next step R418, the right generation display section 740 and the rotating body 75.
0, after blinking the display lamp and the like in the starting winning devices 6 and 8, the process proceeds to step R420. Then, in step R420, after the incorrect sound is output from the speaker 640,
Then, the process proceeds to step R422, and the other lamps, LEDs, etc. are extinguished. Further, after waiting for all the fraudulent causes to be removed in the next step R414, the process shifts to step R426 to perform a process of returning to a state where the game can be played, and then the game process is restarted.

On the other hand, steps R400, R402, R4
When the game processing is interrupted by moving from any of 04 through step R412 to step R428, in the next step R428, the solenoid 542 and
By turning off 542, the variable prize winning device 5 is returned to the closed state, and in the next step R432, the illegal display lamp 24 is displayed.
Blinks, and then proceeds to step R434. Then, in step R434, an incorrect sound is output from the speaker 640, and then the process proceeds to step R436 to turn off other lamps, LEDs, and the like. Further next step R43
After waiting for all the fraudulent causes to be removed in step 8, the process proceeds to step R440 to set a timer for a predetermined time (for example, 20 seconds), and in the next step R442, a timer subtraction display (the display section is not shown). ) Is performed, and the process proceeds to the next Step R444.

Then, in Step R444, Step R
Return to step R442 until the timer set in 440 times out, and after the time has expired, move to step R446 to reset the timer, and in the next step R448, perform a process for returning to a game playable state. To game processing again.

In this embodiment, external fraudulent action detectors 1001 to 1008 for detecting fraudulent signals from external fraudulent action means such as a communication device are provided.
Based on the detection signals from 1 to 1008, the hitting ball launching device is stopped to put it in a game-disabled state, and the lamp 24 is turned on to inform the illegality, so that an external illegal action means such as a communication device is used. It is possible to prevent the unjust gain by the illegal player and prevent the loss of the game store, and the game store side can immediately recognize the dishonesty and perform the post-processing speedily.

In the above description, the hitting ball launching device is stopped to disable the game based on the detection of the external improper action by the external improper action detectors 1001 to 100, but the invention is not limited to this. The accessory control device 610 may be stopped to disable the game.

Further, the method of notifying the injustice is not limited to blinking the lamp 24 on the basis of the detection of the injustice by the external injustice detectors 1001 to 1008, and notifying it.
Any other perceptive means may be used, such as turning on the lamp of the island facility or the lamp of the central control unit, or making a sound.

[0409] Further, the installation location, the number of installations, etc. of the external fraudulent effect detector may be determined in any manner.

Further, in this embodiment, since the display of the variable display portions A, B, C of the variable display device 4 and the like are changed by rotating the three disks 434b to 436b as described above, It is a pachinko machine that gives the player a new sense of entertainment because it has completely different rotation and display changes from the conventional drum type and digital type. Further, when a hit ball is won in the first start winning device 6, 6, the variable display device 4
The display of the variable display portions A, B, and C is randomly changed not only in the numerical display but also in the color at a speed different from the numerical display, while the variable display is displayed when a hit ball is won in the second starting winning device 8. The display of the variable display portions A, B, C of the device 4 is changed so that only the numerical display is changed while keeping the color as one color, and as a result of the stop, the display of the variable display portions A, B, C, etc. is displayed in a uniform numerical display. Or, the game of "big hit" is generated when the display of the three crowns is the same and the color display is the same, so it depends on which start winning device 6 or 8 the winning is based on. The probability of occurrence of a "big hit" as a result of the operation of the variable display device 4 is different, and the pachinko game becomes even more interesting for the "big hit" occurrence of the player. In the case of this embodiment, the display unit A,
Using the variable display device 4 capable of changing the emission colors of B and C,
Color due to winning in the first winning device 6 (emission color)
On the other hand, in the case where the winning is due to the second winning device 8, the color is kept as one color and is not changed. It becomes a pachinko game machine that makes it easier to see whether or not. In addition, the amount of profit that can be obtained by the player is lower than when playing "big hit", but even if it is "middle hit", the continuation of the cycle can be continued by satisfying the continuation condition. It is possible to enhance the enjoyment of the game, such as giving the player a technical intervention for satisfying the condition or giving a sense of tension as to whether or not the game can be continued. Other,
Since the amount of profit that can be obtained by the player in the "middle hit" game is suppressed to be smaller than that in the "middle hit" game, it is possible to continue the opening cycle of the variable winning device 5 in the "middle hit" game. Even if it does, it is possible to balance the profits between the game store and the player.

In the above embodiment, the disc 434 is used.
Although the number of b to 436b is three and the triangular vertex arrangement is adopted, the number and arrangement are not limited to the above, and any number and arrangement may be used.

[0412] Further, only one of the numerical displays displayed on the respective display plates 434m to 436m attached to the disks 434b to 436b is made to be visible through the variable display portions A, B and C, but The numeral display and the like may be made visible from portions other than the display portions A, B, and C.

Further, the discs 434b to 436b and the display plates 434m to 436m are separated from each other, and the disc 43 is formed.
4b to 436b, a display plate 434 in which a numerical display or the like is displayed
Although the structure in which m to 436 m are mounted is adopted, a numerical display or the like may be directly displayed on the surfaces of the disks 434b to 436b.

Further, the display on the display boards 434m to 436m is a numerical display (including the crown), but the display is not limited to this display, and any display may be used as long as it is a visible display. You can have any number of

[0415] Further, as a method of changing the jackpot probability, a case of winning the first winning device 6,6 and a second winning device 8
The display mode for generating the "big hit" may be different from that when the player wins. For example, when the first start prize winning device 6, 6 is won, when the display manners of the variable display portions A, B, C become a certain number display (“3, 3, 3”,
"7,7,7"), and when the second start winning device 8 is won, it is generated for all the squares.

In the above embodiment, the disk motor 460 is always stopped and the variable display portions A, B, and
Although it is operated only when the display of C is changed, it may be operated all the time.

Further, in the above embodiment, the open time of the variable winning device 5 per cycle during the "middle hit" game, the number of winning prizes in the winning prize hole 511, the number of times the cycle can be continued, and the winning prize hole 511. By reducing the total number of prize balls discharged per win for inside wins compared to the "big hit" game, the profits that can be obtained for the player at the "middle hit" game are given to the "big hit" game. By reducing the amount of time, the profit balance between the game store and the player can be achieved even if the "medium hit" game cycle is continued, but if the profit balance between the two is achieved as a whole, 1 at the time of playing "win"
Opening time of the variable winning device 5 per cycle and winning opening 51
It is possible to set any method such as limiting only a part of the number of winning prizes into one, the number of times the cycle can be continued, and the number of prize balls discharged per winning with respect to the winning hole 511. Further, during the "middle hit" game, the guide members 514, 514 of the variable winning device 5 are not opened so that the starting prize winning devices 6, 6 and the variable winning device 5 during the "middle hit" game are played. By keeping the winning probability into the winning hole 511 lower than that during the "big hit" and the cycle continuation probability during the "middle hit" game, lower than that during the "big hit" game Although the profit obtained for the player at the time of the game is reduced, the opening time of the variable winning device 5 per cycle at the time of the game of "medium hit", the number of winning prizes in the winning opening 511, the cycle If you can maintain the profit balance between the player and the game store by keeping some or all of the number of possible continuations and the number of prize balls discharged per win for the prize in the prize hole 511 low, the "middle hit" Even at the time of the game "big hit"
The guide members 514 and 514 may be opened in the same manner as during the game.

Further, not only the probability of occurrence of "big hit" but also the probability of occurrence of "medium hit" is changed depending on which of the starting prize winning devices 6 or 8 is operated by the variable display device 4 caused by winning. You may let me.

Further, the variable winning device 5 has an opening / closing door 513 and guide members 514 and 514, and is a "big hit" or "middle hit".
Although it has been described that the ball is easily opened in the winning opening 511 of the variable winning device 5 by opening them when the occurrences occur, the present invention is not limited to this, and the "big hit" or the "middle hit" is given. Any form may be used as long as the winning probability can be increased when "."

[0420] Also, except for the combination of the display that generates "big hit" and "middle hit", all are "out of bounds", but other than that, there are fewer profits than in "middle hit" and more profits than in normal games. For example, to generate a "small hit" that gives a state,
There may be any kind of game state different from normal.

[Second Embodiment] In the first embodiment, the "big hit" is determined depending on which of the starting prize winning devices 6 and 8 is operated by the variable display device 4 or not.
The game contents of "big hit" and "middle hit" that occurred are not distinguished and only treated by changing the probability of occurrence of "middle hit". However, in this embodiment, not only the probability of occurrence but also the content of the game of "big hit" or "middle hit" that occurred is distinguished.

The details will be described below. The pachinko gaming machine according to this embodiment has substantially the same configuration as the pachinko gaming machine according to the first embodiment, and the probability of occurrence of "big hit" or "medium hit". The only difference is the game contents of "big hit" and "medium hit" and the control relations that change the number of prize balls discharged according to the difference in the difference, so avoid duplicative explanations as much as possible and refer to the drawings and symbols for the first embodiment. Different control parts will be described with reference to the drawings and symbols in the embodiments.

When the "big hit" or "middle hit" occurs when the variable display device 4 is activated and the probability of occurrence is low in the first starting winning device 6, the "big hit" or "middle hit""Bighit" or "middle hit" when "big hit" or "middle hit" occurs in a state where the content of the game and the second start winning device 8 are won and the variable display device 4 is operated and the occurrence probability is high. The game contents of will be described.

(1) As a result of the operation of the variable display device 4 caused by winning the first starting winning device 6, the variable display portions A, B,
The number display of C is uniform (“1, 1, 1”, “3, 3,
3)) or the display of three crowns, and the same color, and when "big hit A" occurs, the game content of "big hit A" The probability of "big hit" in this case is the lowest at 1/144. As a result, the corresponding "big hit A" gaming state that can give the player the most benefit is created. That is, in this "big hit A" game, for example, similar to the case of the first embodiment, not only the opening / closing door 513 of the variable winning device 5 but also the guide members 514, 514 are opened. 1 of this "big hit" game
Open / close door 513 and guide member 514 per cycle
The opening time of 514 is 30 seconds, and the maximum number of winning prizes is 10. The maximum number of cycles that can be continued is 1
At 0 times, the number of prize balls discharged per win for each winning is all the normal number of discharged balls (for example, 13 balls).

(2) As a result of the operation of the variable display device 4 due to the winning of the first starting winning device 6, the variable display portions A, B,
The number display of C is uniform (“1, 1, 1”, “3, 3,
3 ”) or the display of the crown is three, but the colors are not uniform, and when the“ middle hit A ”occurs, the game content of the“ middle hit A ”probability of occurrence of the“ middle hit A ”in this case. Is 1/48, which is the second lowest value, so that a "medium hit A" game state that can give the player the second most profit is created. That is, in this "middle hit A" game, for example, not only the opening / closing door 513 of the variable winning device 5, but also the guide members 514 and 514 are opened. Open / close door 513 and guide member 51 per one cycle of the "middle hit A" game
The opening time of 4,514 is 10 seconds, and the maximum number of winning prizes is 5. In addition, the maximum number of times the cycle can be continued is 5, and the number of prize balls discharged per winning is all normal discharge numbers (for example, 13).

(3) As a result of the operation of the variable display device 4 due to the winning of the second start winning device 6, the variable display portions A, B,
The number display of C is uniform (“1, 1, 1”, “3, 3,
3)) or three crowns are displayed, and the colors are the same, and the "big hit B" game content occurs when "big hit B" occurs. In this case, the probability of "big hit B" is 1 / 36 and the probability of occurrence of "middle hit A" in (2) above, so the gaming state of "big hit B" that can give the third most profit less than that of "middle hit A" Is being created. That is, this "big hit B"
In the game of, for example, the opening / closing door 51 of the variable winning device 5
Only the number 3 is opened, and the guide members 514 and 514 are not opened. The opening time of the opening / closing door 513 per cycle of this "big hit B" game is 10 seconds,
The maximum number of winning prizes is five. In addition, the maximum number of times the cycle can be continued is 5, and the number of prize balls discharged per winning is less than the number of prize balls discharged per winning in the winning port 511 of the variable winning device 5. Discharge (for example, 7 pieces)
The discharge of prize balls per one time to the other winning areas is performed by normal discharge (for example, 13).

(4) As a result of the operation of the variable display device 4 due to the winning of the second start winning device 6, the variable display portions A, B,
A, B, and C of C have two uniform eyes or two crowns, and only C has a different number display (“1,1, ×”, “3,3, ×”)
, Etc., and the game content of "middle hit B" when "middle hit B" occurs Since the occurrence probability of "middle hit B" in this case is the highest at 5/36, The profit that can be given to the player is small, and the "medium hit B" gaming state that can give the fourth most profit, which is less than the "big hit B" in the above (3), is created. That is, in this "middle hit B" game, for example, the variable winning device 5
Only the opening / closing door 513 is opened, and the guide members 514 and 514 are not opened. The opening time of the opening / closing door 513 per one cycle of the "medium hit B" game is 5 seconds, and the limit number of winning prizes is 3. In addition, the maximum number of times the cycle can be continued is three times, and the number of prize balls discharged per winning prize is equal to the number of prize balls discharged per winning prize in the winning hole 511 of the variable winning device 5. Small discharge (for example, 7 balls) is performed, and discharge of prize balls per one time to the other winning areas is normally discharged (for example, 1 ball).
3 pieces).

Of the game processing in this embodiment, the procedure for storing the winning prize in the starting winning areas 6, 6, and 8 is the same as that described with reference to FIG. 69 in the first embodiment. Variable display device 4 different from the first embodiment
An example of a control procedure of the operation process of and the determination process of the operation result will be described.

FIG. 77 shows an example of the control procedure of the operation processing of the variable display device 4 and the determination processing of the operation result thereof in the game processing in this embodiment.

In the control procedure of FIG. 77 in this embodiment, which of the starting prize winning devices 6 is started when the game process is started.
Or, the probability of occurrence of "big hit" or "medium hit" is set depending on whether a hit ball is won in 8, and the variable display device 4 is operated for a predetermined period under the set probability, and the operating time setting timer of the variable display device 4 is set. Steps R450 to R483 as a control procedure until resetting are steps R50 to R83 as a control procedure of FIG. 70 in the first embodiment.
Since it is the same as the above, the duplicated explanation will be avoided and Step R4
84 and below will be described.

In step R484, it is determined which of the probability generators A and B the operation of the variable display device 4 is based on, and when it is based on the probability generator A, the probability generator B is connected to step R485. If it is based on, the process proceeds to step R492.

At step R485, the solenoids 465a to 467 of the rotation stopping devices 465 to 467 are moved.
a is sequentially turned off and the disks 434b to 436b are sequentially stopped. Then, in the next step R486, the alternate flashing of the determination lamps 432a (green) and 432b (red) is stopped, and then the process proceeds to step R487, in which the variable display portion A,
After the determination means determines which of the "big hit", "middle hit", and "miss" display mode as the stop result of B and C, the process proceeds to step R488.

In Step R488, the disk motor 4
60 is turned off, and then the process proceeds to step R489 to stop blinking the green lamp 92a of the side lamp devices 90, 90 to turn off the light, and then the process proceeds to step R490. Then, in step R490, it is determined whether or not it is a "big hit A". If it is a "big hit A", the process of "big hit A" is performed and then the process proceeds to step R491. If it is not the "big hit A", the step R4 is performed as it is.
Move to 91. In step R491, when it is "middle hit A", the process of "middle hit A" is performed and then the process returns to step R50. When it is not "middle hit A", the process directly returns to step R50. Thus, when returning to step R50, the routines after step R50 are executed again.

On the other hand, when the routine proceeds to step R492, the solenoids 465a-of the rotation stopping devices 465-467 are rotated.
The disks 434b to 436b are turned off by sequentially turning off 467a.
Stop in order. Then, in the next step R486, it is determined by the determination means whether the display mode as the stop result of the variable display portions A, B, C corresponds to "big hit B", "middle hit B", or "out". The process moves to step R494.

In step R494, the disk motor 4
60 is turned off, and then the process proceeds to step R495 to stop blinking the red lamp 92b of the side lamp devices 90, 90 to turn off the light, and then the process proceeds to step R496. Then, in step R496, it is determined whether or not it is a "big hit B", and if it is a "big hit B", the process of "big hit B" is performed and then the process proceeds to step R497.
Move to 97. In step R497, if it is "middle hit B", the process of "middle hit B" is performed, and then the process returns to step R50. If it is not "middle hit B", the process directly returns to step R50. Thus, when returning to step R50, the routines after step R50 are executed again.

As the processing for each of the above "big hit A", "big hit B", "middle hit A", and "middle hit B", there are four types of games (1) to (4) The contents are executed by the accessory control device 610.

As described above, the pachinko game machine according to this embodiment has a "big hit" or "big hit" depending on which of the starting prize winning devices 6 or 8 the operation of the variable display device 4 results in. Not only the occurrence probability of "middle hit" is different, but the game contents of the "big hit" and "middle hit" are made different according to the difference in occurrence probability, so that the result of the operation of the variable display device 4 is generated. By diversifying the game contents during the "hit" game, the interest in the game will be further enhanced. Further, there is room for technical intervention such as determining which of the starting prize winning devices 6 or 8 is more advantageous and aiming at the more advantageous one.
It will be highly entertaining. In addition, for a hit with a high probability of occurrence, the profit that the player can catch for each hit is small, and for a hit with a low probability of occurrence, the player for each hit. By increasing the profits that can be captured by the player, the profits of the player and the game store can be balanced as a whole.

In the above-described configuration, for example, the winning of the starting winning apparatus B may be easily set, while the winning of the starting winning apparatus A may be set difficult.

In the above description, the probability of occurrence of "big hit" and "medium hit" is set to two types, and the game contents of the hits corresponding to the respective occurrence probabilities are performed. However, "big hit" and "hit" The number of types of occurrence probability of "middle hit" may be set to the same number as the number of starting winning devices, and the game content of the hit may be further diversified according to each occurrence probability.

In the above description, the presence / absence of opening / closing of the guide members 514, 514 of the variable winning a prize device 5 in each of the "big hit A", "big hit B", "middle hit A", and "middle hit B" games, In addition, the opening time of the opening / closing door 513 and the guide members 514, 514 per cycle, the maximum number of winning prizes, the maximum number of times the cycle can be continued, the number of prize balls discharged per winning, etc. Although it is shown using, without being limited thereto, for a hit with a high probability of occurrence, there is less profit that the player can catch for each hit, and for a hit with a low probability of occurrence. It suffices to increase the profit that can be obtained by the player for each hit, so that the profit balance between the player and the game shop as a whole can be balanced.

[Third Embodiment] First and Second Embodiments
In the embodiment of the present invention, it is fixedly decided whether the probability of occurrence of "big hit" or "medium hit" is high or low depending on which starting prize device is won and the variable display device is operated. In the above form, one game is played based on the winning timing to the starting winning apparatus or the winning, and the probability of occurrence of "big hit" or "middle hit" is changed according to the game result.

The details will be described below. The pachinko gaming machine according to this embodiment has substantially the same structure as the pachinko gaming machine described as the first embodiment, and the winning timing for the starting winning device, or 1 based on that prize
Since only the configuration and control relationship that allows two games to be played and the probability of occurrence of "big hit" or "middle hit" to be changed according to the game results, duplicate description is avoided as much as possible, and drawings and symbols are Different configurations and control parts will be described with reference to the drawings and the reference numerals in the first embodiment.

Also, the display mode of the variable display portions A, B, and C for generating the "big hit" and "middle hit" as the normal playing method and the operation result of the variable display device 4 in the pachinko gaming machine of this embodiment. , And the continuation conditions are the same as those in the first embodiment, the display is fixed by winning the starting winning device, and the “big hit” as the operation result of the variable display device 4 is determined according to the fixed display. Configuration for providing a variable probability display section for changing the probability of occurrence of "middle hit" and control for changing the probability of occurrence of "big hit" or "middle hit" by the variable display device 4 in accordance with the operation result of the variable probability display section. The relationship will be described.

In this embodiment, as shown in FIG. 78, "big hit" and "medium hit" are provided at the bottom of the game area 2.
The probability of occurrence fixed type winning award device 8A and the probability varying type starting award device 6B, 6C are installed, and the left and right two award starting devices 6B, 6C are provided with a variable probability game device 68. There is.

The variable display section of the variable probability game machine 68 is, for example, a 7-segment type variable display, which is constantly changing and the numerical display of the variable display section is predetermined when the starting winning device 6B or 6C is hit with a hit ball. It is designed to be stopped for a time (for example, 1 second).

When the numerical display of the variable display portion when stopped is a number other than "7", for example, the winning storage display portions 411e to 411f of the variable display device 4 (each winning storage display portion 411e in this embodiment). ~ A pair of red and green lamps are installed in 411h)) One green lamp is additionally lit in the order of a, b, c, and d, while when the number becomes "7" The red lamps in the winning storage display portions 411e to 411h of the variable display device 4 are additionally turned on in the order of a, b, c, and d. Further, when a hit ball is won in the starting winning apparatus 8A, the green lamp in the winning memory display portions 411e to 411h is always a,
One additional light is turned on in the order of B, C, and D.

Then, the winning storage display sections 411e-4d.
When the variable display device 4 is operated based on the lighting of the green lamp during 11h, the disk 4 of the variable display device 4 is activated.
34b to 436b are rotated and the lamp 432a is rotated.
By alternately flashing (green) and 432b (red),
The variable display portions A, B, C are not only displayed numerically but also the color (emission color) is changed randomly for each display portion A, B, C for a predetermined time. Therefore, the probability of "big hit" at this time is low (for example, 1/144) as in the case of winning in the first starting winning device 6 in the first embodiment.

On the other hand, the winning storage display sections 411e to 411h.
When the variable display device 4 is operated based on the lighting of the red lamp inside, the disks 434b to 434b are turned on while only the green lamp 432a of the variable display device 4 is turned on.
By rotating 6b, the variable display portions A, B, and C are randomly changed for a predetermined time only in the numerical display or the like while the color (emission color) remains one color. Therefore, the "big hit" at this time
The probability of occurrence of the second starting winning a prize device 6 in the first embodiment is
It becomes high (for example, 1/36) as in the case of winning inside.

FIG. 79 shows an example of a storage processing control procedure of winning in the starting winning apparatuses 8A, 6B and 6C in the game processing (performed by the accessory control device 610) in this embodiment.

First, in step R500, it is determined whether or not a hit ball has been won in the starting winning device 6B. If there is no winning, the process proceeds to step R502, and if there is a winning, the process proceeds to step R506.

In step R502, it is determined whether or not a hit ball has been won in the starting winning device 6C. If no ball has been won, the process proceeds to step R504, and if it has been won, the process proceeds to step R506.

In step R504, it is determined whether or not a hit ball has been won in the starting winning device 6C. If no ball is won, the process returns to step R500, and if a ball is won, step R is performed.
Move to 512.

On the other hand, when the process shifts from step R500 or R502 to step R506 as described above, the change (operation) of the display of the variable probability game device 68 is stopped for a fixed time (for example, 1 second), and then the process shifts to step R508. To do.

At step R508, it is determined whether or not the stopped numeral display is "7". If not "7", step R512 is entered. If "7" is reached, step R510 is entered. .

At step R510, the memory counter for storing the number of unprocessed (variable display device 4 not operated) due to winning of the hit ball in the starting winning devices 8A, 6B, 6C is "N" ( It is determined whether or not the number is equal to or more than the storage limit number), and if “N” or more, step R50.
Returning to 0, if it is not "N" or more, the routine proceeds to step R514, increments the lucky counter by "1", and then proceeds to step R516.

On the other hand, when the process proceeds from step R504 or R508 to step R512 as described above, it is determined whether or not the storage counter is "N" or more,
If it is "N" or more, the process returns to step R500, and if it is not "N" or more, step R516.
Move to

As described above, step R512 or R51
When the process proceeds from step 4 to step R516, the storage counter is incremented by "1" and then the process returns to step R500.

By repeating the loop of steps R500 to R516 in this way, the starting winning devices 8A, 6
The memory process of winning a prize in B and 6C is performed.

FIG. 80 shows an example of the operation processing of the variable display device 4 and the operation result determination processing in this embodiment.

First, in step R550, wait until the memory counter becomes larger than "0", in other words, until one of the starting winning devices 8A, 6A, 6B wins a hit ball and an unprocessed ball occurs, and then, The process moves to step R552.

In Step R552, the disk motor 4
It is determined whether 60 is in operation, and if it is in operation, the process returns to step R550, and if it is not in operation, the process proceeds to step R554.

At step R554, whether or not the lucky counter is larger than "0", in other words, the display of the stop result of the variable probability game device 68 of the starting winning device 6B or 6C has become "7". By doing so, it is determined whether or not the probability of occurrence of the “big hit” of the variable display device 4 should be increased, and if not, the step of causing the variable display device 4 to operate at the normal occurrence probability (eg, 1/144). R5
On the other hand, if there is any, the variable display device 4 is operated at a special occurrence probability (for example, 1/36), and the routine proceeds to step R562.

When the routine proceeds to step R556 so as to be performed at the normal occurrence probability (for example, 1/144), the green lamp 92a of the side lamp devices 90, 90 is started to blink as the normal probability display, and then the step R558 is performed.
And the probability generation unit A moves the "big hit" occurrence probability to 1/1
Set to 44. That is, the disks 434b to 436b of the variable display device 4 are rotated to change the variable display portions A, B, and C.
Lamp 423a as well as changing the number display
(Green) and 423b (red) are alternately blinked, and the colors (red and green) are also set so as to change at a different speed from the change in numerical display. Then, in the next step R560, the determination lamp 43 on the back side of the variable display portions A, B, C of the variable display device 4 is determined.
After the alternate blinking of 2a (green) and 432b (red) is started, the process proceeds to step R568.

On the other hand, when the process shifts from step R554 to step R562 as described above, the red lamp 423b in the side lamp devices 90, 90 is made to start blinking as a lucky display (indicating that the probability of occurrence of "big hit" is high). Then, the process proceeds to step R564, and the probability generation unit B sets the "big hit" occurrence probability to 1/36.
That is, by rotating the disks 434b to 436 while keeping the green lamp 432a on the back side of the variable display units A, B and C of the variable display unit 4 lit, the variable display units A and B of the variable display unit 4 are rotated. , C are set so that only the numerical display is changed while the color remains one color (green). Then, in the next step R566, the lucky counter is counted down by "1", and then the process proceeds to step R567 to turn on the green judgment lamp 532a on the back side of the variable display portions A, B and C of the variable display device 4. Then, the process proceeds to step R568.

When the process proceeds from step R566 or R560 to step R568, step R568
4 by rotation stop devices 465-467 at
Steps R57 after releasing the lock of 34b-436b
By shifting to 0 and operating the disk motor 460 to rotate the disks 434b to 436b, the display changes on the variable display portions A, B, C are started. Then, in step R572, the storage counter is decremented by "1" and the corresponding lamps in the storage display sections 411e to 411h are turned off, and then step R57.
Move to 4. Then, in step R574, a timer (setting time is, for example, 6 seconds) that determines the operation time of the variable display device 4 is started, and thereafter, the process proceeds to steps R576 and R578.

Then, in steps R576 and R578, after the preset time (for example, 6 seconds) of the timer elapses or the variable time reduction switch 105 is pressed, the routine proceeds to step R580, and the timer is reset. Then, the process proceeds to step R581.

In step R581, it is determined whether the operation of the variable display device 4 is based on the probability generating units A and B. If it is based on the probability generating unit A, the probability generating unit B is transferred to step R582. If it is based on the above, the process proceeds to step R585.

At step R582, the solenoids 465a to 467 of the rotation stopping devices 465 to 467 are moved.
a is sequentially turned off and the disks 434b to 436b are sequentially stopped. Then, in the next step R583, the alternate flashing of the determination lamps 432a (green) and 432b (red) is stopped, and then the process proceeds to step R584 and the variable display portion A,
After the determination means determines which of the "big hit", "middle hit", and "out" of the display mode as the stop result of B and C, the process proceeds to step R587.

On the other hand, when the routine proceeds to step R585, the solenoids 465a- of the rotation stopping devices 465-467 are rotated.
The disks 434b to 436b are turned off by sequentially turning off 467a.
Stop in order. Then, in the next step R586, the determining means determines which of the "big hit", the "middle hit", and the "off" the display mode as the stop result of the variable display portions A, B, and C is followed by the step R587. Transition.

In step R587, the disk motor 4
60 is turned off, and then the process proceeds to step R588 to stop the blinking of the lamp 93a (green) or 93b (red) of the side lamp devices 90, 90, and then step R589.
Move to

[0471] In Step R589, it is determined whether or not the determination result in Step R584 or R586 is "big hit". If the result is "big hit", big hit processing (described later) is performed and then the process shifts to step R590 to make "big hit". If not, the process directly proceeds to step R590.

In step R590, it is determined whether or not the determination result in step R584 or R586 is "middle hit", and if it is "middle hit", a middle hit process (described later) is performed and the process returns to step R550. If it is not "middle hit", the process directly returns to step R550.
When returning to step R550, the routines after step R550 are executed again.

The processing of "big hit" and "medium hit" in this embodiment is not distinguished by the occurrence probability, and is the same as the processing procedure described with reference to FIGS. 71 and 70 in the first embodiment. Therefore, the description thereof is omitted.

In the above description, the variable probability game machine 68 is used.
Of the start winning award device 6B, 6
Although the display is stopped for a certain period of time when the hit ball is won in C, the display of the variable probability game machine 68 is always stopped and the hit ball is won in the starting winning apparatuses 6B and 6C. You may make it change at random for a fixed time (for example, 1 second).

Also, in the above description, the variable probability game device 68 is used.
Is a variable display whose number changes, and is integrated with the starting winning device, but it is not limited to a numerical type, and the probability of a "big hit" being generated by winning the starting winning devices 6B and 6C is shown. Any game device may be used as long as it can be identified, and it may be a separate device from the starting winning device.

In the above description, the number of starting winning devices involved in the change in the probability of "big hit" is two, but any number may be used.

As described above, the pachinko gaming machine in this embodiment causes the variable probability game machine 68 to play one game based on the winning timing of the starting winning devices 6B and 6C or the winning. Depending on the situation, the probability of occurrence of "big hit" or "medium hit" is changed to diversify the game contents, thereby further increasing the interest in the game. In addition, since the game by the variable probability game device 68 and the game by the variable display device 4 are performed stepwise by winning the start winning device 6B, 6C, the interest of the player in the game is increased.

It should be noted that in the above embodiment, the starting winning device 8
Among the unprocessed prizes in A, 6B, and 6C (the variable device 4 is not yet activated), the ones for which the result probability occurrence probability of the variable probability game device 68 should be increased are the winning memory display portions 411e to 411e. 411h is lit and displayed in red, and what should be the normal probability is lit and displayed in green. The digital display (not shown) is provided near the prize ball number display 22a or 22b, and the digital display is performed. All the unprocessed parts are displayed in numbers on the container, and only the ones for which the inter-rights occurrence rate should be increased among the prize winning display parts 411e to 41
The display may be turned on at 1h.

[Fourth Embodiment] In this embodiment as well, as in the third embodiment, one game is executed based on the winning timing of the starting winning apparatus or the winning result. Accordingly, the probability of occurrence of "big hit" and "medium hit" is changed. However, in the case of the third embodiment, the processing contents of "big hit" and "medium hit" are not distinguished by the probability of occurrence of "big hit" or "middle hit" as in the first embodiment. On the other hand, in the case of this embodiment, the same distinction as in the second embodiment is made according to their occurrence probabilities.

The details will be described below. The pachinko gaming machine according to this embodiment has substantially the same configuration as the pachinko gaming machine described as the first embodiment, and the timing to the starting winning device, or One big game based on the winning a prize and the structure and control relation that changes the probability of "big hit" and "medium hit" according to the game result, and "big hit" according to the probability of occurrence
The only difference is that the control contents are controlled so as to distinguish the game contents of "and medium hit". Also, the probability of occurrence of "big hit" or "medium hit" is changed according to the winning timing to the starting winning device or the winning result different from that of the first embodiment and the game result. Regarding the configuration and the control relationship, the above third
Similar to the embodiment, the control relation for distinguishing the game contents of "big hit" and "middle hit" according to the occurrence probability of "big hit" and "middle hit" is the same as that of the second embodiment. .

That is, the pachinko gaming machine according to this embodiment is the same as the pachinko gaming machine according to the first embodiment, except that the probability of occurrence of "big hit" or "middle hit" is changed.
The configuration of the embodiment and the configuration of the second embodiment in which the game contents of "big hit" and "medium hit" are distinguished according to the probability of occurrence of the "big hit" or "middle hit" are incorporated. However, since it has a peculiar structure, the peculiar constituent parts will be described below with reference to the drawings, the explanation words, the reference numerals and the like of the first to third embodiments.

In the pachinko gaming machine according to this embodiment, as in the third embodiment, as shown in FIG. 78, the probability of occurrence of "big hit" or "middle hit" is fixed at the bottom of the game area 2. A start-up winning device 8A of a type and a start-up winning device 6B, 6C of a probability variation type are installed, and a left and right two-starting winning device 6B, 6C are provided with a variable probability game machine 68.

The variable display section of the variable probability game device 68 is, for example, a 7-segment type variable display, which is always randomly changing and the numerical display of the variable display section when a hit ball is won in the starting winning device 6B or 6C. Is stopped for a predetermined time (for example, 1 second).

When the numerical display of the variable display portion when stopped is a numeral other than a specific numeral (for example, "7"), the winning memory display portions 411e-4d of the variable display device 4 are displayed.
11h (in this embodiment, each winning memory display unit 411e
(A pair of red and green lamps are installed in each of ~ 411h), and one additional green lamp is turned on in the order of a, b, c, and d. Also, when the hit ball is won in the fixed probability start winning device 8A, the winning memory display unit 4
One of the green lamps in 11e to 411h is additionally turned on in the order of a, b, c, and d. On the other hand, when the number display on the variable display portion when the variable probability game device 68 is stopped becomes a specific number (for example, “7”), the variable display device 4
The red lamp in the winning memory 411e to 411h is
One additional light is turned on in the order of B, C, and D.

Then, the prize winning memories 411e to 411h.
When the variable display device 4 is operated based on the lighting of the green lamp in (a, b, c, d), the variable display portion A,
B and C are not only displayed numerically but also the color (emission color) is changed randomly for each display unit A, B and C for a predetermined time. In that case, the colors (red and green) are changed alternately between red and green at a speed different from the numerical display. Therefore, the probability of occurrence of "big hit" at this time is as low as when winning in the first starting winning device 6 in the first embodiment (for example, 1/14).
4)

On the other hand, prize winning memories 411e to 411h (a,
When the variable display device 4 is operated based on the lighting of the red lamp in (b, c, d), the variable display parts A, B, C are displayed.
Does not change the color (emission color) and is one color (for example, one green color)
As it is, only the numerical display is changed randomly for a predetermined time.
Therefore, the probability of "big hit" at this time becomes high (for example, 1/36) as in the case of winning in the second starting winning device 8 in the first embodiment.

When a "big hit" or a "middle hit" occurs as a result of the operation of the variable display device 4, the second
As in the above embodiment, the game contents of "big hit" and "middle hit" differ depending on the occurrence probability of the "big hit" and "middle hit".

That is, the lower probability of occurrence (the probability of occurrence of "big hit" is 1/144, the probability of occurrence of "medium hit" is 1/4).
8) "Big hit" and "Medium hit" are defined as "Big hit A" and "Medium hit A", respectively, while the higher occurrence probability (the occurrence probability of "Big hit" is 1/36, "Medium hit") The probability of "hit" is 5/36), and "big hit" and "medium hit" are defined as "big hit B" and "middle hit B", respectively.

The generated "big hit A", "medium hit A", "big hit B", and "middle hit B" are respectively set to 1 for hits with a high occurrence probability as in the second embodiment. The profit that the player can get for each hit is reduced, and the profit that the player can get for each hit that has a low probability of occurrence is increased. . For example, in the second embodiment, (1)
The game contents are specifically defined in (4) to (4).

FIG. 81 shows an example of the procedure of the operation processing of the variable display device 4 and the operation result determination processing in this embodiment.

In the control procedure of FIG. 81 in this embodiment, which of the starting prize winning devices 8A, 6B, 6C has won or the result of operation of the variable probability game device 68 depending on the winning of the starting prize winning devices 6B, 6C. The probability of occurrence of "big hit" or "middle hit" is set according to what the stop display as is, and the variable display device 4 is operated and stopped for a predetermined period under the set probability, and the operating time of the variable display device 4 is set. Steps R650 to R680 as a control procedure until the setting timer is reset are steps R550 to R580 as a control procedure of FIG. 80 in the third embodiment.
Is the same as Further, step R681 and subsequent steps shown in FIG. 81 are the same as step R484 and subsequent steps as the control procedure of FIG. 77 in the second embodiment.

The pachinko gaming machine in this embodiment, as described above, the winning timing for the starting winning device,
Or, one game is played based on the winning, and the probability of occurrence of "big hit" or "medium hit" is changed according to the result of the game, and "big hit" or "big hit" generated under the changed occurrence probability. Since we decided to make the game contents of "middle hit" different depending on the probability of occurrence, the game contents are diverse due to the change in the probability of occurrence of the right and the game contents depending on the probability of occurrence. It is rich in variety and the interest of the player in the game is further enhanced, and the profit balance between the player and the game store can be balanced.

[0493]

As described above, the pachinko gaming machine according to the present invention is provided with the external fraudulent action detecting means for detecting the fraudulent signal from the external fraudulent action means for producing the fraudulent voltage in the detecting portion necessary for the game. Since the external fraud detecting means is provided with an operation part necessary for the game to stop the game based on the detection of the fraud signal from the external fraudulent action by the external fraudulent action, If you try to obtain an unreasonable profit by applying an illegal voltage to a detection unit necessary for game such as a start prize detector using an external illegal action means such as a wireless device, Is detected by the external injustice detecting means, and based on the detected signal, the actuating parts such as the ball-striking launcher and the accessory control device are stopped to disable the game, and the external injustice means is used. Unreasonable gain by the player who was While prevented, it is possible to prevent accidental damage game arcade.

[Brief description of drawings]

FIG. 1 is a front view of a pachinko gaming machine according to a first embodiment.

FIG. 2 is a front view of a game board of the pachinko gaming machine.

FIG. 3 is an exploded front side perspective view of a front portion of the variable display device.

FIG. 4 is a vertical cross-sectional side view showing a state in which a display frame is attached to the front frame of the variable display device.

FIG. 5 is an exploded front perspective view of a rear portion of the variable display device.

FIG. 6 is a partially exploded rear side perspective view showing the internal mechanism of the variable display device.

FIG. 7 is a partially exploded vertical side view of the variable display device.

FIG. 8 is an exploded perspective view of the tip of the variable display unit.

FIG. 9 is an operation explanatory diagram of the internal mechanism of the variable display device.

FIG. 10 is a plan sectional view showing a state in which a variable display device is attached to a game board.

FIG. 11 is an explanatory diagram showing a change time of the variable display device.

FIG. 12 is a front view of a display plate.

FIG. 13 is an explanatory diagram showing a positional relationship between a display plate and a sensor.

FIG. 14 is an explanatory diagram of detection of display on a display plate by a sensor.

FIG. 15 is a block diagram showing determination control of a display mode of a variable display section.

FIG. 16 is a perspective view of a variable winning device.

FIG. 17 is an exploded rear perspective view of the variable winning device.

FIG. 18 is a right side view of the variable winning device.

FIG. 19 is a plan view of a variable winning device.

FIG. 20 is a vertical cross-sectional side view showing a state where the variable winning device is attached to the game board.

FIG. 21 is an exploded rear side perspective view of a collective flow path frame portion of the variable winning device.

FIG. 22 is an exploded perspective view of a side lamp device.

FIG. 23 is a partial vertical cross-sectional view showing a state in which the cover is attached to the main body of the side lamp device.

FIG. 24 is an exploded rear side perspective view of the starting winning device.

FIG. 25 is a vertical sectional side view of the starting winning device.

FIG. 26 is a rear view showing the configuration of the back surface of the game board.

FIG. 27: Electrical circuit of external tamper detector relationship,

FIG. 28 is an electric circuit diagram showing the inside of the external tampering detector and its relationship.

FIG. 29 is a block diagram showing an internal configuration of an oscillating unit of the external fraudulent effect detector.

FIG. 30 is an electric circuit diagram showing a modification of the electric circuit related to the external fraud detector.

FIG. 31 is a detection circuit diagram of a starting winning prize detector installed in a central starting winning device.

FIG. 32 is a diagram showing a voltage state at a point of an output line in a normal state.

FIG. 33 is a diagram showing changes in the voltage at point a of the output line when an induced voltage is generated in the detection circuit by radio waves from a wireless device or the like.

34 is a detection circuit diagram showing a first modification of the detection circuit shown in FIG. 31. FIG.

FIG. 35 is a detection circuit diagram showing a second modification of the detection circuit shown in FIG. 31.

FIG. 36 is a plan cross-sectional view of a start winning detection device 61.

FIG. 37 is an electric circuit diagram of a sphere detection unit.

FIG. 38 is a timing chart showing the operation timing of each operation unit of the sphere detection unit.

FIG. 39 is a detection circuit diagram of a start winning a prize detector 61 using an optical sensor.

40 is a detection circuit diagram showing a first modification of the detection circuit shown in FIG. 39. FIG.

41 is a detection circuit diagram showing a second modification of the detection circuit shown in FIG. 39. FIG.

42 is a detection circuit diagram showing a third modification of the detection circuit shown in FIG. 39. FIG.

FIG. 43 is a detection circuit diagram of a continuous winning prize detector and a winning number detector.

FIG. 44 is a detection circuit diagram showing a first modification of the detection circuit shown in FIG. 43.

45 is a detection circuit diagram showing a second modification of the detection circuit shown in FIG. 43.

FIG. 46 is a partial cross-sectional rear view of the back mechanism board.

FIG. 47 is a perspective view showing a configuration of a prize ball discharging device.

FIG. 48 is a perspective view showing a driving force transmission mechanism to the prize ball discharging device.

FIG. 49 is an exploded perspective view showing a part of a back mechanism attached to the back of the collecting gutter.

FIG. 50 is an explanatory diagram showing a configuration of a crank cam and a continuous chunk cam.

FIG. 51 is an operation explanatory view showing the initial state before the prize balls are discharged during the engagement of the crank cam and the continuous chunk cam.

FIG. 52 is an operation explanatory view showing a state when a prize ball is ejected while the crank cam and the continuous chunk cam are meshing with each other.

FIG. 53 is an operation explanatory view showing a state where the winning ball processing device and the continuous channel lever are returned to the steady state (initial state).

FIG. 54 is an operation explanatory view showing a state where only the winning ball processing device is tilted by one stage while the continuous channel lever is in the initial state.

FIG. 55 is an operation explanatory view showing a state in which the winning ball processing device is tilted in two stages as the chain lever is tilted.

FIG. 56 is an operation explanatory view showing the relationship between the ball-sheath case and the operating lever for moving it before the prize balls are discharged.

FIG. 57 is an operation explanatory diagram showing the interlocking relationship between the ball sheath case and the operating lever for moving the ball sheath case at the time of discharging the prize ball.

FIG. 58 is an operation explanatory view showing the relationship between the ball-sheath case and the flow-down prevention lever before the prize balls are discharged.

FIG. 59 is an operation explanatory view showing the relationship between the ball-sheath case and the downflow prevention lever at the time of discharging the prize ball.

FIG. 60 is a rear view of the pachinko gaming machine.

61 is a wiring relationship diagram of the pachinko gaming machine. FIG.

FIG. 62 is an input wiring diagram of the starting prize detector, the continuous prize detector, the prize number detector, and the crank cam switch sensor to the accessory control device.

FIG. 63 is a sensor (S _{1 to} S ₃ ), (S _{1 to} S ₃ ), (S _{1 to} S ₃ ) for detecting the rotational angle positions of the first to third disks.
2 is an input wiring diagram to the accessory control device of FIG.

64 is an input wiring diagram of the winning ball processing device switch sensor to the winning ball discharging circuit. FIG.

[Fig. 65] Fig. 65 is an input wiring diagram to the prize ball discharge circuit of the continuous chunk cam switch sensor.

FIG. 66 is a control block diagram of the pachinko gaming machine.

FIG. 67 is a control block diagram of a prize ball discharging motor.

FIG. 68 is a flowchart showing a control procedure such as fraud monitoring and game processing of a pachinko gaming machine.

FIG. 69 is a flow chart showing a procedure for storing winning a prize in the starting winning device in the game process in step R12 of FIG. 39.

70 is a flowchart showing an example of an operation process of the variable display device and a determination process control procedure of the operation result in the game process in step R12 of FIG. 69.

71 is a "big hit" performed by the accessory control device. FIG.
Is a flowchart showing an example of a control procedure of the game of.

72 is a flowchart showing an example of a control procedure of a "middle hit" game performed by the combination control device. FIG.

FIG. 73 is a flowchart showing an example of a control procedure of a prize ball discharging process of two systems performed by the winning combination control device.

FIG. 74 is a timing chart showing the timing when the prize balls of two systems are discharged.

[Fig. 75] Fig. 75 is a flowchart showing an outline of a control procedure for fraudulent processing performed by the central control device of the central control room.

FIG. 76 is a flow chart showing a more detailed control procedure of fraudulent processing.

77 is a flowchart showing an example of operation processing of the variable display device of the pachinko gaming machine and processing of the operation result thereof in the second embodiment. FIG.

78 is a front view of the game board of the pachinko gaming machine according to the third embodiment. FIG.

FIG. 79 is a flow chart showing a procedure for storing a winning prize in the starting winning device.

FIG. 80 is a flowchart showing an example of a control procedure of operation processing of the variable display device and determination processing of the operation result.

FIG. 81 is a flowchart showing an example of a control procedure of an operation process of the variable display device of the pachinko gaming machine and a process of determining the operation result in the fourth embodiment.

[Explanation of symbols]

61, 81, 550, 562 Detector (detector necessary for game) 221, 222, 223, S ₁ , S ₂ , S ₃ sensor (detector necessary for game) 220 Ball striking device (operation required for game) Part) 610 accessory control device (operating part necessary for game)

[Procedure amendment]

[Submission date] May 13, 1996

[Procedure Amendment 1]

[Document name to be amended] Statement

[Name of item to be amended] Title of invention

[Correction method] Change

[Correction content]

[Title of Invention] Ball game machine

[Procedure Amendment 2]

[Document name to be amended] Statement

[Name of item to be amended] Claims

[Correction method] Change

[Correction content]

[Claims]

[Procedure 3]

[Document name to be amended] Statement

[Correction target item name] 0001

[Correction method] Change

[Correction content]

[0001]

TECHNICAL FIELD The present invention relates to a pachinko game.
Machines, arrangement ball machines and other ball game machines, in particular,
A variable display device capable of variably displaying a plurality of identification information and a player
The first condition, which is disadvantageous to the player, and the second condition, which is advantageous to the player.
To a ball game machine with a variable winning device that can be converted into
Concerned.

[Procedure amendment 4]

[Document name to be amended] Statement

[Name of item to be corrected] 0002

[Correction method] Change

[Correction content]

[0002]

2. Description of the Related Art Conventionally, a variable display device is used as a ball game machine.
Pachinko gaming machines, etc. that are equipped with
ing. However, with conventional pachinko machines,
A special game mode based on the stop result mode of the variable display device
To generate a variable winning device, which is disadvantageous to the player.
Convert from the first state to the second state, which is advantageous for the player
By giving profit to the player
Met.

[Procedure Amendment 5]

[Document name to be amended] Statement

[Name of item to be corrected] 0003

[Correction method] Change

[Correction content]

[0003]

[ Patent Document 1 ] Problems to be Solved by the Invention
In NCO gaming machines, it is simply
Variable display of identification information of
Since the technique state has been generated, the game is provided to the player.
I couldn't improve my taste. special
Regarding the occurrence of the gaming state, both the player and the game store
A very convenient balanced probability value (eg 1
/ 250, etc., but a small number of digits (for example,
If so, the variable display window (visible display section) of 3 digits)
In order to reduce the rate value, the variable display device
It is necessary to provide a lot of identification information for But like that
If there is a large number of identification information in the
It is possible to generate a special game state with a fixed stop result mode
Apparent expectations are thin for players
There is a risk of injury. Further, in the conventional variable display device,
Display identification information electrically using 7-segment LED etc.
The ones shown are the mainstream, and compared to mechanical variable display devices.
It gave the player a dull impression. Also mechanical
There is a variable display device that uses a rotating drum.
However, as a result of being familiar for a long time, a more innovative mechanical type is possible.
The advent of a ball game machine equipped with a changeable display device has been desired.

[Procedure correction 6]

[Document name to be amended] Statement

[Correction target item name] 0004

[Correction method] Change

[Correction content]

The present invention has been made in view of the above circumstances.
Then, it is variably displayed to the player by a novel mechanical mechanism.
A special game state is generated by making it possible to actually see the situation
The apparent expectation to be increased and variable
Variable table that can reduce the number of identification information for display
An object is to provide a ball game machine equipped with a display device.
It

[Procedure Amendment 7]

[Document name to be amended] Statement

[Name of item to be corrected] 0005

[Correction method] Change

[Correction content]

[0005]

[Means for Solving the Problems] Ball game according to the present invention
Machine forms a game area (2) to solve the above problems
The game board (1) and a plurality of game boards provided on the game board.
A variable display device (4) capable of variably displaying identification information, and a game
The first condition that is disadvantageous to the player and the second condition that is advantageous to the player
Variable winning device (5) that can be converted into a state and the variable table
Generate a special game state based on the stop result mode of the device
It is possible to use the variable winning device described above, which is advantageous for the player.
Control means that can be converted into two states (for example, the accessory control device 6
10), and the above variable display in a ball game machine having
The device consists of a plurality of turntables with identification information arranged in the circumferential direction.
Display member (variable display devices 434 to 436) and the rotating disk
Drive control means capable of driving and stopping the display member (for example,
Accessory control device 610, drive motor 460, rotation stop device
465-467) and the rotary disc display member, respectively.
Corresponding to, the predetermined position of the turntable display member to the player
Visible display part (variable display parts A, B, C) capable of visual display
And, the visible display section displays the visible display.
A variable light emission table is provided for a plurality of display modes corresponding to each section.
Displayable light emitting display means (display lamps 432a, 432)
b), wherein the rotary disc display member has a predetermined stop result mode
And the above-mentioned light emitting display means displays a predetermined display result.
Special display mode determination means (role
Object control device 610, determination means), and the above special display mode
Based on the judgment output from the judgment means
The state can be generated.

[Procedure Amendment 8]

[Document name to be amended] Statement

[Correction target item name] 0006

[Correction method] Change

[Correction content]

[0006]

According to the ball game machine of the present invention, the identification information
Having a plurality of rotary disc display members arranged in the circumferential direction,
Control the rotating disc display member so that it can be driven and stopped.
A variable display device of the mechanical type that plays a variable display game by
Since the game area is equipped with a device, the variable display game itself
It is new, and the player can
Play while watching the variable display performed by turning
be able to.

[Procedure Amendment 9]

[Document name to be amended] Statement

[Correction target item name] 0007

[Correction method] Change

[Correction content]

Further , in the present invention, the visual display unit is supported.
Equipped with a light emitting display means, and the identification information is simply predetermined
Only in the stop result mode of
However, as another additional condition, the light emitting display means is
Generate a special game state based on the result
As a result, different types of display formats are provided to the player.
The special game state is based on the combination result mode of the display game of
It will be generated and the expectation of special game occurrence will be more
It can be made even higher, making it a highly entertaining ball game machine.
It

[Procedure Amendment 10]

[Document name to be amended] Statement

[Correction target item name] 0008

[Correction method] Change

[Correction content]

[0008] Simply, the stop result state of the identification information of the variable display device
The display result mode of the light emitting display means
To generate a special game state based on the match
Therefore, for example, the number itself of identification information of the variable display device
At least the same as a variable display device with a large number of identification information.
To be able to obtain the probability value of the occurrence of a special gaming state
Can also. Therefore, the player can deal with the occurrence of the special game state.
You can get high expectations.

[Procedure Amendment 11]

[Document name to be amended] Statement

[Correction target item name] 0009

[Correction method] Change

[Correction content]

[0009]

BEST MODE FOR CARRYING OUT THE INVENTION [First Embodiment] FIG. 1 shows a configuration example of a front surface of a pachinko gaming machine according to a first embodiment to which the present invention is applied. On the front surface (shown in more detail in FIG. 2), a game ball 1 is provided with a hit ball launched by a hit ball launching device 20 driven by operation of a lower operation dial 20a.
A guide rail 3 for guiding the upper part of the game board 1 is provided, and a game area 2 is formed in a space surrounded by the guide rail 3 and the glass plate on the front surface of the game board 1. At the center of the game area 2, a variable display device 4 as an auxiliary game device having three variable display parts A, B, C as visible display parts , winning memory display parts 411e to 411h, etc. The lower part usually forms a part of the game area 2,
An attacker-type variable winning device 5 for converting into a winning area by the occurrence of a specific game mode on the variable display device 4 is installed.

[Procedure Amendment 12]

[Document name to be amended] Statement

[Correction target item name] 0054

[Correction method] Change

[Correction content]

A lamp board 432 is installed on the back side of the mechanism board 430 as shown in FIGS. 6 and 10. This is a lamp substrate 432 Ru are faced in surrounding frame 431a~431c of the mechanism plate 430, a light emitting display means
Green and red paired display lamps 432a (green), 4
32b (red) and a display lamp 432c for decoration are arranged, and as shown in FIG. 5, they reach the front side of the mechanism board 430 through the openings provided in the mechanism board 430, respectively.

[Procedure Amendment 13]

[Document name to be amended] Statement

[Correction target item name] 0055

[Correction method] Change

[Correction content]

On the back side of the lamp board 432, sensor boards 433 are installed at a predetermined interval. Sensor mounting hole 433a for mounting the sensor S _1, S _2, S ₃ to be described later to the sensor substrate 433, ‥‥ is provided.
In a state of penetrating in the front side of the sensor substrate 433 from the back side
Variable display devices 434 to 436 as rotary disk display members are rotatably installed. Variable display units 434 to 436
As shown in FIG. 10, it includes rotary shafts 434a to 436a rotatably supported by a mechanism board 430 and a base frame 440. A disk 434 as a variable display plate is provided at the tip of the rotary shafts 434a to 436a and near the tip.
b to 436b, the detection plates 434t to 436t, and the ratchet gears 434c to 436c are the rotation shafts 434a, respectively.
It is attached so as not to rotate relative to ~ 436a.
In addition, the rotary shaft 434 is provided inward of the ratchet gears 434c to 436c of the rotary shafts 434a to 436a.
Power transmission gears 434d to 436d, which are slidable and rotatable, are fitted to a to 436a. These power transmission gears 434d to 436d are connected to the rotary shafts 434a to 43
Coil springs 434e to 436e mounted on 6a
By being biased by the ratchet gears 434c to 436c in the direction described above, the ratchet gears 434c to 43
Snap ring 434h described later installed immediately after 6c
It is pressed against ~ 436h. Thereby, the disks 434b to 436b, the detection plates 434t to 436t, the ratchet gears 434c to 436c, and the rotary shaft 434a to.
The 436a always rotates integrally with the power transmission gears 434d to 436d, but as will be described later, the ratchet gear 43.
When the restraining force acts on 4c to 436c, only the power transmission gears 434d to 436d are discs 434b to 436d.
b, detection plates 434t to 436t, ratchet gear 434
c-436c and rotating shafts 434a-436a can be rotated independently. The detection plate 43
4t to 436t, the ratchet gears 434c to 436c, and the coil springs 434e to 436e are the rotation shaft 43.
Snap rings 434h mounted on 4a to 436a
The inward movement of the rotating shafts 434a to 436a is restricted by 436h and 434i to 436i, and washers 434 are respectively provided between the coil springs 434e to 436e and the snap rings 434i to 436i.
f to 436f and 434g to 436g are interposed.

[Procedure Amendment 14]

[Document name to be amended] Statement

[Correction target item name] 0056

[Correction method] Change

[Correction content]

A drive motor 460 for applying rotational power to the power transmission mechanisms 434d to 436d is installed on the back side of the base frame 440 as shown in FIGS. This drive motor 460 is an accessory control device described later.
610 and rotation stop devices 465 to 467, etc. and turntable table
Drives variable display units 434 to 436 as indicator members and
A drive control means for stopping is configured. A drive gear 461 fixed to the drive shaft of the drive motor 460 meshes with the power transmission gears 434d and 435d, and the drive gears 434d and 435d shown in FIGS.
As shown in FIG. 5, an intermediate gear 462, which is rotatably installed next to the drive gear 461 and is in mesh with the drive gear 461, meshes with the power transmission gear 434d. In this embodiment, the disk 434 is driven when the motor 460 is driven.
b and 435b are rotated clockwise through the power transmission gears 434d and 435d when viewed from the front, and the disk 436d is rotated counterclockwise through the power transmission gear 436d when viewed from the front. .

[Procedure Amendment 15]

[Document name to be amended] Statement

[Correction target item name] 0255

[Correction method] Change

[Correction content]

Further, an accessory control device (including drive control means) 610 is installed on the left side in the middle of the back surface of the back mechanism board 800, and a relay board 62 is provided on the back side of the game board 1 on the right side thereof .
0,630 are installed.

[Procedure Amendment 16]

[Document name to be amended] Statement

[Name of item to be corrected] 0416

[Correction method] Change

[Correction content]

In the above embodiment, the disk motor 460 is always stopped and the variable display portions A, B, and
Although it is operated only when the display of C is changed, it may be operated all the time. Also, variable display
Machine 434-436 is rotated by drive motor 460
The rotation stop devices 465 to 467 are used to stop the rotation.
However, the drive motor 460 is composed of a pulse motor.
Drive motor 460 to rotate and stop
You may. Also, a plurality of display modes can be variably emitted and displayed.
Green display lamp 432a and red display as light emitting display means
I used the lamp 432b. What kind of color is it?
However, it is also possible to change the display color to one type.
Lamps are turned on or off depending on the combination of multiple display modes.
It may be expressed.

[Procedure Amendment 17]

[Document name to be amended] Statement

[Name of item to be corrected] 0493

[Correction method] Change

[Correction content]

[0493]

According to the ball game machine of the present invention,
A plurality of rotary disc display members that are provided with different information in the circumferential direction
Have a controllable drive and stop mechanism
Variable display game by controlling, mechanical variable
Since the display device is provided in the game area,
The body is novel, and the player has the rotating disk display unit.
Game while visually recognizing the variable display performed by the rotation of the material
It can be performed. Further, in the present invention, the visible display unit
Correspondingly, it is equipped with light emitting display means, and only the identification information is available.
A special game state occurs only when it becomes a fixed stop result mode
As a further additional condition, the light emitting display means displays a predetermined display.
A special game state is generated based on the result mode.
This allows the player to display different display modes.
Special game state based on combination result mode of display game of species
Will be generated, and you can expect the special game to occur.
With a highly entertaining ball game machine that can be further enhanced
Become. Only the stop result mode of the identification information of the variable display device
In accordance with the combination with the stop result mode of the light emitting display means,
Based on the special game state
Therefore, for example, the number of identification information of the variable display device is small.
However, a special game similar to the variable display device with a large number of identification information
It is also possible to obtain the probability value of the technique state occurrence.
It For this reason, the player is more likely to have a special game state.
You can get a sense of expectation.

[Procedure 18]

[Document name to be amended] Statement

[Correction target item name] Explanation of code

[Correction method] Change

[Correction content]

[Explanation of reference numerals] 1 game board 2 game area 4 variable display device 5 variable winning device 432a, 432b display lamps (light emitting display means) 434, 435, 436 variable display device (rotary disk display member) 460 drive motor (drive control) Means) 465, 466, 467 rotation stop device (drive control means) 610 accessory control device (drive control means) A, B, C variable display section (visible display section)

Claims (1)

[Claims] 1. An external illegal action detecting means for detecting an illegal signal from an external illegal acting means for generating an illegal voltage in a detecting part necessary for a game, and the external illegal action by the external illegal action detecting means. A pachinko gaming machine provided with an operating unit necessary for a game to be stopped based on the detection of an illegal signal from the means to disable the game.