JPS5836573A - Pinball game machine - Google Patents

Abstract

(57) [Summary] This bulletin contains application data before electronic filing, so abstract data is not recorded.

Description

DETAILED DESCRIPTION OF THE INVENTION The present invention relates to a pachinko game machine, and more particularly to a new pachinko game machine with improved drive control of a variable winning ball device.

In general, pachinko gaming machines (hereinafter abbreviated as pachinko machines) that use pachinko balls to play games have become widespread and are popular among players as a convenient form of leisure. As is well known, pachinko machines have multiple safe holes and winning ball devices (yakumono, commonly known as tulips) on the game board, and when a player hits a pachinko ball into the game board, the probability of a pachinko ball forming is determined by If you win in the safe hole or Yakumono, a certain number of prize balls will be paid out. For the purpose of providing services to players, conventional Bachi 77 machines open a predetermined number of yakumonos when a ball hits a specific safe hole or winning area, or open a yakumono for a certain period of time. Was. For this reason, in the past, even if prize balls were awarded depending on the batted ball game state, a predetermined number of prize balls were only created based on the winning of a specific winning ball area, so players could collect 77 drumsticks. If you want to win a large amount of prizes by playing until you stop playing, you need excellent gaming skills and the patience to play continuously for a long time.

As a result, many of the players who won a large amount of prizes on a single pachinko machine until they were able to control the game were skilled players known as Bachiguro. However, in order to improve services for general players, the gaming hall provides opportunities for not only one specific player, but also many players to win a large amount of prizes, although the probability of appearance is relatively low. There is a request to give.

Therefore, 1. The purpose of the present invention is to change the variable winning ball device to a state advantageous to the player when the first and eighth predetermined conditions are met, and to change the state of the variable winning ball device to a state advantageous to the player, and to reach a predetermined game state 11 during that period. Based on this, we have developed a new winning ball device that can change the variable winning ball device to a state disadvantageous to the player after a certain period of time and then change the MK to a state advantageous to the player again after a certain period of time, thereby improving the service to the players. The aim is to provide 77 aircraft.

To summarize, this invention changes the display state of a variable display member when it is detected that a passing ball is in a specific area of a predetermined combination, and displays identification information when the variable display state is stopped. is in a predetermined display state, the variable winning ball device is changed to a state advantageous to the player for a relatively long fixed period of time, and during that time a predetermined game shape QK is displayed.
Based on this, the variable winning ball device is changed to a state disadvantageous to the player, and then again changed to a state advantageous to the player for a relatively long fixed period of time.

Hereinafter, specific embodiments of the present invention will be described with reference to the drawings.

FIG. 1 is a front view of a pachinko machine according to the -91 embodiment of the present invention. In the configuration, a safe hole 2m, gb, a plurality of yakumono (tulips) 821 to 8e, and an out ball entrance 4 are formed on the drumstick/puito game board l.

Approximately in the center of the game board l, as will be explained in detail with reference to FIGS. 4A to 6B below, a Tenjin prize opening, a variable display member, and a variable winning ball device are integrally constructed. An integrated device 40 is provided. In addition, at a position slightly below the approximate center of the game board l, there are a plurality of passage areas 8, which are an example of a specific area.
0m, 80b, and 5ec (described in detail in FIG. SA and FIG. 3B below) are formed.

Below the front frame 11 of the pachinko machine 10, an upper prize payout port 13, a batted ball standby gutter ls, a batted ball handle 14, a surplus prize ball payout port 15, and a prize ball tray 16 are arranged. Further, if necessary, the front frame 11 may be provided with a stop command switch that commands the variable display member to stop the variable display state.

FIG. 3 is an illustrative view of the back structure of the pachinko machine 10. In the figure, there are multiple paths on the back side of the game board l! ll
~zlS is formed. The route 21t, stg is the Tennin Shokuchi (43 shown in detail in the fourth figure and figure 4B described later).
It is the one that wins the prize and leads the friend ball downward. This route 211
A prize winning ball detection switch zB is provided between the winning ball and the winning ball zl to detect the winning ball entering the Tenjin prize opening 4z. The path its, gt+ is for guiding the balls that have won to Yakumo) 8a and Bb downward. The path 215 is the safe hole 2a, 2
This is to guide the winning balls into the winning ball processing device 23 to the winning ball processing device 23. As is conventionally well known, the prize winning ball processor zs intermittently drops winning balls one by one onto the winning ball and operates an actuating member connected to a prize payout mechanism (not shown) to collect one winning ball. A certain number of prizes are paid out for each top.

@8A8A and Figure 3B are passage area 3 as an example of a specific area.
FIG. 8A is a plan view thereof, and FIG. 3B is a longitudinal sectional view of one passage area. The plural passage areas 3mua, Sob, 8Qc formed on the game board 1 are formed by dividing a laterally long frame member 31 at regular intervals with partition plates sz. Each of the passage areas 801 to 80c is formed into a cavity through which one ball can pass in the vertical direction. Each passing area 303~30C
Passing ball detection switches 83a-
88c is formed. Passing ball detection switch 331~Sa
c, a microswitch is used, and the operating lever 881 inserted into the corresponding passage area is pushed by the passage ball.
When it is done・14A4-・1-SLB・-by P-Car-1
The device is configured to detect passing balls by applying one stirring pressure such that C≠−1=*−t−. In addition, if necessary,
A space 34 may be formed between the passage areas 80m and 30b and between 80b and 80c, where conditions for variable display of the variable display member described below are not determined.

In addition, in the illustration, as an example of a specific area, the ball is on the game board I.
K? E3 indicates a passing area that can be passed through, but as another example of a specific area, the winning hole where the ball that has passed through is guided to the back side of the game board 1 and collected as a winning prize is a safe hole or an enlarged hole. Of course, it may be.

4A to 4D are illustrative views of the integrated device 40, and especially, FIG. 4A shows its front view, and FIG. 4B shows the BBK
FA 5 is shown in longitudinal section, FIG. 4C is a rear view thereof, and FIG. 4B is a left side view. This integrated device 40 is
Big prize opening 41! It is constructed by integrally mounting the related opening/closing wings, a segment display 43 which is an example of a variable display member, and a drum-shaped winning ball device 50 which is an example of a variable winning ball device.

FIG. 5A shows an exploded perspective view of the mounting member 41, the big prize opening 4z, its associated members, and the segment display 43. Figure 5B shows an exploded perspective view of the drum-type winning ball device 500.

Next, referring to FIGS. 48 to 5B, the integrated device 40
The specific configuration will be explained. Integrated device number 0 is mounting member 4
Contains 1. There is a large prize opening 4z at the top of the mounting member 41.
is formed. The big prize opening 43 has a U-shaped protrusion 4gl so that it can receive one ball from the mounting member 41.
A hole 4!2 through which a ball can pass is formed in the mounting member 41, and a cover 428 is formed on the front surface of the protrusion 411. A round opening/closing mechanism 44 is provided below the grand prize opening 42 to enable a prize to be won based on a winning to the major prize opening 42. Opening/closing mechanism No. 4 is the mounting member 41
The opening/closing wing pieces 442 and 448 are rotatably provided on both left and right sides of the winning hole 441. The left and right opening/closing wing pieces 442 and 448 are formed to have a UFO shape, for example, when viewed from the front, and a shaft 444 is formed on the back surface of each wing. The shafts 444 of the opening/closing wing pieces 442 and 448 are formed in the mounting member 41 and have round shaft holes 4, respectively.
11. As a result, the opening and closing wing pieces 448, 44
8 is rotatably supported. Winning opening 44 of mounting member 41
A long hole 4tg is bored in the vertical direction on both the left and right sides of the hole 1. L-shaped members 445 are attached to the back surface of the attachment member 41 at positions slightly above these two holes 412, respectively. A rotating crank 446 including two claw-like portions is supported by a shaft 447 on the L-shaped member 445 . Each claw-like portion of the rotating club/rear 448 is inserted into the hole 412 and is secured to the opening/closing wing piece 442 .

A hook 449 connected to a plunger of a lunoid 448 is engaged with a portion of the rotating lever 446 opposite to the claw-like portion. As a result, the rotary crank 446 rotates due to the energization or de-energization of the lunoid 448, and the opening/closing wing piece 44
Rotate 2,443.

A segment display 43 is mounted approximately at the center of the mounting member 41. A beading decorative plate 45 is attached to the upper position of the segment display 48. The ball gathering decorative plate 45 is formed in an arc shape, and cutout portions 451 and 452 through which the balls can pass are formed in a part thereof. As a result, the ball gathering decorative plate 45 collects the falling balls through the notches 451, 451 to the drum engraving prize ball device 50, which will be described later, and also functions as a decorative frame for the segment display 48. A relatively large opening 414 is formed in the mounting member 41 at a position below the beading decorative plate 45 . A winning guide plate 46 is provided on the front side of the opening 414.

A drum-shaped winning ball device 50, which is an example of a variable winning ball device, is provided on the back side of the opening 414.

The drum-shaped winning ball device 50 has the opening 4 in the mounting plate 51.
An opening 511 of approximately the same size as 14 is bored, and a semi-cylindrical guide plate S! is formed on the back side of the opening 511 when viewed from the side! is formed to be long in the lateral direction of the opening 611. An elongated notch 521 is formed in the lower part of the guide plate 5z so that the ball can pass through. L-shaped members 5st and ssg for supporting the rotating ball bearing member 54 are fixed to the left and right sides sandwiching the opening all. The rotating ball bearing member 54 is
Disks 542 and 548 are fixed to the left and right sides of the semi-cylindrical member 641, and the disk 54! , hole No. 54 is drilled in the center of 54B,
A protrusion 545 is formed on the outside of the disc 543. This protrusion 545 is formed with a screw hole into which a link 574, which will be described later, is screwed.

The rotary ball bearing member 54 is exposed through the opening 511 by a length that is smaller than the radius of the disks 542, 543, so that the disks 542, 548 are connected to the L-shaped support member 581.
It is supported by a shaft 583°534 formed in 58g. A motor mounting plate 55 is screwed onto the rear surface of the mounting plate 51 at a position above the L-shaped support member 582. Motor mounting plate 5
A motor 56 is screwed onto one side of 5. motor 56
The rotating shaft 661 is connected to the hole 55 bored in the motor mounting plate s5.
1 and protrudes from the other surface of the motor mounting plate 55. A cam 57 is fixed to this rotating shaft 561. A thick part 571 of the cam 57 is formed on the circumferential surface of the cam 570, and is located at the other side of the wall thickness i (111 on the left in FIG. A semicircular notch 572 is formed at the position. Also, cam 5
A protrusion 5 is provided on the side surface at the same angular position as the notch 5 of γ.
78 is formed. This protrusion 578 has a link 574.
One end of the is fitted. The other end of the link 574 is screwed onto the protrusion 545 of the rotating ball bearing member 54. As a result, the rotational force of the motor 56 causes the cam 57 to rotate half a turn (18
0° rotation), the rotational force of the cam 570 is transferred to the link 57.
4 to the rotating ball receiving member 54, and the rotating ball receiving member 54 is rotated by approximately 45 degrees.

Two microswitches 58a and 58 are used to determine the stop position of the rotating ball bearing member 54 by the rotation of the cam 57.
b are arranged in the thickness direction of the cam 57. This microswitch 58!1 is used to detect that the notch 571, that is, the rotary ball receiving member 64 has been rotated to a ball receiving state (open state). The microswitch 58b is used to detect that the notch 57B, that is, the rotating ball receiving member 54 has been rotated to the state II (closed state) in which the ball cannot be received. Note that, if necessary, the rotating ball receiving member 54 is rotated so as to be able to receive the ball, and the opening 51 is opened.
In order to let the player know that 1 is open, K provides a plurality of through holes 522 in the guide plate 53, and provides a light emitting diode or lamp 591 on the back surface of the hole 522, and a light emitting diode 69.
A cover 592 may be provided to cover the periphery of 1.

Figure 6B is a perspective view of the integrated device 40 in different operating states. In particular, Figure 6A is a perspective view of the integrated device 40 in different operating states.
It is shown in a state in which the opening 511 is closed by the semi-cylindrical member 541 of the rotating ball receiving member 54, which allows the player to enter the winning opening 441 by rotating it in a V-shape.

FIG. 6B shows that the prize opening 441 is closed by keeping the opening/closing wing pieces 441, 443 in a substantially horizontal state, and the semi-cylindrical member 541 is closed.
The state is shown in which the opening 511 is opened by rotating 4r and the ball can be received.

By the way, in the embodiment shown in FIGS. 4A to 5B, a case is shown in which an F-ram type winning ball device 50 is used as an example of a variable winning ball device, but instead of this, a conventionally known tulip-like spider ball device is used. Alternatively, the opening/closing plate may be selectively rotatably provided.

FIG. 7 is a game control circuit diagram of an embodiment of the present invention.

In the configuration, the game control circuit 60, the passing ball detection switches 83a to 33C1, the first condition detector R61, the second
The condition detection means 62, the 80th condition detection means 68, the variable display control circuit 64, the drive control means 65, the passing ball detection state display circuit 66, the opening/closing mechanism drive circuit 67, and the output state of the passing ball detection switches Sea to 38c It is configured to include seven lip props 68a to 68c for storing and holding data.

Prior to explaining the operation of this embodiment, the conditions for bringing the drum-shaped winning ball assembly f150 into a state advantageous to the player, that is, a state in which it is easy for the ball to win a prize in this embodiment, will be explained. In this embodiment, the first condition is that there are passing balls in the passing areas 801 to 80c in a predetermined order. Then, based on the first condition, the display state of the segment display 43 is variably displayed. The third condition is that when the variable display of the segment display 54B stops, the identification information displayed at that time is predetermined identification information (9, for example, Te). If the second condition is not met after the first condition is detected, the drum-shaped winning ball device 50 is set in a win-enabled state for a certain period of time.

On the other hand, when the first condition is detected and the third condition is also reached, the drum-shaped winning ball device 50 is kept in a win-enabled state for a relatively long fixed period of time, and during that time, the drum-shaped winning ball device 50 is set to be in a win-enabled state for a relatively long period of time, and during that time, nine Based on this, the drum-shaped winning ball device 50 is repeatedly controlled to be in a winning state for a relatively long fixed period of time. That is, in this embodiment, once the first condition and the second condition are met, it is only possible to succeed if the third condition is satisfied during the period when the drum-shaped winning ball device SO is in the winning-enabled state. , the drum-shaped winning ball device 50 can be made into a winning-enabled state by blocking the replay. Here, in the following description, the third condition is detected based on the presence of a predetermined number (one or more) of passing balls in any of the passing areas Box to 30c.

Next, with reference to FIGS. 1 to 7, the operation of this embodiment will be explained together with the specific circuit configuration of FIG. 7. The player puts the ball borrowed from the ball rental machine into the ball waiting gutter 18, rotates the ball hitting handle 14 to adjust the strength of the ball, and then issues a command to hit the ball. Accordingly, a ball hitting motor (not shown) is rotated and a ball hitting hammer (not shown) is rotated intermittently.
Therefore, balls are hit one by one onto the game board l. At this time, the ball is in safe hole 2a, 2b or Yakumono 38~3C.
When a prize is won in any of the above, a predetermined number of prizes are paid out for each winning prize, in the same manner as in conventional pachinko machines.

On the other hand, when the ball passes through any of the passing areas Box to 80c, the corresponding passing ball detection switch 88m=88c
detects a passing ball. For example, the ball passes through the area 80.
When the ball passes through ss, the passing ball detection switch 331 detects it and sets the clip 70 knob 68m. AND that this set output is included in the first condition detection means 61
One of the AND gates 671 included in the opening/closing mechanism drive circuit 67 as well as being given as one input of the gate 611
Furthermore, it is applied to the anode end of a light emitting diode 661 included in the passing ball detection status display circuit 66. The first condition detection means 61 detects the passage area 80
a to 30c in a predetermined order, for example Sea, S
It detects six or nine passing balls in the order of ob and 80c. At this time, the pulse generating circuit 660 intermittently generates pulses at a constant period and supplies them to the AND gate 664.However, since the AND dart 664 is not supplied with the set output of the 7 lip-flop 6160,
AND gate 664 remains disabled and does not derive the output pulse of ζ pulse generation circuit 660. That is, AND gate 664 makes its output low level.

Therefore, the transistor 665 becomes conductive, causing the light emitting diode 661 to continuously emit light. At this time, the transistors 666 and 667 are also conductive, but since the flip-flops fs8b and fs8c have been reset, the light emitting diodes 662 and 663 do not emit light.

After that, the order determined as the first condition among the passage areas 30a to 30c, that is, 80a.

If there is a passing ball in an order other than the order of 30b and 80c, the condition is other than the condition for variably displaying the segment display 48. In this case, eight passage areas 80a~
30c, each of the seven lipfrogs 68a, 68b, and 68c is set if there is at least one passing ball in each, although not in the predetermined order defined as the first condition.

In response, the AND) 671 derives a high level and activates the timer 672. Timer 672 provides a drive command signal to solenoid drive circuit 673 for a certain period of time (for example, 10 seconds). Accordingly, the solenoid drive circuit 6
73 energizes the solenoid 448 for a certain period of time set by the timer 672 to reverse the opening and closing blades 442 and 448.
Rotate it in a "C" shape. Therefore, based on the fact that there is a passing ball in each of the eight passing areas 80a to 30C as a condition other than the first condition set so that the segment display 48 can be displayed variably, the ball is awarded a prize. Mouth 4
It is possible to win 41. Further, the high level of the AND gate 6 full output is passed through the OR gate 676 to the delay circuit 67.
given to 4. Therefore, after a certain period of time delay from when the AND gate 671 derives the high level, the delay circuit 671
74 derives the high level, and the clip prop 68a~
68c is reset.

In addition, when the hit ball wins into the big winning hole 42, the winning ball is detected by the winning ball detection switch 2B. In response, the timer 675 activates the solenoid drive circuit 6 for a certain period of time (e.g., 8 seconds) that is shorter than the certain period of the timer 67z.
Give a drive command signal to Te3. As a result, the opening and closing wing pieces 442, 448 are rotated in an inverted "C" shape for a relatively short period of time based on the winning in the big winning opening 42, and the ball is won in the winning opening 441. make it possible to

Next, a plurality of passage areas 30a to 8, which is a feature of the present invention,
The operation number when there are passing balls in a predetermined order at 0c will be explained. In this case, multiple passing ball inspection 'IHX Itsuchi 33a
~33c detects passing balls in the order of 3'8a, 33b, and 38c. For this reason, each passing ball detection switch 33a,
Flip-prop 68a corresponding to 33b, 83c
, 68b, and 68c are sequentially set with a delay of the time interval at which passing balls occur. First, flip-flop 6B!
Assume that the 7 lip 70 knob 68b is set after I is set. In this case, AND gate 61
1 is activated in advance by the set output of the 7 lip 70 tube 68m, so when the differentiating circuit 6Ml derives a differential pulse in response to the set output of the clip prop 68b, the AND gate 611 derives the differential pulse and
Set the lip flop 612. The set output of this tritub flop 612 activates the AND gate 614. Thereafter, when the tritubular flop 68c is set, the differentiating circuit 616 derives a differential pulse.

In response, AND gate 614 derives the differential pulse to set 7 lip flop 616 and provide an operation command signal to 1 timer 617.

Also, the output of the AND gate 814 is the prepfrog 61! i is reset and OR goo) 676
is applied to delay circuit 674 via.

The set output of the clip prop 61B is given to the variable display control circuit 64 as a first condition detection output. Also, the set output of 7rip 7a 616 enables AND gate 664 and disables AND gate 6t1. Accordingly, AND gate 664 connects pulse generating circuit 6
60 output pulses are applied to transistors 665-667 to cause light-emitting diodes 661-668 to blink.

Then, the delay circuit 674 is opened for a certain period of time, and the delay circuit 674 is opened for a certain period of time.
0g 68*-68c is reset.

The variable display control circuit 64 sequentially variably displays the display state of the segment display 48 in a predetermined order in accordance with the first condition detection output. For example, if the segment display 43 includes a "day"-shaped segment and can display O-9, the variable display control circuit 64 will
coded signals are generated sequentially. Specifically, the variable display control circuit 64 includes a pulse generation circuit that generates clock pulses, and a pulse generation circuit that sequentially counts clock pulses and calculates the clock pulses from θ to 9.
a ring counter that cyclically counts @ and a decoder dry/( that selectively drives each segment of the segment display 48 based on the count value of S/GUCAU/RI. 43 starts variable display and after death, a certain period of time (for example, 10 seconds) set by the timer 617 has elapsed, the timer 617 resets the 7 lip 70 knob 616. This reset output is sent to the second condition detection means 62. In response, the monostable multi 621 gives a detection command signal to the predetermined display state detection circuit 622 after a certain time delay.
Based on the output of 64, segment indicator 48 then
It is detected whether the identification information displayed is in a predetermined display state determined as a second condition (for example, a mistake in displaying 7), and the detection output of 7 or other than 7 is reset. Continuously derive up to .

Now, assuming that a display state other than 7 is detected, a high level signal is derived from the output terminal other than 7 and is applied to the monostable multi-6z4 via the OR gate 628. At the same time, the high level derived from the output terminals other than 7 is delayed by a certain period of time in the delay circuit 615, and is passed through the OR gate 626 to the predetermined display state detection circuit 6.
Resets the detection output state of 2B. monostable multi 6
No. 1, the motor 56 rotates and drives the micro switch 5.
A high level is derived for a certain period of time required for neither of 8 Kaede and 58b to detect the notches 571 and 5 Te2. The output of this monostable multi-6g4 is the drive control means -5I
It is applied as a pace input to transistor 6Sz via OR gate 651 included in 7hIK. At this point, transistor 658 becomes conductive, supplying power to motor 58 and driving motor 56 to rotate. When the motor 56 rotates, the cam 57 rotates, so the micro switch 5
8m is closed, and the microswitch 58b continues to be closed. Therefore, the TRA/DISTERO 52 remains conductive during the closure of the microswitches 58g, 58b. Then, when the cam 57 rotates 180 degrees,
The microswitch 58b detects the notch 572 and opens it. As a result, transistor 652 becomes non-conductive and rotation of motor 56 is stopped. In this state, the rotating ball bearing member 54 opens the upper half of the opening 414,
Accepts the ball. Further, the high level of the output of monostable multiplier No. 68 is given to a timer 654 via an OR gate 653. The timer 654 operates for a relatively long fixed period of time after the high level is given, for example, a fixed period of time (for example, 30 seconds) in which the drum-shaped winning ball device 5o is brought into a winning state and maintained in that state (for example, 30 seconds), and a rotating ball holder. A high-level signal is derived for the sum of the time required to rotate the member 54 by 45 inches. When the output of the timer 654 becomes low level, the falling differentiation circuit 6ss derives a differential pulse to generate a monostable multi-channel signal. 658. In response, the monostable multi 656 derives a high level for a certain period of time required for the notch s7z of the cam 57 to be no longer detected by the microswitch 58bK, and outputs the pace input of the transistor 6Sz via the OR gate 651. As a result, the transistor 6st supplies power to the motor 66 and drives it to rotate.When the cam 57 rotates half a rotation, the microswitch 58 detects the notch 571 and opens it, turning the transistor 6sg into a Make it conductive.

As a result, the rotation wM&l5Kt+ moves for 4 seconds to close the opening Sll and prevent the ball from being received. In this way, if the display state of the segment display 48 is other than the predetermined display state, the rotating ball receiving member 54 will be able to hold the ball for a relatively long period of time (for example, 80 seconds) only once. Make it acceptable.

On the other hand, when the segment display 43 reaches a predetermined display state K (that is, a good display state), the predetermined display state detection circuit 622 derives a high level from the detection output terminal of 7, and outputs the high level signal through the OR gate 623. ANDG)1$31 included in the third condition detection means 63 as well as the stable multi 62.4. Accordingly, monostable multi6
24 derives a high level for a certain period of time. In response to this, the drive control means 65 rotates the rotary ball receiver member 54 by 45'' in the same manner as the above-mentioned operation, so that the ball can be hit for a relatively long fixed period of time.During this period When any of the passing ball detection switches 33m to 88C detects a passing ball, the OR gate 683 derives a high level and supplies it to the AND gate 631.In response, the AND gate 631 sets the tritub flop 633.This set The output is given to one input of the AND gate 684.Then, when the monostable multi 656 derives a high level and commands the rotating ball bearing member 54 to close, the timer 635 is activated. After a certain period of time after the rotating ball bearing member S4 closes the opening 51), a high level is derived and given to the AND Gutoro 34. Accordingly, A
ND gate 684 derives a high level to create monostable multi 686. The saddle setting multi 636 outputs a high level for a certain period of time and issues a drive command to the drive control means 65 again. As a result, the rotating ball receiving member 54 rotates again in the same way as the above-mentioned operation, and the ball can be hit into a prize.

9. The output of the timer 685 is differentiated by a differentiating circuit 637 and sent to the flip-flop 633 via an OR gate 638.
to be reset.

Thereafter, in the same manner, during the period in which the rotating ball receiving member 54 opens the opening 511 to allow balls to be won, if a ball passes through any of the passing areas 30@ to 30c, the rotating ball receiving member 54 is repeatedly opened and closed. If the ball does not pass through any of the passing areas 80i to 80c during the winning period of the rotating ball receiving member 54, the flip 70 knob 683 is reset to tt, so the time-up output of the tie 163s AN according to
The D gate 639 derives a high level and the slow grinding circuit 680
Activate. The output of the slow grinding circuit 6150 resets the output of the predetermined display line detection circuit 632 via the OR gate 626.

By the way, in the above embodiment, the eighth condition is that the ball passes through any one of the passing areas 80a, 80b, and 80c, and the rotating ball receiving member 54 is rotated again based on the ninth condition to win a prize. Although the case where it is possible has been described, it may be performed based on various other conditions. For example, passing area 3Qa
If the eighth condition is the case where there are a predetermined plurality of nine balls passing through ~80c, the count value of the color/returns to a constant number by throwing sand at the cow which counts the output of the OR gate 632. The configuration may be such that it detects the fact that it has occurred, and provides the detection output to the AND controller 681. In addition, the passage area 80a~
Instead of BOc, the eighth condition may be defined as a case where the number of winning balls in a winning area such as a safe hole or a Yakumono reaches a predetermined number (one or more fixed numbers). In that case,
The output of the winning ball detection switch is used instead of the passing ball detection switches 38a to 88c.

Although the game control circuit 60 described above is constructed from a hardware circuit, it is not limited to a hardware circuit as long as it controls the game so as to achieve the technical idea of the present invention.
This may be performed by software processing based on a program that uses a microprocessor to perform the operations shown in FIG.

As described above, according to the present invention, the display state of the variable display member is changed based on the first condition, and the variable winning ball is changed based on the second condition in which the variable display member displays predetermined identification information. Since the device is set in the player's advantageous state and the variable winning ball device is repeated again to the player's advantageous state 11 based on the predetermined gaming state during that period, the first condition and the third condition are If the above conditions are satisfied, the variable winning ball device can be repeatedly put in a state advantageous to the player as long as the eighth condition continues, allowing the player to win many prizes in a short period of time, and improving the service. Unique effects such as being able to achieve a certain goal are produced. Furthermore, according to this invention, not only a specific player called Pachipu-P, but also general players who are not skilled in gaming techniques are given the opportunity to win a large amount of prizes. It also has the effect of increasing interest. Furthermore, according to the present invention, the condition that makes the variable prize winning ball device advantageous to the player is repeated as long as the third condition continues after the first condition and the second condition are satisfied. For the players, it is enough to play the game enthusiastically to satisfy the eighth condition after the first condition and the second condition are satisfied, and it is easy to win many prizes. In addition, since it gives game hall managers the opportunity to win a large amount of prizes based on three conditions, it also has the effect of preventing them from incurring more losses than expected.

[Brief explanation of the drawing]

FIG. 1 is a front view of a pachinko game machine according to an embodiment of the present invention. FIG. 3 is an illustrative view showing the back structure of the pachinko machine. FIGS. 3A and 3B are detailed illustrations of specific areas. 4A-4D are detailed illustrations of the integrated device 40. FIG. 5A shows an exploded perspective view of the Tenjin prize opening, the mounting member, and the segment display, and FIG. 5B shows an exploded perspective view of the drum-shaped tribute ball device. 6A and 6B show perspective views of the integrated device 40 in different operating states. FIG. 7 is a game control circuit diagram of an embodiment of the present invention. In the figure, IO is a pachinko machine, 80a to 80C are passing areas, 40 is an integrated device, 4g is a Tennin prize mouth, and 48 is a segment display. , 44 is an opening/closing mechanism, 50 is a drum-shaped winning ball device, 54 is a rotating ball receiving member, 60 is a game control circuit, 61 is a first condition detection means, 68 is a second condition detection means, 63
64 is a variable display control circuit (variable display control means), 65 is a drive control means, 66 is a passing ball detection state display circuit, and 67 is an opening/closing mechanism drive circuit. JA diagram, zbm 4B area 6B diagram

Claims (8)

[Claims] (1) In a pachinko game machine that includes a game board and plays a ball hitting game by hitting pachinko balls into the game board, a plurality of specific areas provided on the game board and through which pachinko balls can pass, corresponding to each of the specific areas. a plurality of passing ball detecting means for detecting the passing of pachinko balls, and a first condition detecting means for detecting that passing balls are present in a predetermined combination of specific areas based on the respective passing ball detecting means. , provided on the game board, and transmitting multiple types of identification information electrically.
and a variable display member that sequentially displays a variable display; a variable prize winning device that is provided on the game board and that can freely change between a first state that is advantageous to the player and a second state that is disadvantageous to the player; The condition detection means detects a predetermined combination of balls passing into a specific area, and based on this, sequentially varies the identification information displayed on the variable display member, and stops the variable display in response to a stop command signal. variable display control means; third condition detection means for detecting that the variable display member is displaying predetermined identification information when the variable display state of the variable display member is stopped; output from the third condition detection means; and when the variable winning ball device is in the first state, a third condition detecting means detects that a predetermined gaming state has been entered, and the variable winning ball device detects the variable winning ball based on the output of the second condition detecting means. The ball device is brought into the first state for a relatively long fixed period of time, and is brought into the second state after a fixed period of time, and the variable winning ball device is set again for a relatively long fixed period of time in accordance with the output of the third condition detecting means. 1. A pachinko game machine comprising a drive control means for controlling the drive so that the state is set to 1. (2) The pachinko gaming machine according to claim (1), wherein the first condition detection means is characterized by a condition in which a ball passes through each specific area in a predetermined order among the plurality of specific areas. . (3) The pachinko game machine according to claim 1, wherein the first item (4) detecting means has a Kujo appearance with passing balls in all of the plurality of specific areas. (4) The third condition detection means detects that the predetermined gaming state is reached based on the fact that a predetermined number of balls have passed through any of the plurality of specific areas. II
! A pachinko gaming machine according to claim (1). (5) Claim II characterized in that the third condition detection means enters the predetermined gaming state based on a predetermined number of winning balls that have entered the variable winning ball device.
94 The pachinko game machine described in paragraph (1). (6) The third condition detecting means enters the predetermined gaming state based on the fact that there are nine winning balls that have entered a specific area of the variable winning ball device. ! 1. The pachinko game machine described in paragraph (1). (7) The gaming board includes a passing area in which one pachinko ball can pass through or a prize can be won, in addition to the specific area, and the third condition detecting means detects when a pachinko ball passes through the passing area. The pachinko gaming machine according to claim 1, wherein the pachinko gaming machine enters the predetermined gaming state based on the above. (8) In a pachinko game machine that includes a game board and plays a ball hitting game by hitting pachinko balls into the game board, a plurality of specific areas provided on the game board and through which pachinko balls can pass, corresponding to each of the specific areas. a plurality of passing ball detecting means for detecting the passing of pachinko balls; a condition detecting means, a variable display member provided on the game board that electrically and sequentially variably displays a plurality of types of identification information, a variable display member provided on the game board that detects a first state and game advantageous to the player; A town weirdo award ball device that can freely change to a second state that is disadvantageous to a player; variable display control means for sequentially varying displayed identification information and stopping the variable display in response to a stop command signal; when the variable display state of the variable display member stops, the variable display member displays predetermined identification information; a third condition detecting means for detecting that a predetermined gaming state is entered when the variable winning ball device is in the first state and after the output of the third condition detecting means; condition detecting means, the number of outputs of the third condition detecting means is counted, and each time there is an output of the third condition detecting means, the variable winning ball device is repeated for a relatively long fixed period of time to obtain the shape 11 of jgl.
The variable winning ball device is kept in the first state for a relatively long fixed period of time based on the output of the third condition detection means and the third condition detection means. Then, after a certain period of time, the variable winning ball device is set to a third state, and the variable winning ball device is set to a relatively long constant state again depending on whether the output of the third condition detecting means is zero and the counting means has not counted the predetermined number of times. A nine pachinko game machine comprising a drive control means for controlling the drive so as to be in a first state for only a certain amount of time.