JPH0225420Y2 - - Google Patents

Description

[Detailed description of the invention] This invention relates to a ball disposer for pachinko machines, in which balls are allowed to flow back and forth in a step-like manner between the rear and front surfaces of a mounting plate, and are then flowed into each gutter of the ball flow gutter in the bottom row. It is designed to flow out from two or more outlet ports in different directions. To be more specific, the ball a 2 is received on the front surface of the mounting plate 1, and the ball a ₂ is flown out from the rear surface of the mounting plate. A guide gutter 22 for inflow is provided, and a distribution apex 12 is provided on the rear surface of the mounting plate 1 to match the center of the guide gutter 22.
A first row 13 of ball flow gutter 11 is provided which has a slope in the front direction of the mounting plate 1, and has a distribution top portion 24 on the front surface of the mounting plate 1 that matches the center of each gutter of the ball flow gutter 11. , and a second row 25 of ball flow gutter 23 inclined toward the rear surface of the mounting plate 1 is provided, and the rear surface of the mounting plate 1 has a distribution top portion 15 that coincides with the center of each gutter of the ball flow gutter 23, and A third row 16 of ball flow gutter 14 is provided which is inclined in the front direction of the mounting plate 1, and the ball flow gutter 14 is further provided on the front surface of the mounting plate 1.
A bottom row 28 of ball flow gutter 26 having a distribution apex 27 that coincides with the center of each gutter except for both ends of the ball flow gutter 26 is provided, and each of the ball flow gutter 26 in the bottom row has two or more balls flowing in different directions. It is characterized by having outflow ports 17 and 18, and its purpose is to:
Several ball channels are installed in the first to last rows on the rear and front surfaces of the mounting plate, and the balls that enter the upper row are distributed to either the left or right by the distribution top of the ball channel in the lower row. In addition to making it impossible to predict which gutter of the ball flow gutter in the bottom row the ball will flow through, the safe ball that changes from the hit ball in each gutter of the flow gutter in the bottom row also moves in a direction advantageous to the player, or The purpose is to increase the interest of the game by letting it flow in any direction that is not particularly advantageous.

An embodiment of the present invention will be described with reference to the accompanying drawings.

1 in the figure is a mounting plate that is fixed to the front of the ball rolling plate of a pachinko machine.
A socket 2 for guiding the captured hit ball _a1 to the back side is provided, and a guide gutter 3 for guiding the hit ball _a1 entering the socket 2 diagonally downward is provided on the back side. Also, the mounting plate 1 just below the socket 2
A half-moon-shaped rotary plate 5 fixed to the front end of a reversible shaft 4 passing in the front-rear direction is provided on the front surface of the
As shown in the figure, it is opposed to both sides of the lower part of the ball socket 2, and by rotating the rotating plate 5 by about 45 degrees, one side is displaced to the immediate lower part of the ball socket 2 as shown in FIG. A pair of eight-shaped baffle plates 6, 6 are protruded downward from around the level of the reversible shaft 4, and a space larger than the diameter of the ball is provided between the plate and the mounting plate 1 below the vicinity of the reversible shaft 4. Fix the face plate 21.

Between the baffle plates 6 and 6 and below one of the baffle plates 6, there are gaps 7 and 8 through which the balls pass, and the rotating plate 5
When rotated to the phase shown in the figure, the gaps 7 and 8 act as ball sockets, allowing the ball a ₂ that flies in from the side to enter between the front surface of the rotary plate 5 and the inner surface of the front plate 21.

The mounting plate 1 has a shallow recess 9 in which the rotating plate 5 rotates.
A jetty 10 that does not protrude to the front is provided below the reversible shaft 4 around the reversible shaft 4, and the front plate 21 has a ball a ₂ that flows forward from the lower part of the jetty 10, as is clear in FIG. A roughly V-shaped guide gutter 22 is opened on the front side of the mounting plate 1 and is tilted toward the back side of the mounting plate 1.
Distribution top part 1 that distributes a ₂ unspecified to either the left or right
A first row 13 consisting of two parallel ball flow gutter 11 is provided, and these ball flow gutter 11 are attached to the mounting plate 1.
The opening is inclined toward the front side. On the front surface of the mounting plate 1, there is provided a second row 25 consisting of three parallel ball channels 23, each of which has a distribution top 24 corresponding to the widthwise center of each channel of the ball channels 11.
is opened at an angle toward the back of the mounting plate 1, and the mounting plate 1
On the back side of the ball flowing gutter 23, there is provided a third row 16 consisting of four ball flowing gutter 14 arranged in parallel with the distribution apex 15 corresponding to the center of each gutter in the left and right direction. From the three parallel ball flow gutter 26 which has an inclined opening in the front direction of the mounting plate 1, and further has a distribution top part 27 corresponding to the widthwise center of the two ball flow gutter 14 excluding both ends on the front surface of the mounting plate 1. A lowermost row (fourth row) 28 is provided, and each gutter of the ball flow gutter 26 is inclined toward the front surface of the mounting plate 1.

A first outlet 17 is provided in the ball flow gutter 26 between the left and right distribution tops 27 of the final row 28 to allow the hit balls _A2 to escape backward, and the hit balls _A2 are sent to the left and right ball flow gutter 26. Second outlet ports 18, 18 for escaping downward
form.

The hit balls a ₂ flowing through the ball flow gutter 14 at the left end and right end of the third row 16 are guided to either the second outlet 18 or 18 by the guide pieces 20 directly below each of them.

On the back side of the mounting plate 1, one end is supported by a shaft 31 and protrudes into the lower end opening of the guide trough 3 as shown in FIG. 3, or the guide trough 3 is tilted downward as shown in FIG.
A movable magnet 34 is attached to the other end of the lever 32 across the shaft 31, and a fourth swing lever 32 is mounted on the back surface of the mounting plate 1. A fixed magnet 33 is attached to overlap the movable magnet 34 on the rear side when the magnet is swung to the position shown in the figure. Movable magnet 3
4 and the fixed magnet 33 have the same magnetic poles to provide repulsion, and when the swing lever 32 swings into the position shown in FIG. The contact is made from the clockwise direction and no further rotation is possible in the counterclockwise direction in the figure.

On the rear side of the first outlet 17, a guide frame 35 is provided on the back surface of the mounting plate 1 as shown in FIG. Move the sensing lever 37 to the guide frame 3
5, and a connecting rod 39 is pivotally connected to the other end of the sensing lever 37 across the shaft 38. Also, axis 3
The upper end of the connecting rod 39 is connected by a shaft 40 to a lever-shaped stopper 42 fixed to the rear end of the reversible shaft 4 in the upper part of the reversible shaft 4. Stoppa 42
When the movable magnet 34 of the swing lever 32 overlaps the rear side of the fixed magnet 33 in the attitude shown in FIG. 4, a stopper surface 44 is formed that suppresses the rebound movement of the movable magnet 33 as shown in FIG. 3. . 4
3 is a weight.

To explain the operation of this embodiment, when the baffle plates 6, 6 of the rotary plate 5 are at a rotation angle such that they are located on both sides of the lower part of the socket 2 as shown in FIG.
When the a ₂ is being repelled, the stopper 42 fixed to the reversible shaft 4 on the back side of the mounting plate 1 moves the weight 43 and the stopper surface 44 upward as shown in FIG. is movable magnet 3
4 and the fixed magnet 33, one end protrudes into the lower end opening of the guide trough 3 as described above.
Also, since the connecting rod 39 can pull up the shaft 40, the safe ball weight sensing lever 37 connects the ball contact portion to the outlet 3.
6 Matches the bottom surface.

At this time, when there is a ball _a1 captured by the socket 2, one end of the swinging lever 32 protruding from the lower end of the guide trough 3 on the back side of the mounting plate 1 as shown in the figure is pushed, and as shown in FIG. This causes the movable magnet 34 to overlap the fixed magnet 33. At the same time, a rotating plate 5 and a stopper 4 are fixed to the reversible shaft 4.
2 rotate together, and the stopper surface 44 of the stopper 42
Since the swinging lever 32 is pressed down as shown in FIG.
3 overlaps while repelling each other. The hit ball _a1 becomes a safe ball and flows away from the outlet 3a. Further, when the shaft 40 is moved from the upper part shown in FIG. 3 to the lower part shown in FIG.
Flip up the tip of 7 to the rear and lower part of the first outlet 17 as shown in the figure. On the other hand, the rotary plate 5, which rotates about 45 degrees on the front surface of the mounting plate 1 together with the stopper 42, is spaced at intervals of 7 and 8.
are displaced to both sides below the socket 2 (Fig. 2).

In this state, if ball a ₂ enters from interval 7 or 8,
This rolls and moves to the guide gutter 22 of the front plate 21,
The distribution top 12 distributes the balls to either the left or right side of the ball flow gutter 11 in the first row and rolls, and the distribution top 24 of the second row 25 distributes the balls and rolls to either of the ball flow gutter 23. Hereinafter, the distribution top 1
5 and 27, the balls roll to either the third row 16 or the bottom row 28, and finally flow out to either the first outlet 17 or the second outlet 18. Of these, the hit ball a ₂ that luckily rolled into the first outlet 17 rolled onto one end of the safe ball weight sensing lever 37, swung the lever 37 as shown in Fig. 3, and flowed out from the outlet 36. do. When the lever 37 swings, the connecting rod 39 is moved by the shaft 40 to the stopper 4.
2 as shown in Fig. 3 to release the swinging lever 32 held by the stopper surface 44.
The movable magnet 34 is also the fixed magnet 33 at the same time.
It is repelled by. Therefore, one end of the swing lever 32 is moved again to the lower end of the guide trough 3 as shown in FIG. On the other hand, along with the displacement of the stopper 42 as shown in FIG.
6 again as shown in Figure 1 so that the hit ball _a2 cannot enter.

As clarified from the above explanation, the present invention is designed to prevent the ball from entering the guide channel 22 from the front surface of the mounting plate 1.
a ₂ to the left and right at the distribution top 12 and attach it to the mounting plate 1.
Balls flow to the front surface of the mounting plate 1 by one of the ball flow channels 11 in the first row 13 on the rear surface, and the balls are transferred to the mounting plate 1.
The mounting plate 1 is distributed by the distribution apex 24 that matches the center of each gutter of the ball flow gutter 11 on the front surface of the mounting plate 1, and is distributed to any of the ball flow gutter 23 of the second row 25 inclined toward the front surface of the mounting plate 1. The balls flow to the rear surface and the balls are transferred to the flow gutter 14 in the third row 16 on the rear surface of the mounting plate 1.
Then, the flow gutter 14 is distributed to either side by the distribution top 15, and the flow gutter 14 other than the left and right ends is connected to the distribution top 2 of the flow gutter 26 in the bottom row 28 on the front surface of the mounting plate 1.
7, (each gutter at both ends of the flow gutter 14 of the third row 16 communicates with the gutter at both ends of the ball flow gutter 28, and is not distributed by the distribution top), the ball flow gutter 26
Each gutter is provided with two or more outlets 17, 18 that allow the balls _a2 to flow out in different directions, and the balls _a2 are flown from the first row to the last row on the front and rear surfaces of the mounting plate 1. The troughs are made to flow back and forth, and the balls that have flowed through the center of any one of the upper flow troughs in each row are distributed irregularly to the left and right by the distribution tops in the lower row, and then flowed to the flow troughs 26 in the bottom row 28.
Two or more outflow ports 1 with different outflow directions
7 or 18, and is distributed in a direction that brings particular advantage to the player or in a direction that brings normal profit, and it is not artificially determined which flow gutter it flows through in the first to last rows. Since the machine cannot be operated manually and must be left to the action of the distribution tops of each row provided alternately on the rear and front surfaces of the mounting plate 1, this unique action has the effect of increasing interest in pachinko games.

[Brief explanation of the drawing]

The attached drawings show one embodiment of the present invention, and FIG. 1 is a front view, FIG. 2 is a front view with necessary parts cut away vertically, FIGS. 3 and 4 are partially cutaway rear views, and FIG.
FIG. 6 is a vertical sectional side view of the central part of the figure, and FIG. 6 is a partially separated perspective view. 1...Mounting plate, 22...Induction gutter, 13...First
Row, 12... Sorting top, 11... Ball flow gutter, 2
5... Second row, 23... Ball flow gutter, 24... Distribution top, 16... Third row, 14... Fluid gutter, 15
... Distribution top, 28 ... Bottom row, 26 ... Flow gutter, 27 ... Distribution top, 17 ... First outlet,
18...Second outlet.

Claims (1)

[Scope of utility model registration request] A guide gutter 22 is provided on the front surface of the mounting plate 1 to receive the balls a ₂ and flow into the rear surface of the mounting plate, and the rear surface of the mounting plate 1 has a distribution top 12 that coincides with the center of the guide gutter 22, and A first row 13 of ball flow gutter 11 is provided which is inclined in the front direction of the mounting plate 1.
A second row 25 of ball flow gutter 23 is provided on the front surface of the mounting plate 1, and has a distribution apex 24 that coincides with the center of each gutter of the ball flow gutter 11, and is inclined toward the rear surface of the mounting plate 1. A third row 16 of ball flow gutter 14 is provided on the front surface of the mounting plate 1, and the ball flow gutter 14 has a distribution apex 15 that coincides with the center of each gutter of the ball flow gutter 23, and is inclined in the front direction of the mounting plate 1. A lowermost row 28 of ball flow gutter 26 having a distribution apex 27 that coincides with the center of each gutter except for both ends of the ball flow gutter 14 is provided, and each ball flow gutter 26 in the lowermost row is provided with a ball flowing direction. A ball processing device for a pachinko machine, characterized in that two or more different outlet ports 17 and 18 are provided.