TWI415656B - Bowling machine - Google Patents

Abstract

A pin setter applied to a bowling game device where a player brings down a plurality of pins arranged while erecting on a lane by rolling a ball toward the plurality of pins. The pin setter for arranging the pins at predetermined positions includes a distribution shooter for guiding the pin to the predetermined position while permitting the pin to slip downward.

Description

Bowling bottle racking machine

The present invention relates to a bowling pin placement machine for use in a bowling game (Bilibo registered trademark) using a bowling game or a ball for billiards.

In the prior art, the spherical bottle is supplied to a predetermined position by an arm that expands and contracts while swinging (for example, refer to Patent Document 1).

Patent Document 1: Japanese Patent Publication No. 11-333044

Problem to be solved by the invention

However, in the bottle discharging machine of the invention described in Patent Document 1, since the arm has to be swung and stretched, the structure of the arm is complicated, and the number of members of the bottle discharging machine is extremely large. Therefore, the assembly process of the bottle discharging machine is increased, and more time is required for the adjustment of the movement of the bottle discharging machine.

In view of the above, it is an object of the present invention to simplify the construction by eliminating the number of components of the bottle dispenser.

Means of solving problems

Further, in the present embodiment, the bowling game device in which the player rolls the ball toward the plurality of ball bottles erected on the fairway and tilts the plurality of erected balls is placed at a predetermined position. A dispenser is included to guide the bottle to a predetermined position while the bottle is sliding down.

Therefore, in the present embodiment, the dispenser slides the bottle and guides it to a predetermined position, and the patent document 1 is disposed in a predetermined position as compared with the arm that is swung and retracted. Compared with the described invention, the number of components of the bottle dispenser is reduced to simplify the construction.

In this embodiment, the present invention further includes a supply device that supplies the spherical bottle to the plurality of dispensers while providing the same number of the dispensers as the spherical bottle device disposed upright on the fairway, and the supply device The bottle can be supplied to the plurality of dispensers at the same time.

Thereby, since the plurality of ball bottles can be supplied and supplied in a short time, the processing speed of the bottle discharging machine can be improved.

Moreover, the specific configuration of the plurality of dispensers can be simultaneously supplied to the plurality of dispensers. As in the embodiment, the supply ports of the plurality of dispensers are arranged substantially in a straight line, and the supply device is arranged in a plurality of spherical bottles. In the state of being in a straight line, it is preferable to supply the bottles to the plurality of supply ports.

This embodiment is a bowling game device for use in Bilibo (registered trademark).

In addition, Bilibo (registered trademark) is a bowling game device that uses a ball for a billiard ball. Specifically, the ball is tilted by a ball for hitting the ball, and the ball is rotated, and then the terminal is placed upright on the fairway. The side of the 10 bottle dumping game.

In addition, the bowling game device for the Bilibo (registered trademark) is now a structure that is reduced by the normal bowling game device. Therefore, there is a need for a device that is difficult to apply to Bilibo (registered trademark).

Here, the bowling game device applied to Bilibo (registered trademark) will be exemplified below, and an embodiment of the present invention will be described with reference to the drawings.

(First embodiment) 1. Schematic description

Fig. 1 shows the arrangement of the recovery mechanism 100, the bottle placement machine 300, and the sweeping mechanism 400 of the bottle P in the bowling game device 1. Fig. 2 is a front view of the recovery mechanism 100 (sectional view of arrow A of Fig. 1). Fig. 3 is a view of the front side of the recovery mechanism as viewed from the horizontal direction. Fig. 4a is a front view of the outer cover 130, and Fig. 4b is a right side view of Fig. 4a. Fig. 5 is a view of the state in which the bottle P is dropped from the irregular slit 121 from the back side. Fig. 6 is a view of the state shown in Fig. 5 as viewed from the right side of Fig. 5.

Further, Fig. 7 is a front view of the rotor 111. Fig. 8a is a front view of the fixed plate 120, and Fig. 8b is a front view of the bottle P. Figures 9a to 9c show the operation of the ball B and the bottle P recovered by the recovery mechanism 100. Figures 10a to 10c show the operation of the ball B and the bottle P recovered by the recovery mechanism 100. Fig. 11 is a view of the recovery mechanism 100 viewed from the inside side.

Further, Fig. 12 is a view seen from the B arrow of Fig. 1. Fig. 13 is a view in which the setting state of the dispenser 250 is viewed from above. Fig. 14a is a view of the distribution mechanism 210 as viewed from the arrow B of Fig. 1, and Fig. 14b is a top view of Fig. 14a. Fig. 15 is a view showing a schematic configuration of the bottle transport mechanism 200. Figure 16 is a left side view of Figure 15.

Figures 17a to 17d show the upward movement of the bottle P. Fig. 18 is an enlarged view of the piston portion 320. Fig. 19a is a cross-sectional view of the bottle guide 351, and Fig. 19b is a cross-sectional view taken along line 19B-19B of Fig. 19a. Fig. 20 is a view showing the operation of the retracting mechanism 360. Fig. 21 is a view showing the operation of the retracting mechanism 360.

Further, Fig. 22 is a view of Fig. 20 viewed from the C arrow. Fig. 23a is a view showing a state in which the bottle guide 351 holds the bottle P, and Fig. 23b is a view in which the holding of the bottle P is released. Fig. 24 is a block diagram showing the electrical system of the bowling game device 1. Fig. 25 is a view showing a state of the bottle P accommodated in the bag portion 112A.

2. Overview of the bowling game device

As described above, the bowling game device 1 rotates the ball from the one end side in the longitudinal direction of the fairway 3 toward the other end side (the terminal side), thereby arranging the bottle P placed on the terminal side of the fairway 3 for the game. Device.

Then, on the terminal side of the fairway 3 and its vicinity, as shown in Fig. 1, a recovery mechanism 100 for collecting the bottle P and the ball B is provided, and the bottle P collected by the recovery mechanism 100 is transported to the bottle placement machine. The bottle conveying mechanism 200 of 300, the bottle discharging machine 300 in which the bottle P is placed upright at a predetermined position on the fairway 3, the sweeping mechanism 400 of the bottle P, and the like.

Therefore, in the following description, the bottle conveying mechanism 200 and the bottle discharging machine 300 are separated by an individual mechanism, and this is to facilitate understanding of the bowling game apparatus 1 of the present embodiment.

That is, the classification of the mechanism constituting the bowling game device 1 is not limited to the following description. For example, the bottle conveying mechanism 200 and the bottle discharging machine 300 can be classified into one mechanism (ball bottle discharging machine).

Further, the operations of the recovery mechanism 100, the bottle transport mechanism 200, the bottle placement machine 300, and the sweep mechanism 400 are controlled by the control circuit 500 as shown in Fig. 24, and the control circuit 500 is composed of a CPU, a ROM, and A microcomputer composed of a RAM or the like is formed. Then, the control circuit 500 controls the recovery mechanism 100 and the like based on a program stored in a non-volatile memory device such as a ROM.

3. Recycling agency 100

As shown in Fig. 1, the recovery mechanism 100 is a ball collecting mechanism that simultaneously collects the poured bottle P and the ball B that reaches the terminal side of the ballway 3. Then, the bottle P collected by the recovery mechanism 100 is transported to the bottle placement machine 300 via the bottle transport mechanism 200, and the ball B is transported to one end of the fairway 3 via the return projector 106 provided on the lower side of the fairway 3. side.

Then, the recovery mechanism 100 includes a collection unit 110 including a rotator 111 and the like, a belt conveyor 101 disposed between the collection unit 110 and the fairway 3, and a bottle projector that introduces the collected bottle P into the bottle conveying mechanism 200. 103 and the ball B to be recovered are introduced into the ball projector 105 of the return projector 106 (see FIG. 3).

Further, the belt conveyor 101 conveys the ball B reaching the terminal side of the fairway 3 and the ball bottle P swept out to the terminal side of the fairway 3 to the recovery mechanism 100 by the endless belt that is rotationally driven by the electric motor.

Further, the bottle projector 103, the ball projector 105, and the return projector 106 are guide means for sliding the bottle P or the ball B by the height difference, thereby guiding the bottle P or the ball B to a predetermined portion.

Moreover, the bottle projector 103 is a hose, and although it is composed of a flexible tube or a flexible guide groove, the ball projector 105 and the return projector 106 may be a flexible tube or a rigid body tube or may be Flexible channel or rigid body channel.

Incidentally, the collision plate 107 is a member for impacting the ball B that has been rolled, and the ball B is dropped to the impact member of the belt conveyor 101, and the sweeping plate 401 is a member for sweeping the bottle P and the ball B toward the belt conveyor 101. The sweeping plate 401 is moved from the right side of the first drawing to the left side by the sweeping mechanism 400.

3.1 Recycling Department

As shown in Fig. 2, the collecting unit 110 includes a rotating rotor 111, a fixing plate 120 fixed to a frame (not shown) of the bowling game device 1, a cover 130 covering the lower end side of the rotor 111, and a rotation. The motor 140 that rotates the sub-111 (see Fig. 9a) and the like.

The rotator 111 is formed in a substantially plate shape as shown in Fig. 9a, and the side surface 111B orthogonal to the rotation axis 111A is inclined with respect to the horizontal plane, and on the outer peripheral side thereof, as shown in Fig. 2, in the circumferential direction A plurality of protrusions 112 projecting radially outward in the radial direction are provided at equal intervals.

Then, by forming the concave portion 112A between the protruding portions 112, the bottle conveying portion that accommodates the bottle P conveyed by the belt conveyor 101 (hereinafter, the concave portion 112A is shown as the bag portion 112A) is stored in the bottle P. In the state of the bag portion 112A, the bottle P is transferred to the irregular slit 121 to be described later by the rotation of the rotor 111.

Further, in the rotor 111, as shown in FIG. 9a, on the inner peripheral side with respect to the pocket portion 112A, a through hole 113 is provided which is parallel to the rotating shaft 111A from the side surface 111B of the rotor 111. A recess is formed in the direction and penetrates the rotor 111, and an opening that opens toward the lower side of the through hole 113 is closed by the fixing plate 120.

On the other hand, the opening that opens toward the upper side of the through hole 113 is opened on the terminal side of the belt conveyor 101, and the lower side of the through hole 113 is a concave portion that is closed. Therefore, the ball B conveyed by the belt conveyor 101 is dropped into the through hole 113 (hereinafter, the through hole 113 is shown as the concave portion 113) and is accommodated in the concave portion 113 (see FIG. 9b).

Therefore, when the rotor 111 rotates, the ball B accommodated in the concave portion 113 is transferred together with the bottle P accommodated in the bag portion 112A. That is, the concave portion 113 has a function as a ball transfer portion that transfers the ball.

Between the belt conveyor 101 and the rotor 111, as shown in Fig. 9a, a guide plate 131 projecting from the outer cover 130 toward the belt conveyor 101 is provided, and the gap between the guide plate 131 and the belt conveyor 101 is It is set to a size at which the guide plate 131 does not interfere with the belt conveyor 101 when the belt 101 is operated.

Therefore, the bottle P and the ball B carried by the belt conveyor 101 slide on the guide plate 131 to reach the bag portion 112A or the recess 113. In the present embodiment, the belt conveyor 101 and the guide plate 131 constitute a conveying device that transports the ball B that reaches the terminal side of the ball lane 3 and the bottle P that is swept out to the terminal side of the ball lane 3 to the recovery mechanism 100. .

Then, the distance W between the end portion 101A on the side of the recovery portion 100 in the guide sheet 131 and the rotor 111 is smaller than the diameter of the ball B, and is larger than the maximum diameter of the bottle P. Further, the end portion 101A of the guide plate 131 is set at a position higher than the upper end 112B of the pocket portion 112A and lower than the upper end 113A of the recess portion 113 in the vertical (up and down) direction.

Further, as shown in Fig. 2, the outer cover 130 covers only the bag portion 112A located at the lowermost end side from the belt conveyor 101, and the bag portion 112A located at the lowermost end side is a bag-like shape that is opened from the upper side.

Then, the outer cover 130 prevents the bottle P that has fallen from the belt conveyor 101 to the bag portion 112A from falling off from the bag portion 112A, and prevents the plurality of ball bottles P from entering the one bag portion 112A.

Further, since the outer cover 130 completely covers only the bag portion 112A, since the concave portion 113 is not completely covered by the outer cover 130, the ball B carried by the belt conveyor 101 does not enter the bag portion 112A but slides on the guide plate 131. It is accommodated in the recessed part 113.

Then, in the present embodiment, as shown in Figs. 2 and 4a and 4b, the annular outer cover ring 132 covering the outer periphery of the rotor 111 is integrally formed on the outer cover 130, and the outer cover ring 132 can be prevented from being stored in the bag. The ball bottle P of the portion 112A flies in the radial direction in accordance with the inertial force (centrifugal force) of the rotation of the rotor 111. In the present embodiment, the guide plate 131 is assembled as another element and assembled to the upper end portion 130A of the outer cover 130. (Refer to Figs. 4a and 4b), the present embodiment is not limited thereto, and the guide plate 131 may be integrally formed with the outer cover 130.

Further, the fixing plate 120 is disposed on the lower surface side of the rotor 111 to close the bag portion 112A, and is provided on the upper side of the fixing plate 120 as shown in Fig. 2, and is extended in the rotation direction of the rotor 111. A hole-shaped shaped slit 121.

The irregular slit 121 has a shape in which two kinds of long holes having different sizes in the short diameter direction are connected in the normal diameter direction as shown in Fig. 8a. Specifically, in the irregular slit 121, the dimension A in the minor axis direction of the first hole portion 121A on the retreating side (the right side of the eighth drawing) is set to be smaller than the diameter D1 of the small diameter portion P1 of the bottle P (see 8b) is also larger and smaller than the diameter dimension D2 (see FIG. 8b) of the large diameter portion P2 of the bottle P.

On the other hand, in the irregular slit 121, the second hole portion 121B in the rotational direction advancing side (the left side of FIG. 8a) has a dimension B in the minor axis direction that is set to be larger than the diameter D2 of the large diameter P2 of the bottle P. size. Therefore, in the first hole portion 121A, only the small diameter portion P1 of the bottle P can pass through the irregular slit 121, the large diameter portion P2 is caught in the first hole portion 121A, and the second hole portion 121B, the bottle P All of them can pass through the shaped slit 121.

Further, in the fixing plate 120, as shown in Fig. 6, between the portion where the irregular slit 121 is provided and the rotor 111, a gap 122 is provided, and on the other hand, on the opposite side of the fixing plate 120 from the gap 122, A funnel-shaped guide member 123 is provided, and the bottle P dropped from the irregular slit 121 is introduced into the bottle projector 103.

As shown in Fig. 5, the guide member 123 has a receiving surface 123A provided at a portion corresponding to the first hole portion 121A, and is in contact with the front end side of the bottle P passing through the first hole portion 121A (small diameter) The portion P1 side receives the bottle P and has the inclined guide surface 123B, and is provided on the side corresponding to the second hole portion 121B toward the rotation direction of the rotor 111 (the right side of FIG. 5) on the lower side. Drop and tilt.

Then, the discharge port 123C that communicates with the bottle projector 103 is set at the lowest position of the inclined guide surface 123B. In the present embodiment, the center line L1 of the discharge port 123C is viewed in the horizontal direction from the center of curvature 01 on the forward end side in the rotation direction of the second hole portion 121B. Right side) offset.

Further, the receiving surface 123A is formed on a plane that is expanded in the horizontal direction, and a resisting body 123D having a direction substantially parallel to the rotational direction of the rotor 111 is provided on the boundary portion side between the receiving surface 123A and the inclined guiding surface 123B. Wall.

Therefore, the front end side of the bottle P dropped from the first hole portion 121A is engaged with the resist body 123D as shown in Fig. 6 . In other words, the resisting body 123D serves as an obstruction element that prevents the distal end side of the bottle P that has fallen from the first hole portion 121A from moving integrally with the rotation of the rotor 111.

Further, as shown in Fig. 6, the arrangement relationship between the first hole portion 121A, the bag portion 112A, and the receiving surface 123A is as shown in Fig. 6, in a state where the tip end side of the bottle P is dropped from the first hole portion 121A, the first hole portion 121A The upper outer edge portion 121C contacts the bottle bottle P, and the lower outer edge portion 121D of the first hole portion 121A is in a non-contact state with the bottle bottle P.

Therefore, in a state where the front end side of the bottle P is dropped from the first hole portion 121A, the center axis L2 of the bottle bottle P is sandwiched on the upper side, and the bottle P is in contact with the outer edge portion 121C of the first hole portion 121A, on the lower side. The center axis L2 is clamped, the bottle P is in contact with the rotor 111, and the contact portion 111C that is in contact with the rotor 111 is located closer to the ball than the contact portion 121E of the bottle P than the outer edge portion of the first hole portion 121A. The position of the bottom side of P.

Further, on the side of the guide member 123 of the irregular slit 121, as shown in Fig. 11, a cover 124 for closing the irregular slit 121 is provided, and the cover 124 is driven to be opened and closed by the motor 124B via the link mechanism 124A.

Further, in the fixing plate 120, above the lowermost portion of the rotor 111 and below the profiled slit 121, as shown in FIG. 8a, a long hole-shaped recovery hole 125 is provided to be housed in the recess 113. The transferred ball B is taken out from the lower side of the rotor 111, and the recovery hole 125 forms a ball collecting portion. Then, the ball projector 105 (refer to FIG. 1) is assembled to a portion of the fixed plate 120 corresponding to the recovery hole 125.

4. Bottle handling mechanism

As shown in FIG. 1, the bottle transport mechanism 200 includes a dispensing mechanism 210 in which one of the ten spherical bottles P is disposed in a horizontal direction, and a spherical bottle P that is arranged in a straight line by the distributing mechanism 210. The conveyance unit 230 to the dispenser 250 and the dispenser 250 that guides the bottle P to a predetermined position of the bottle placement machine 300 to be described later.

4.1 Distribution Mechanism 210

The distribution mechanism 210 is a mechanism that reciprocates in the horizontal direction on the outlet side of the bottle projector 103, and arranges the bottle P in a straight line on the conveyance belt 231 of the conveyance unit 230.

Specifically, as shown in FIGS. 14a and 14b, the projector fixing portion 201 on the outlet side of the bottle projector 103 is fixed, and the bottle P discharged from the bottle projector 103 is carried and placed. The placement nozzle 202 on the conveyance belt 231 supports the projector fixing portion 201 and the rail 203 on which the nozzle 202 is placed in parallel, the drive belt 204 that connects the projector fixing portion 201 and the placement nozzle 202, and rotates the drive belt 204. Motor 205 and so on.

Further, the mounting nozzle 202 is provided with a sensor (not shown) for detecting whether or not the bottle bottle P has passed through the nozzle 202. When the sensor detects the passage of the bottle P, the motor 205 rotates the driving belt 204. The projector fixing portion 201 and the placement nozzle 202 are moved in parallel.

In the present embodiment, the inlet side (the guide member 123 side) of the bottle projector 103 is fixed to the guide member 123, and the outlet side of the bottle projector 103 is attached to the longitudinal direction of the rail 203. Reciprocating.

On the other hand, the ten ball bottles P placed on the conveyance belt 231 are placed in the conveyance direction of the conveyance belt 231 in parallel with the front end on the lower side, and the outlet of the placement nozzle 202 is preferably oriented and conveyed. The direction in which the conveyance direction of the belt 231 is parallel is parallel.

In the present embodiment, the placement nozzle 202 is constantly moved toward the rail 203 in a state in which the outlet direction is parallel to the conveyance direction of the conveyance belt 231, and the projector fixing portion 201 is swung by the swing fulcrum 201A. The center swings while moving on the rail 203, and the size A of the inlet side of the placement nozzle 202 is larger than the dimension C of the outlet side of the bottle projector 103.

Incidentally, the dimension A of the inlet side of the placement nozzle 202 is (considered) the size C of the outlet side of the bottle projector 103 plus the swing size of the projector fixing portion 201, which is larger than the size of the outlet side of the placement nozzle 202. B is still big.

Further, in the present embodiment, the size of the inner wall is smoothly reduced from the inlet side to the outlet side of the placing nozzle 202, and the discharge direction of the bottle P discharged from the bottle projector 103 is smoothly turned and The conveyance direction of the conveyance belt 231 is parallel.

4.2 handling unit

The conveyance unit 230 conveys the conveyance belt 231 to the upper side by transporting the ten bottles P arranged in a line in the horizontal direction orthogonal to the conveyance direction (the rotation direction of the conveyance belt 231), and then supplies them to the distribution. The supply device of the device 250.

Then, on the outer peripheral surface side of the conveyance belt 231, as shown in Fig. 15, the engagement projections 232 projecting outward are provided at a plurality of positions, and the engagement projections 232 are placed by the distribution mechanism 210. The bottle P on the conveyance belt 231 is conveyed to the upper side in the state of being engaged (refer FIG. 1).

Further, on the upper surface side of the transport unit 230, as shown in Fig. 16, a plurality of guide pieces 233 are provided to prevent the bottle P in the transport from being excessively inclined with respect to the conveyance direction, and the guide pieces 233, As shown in Fig. 15, the one end side of the longitudinal direction of the conveyance unit 230 is extended to the other end side.

Then, on the other end side in the longitudinal direction of the guide piece 233 (the right end side in Fig. 15), a guide portion 234 is provided, and the bottle P guide that is conveyed along the outer peripheral surface of the driven roller 235 is guided. It is led to the bottle supply port 251 of the dispenser 250.

Further, the drive roller 236 rotates the conveyance belt 231, and the drive roller 236 is rotated by the driving force from the motor 237 via a power transmission device such as a belt or a chain.

On the other hand, since the driven roller 235 rotates in accordance with the rotation of the conveyance belt 234, the driven roller 235 is rotatably attached to the tension lever 238, and the tension lever 238 is swingably attached to the frame. Then, the tension of the carrying belt 231 is adjusted by the tension lever 238.

5. Ball bottle placement machine

The bottle discharging machine 300 is a mechanism for arranging a plurality of ball bottles P conveyed by the bottle conveying mechanism 200 at a predetermined position of the ball path 3. Specifically, as shown in Fig. 1, it includes a dispenser 250, a bottle lifter 301, a bottle guide lifting mechanism 350, and the like.

5.1 bottle lifter

The bottle lifter 301, as shown in Fig. 1, is a device for raising the bottle P in an upright state to the fairway 3. Specifically, it has a cylindrical plurality of cylinder portions 302 that are filled in a state in which the bottle P is erected, a rising mechanism 340 that raises the cylinder portion 302, and the like.

5.1.1 ascending mechanism

The ascending mechanism 340 includes a rising plate 341 to which ten cylinder portions 302 arranged in a triangular shape (pyramid) are fixed, a chain 342 for lifting the rising plate 341, a pull-up machine 343 for pulling the chain 342 up, and the like.

Then, the chain 342 has one end side fixed to the rising plate 341, and the other end side is fixed to a fixing member such as the pull-up machine 343, and is provided with a motor (not shown) on the upper pulling machine 343. The driven arm 344 and a movable sprocket 345 or the like that is rotatably attached to the distal end side of the arm 344 and meshed with the chain 342.

Further, in order to prevent the chain 342 from coming off the movable sprocket 345, the pair of idler sprocket 346 is given a predetermined tension of the chain 342, thereby rotatably fixing the fixing member such as the pull-up machine 343.

Then, the arm 344 rotates, and the movable sprocket 345 moves in the direction of a→b→c→d→a in the first drawing or in the opposite direction, and the rising plate 341 moves up and down at a speed of twice as fast as the rotation of the arm 344. Thereby, the cylinder portion 302 is raised and lowered.

5.1.2 cylinder department

As shown in Fig. 17a, the cylinder portion 302 has a first cylinder 303 that moves up and down together with the rising plate 341, and a fixing member that is disposed coaxially with the first cylinder 303 on the upper end side of the first cylinder 303 and that is fixed to a frame or the like. The two cylinders 304 and the piston portion 320 in the first cylinder 303 are shifted in the longitudinal direction of the first cylinder 303.

Then, as shown in FIG. 18, the inner wall of the first cylinder 303 is provided with a first protrusion 305 protruding from the inner side, and the upper end side of the first coil spring 306 is engaged with the first protrusion 305. . On the other hand, the lower end side of the first coil spring 306 is fixed to the rising plate 341. Therefore, the first cylinder 303 is connected to the rising plate 341 via the first coil spring 306 while being supported by the rising plate 341.

Further, the piston portion 320 includes a pedestal portion 321 that contacts the bottom portion of the bottle P and supports the bottle P from the lower side, a push rod 322 that is fixed to the rising plate 341 and is fixed between the push rod 322 and the pedestal portion 321 The second coil spring 323 and the like which are elastically deformable.

Further, the holding member 324 is detachably attached to the upper end side of the push rod 322 via a connecting member such as the bolt 324B, and the pedestal portion 321 is movably inserted through the bolt 325 provided in the through hole 324A of the holding member 324. Connected to the push rod 322.

Therefore, when the push rod 322 is raised, the upward displacement (lifting force) of the push rod 322 (rising plate 341) is transmitted to the pedestal portion 321 via the second coil spring 323, and conversely, when the push rod 322 is lowered, via the bolt 325 The downward displacement (downward force) of the push rod 322 (rising plate 341) is transmitted to the pedestal portion 321.

Further, on the lower end side outer wall of the first cylinder 303, as shown in Fig. 17a, a second protrusion portion 307 protruding outward is provided, and on the other hand, a stopper portion is provided at a lower end portion of the second cylinder 304. 308, when the first cylinder 303 is raised, the first protrusion 307 is impacted, and the rise of the first cylinder 303 is mechanically restricted.

Then, on the side of the second cylinder 304, a filling port 309 for loading the bottle P guided to the cylinder portion 302 via the distributor 250 to the first cylinder 303 (cylinder portion 302) from the filling port is provided The ball bottle P loaded in the cylinder portion 302 is housed in the first cylinder 303 while being erected on the pedestal portion 321.

Further, on the terminal side of the fairway 3, as shown in Fig. 17b, a hole portion 3A for pushing the bottle P upward is provided at a portion corresponding to each cylinder portion 302, and when the bottle P is pushed up to the fairway 3 The hole portion 3A is closed by the pedestal portion 321 as shown in Fig. 17c.

In other words, when the state in which the first cylinder 303 is lowered (the state shown in FIG. 17a) rises to the rising plate 341, the first coil spring 306 and the push rod 322 simultaneously rise, as shown in FIG. 17b, the second projection portion 307 impact stop portion 308, the first cylinder 303 and the piston portion 302 rise integrally. Then, when the second protrusion portion 307 impacts the stopper portion 308, the first coil spring 306 is contracted and deformed, and the first cylinder 303 stops rising, as opposed to As a result, the push rod 322 is integrally raised with the rising plate 341. As shown in Fig. 17c, the piston portion 320 rises in conjunction with the rising plate 341, and the pedestal portion 321 is filled in the hole portion 3A.

At this time, in a state in which the pedestal portion 321 is filled with the hole portion 3A, the rising plate 341 stops rising and the size of each portion is set. However, after the hole portion 3A is filled in the pedestal portion 321 by the dimensional deviation in the dimensional tolerance, the pedestal portion 321 is raised. Plate 341 is likely to continue to rise.

However, in the present embodiment, when the rising plate 341 continues to rise, this portion is absorbed by the second coil spring 323 (see FIG. 17d), and excessive force is prevented from acting on the ball path 3 via the piston portion 320.

5.2 distributor

The dispenser 250 is a dispensing device that drops the ten ball bottles P transported by the transport unit 230 and distributes them to the respective loading ports 309 of the cylinder portion 302.

In other words, as shown in Fig. 13, the distributor 250 is configured such that ten spherical bottle supply ports 251 that are arranged in a line and are arranged in a line and three positions that are disposed at a lower position than the ball supply port 251. In the filling port 309, in the present embodiment, the dispenser 250 is formed of a flexible tube or a groove-shaped rigid body.

Then, the ten bottles P are conveyed to the supply port 251 by the transport unit 230 while being aligned, so that the ten bottles P are supplied to the bottle supply port 251 (distributor 250) at the same time.

5.3 ball guiding and lifting mechanism

The bottle guide elevating mechanism 350, as shown in Figs. 19a and 19b, has a bottle guide 351 that prevents the bottle P that has risen to the ballway 3 from falling over the ballway 3, and retracts the bottle guide 351 from the ballway 3. The retreat mechanism 360 (see Fig. 1).

5.3.1 Ball Guides

The bottle guide 351, as shown in Fig. 19a, is a cup covering the bottle P from the front end of the bottle P, and in the bottle guide 351, there is a ball P attached to the ball a clamp rod 352 that grips the bottle P on the inner wall of the bottle guide 351, and a bottle sensor that detects the presence or absence of the bottle P by contact with the front end portion of the bottle P, and detects the presence or absence of the bottle P as a detecting device 358.

Then, as shown in Fig. 22, the ten bottle guides 351 are attached to the triangular plate-shaped lifting plate 353 in a triangular shape.

That is, on the lift plate 353, as shown in Fig. 19b, the annular fixture 356 is fixed by the bolt 356A, and the bottle guide 351 is slidably inserted from above with respect to the fixture 356, and is fixed by being fixed. The stepped projection 351A having the outer peripheral portion of the 356 is engaged with the upper end surface 356B of the fixture 356.

Then, the upper end side of the bottle guide 351 is often pulled to the side of the lift plate 353 by a pair of coil springs 357.

Therefore, generally, the lifting plate 353 and the bottle guide 351 are integrally raised and lowered as shown in FIG. 21a, the bottle P is tilted and the bottle P is not filled into the bottle guide 351, and the bottle guide 351 is In the case of interference, as shown in Fig. 21b, the bottle guide 351 is isolated from the lift plate 353, and the bottle guide 351 and the lift plate 353 are lowered, respectively.

Further, the movable plate 354 that can move in parallel with respect to the lift plate 353 is attached to the lift plate 353, and the actuator 355 that displaces the movable plate 354 with respect to the lift plate 353 is attached to the lift plate 353. Each of the clamp bars 352 is coupled to the movable plate 354.

Then, when the movable plate 354 is displaced to the left side of the 22nd drawing with respect to the lifting plate 353, as shown in Fig. 23b, the holding rod 352 is separated from the bottle P and the clamping of the bottle P is released. When the movable plate 354 is displaced to the right side of FIG. 22 with respect to the lift plate 353, as shown in FIG. 23a, since the clamp rod 352 pushes the bottle P, the bottle P is sandwiched by the bottle guide 351. hold.

5.3.2. Back-off mechanism

The retracting mechanism 360 is a mechanism for elevating and lowering the ten bottle guides 351. Then, as shown in Fig. 20, the lower end side of the pair of lifting guides 361 is fixed to the lifting plate 353, and on the upper side of the lifting plate 353, as shown in Fig. 21, slidably contacts the lifting guide A guide sheath 362 that guides the lifting of the lifting guide 361 on the outer circumference of the 361 is fixed to the frame 4.

Further, the upper end sides of the pair of lifting guides 361 are connected by a beam 363. When the lifting guide 361 is raised and lowered by the beam 363, the size between the pair of lifting guides 361 is kept constant to cause the lifting guide 361. Sliding to lift.

Further, one end side of the chain 364 is coupled to the lift plate 353 (see FIG. 21), and the other end side of the chain 364 is fixed to the frame 4 side (see FIG. 1). Then, the lift plate 353 is lifted and lowered by the same method as the above-described ascending mechanism 340.

6. Outline action of the bowling game device (Bilibo (registered trademark))

The bottle P and the ball B knocked down by the ball B rotated by the player or the bottle P and the ball B swept by the sweeping mechanism 400, as shown in Figs. 9a to 9c and Figs. 10a to 10c, by belt After the conveyor 101 is transported to the recovery mechanism 100, the recovery mechanism 100 collects the ball B and the bottle P, respectively.

Then, the collected bottle P is sorted to the same direction as it is dropped from the irregular slit 121, and then guided to the transport unit 230 via the bottle projector 103, and the recovered ball B rises from the lowermost portion of the rotator 111 to the lowermost portion of the rotator 111. After the higher position, it is directed to the return projector 106 via the ball projector 105.

Further, the bottle P supplied to the dispenser 250 by the transport unit 230 is loaded into the first cylinder 303 and then raised to the fairway 3. At this time, the ball bottle guide 351 is lowered on the fairway 3, and the rising bottle P is loaded from the lower side to the bottle guide 351 to be placed on the fairway 3.

When the hole portion 3A of the ball lane 3 is closed by the pedestal portion 31, the bottle guide 351 is retracted from the ball path 3 to the upper side, and is again in a state in which the game can be played.

7. Characteristics of the bowling game device of the present embodiment

In the present embodiment, since the balloon portion 112A that serves as the ball transfer portion for transporting the bottle P and the concave portion 113 that serves as the ball transfer portion for transferring the ball B are provided in the rotor 111, the recovery bottle P can be reduced. The number of components of the recovery mechanism 100 of the ball B forms a simple configuration.

Further, in the present embodiment, the end portion 101A of the guide piece 131 that transports the ball B that has reached the end of the fairway 3 and the bottle P that has been swept to the end of the fairway 3 to the transport device of the recovery mechanism 100 is configured. The distance of the rotor 111, as shown in Fig. 9a, is smaller than the diameter of the ball B and larger than the maximum diameter of the bottle P.

Further, since the end portion 101A of the guide piece 131 is set in the vertical direction at a position higher than the upper end 112B of the pocket portion 112A and lower than the upper end 113A of the concave portion 113, as shown in Figs. 10a to 10c. The bottle P is dropped from the gap between the guide piece 131 and the recovery mechanism 100 (rotator 111) and stored in the bag portion 112A. On the other hand, the ball B does not fall from the gap as shown in Figs. 9a to 9c. It is housed in the recess 113.

Therefore, even if the bottle P and the ball B are conveyed to the recovery mechanism 100 in a mixed state, the bottle P and the ball B can be separated and easily recovered.

Further, in the present embodiment, as shown in Fig. 9b, the concave portion 113 is formed by recessing a concave portion in a direction parallel to the rotating shaft 111A by the side surface 111B of the rotor 111, and since the side surface 111B is inclined with respect to the horizontal direction. Since the opening of the concave portion 113 is opened upward, the ball B is held by the bottom portion 113B of the concave portion 113 and the inner circumferential side surface 113C.

On the other hand, if the side surface 111B of the rotor 111 is vertical, since the ball B needs to be held only by the inner circumferential side surface 113C of the concave portion 113, the depth of the concave portion 113 must be increased.

Therefore, in the present embodiment, the thickness of the rotor 111 can be made thinner than when the side surface 111B of the rotor 111 is vertical.

In the present embodiment, the dimension A in the minor axis direction of the first hole portion 121A on the retreating side in the rotation direction of the irregular slit 121 is larger than the diameter of the small diameter portion P1 of the bottle P, and is larger than the spherical bottle. The diameter of the large diameter portion P2 of the P is small, and the dimension B in the minor axis direction of the second hole portion 121B on the side in the rotational direction of the irregular slit 121 is set to be larger than the diameter of the large diameter portion P2.

In the present embodiment, the small-diameter portion P1 side of the bottle P is located on the advancing side of the rotor 111 in the rotation direction, and when the bottle P reaches the profiled slit 121, as shown in FIG. 5, it is small. When the diameter portion P1 reaches the first hole portion 121A and the large diameter portion P2 is engaged with the first hole portion 121A, the small diameter portion P1 falls from the first hole portion 121A, so that the small diameter portion P1 descends and the large diameter The portion P2 rises to rotate the bottle P.

In other words, in the state in which the bottle P is stored in the bag portion 112A, as shown in Fig. 25, the central axis L2 of the bottle P is in contact with the contact portion S1 of the large diameter portion P2 and the inner wall of the bag portion 112A. In a state in which the virtual contact surface S3 formed by the contact portion S2 between the small diameter portion P1 and the inner wall of the bag portion 112A is inclined, the bottle P is conveyed to the side of the irregular slit 121.

Then, in this state, when the tip end of the bottle P reaches the profiled slit 121, since the wall supporting the small-diameter portion P1 disappears, as shown in FIGS. 5 and 6, the small-diameter portion P1 reaches the first hole portion. At the same time as 121A, since the small diameter portion P1 falls from the first hole portion 121A, the small diameter portion P1 descends, and the large diameter portion P2 rises to rotate the bottle P.

At this time, the first hole portion 121A, that is, the irregular slit 121 is not provided on the fixing plate 120, and the ball portion P and the rotor are prevented from being formed at the contact portion (braking point) of the large diameter portion P2 and the first hole portion. 111 force (braking force) moving together.

On the other hand, since the bottom side of the bottle P is pressed by the rotator 111, the bottom of the bottle P is rotated on the advancing side in the rotation direction centering on the above-described braking point, and the large diameter portion P2 is located closer to the braking point. The position is on the forward side. In other words, the large diameter portion P2 is located closer to the forward side in the rotational direction than the small diameter portion P1.

At this time, the bottle P is located at a position shifted from the braking point toward the bottom side, and receives a force that is advanced in the rotational direction from the rotor 111 to receive a force in the backward direction in the rotational direction at the braking point (falling preparation state). Since the second hole portion 121B is moved, the large diameter portion P2 reaches the second hole portion first than the small diameter portion P1.

Therefore, when the large diameter portion P2 reaches the second hole portion 121B, the large diameter portion P2 of the spherical bottle P descends, and the small diameter portion P1 rises and falls.

On the other hand, in a state where the large diameter portion P2 side of the bottle P is located at the position on the forward side in the rotation direction of the rotor 111, when the bottle P reaches the profiled slit 121, only the small diameter portion P1 is from the first hole. The portion 121A is dropped, and the bottle P moves to the second hole portion 121B in the above-described drop preparation state. Therefore, when the large diameter portion P2 reaches the second hole portion 121B, as described above, the large diameter portion P2 of the bottle P is lowered and the small diameter portion P1 is raised to drop the bottle P.

As described above, in the present embodiment, the bottle P is arranged in the same direction without rotating the bottle P by rotating the bottle P, and the bottle P passes through the irregularity by the inertial force acting on the bottle P. The problem of the slit 121 does not occur in principle.

Therefore, in the present embodiment, the recovery rate of the bottle P can be improved without deteriorating the recovery rate of the bottle P.

In the invention of the Japanese Patent Publication No. 11-333044, the small-diameter portion P1 is located on the advancing side in the rotational direction and the spherical bottle P is transported, and the bottle P is dropped after the conveyance direction is reversed.

On the other hand, in the case where the large-diameter portion P2 is located on the advancing side in the rotational direction and the bottle P is transported, the bottle P is dropped in the invention, and the present invention is disclosed in Japanese Laid-Open Patent Publication No. Hei 11-333044. The rotation speed of the rotor 111 is constant, and the period (timing) at which the bottle P falls from the drop hole depends on the state of the bottle P that is transported to the drop hole.

In the invention of the Japanese Patent Publication No. 11-333044, the small diameter portion P1 is located on the advancing side in the rotational direction and the spherical bottle P is transported, and the large-diameter portion P2 is located on the advancing side in the rotational direction to transport the bottle P. In comparison with the case, the timing at which the bottle P falls from the drop hole is changed later.

In the invention disclosed in Japanese Laid-Open Patent Publication No. H11-333044, the timing at which the bottle bottle P collected by the recovery mechanism 100 is transported to the bottle placement machine 300 also varies, and thus the malfunction of the bottle placement machine 300 is likely to occur.

On the other hand, in the case where the small-diameter portion P1 is located on the advancing side in the rotational direction and the bottle P is transported, the bottle P is rotated in the first hole portion 121A to be in a state of being ready to fall, and the bottle P is moved. Since the small-diameter portion P1 is located on the advancing side in the rotational direction to transport the bottle P, and the large-diameter portion P2 is located on the advancing side in the rotational direction to transport the bottle P, the bottle P is from the second. The timing at which the hole portion 121B falls is almost the same.

Therefore, in the present embodiment, the timing variation of the bottle P collected by the recovery mechanism 100 when it is transported to the bottle placement machine 300 is reduced, and the bottle placement machine 300 can be prevented from malfunctioning.

Further, in the present embodiment, since the gap 122 is provided between the portion where the irregular slit 121 is provided in the fixed plate 120 and the rotor 111, the contact portion between the bottle P and the rotor 111 is subjected to the movement of the bottle P. The distance between the force portion and the braking point can be made large.

Therefore, the torque required to rotate the bottle P from the small-diameter portion P1 side of the bottle P to the forward side in the rotation direction of the rotor 111 to the drop-prepared state becomes large, so that the bottle P is surely in the drop-prepared state. The state moves to the second hole portion 121B. Therefore, in the present embodiment, the recovery rate of the bottle P is not deteriorated, and the speed at which the bottle P is recovered can be improved.

Further, in the present embodiment, the distal end side of the bottle P dropped from the first hole portion 121A is provided with the resisting member 123D as a blocking element that prevents the rotation of the rotating member 111, so that the ball can be surely stopped. The front end of the bottle P moves with the rotator 111, and the bottle P can be surely rotated into a drop preparation state.

Further, in the state in which the tip end side of the bottle P is dropped from the first hole portion 121A, as shown in Fig. 6, the center axis L2 of the bottle P is clamped and the bottle P is contacted on the upper side. The upper outer edge portion 121C of the first hole portion 121A sandwiches the center axis line L2 of the bottle bottle P and the bottle bottle P contacts the rotor 111 at the lower side, and the contact portion with the rotor 111 is located at a specific braking point ( The contact portion of the outer edge portion of the first hole portion 121A with the bottle P) is also close to the bottom side of the bottle P.

Therefore, the bottle P in the drop-prepared state is suppressed from falling to the opposite side to the falling direction, that is, falling to the opposite side of the holding rotor 111 and the fixed plate 120, so that the bottle P can be placed in a ready state. Move to the second hole portion 121B. Therefore, the recovery rate of the bottle P does not deteriorate, and the recovery speed of the bottle P can be improved.

Further, in the present embodiment, since the bottle P is dropped from the dispenser 250 and guided to the loading port 309 disposed at a predetermined position (i.e., a triangle), the bottle P is compared with the arm that is swung and retracted. The invention disclosed in Japanese Laid-Open Patent Publication No. Hei 11-333044, which is assigned to a predetermined position, can reduce the number of components of the bottle placement machine 300 to form a simple structure.

Further, in the present embodiment, since the transport unit 230 that supplies the bottle P to the supply device of the dispenser 250 can simultaneously supply the bottle P to the plurality of dispensers 250, the plurality of bottles P can be in a short time. The internal supply configuration can increase the processing speed of the bottle placement machine 300.

Further, in the present embodiment, since the bottle guide 351 for preventing the bottle P rising to the ball path 3 from falling on the ball path 3 is prevented, the bottle P placed on the ball path 3 can be prevented from falling.

Further, in the present embodiment, the loading port 309 for loading the bottle bottle P on the side surface of the cylinder portion 302 (second cylinder 304) is provided, and the bottle bottle P can be loaded into the cylinder portion 302 in a short time (first Cylinder 303).

In other words, in the present embodiment, the first cylinder 303 is raised to arrange the spherical bottle P on the fairway 3. Therefore, as described in Japanese Laid-Open Patent Publication No. 2002-119634, the filling port is located at the upper portion of the cylinder portion. When the cylinder is raised, in order to prevent the next bottle to be loaded in the cylinder (the bottle for the next filling) from interfering with the cylinder, the next filling bottle must stand by at the standby position displaced from the filling port. .

Therefore, in the invention described in Japanese Laid-Open Patent Publication No. 2002-119634, when the bottle is loaded in the cylinder portion, it is necessary to move the bottle for the next loading from the standby position to the filling port, even if the cylinder portion is lowered. It is also impossible to load the bottle directly into the cylinder.

On the other hand, in the present embodiment, since the loading port 309 is provided on the side surface of the second cylinder 304, it is not necessary to place the next loading bottle P at the position shifted from the loading port in the loading operation of the next bottle P. Stand by.

Therefore, in the next loading operation, it is not necessary to move the bottle P from the standby position to the loading port 309, and while the first cylinder 303 is being lowered, the bottle P for the next loading can be loaded into the cylinder portion 302 (the first cylinder) 303), the bottle P can be loaded into the cylinder portion 302 in a short time.

Further, in the present embodiment, after the first cylinder 303 and the piston portion 320 are integrally raised, the piston portion P is pushed up from the hole portion 3A provided in the ball path 3 to the fairway 3, and only the piston portion 320 is raised. Therefore, after the bottle P is prevented from falling by the first cylinder 303, the bottle P is raised to the vicinity of the fairway 3, and only the bottle P is raised to the fairway 3 by the piston portion 320.

Further, in the present embodiment, the second coil spring 323 as the elastic deformation portion is provided between the pedestal portion 321 and the push rod 322, and the dimensional deviation of the ascending mechanism 340 and the pedestal portion 321 and the dimensional deviation of the assembly can be changed. The two coil springs 323 are absorbed.

Further, in the present embodiment, since the coil spring 357 is provided, the ball guide 351 is connected to the retracting mechanism 360 side, and the elastic deformation portion that is elastically deformable in the vertical direction is provided, so that the bottle guide can be used. The piece 351 is indeed displaced in the up and down direction.

That is, in a state where the bottle P is tilted, when the bottle guide 351 is lowered, the poured bottle does not interfere with the bottle guide 351, so that the bottle guide 351 cannot be completely lowered, and the other is The downward movement of the bottle guide 351 has an adverse effect.

On the other hand, in the present embodiment, as shown by b in Fig. 21, even if the poured bottle P interferes with the bottle guide 351, since it can be absorbed by the coil spring 357, the other bottle guide 351 can be prevented. The falling action has a bad effect.

Further, in the present embodiment, the pull-up machine 343 for raising and lowering the rising plate 341 and the retracting mechanism 360 for moving the lifting plate 353 up and down are constituted by a crank mechanism that rotates by the arm. Therefore, the displacement at the start of displacement and the end of displacement is performed. The speed is getting smaller.

Therefore, at the start of the displacement and at the end of the displacement, since the large inertia force can be suppressed from acting on the rising plate 341 and the lifting plate 353, the rising plate 341 and the lifting plate 353 can be smoothly displaced.

(Second embodiment)

In the first embodiment, the outer cover ring 132 is integrated with the outer cover 130. However, in the present embodiment, the outer cover ring 132 is integrated with the rotor 111 and has a shape that closes the outer peripheral side of the bag portion 112A.

Therefore, in the present embodiment, when the rotor 111 is rotated, the bottle P stored in the bag portion 112A can be prevented from being wiped over the outer cover ring 132 and transferred to the irregular slit 121 side, so that the transfer of the bottle P can be reduced. The generated noise can also suppress the abrasion of the bottle P and the cover ring 132.

(Third embodiment)

In the present embodiment, the bottle recovery rate in the recovery unit 110 can be further improved, and the present embodiment will be described below together with the drawings.

Moreover, Fig. 26 is a front view of the recovery mechanism 100. Figure 27 is a front elevational view of the fixed plate 120. Figure 28 is a front elevational view of the fixed plate 120. Fig. 29a is a view of Fig. 28 viewed from the direction of the arrow D, and Fig. 29b is a view of the right side of Fig. 29a.

Figure 30 is a cross-sectional view of the rotor 111. Fig. 31a is a front view of the outer cover 130, and Fig. 31b is a view taken from the direction of the E arrow in Fig. 31a. 32 to 39 are explanatory views of the operation of the recovery mechanism 100. Figs. 33b, 34b, 35b, 36b, and 39b are views of the arrows 33a, 34a, 35a, 36a, and 39a viewed from the direction of the E arrow, respectively (viewed from the outer side in the radial direction). Figure 40 is a cross-sectional view taken along line 40-40 of Figure 26. Fig. 41 is a cross-sectional view taken along line 41-41 of Fig. 26. Fig. 42 is a view for explaining the effect of the concave portion 112F.

1. Structure of features of the bowling game device of the present embodiment

In the present embodiment, as shown in Fig. 26, the rotation center 01 side of the irregular slit 121 is larger than the bottom portion 112C of the pocket portion 112A, and is enlarged to the rotation center 01 side, whereby the short-diameter dimension of the irregular slit 121 is made. A and B (see Fig. 27) are larger than the above-described embodiment, and as shown in Fig. 31b, the portion of the outer cover ring 132 corresponding to the irregular slit 121 is cut out.

Incidentally, in the present embodiment, the substantially short-diameter dimension A1 (see FIG. 26) of the first hole portion 121A formed by the rotor 111 and the irregular slit 121 is approximately the large diameter portion of the bottle P The diameter D2 of P2 (see Fig. 8b) is about 0.9 times, and the substantially short-diameter dimension B1 (see Fig. 26) of the second hole portion 121B composed of the rotor 111 and the irregular slit 121 is about The large diameter portion P2 of the spherical bottle P has a diameter D1 of 1.1 times.

Further, the depth dimension of the bag portion 112A, that is, the size from the outer peripheral surface of the rotor 111 to the bottom portion 112C is set to be the depth dimension d1 on the advancing side of the rotor 111 in the rotation direction, as shown in FIG. The depth dimension d2 of the end side is also large.

Therefore, in the present embodiment, the side wall 112D of the side wall in the rotation direction of the pocket portion 112A extends in a direction slightly parallel to the radial direction from the rotation center 01, and the side wall 112E on the advancing side in the rotation direction is parallel. It extends in a direction slightly orthogonal to the bottom portion 112C.

Then, on the side of the fixing plate 120 of the side wall 112D on the retreating side, on the side of the outer cover ring 132, as shown in Figs. 29a and 29b, a concave portion 112F is provided, and the concave portion 112F is set to only the front end portion of the bottle P. The size that can be filled in.

In other words, when the bottle P is stored in the bag portion 112A and the front end side of the bottle P is in contact with the side wall 112D on the retreating side in the rotation direction, as shown in Fig. 37a, the front end side of the bottle P is shown in Fig. 37b. In a state where the concave portion 112F is filled, the bottle P is transferred to the irregular slit 121.

On the other hand, the bottom of the bottle P is in contact with the side wall 112D on the retreating side in the rotation direction. When the bottle P is stored in the bag portion 112A, as shown in Fig. 32, the bottom side of the bottle P is not filled in the recess 112F. It is transferred to the profiled slit 121.

Further, in the edge portion of the concave portion 113 for transferring the ball B, as shown in Fig. 30, on the opposite side of the fixing plate 120, a chamfered portion 113D is provided, and the concave portion 113 is made substantially convex by the chamfered portion 113D. The depth d3 is smaller than the thickness H of the rotor 111. Further, the substantial depth d3 of the concave portion 113 is a size of a portion of the inner circumferential side surface 113C of the concave portion 113 that holds the ball B.

Further, the portion of the fixing plate 120 corresponding to the bag portion 112A is closer to the retreating side than the irregular slit 121, and as shown in Fig. 40, the protruding portion 120A protruding from the side of the rotating member 111 is provided, and the protruding portion 120A is provided. In the present embodiment, a bolt having a curved shape such as a P-bolt or the like is attached to the fixing plate 120.

Further, on the opposite side of the fixed plate 120 in the rotor 111, as shown in Fig. 41, a stirring portion 111D for agitating the plurality of ball bottles P remaining on the lower end side of the rotor 111 is provided.

2. Characteristics of the bowling game device of the present embodiment

In the present embodiment, the substantially short-diameter dimension A1 of the first hole portion 121A formed by the rotor 111 and the irregular slit 121 is enlarged to about 0.9 of the diameter dimension D2 of the large-diameter portion P2 of the bottle P. When the bottom side of the bottle P is located on the retreat side in the rotation direction and is stored in the bag portion 112A, it is transferred to the irregular slit 121, and the large-diameter portion P2 of the bottle P is lowered to a position smaller than the small-diameter portion P1. The bottle P is dropped in the state.

In other words, the bottle P that is placed in the bag portion 112A on the retreat side in the rotation direction is transferred to the position where the irregular slit 121 is provided as shown in Figs. 32 to 33a, and the small diameter portion of the bottle P is moved. When P1 reaches the first hole portion 121A, as shown in Fig. 33b, the front end side of the bottle P falls from the irregular slit 121 to the side of the guide member 123 and falls.

At this time, the gap size A1 is enlarged to about 0.9 times the size D2 of the large diameter portion P2 of the bottle P, and when the front end side of the bottle P starts to fall from the irregular slit 121 to the guide member 123 side, as in the first As shown in FIG. 34a and FIG. 34b, the spherical bottle P has the large-diameter portion P2 as the upper side and the small-diameter portion P1 as the lower side due to the gravity acting on itself, and is vertically inverted.

Then, when the rotor 111 is rotated in this state, the frictional force generated in the outer edge portion of the first hole portion 121A and the contact portion 121E thereof with reference to the bottle P (refer to FIG. 34b) and the rotation of the rotor 111 As shown in Figs. 35a and 35b, the large-diameter portion P2 side of the bottle P is located closer to the forward side in the rotational direction than the small-diameter portion P1 side, and the moment acts on the bottle P.

Therefore, in the large-diameter portion P2 of the bottle P, the bottle P is transferred to the second hole portion 121B in a state where the rotator 111 is engaged with the outer edge portion of the first hole portion 121A, and the large-diameter portion P2 is reached. In the second hole portion 121B, as shown in FIGS. 36a and 36b, the entire bottle P is dropped from the irregular slit 121 to the guide member 123, and the large diameter portion P2 is located below the small diameter portion P1. It slides down into the bottle projector 103.

Therefore, even if the bottom side of the bottle P is located on the retreating side in the rotation direction and is stored in the bag portion 112A, the large diameter portion P2 of the bottle P can be positioned closer to the small diameter portion P1 even if it is transferred to the irregular slit 121. The bottle P is dropped in the lower state.

In the state in which the distal end side of the bottle P is located on the retracted side in the rotational direction and is stored in the bag portion 112A, as shown in FIGS. 37a and 37b, the concave portion 112F is filled in the distal end side of the bottle P. The ball bottle P is transferred to the profiled slit 121.

At this time, the front end side of the bottle P is filled in the recess 112F provided on the side of the outer cover ring 132 in the side wall 112D on the retreating side in the rotational direction. As shown in FIG. 38, the front end side of the bottle P is shaped by the self-shaped slit 121. The offset portion is slidingly deformed.

Therefore, the small diameter portion P1 side of the bottle P does not fall from the irregular slit 121 to the guide member 123 side, and when the entire bottle P moves with the rotation of the rotor 111, when the large diameter portion P2 reaches the second hole In the portion 121B, as shown in Fig. 39a and Fig. 39b, the entire bottle P is dropped from the irregular slit 121 to the guide member 123, and the large diameter portion P2 is located below the small diameter portion P1, and the ball is in the ball. The bottle projector 103 slides down.

When the bottom side of the bottle bottle P is located on the retreating side in the rotation direction and is stored in the bag portion 112A, when the bottle P is transferred to the irregular slit 121, the large-diameter portion P2 of the bottle P is as described above. The small-diameter portion P1 is turned upside down, but the rotator 111 is often rotated. As shown in FIG. 34b, the front end side of the bottle P is dropped to the first hole portion 121A, and the bottle P jumps. It is very likely that there will be vibration in the direction of the arrow.

Then, when the bottle P is vibrated and vibrates, the outer cover ring 132 collides with the large diameter portion P2 of the bottle P, and the bottle P cannot be surely dropped to the guiding member 123.

On the other hand, in the present embodiment, since the notch corresponding to the irregular slit 121 is cut out in the outer cover ring 132, the outer cover ring 132 does not collide with the large-diameter portion P2 of the bottle P, and the bottle can be surely made. P falls into the guiding member 123.

Further, in the present embodiment, since the outer cover ring 132 can be prevented from colliding with the large-diameter portion P2 of the bottle P, the portion of the outer cover ring 132 corresponding to the irregular-shaped slit 121 is not cut out, and the outer cover ring 132 corresponds to the irregular shape. The portion of the slit 121 may be formed in a shape that is separated from the rotor 111 and expanded radially outward.

Further, in the present embodiment, the side wall 112D on the retreating side in the rotation direction is fixed to the side of the plate 120, and the recessed portion 112F in which the tip end portion of the bottle P is filled is provided, and the bottle P can be stored in a state where the bottle P is stabilized. In the bag portion 112A.

That is, as shown in Fig. 8b, since the diameter of the bottle P from the large diameter portion P2 to the bottom portion is gradually reduced, as shown in Fig. 42, when the force F acts on the bottom side from the large diameter portion P2, the front end of the bottle P The department is floated from the state shown by the solid line to the state shown by the broken line.

Therefore, when the other bottle P hits the bottom side of the large diameter portion P2 of the bottle P accommodated in the bag portion 112A, the front end side of the bottle P to be stored is lifted from the fixed plate 120.

In this case, when the bottle is stored in the bag portion 112A so that the distal end side of the bottle P is located at the position on the retreating side in the rotational direction (see FIGS. 37a and b), the bottle P is supported on the distal end side of the bottle P. When the front end side of the bottle P is lifted from the fixed plate 120, the stored bottle P falls from the bag portion 112A, and the recovery rate of the bottle P is lowered.

On the other hand, in the present embodiment, the recessed portion 112F in which the tip end portion of the bottle P is inserted is provided on the side of the fixed plate 120 in the side wall 112D on the side of the reversing direction of the rotation direction, and the position of the other bottle P is more than the large-diameter portion P2. Also near the bottom side, it is also possible to suppress the front end side of the bottle P from floating from the fixing plate 120. Therefore, it is possible to suppress the stored bottle P from falling from the bag portion 112A, and it is possible to avoid reducing the recovery rate of the bottle P.

In the state in which the bottle P is stored in the bag portion 112A and the bottom side of the bottle P is located on the retreating side in the rotation direction, the state of the bottle P is stabilized, and the position of the other bottle P is more than the large diameter portion P2. Also near the bottom side, the bottle P hardly falls from the bag portion 112A.

In the case where the depth dimension of the concave portion 113 is sufficiently large, the spherical bottle P is inserted into the concave portion 113 and transferred. Here, in the present embodiment, the chamfered portion 113D is provided on the opposite side of the fixing plate 120 in the edge portion of the concave portion 113, whereby the substantial depth d3 of the concave portion 113 is smaller than the thickness H of the rotor 111, and can be prevented. The ball bottle P is filled in the concave portion 113 and transferred.

Further, if the thickness H of the rotor 111 becomes small, the chamfered portion 113D does not have to be provided, and when the thickness H of the rotor 111 becomes small, since the bottle P is less likely to fall from the pocket portion 112A, the bottle P cannot be transferred to the profiled narrow portion. In the slit 121, the recovery rate of the bottle P is lowered.

On the other hand, although the rotor 111 having the thickness H of the outer peripheral side (the side of the pocket portion 112A) of the rotor 111 and the thickness H on the side of the recess 113 can be solved, in this solution, the shape of the rotor 111 becomes Complexity causes the manufacturing price of the rotor 111 to rise.

However, in the present embodiment, since the chamfered portion 113D is provided on the opposite side of the fixed plate 120 in the edge portion of the concave portion 113, the bottle P is suppressed while suppressing the increase in the manufacturing price of the rotor 111. When the recessed portion 113 is filled and transferred, the bottle P can be prevented from falling from the bag portion 112A.

Even if the bottle P stored in the bag portion 112A in an incomplete state is transferred to the irregular slit 121, since the bottle P does not fall by the irregular slit 121 as described above, the bottle P cannot be normally recovered, resulting in the bottle. The recovery rate is reduced.

On the other hand, in the present embodiment, the protruding portion 120A is provided in the portion of the fixing plate 120 corresponding to the bag portion 112A, and is located closer to the rotation direction than the irregular slit 121. Therefore, the ball is stored in the incomplete state. The bottle P of the bag portion 112A can be actively dropped from the bag portion 112A before being transferred to the irregular slit 112, and the recovery rate of the bottle P can be improved.

In other words, the bottle P that is stored in the bag portion 112A is in a state in which the bottle P contacts the fixing plate 120 at two positions of the small diameter portion P1 and the large diameter portion P2. On the other hand, in the incomplete state, the bottle P accommodated in the bag portion 112A is in a state in which only one of the small diameter portion P1 and the large diameter portion P2 of the bottle P is in contact with the fixed plate 120.

Therefore, in the bottle P that is accommodated in the bag portion 112A in the incomplete state, for example, the distal end side of the bottle P is likely to protrude from the rotor 111 on the opposite side (hereinafter referred to as the front side) of the fixed plate 120. Therefore, even if it is transferred to the irregular slit 121, as described above, there is a high possibility that it does not fall from the irregular slit 121.

On the other hand, in the present embodiment, since the protruding portion 120A is provided, the front side of the bottle P is pushed by the protruding portion 120A before the spherical bottle P reaches the irregular slit 121. Therefore, the bottle P accommodated in the bag portion 112A in the incomplete state can be prevented from being sent to the irregular slit 121 in advance, so that the recovery rate of the bottle P can be improved.

In addition, the bottle P accommodated in the bag portion 112A in the full state is also pressed against the front side by the protruding portion 120A, and the bottle P accommodated in the bag portion 112A in the full state is small in the small diameter portion P1 and large. Since the two portions of the diameter portion P2 are in contact with the fixed plate 120, they do not fall from the bag portion 112A.

When the plurality of ball bottles P staying on the lower end side of the rotor 111 are arranged neatly, since the retained bottle P is difficult to enter the bag portion 112A, the recovery rate of the bottle P is lowered.

On the other hand, in the present embodiment, the agitating portion 111D is provided on the front side of the rotor 111, and the plurality of ball bottles P staying on the lower end side of the rotor 111 are stirred by the agitating portion 111D. Therefore, since the plurality of ball bottles P remaining on the lower end side of the rotor 111 can be prevented from being aligned neatly, the recovery rate of the bottle P can be prevented from being lowered.

(Fourth embodiment)

This embodiment relates to a mounting structure of a bracket in which various members are attached to the bowling game device 1. Hereinafter, the present embodiment will be described by taking a case where the bracket 600 is attached to the side surface of the fairway 3 in the bowling game device 1.

Further, Fig. 43 is a side view showing the appearance of the bowling game device 1. Fig. 44 is a cross-sectional view of the side frame 610 (sectional view taken along line 44-44 of Fig. 43). Figure 45a is a front view of the cradle 600, Figure 45b is a side view of the cradle 600, and Figure 45c is an inside view of the cradle 600. Fig. 46 is an explanatory view of the mounting of the bracket 600. Fig. 47 is a cross-sectional view showing a state in which the bracket 600 is attached to the side frame 610, and is a cross-sectional view taken along line 47-47 of Fig. 43.

Then, in the bowling game device 1, as shown in Fig. 43, a side frame 610 extending in parallel with the longitudinal direction of the fairway 3 is provided on the side surface of the fairway 3, and in the side frame 610 where the bracket 600 is assembled, As shown in Fig. 44, a pair of opposed groove portions 611 and 612 which are spaced apart from each other at a predetermined interval are provided.

Further, in the present embodiment, the pair of groove portions 611 and 612 also extend in the same direction as the side frame 610, and the groove portions 611 and 612 are pressed or stretched together with the side frame 610 to a metal material such as aluminum. Processed and integrated.

Further, as shown in FIG. 45a, the bracket 600 includes a mounting portion 601 for mounting various members, and a fitting plate 602 on which the mounting portion 601 is provided while being fitted and fitted with a pair of groove portions 611 and 612. .

Then, the dimension (hereinafter referred to as height dimension) W2 fitted between the groove portions 611 and 612 of the fitting plate 602 is set to be slightly smaller than the dimension W1 (see FIG. 44) between the pair of groove portions 611 and 612. The size, and as shown in Fig. 45c, is provided on the diagonal portion of the fitting plate 602 with a chamfer 603 having a diagonally dimension W3 and a height dimension W2 which are substantially the same size.

Therefore, when the bracket 600 is attached to the side frame 610, as shown in Fig. 46, the bracket 600 is rotated from the tilted state (the state shown by the broken line) to the state shown by the solid line, so that the chamfer 603 is opposed to the groove portion 611. 612 is slightly parallel, whereby the fitting plate 602 can be filled into the groove portions 611, 612.

In the present embodiment, since the height dimension W2 of the fitting plate 602 is set to be slightly smaller than the dimension W1 between the pair of groove portions 611 and 612, the bracket 600 can be moved along the longitudinal direction of the groove portions 611 and 612.

Here, in the present embodiment, as shown in Fig. 43, a pair of restricting plates 630 for restricting the movement of the bracket 600 in the longitudinal direction of the side frame 610 are inserted into both sides of the bracket 600 attached to the side frame 610. Between the groove portions 611, 612.

Further, since the restricting plate 630 also serves as the positioning member of the bracket 600, after the restricting plate 630 is filled in the groove portions 611, 612, although the bracket 600 is preferably filled in the groove portions 611, 612, the restricting plate 630 of the present embodiment is An elastically deformable member such as a resin is formed, so that even after the bracket 600 is mounted to the side frame 610, the restricting plate 630 can be filled between the pair of groove portions 611, 612.

(Fifth Embodiment)

In the present embodiment, as shown in Fig. 48, the discharge port 123C of the guide member 123 is disposed at the center in the width direction (horizontal direction), and the direction of the opening of the discharge port 123C and the vertical direction (up and down direction) as viewed from the rear side. ) Generally consistent.

In other words, in the above-described embodiment, as shown in Fig. 12, the opening direction of the discharge port 123C does not coincide with the vertical direction (vertical direction) as viewed from the rear side. However, in the present embodiment, the opening of the discharge port 123C is not shown. The direction of the portion is substantially the same as the vertical direction (up and down direction).

Thereby, in the present embodiment, since the bottle projector 103 is prevented from being unnecessarily deformed, the bottle P can be smoothly dropped by the dispensing mechanism 210.

Further, since the direction of the opening of the discharge port 123C coincides with the vertical direction (up and down direction), when the guide member 123 is formed by the mold, the mold forming the guide member 123 can be divided up and down, which simplifies the mold structure and can be improved. The productivity of the guiding member 123.

(Sixth embodiment)

In the present embodiment, as shown in Fig. 49, the projector fixing portion 201 is provided with a projector damping plate 201B for forcibly attenuating the vibration of the bottle projector 103, and is provided at the upper portion of the outlet side of the placing nozzle 202. The upper oscillating plate 202A is used to suppress the upward jump of the bottle P.

As described above, in the present embodiment, since the projector damper plate 201B can prevent the spherical bottle projector 103 from generating vibrations more than necessary, it is possible to suppress an inappropriate condition in which the bottle bottle P stops in the bottle projector 103. happened.

Further, since the upper jump vibration plate 202A is provided on the upper portion of the outlet side of the placement nozzle 202, when the bottle P is dropped to the conveyance unit 230, unnecessary vibration such as the jump of the bottle P can be prevented.

Further, in the present embodiment, the projector vibration-damping plate 201B is formed by a metal plate contacting the lower surface side of the bottle projector 103, and the upper-jump vibration plate 202A is formed of an elastic member such as rubber. The plate member is formed by being assembled on the upper side of the outlet side of the placement nozzle 202, but the structure of the vibration-damping plates 201B and 202A is not limited thereto.

(Seventh embodiment)

In the present embodiment, as shown in Figs. 50a and 50b, the spherical vibration-damping member 239 for preventing the bottle P from jumping off the conveyance belt 231 is provided on the conveyance unit 230. Further, the vibration-damping member 239 of the present embodiment is formed of an elastic member such as a rope-like rubber that extends in a direction orthogonal to the conveyance direction of the bottle P.

Incidentally, Fig. 50a is a view of the transport unit 230 as viewed from the upper side, Fig. 50b is a cross-sectional view taken along line 50B-50B of Fig. 50a, and Fig. 51 is a view of the transport belt viewed from the direction of the arrow F of Fig. 50a. Figure 231.

As a result, in the present embodiment, as shown in Fig. 51, even if the bottle P discharged from the placing nozzle 202 impacts the conveying belt 231, the bottle P can be prevented from jumping on the conveying unit 230, and the bottle can be stably conveyed. P.

(Eighth embodiment)

In the present embodiment, the belt of the belt conveyor 101 is not rotated, and the speed at the time of reciprocating movement in the conveyance direction is larger than the speed at which the vehicle is displaced toward the conveyance direction.

That is, Fig. 52 is a top view of the belt conveyor 101 of the embodiment, Fig. 53 is a side view of the belt conveyor 101 of the embodiment, and Fig. 54 is a schematic view showing the operation of the reciprocating mechanism.

As shown in Figs. 52 and 53, the belt conveyor 101 includes an endless belt 101A, a tension roller 101B that imparts a predetermined tension to the belt 101A, a driving roller 101C that imparts a driving force to the belt 101A, and a drive roller 101C. The drive mechanism 101D or the like that drives the roller 101C to swing. Further, in the present embodiment, the belt 101A is fixed to the driving roller 101C by a fixing member such as a bolt 101L (see Fig. 53).

Then, the tension roller 101B is displaceable to the frame 101E via the tensioner 101F, and the spring 101G of the tensioner 101F acts on the tension roller 101B via the tensioner 101F by the force that separates the tension roller 101B from the driving roller 101C. . Moreover, the drive roller 101C is rotatably assembled in a state of being non-displaceable with respect to the frame 101E.

Further, as shown in Fig. 53, the drive mechanism 101D includes an electric motor 101H that generates a rotational force, a crank portion 101J that rotates (revolves) at the rotation center of the electric motor 101H while rotating the electric motor 101H, and the crank portion 101J. The rotational motion is converted into an oscillating motion and transmitted to the slide bar 101K or the like that drives the roller 101C.

Then, in the rotation range indicated by "downstream" in Fig. 54, the driving roller 101C is moved to the conveying direction advancing side, and in the rotation range indicated by "upstream", the driving roller 101C is moved to the conveying direction retreating side. Further, in the present embodiment, the electric motor 101H is rotated to the left (counterclockwise direction) as indicated by an arrow in Fig. 54.

At this time, since the crank portion 101J rotates at an equal angular velocity, the speed at which the retracting side belt 101A is displaced in the conveyance direction is larger than the displacement speed when the belt 101A is displaced in the conveyance direction, and the belt 101A can be prevented from being tilted while the bottle P can be handled. .

In other words, when the belt conveyance direction dimension is 2/3 or less of the dimension in the width direction (the axial direction of the drive roller 101C or the like), the belt conveyor cannot be successfully used because the belt is inclined.

On the other hand, in the present embodiment, since the belt 101A is reciprocated in the conveyance direction without rotating, the inclination of the belt 101A does not occur in principle, but the belt P cannot be conveyed only by the belt 101A being reciprocated.

In other words, in the present embodiment, when the belt 101A is displaced toward the conveyance direction advancing side, the displacement speed of the belt 101A is relatively small, and the bottle P and the belt 101A are integrally advanced.

On the other hand, when the conveyance direction is displaced toward the reverse side, the belt 101A is displaced by a large acceleration, and the inertial force acting on the bottle P exceeds the frictional force generated at the contact portion between the belt and the bottle P, and the bottle P is borrowed. It stops at this point by its inertial mass, and only the belt 101A retreats.

In other words, in the present embodiment, when the belt 101A is displaced toward the conveyance direction, the bottle P is displaced in accordance with the displacement of the belt 101A, and when the belt 101A is displaced toward the conveyance direction, the belt 101A is only moved toward the retreat side. The displacement can carry the bottle P while preventing the belt 101A from tilting.

When the belt 101A is provided with the tilt prevention function, the belt 101A can be conveyed without simply reciprocating the reciprocating motion. However, in the present embodiment, when the diameter of the tension roller 101B is small, it is difficult to A tilt preventing function is provided on the belt 101A. Therefore, the present embodiment is particularly suitable for a belt conveyor having a small diameter of the tension roller 101B and the driving roller 101C.

Further, in the present embodiment, the belt 101A is a line object that connects the center line of the tension roller 101B and the center line of the driving roller 101C, and the dynamic balance of the belt 101A during reciprocation can be achieved. Therefore, it is possible to suppress the load of the electric motor 101H that drives the drive roller 101C from increasing above the demand.

Further, in the present embodiment, the belt 101A is fixed to the driving roller 101C. However, the present invention is not limited to the embodiment, and may be fixed to at least one of the tension roller 101B and the driving roller 101C, or by the belt 101A. The friction generated by the contact surface of the driving roller 101C is large enough to remove the fixing member.

(Other embodiments)

In the above-described embodiment, the present invention is applied to Bilibo (registered trademark), but the present invention is not limited thereto and can be applied to a general bowling game device.

Further, in the above-described embodiment, the concave portion 113 of the rotor 111 is formed by the through hole, but the present invention is not limited thereto, and the concave portion 113 may be formed by a hole that does not penetrate.

Further, in the above-described embodiment, the rotor 111 and the fixed plate 120 are inclined with respect to the vertical direction. However, the present invention is not limited thereto, and the rotor 111 and the fixed plate 120 are parallel to the vertical direction.

Further, in the above-described embodiment, the spherical bottles P collected by using the irregular slits 121 are arranged in the same direction, but the present invention is not limited thereto.

Further, the distribution mechanism 210, the transport unit 230, the bottle placement machine 300, and the bottle guide elevating mechanism 350 are not limited to the mechanisms described in the above embodiments.

Further, the present invention is not limited to the above-described embodiments as long as it is in accordance with the invention described in the scope of the patent application.

1‧‧‧ bowling game device

3‧‧‧ fairways

3A‧‧‧孔部

4‧‧‧Frame

200‧‧‧Ball handling mechanism

100‧‧‧Recycling agency

101‧‧‧ Belt conveyor

103‧‧‧Ball Projector

105‧‧‧Ball Projector

110‧‧‧Recycling Department

111‧‧‧ Rotator

111A‧‧‧Rotary axis

112‧‧‧Protruding

112A‧‧‧Bag Department

121A‧‧‧First hole

121B‧‧‧Second hole

122‧‧‧ gap

123‧‧‧Guide members

123A‧‧‧

123B‧‧‧Sloping guide surface

123C‧‧‧Export

123D‧‧‧Resistance

124‧‧‧ Cover

124A‧‧‧ linkage mechanism

124B. . . motor

125. . . Recovery hole

130. . . Cover

131. . . Guide piece

132. . . Cover ring

140. . . motor

200. . . Bottle handling mechanism

201. . . Projector fixing section

202. . . Mounting nozzle

203. . . track

204. . . Drive belt

205. . . motor

210. . . Distribution agency

230. . . Handling unit

231. . . Handling belt

232. . . Clamping protrusion

233. . . Guide piece

234. . . Guide

235. . . Driven roller

236. . . Drive roller

237. . . motor

238. . . Tension lever

250. . . Distributor

251. . . Ball supply port

300. . . Ball bottle placement machine

301. . . Bottle lifting device

302. . . Cylinder

303. . . First cylinder

304. . . Second cylinder

305. . . First protrusion

306. . . First coil spring

307. . . Second protrusion

308. . . Stop

309. . . Filling port

320. . . Piston part

321. . . Pedestal

322. . . Putt

323. . . Second coil spring

324. . . Holding member

324A. . . Through hole

325. . . bolt

340. . . Rising body

341. . . Rising board

342. . . Chain

343. . . Pull up machine

344. . . arm

345. . . Movable sprocket

346. . . Idling sprocket

350. . . Ball guiding and lifting mechanism

351. . . Ball guide

351A. . . Protrusion

352. . . Clamping rod

353. . . High board

354. . . Movable plate

355. . . Actuator

356. . . Fixture

356A. . . bolt

357. . . Coil spring

358. . . Ball sensor

360. . . Backoff mechanism

361. . . Lifting guide

362. . . Guide sheath

363. . . Beam

364. . . Chain

400. . . Sweeping mechanism

500. . . Control circuit

Fig. 1 shows the arrangement of the recovery mechanism 100, the bottle placement machine 300, and the sweeping mechanism 400 of the bottle P in the bowling game device 1.

Fig. 2 is a front view of the recovery mechanism 100 (sectional view of arrow A of Fig. 1).

Fig. 3 is a view of the front side of the recovery mechanism 100 as viewed from the horizontal direction.

Fig. 4a is a front view of the outer cover 130, and Fig. 4b is a right side view of Fig. 4a.

Fig. 5 is a view of the state in which the bottle P is dropped from the irregular slit 121 from the back side.

Fig. 6 is a view of the state shown in Fig. 5 as viewed from the right side of Fig. 5.

Fig. 7 is a front view of the rotor 111.

Fig. 8a is a front view of the fixed plate 120, and Fig. 8b is a front view of the bottle P.

Figures 9a to 9c show the operation of the ball B and the bottle P recovered by the recovery mechanism 100.

Figures 10a to 10c show the operation of the ball B and the bottle P recovered by the recovery mechanism 100.

Fig. 11 is a view of the recovery mechanism 100 viewed from the inside side.

Fig. 12 is a view as seen from the B arrow of Fig. 1.

Fig. 13 is a view in which the setting state of the dispenser 250 is viewed from above.

Figure 14a is a view of the dispensing mechanism 210 as viewed from the arrow B of Figure 1.

Figure 14b is a top view of Figure 14a.

Fig. 15 is a view showing a schematic configuration of the bottle transport mechanism 200.

Figure 16 is a left side view of Figure 15.

Figures 17a to 17d show the upward movement of the bottle P.

Fig. 18 is an enlarged view of the piston portion 320.

Fig. 19a is a cross-sectional view of the bottle guide 351, and Fig. 19b is a cross-sectional view taken along line 19B-19B of Fig. 19a.

Fig. 20 is a view showing the operation of the retracting mechanism 360.

Fig. 21 is a view showing the operation of the retracting mechanism 360.

Fig. 22 is a view of Fig. 20 viewed from the C arrow.

Fig. 23a is a view showing a state in which the bottle guide 351 holds the bottle P, and Fig. 23b is a view in which the holding of the bottle P is released.

Fig. 24 is a block diagram showing the electrical system of the bowling game device 1.

Fig. 25 is a view showing a state of the bottle P accommodated in the bag portion 112A.

Figure 26 is a front elevational view of the recycling mechanism 100.

Figure 27 is a front elevational view of the fixed plate 120.

Figure 28 is a front elevational view of the fixed plate 120.

Fig. 29a is a view of Fig. 28 viewed from the direction of the arrow D, and Fig. 29b is a view of the right side of Fig. 29a.

Figure 30 is a cross-sectional view of the rotor 111.

Fig. 31a is a front view of the outer cover 130, and Fig. 31b is a view taken from the direction of the E arrow in Fig. 31a.

Fig. 32 is an explanatory diagram of the operation of the recovery mechanism 100.

Figs. 33a and 33b are explanatory diagrams of the operation of the recovery mechanism 100.

Figs. 34a and 34b are explanatory views of the operation of the recovery mechanism 100.

Figs. 35a and 35b are explanatory diagrams of the operation of the recovery mechanism 100.

36a and 36b are explanatory views of the operation of the recovery mechanism 100.

Fig. 37a is an operation explanatory diagram of the recovery mechanism 100, and Fig. 37b is an enlarged view of a portion 37B in Fig. 37a.

Fig. 38 is an explanatory diagram of the operation of the recovery mechanism 100.

Figures 39a and 39b are diagrams showing the operation of the recovery mechanism 100.

Figure 40 is a cross-sectional view taken along line 40-40 of Figure 26.

Fig. 41 is a cross-sectional view taken along line 41-41 of Fig. 26.

Fig. 42 is a view for explaining the effect of the concave portion 112F.

Fig. 43 is a side view showing the appearance of the bowling game device 1.

Fig. 44 is a cross-sectional view of the side frame 610 (sectional view taken along line 44-44 of Fig. 43).

Figure 45a is a front view of the cradle 600, Figure 45b is a side view of the cradle 600, and Figure 45c is an inside view of the cradle 600.

Fig. 46 is an explanatory view of the mounting of the bracket 600.

Fig. 47 is a cross-sectional view showing a state in which the bracket 600 is attached to the side frame 610, and is a cross-sectional view taken along line 47-47 in Fig. 43.

Figure 48 is a view showing the features of the fifth embodiment of the present invention.

Figure 49 is a view showing the features of the sixth embodiment of the present invention.

Figures 50a and 50b are views showing features of a seventh embodiment of the present invention.

Fig. 51 is a view showing the effects of the seventh embodiment of the present invention.

Figure 52 is a view showing the features of eight embodiments of the present invention.

Figure 53 is a side view (a partial cross-sectional view) of Figure 52.

Fig. 54 is an explanatory diagram of the operation of the drive mechanism 101D.

3. . . Fairway

3A. . . Hole

4. . . frame

100. . . Recycling agency

101. . . Belt conveyor

103. . . Ball projector

105. . . Ball projector

110. . . Recycling department

111. . . Rotator

200. . . Bottle handling mechanism

201. . . Projector fixing section

202. . . Mounting nozzle

203. . . track

204. . . Drive belt

205. . . motor

210. . . Distribution agency

230. . . Handling unit

231. . . Handling belt

300. . . Ball bottle placement machine

301. . . Bottle lifting device

302. . . Cylinder

303. . . First cylinder

304. . . Second cylinder

305. . . First protrusion

306. . . First coil spring

307. . . Second protrusion

308. . . Stop

309. . . Filling port

320. . . Piston part

321. . . Pedestal

322. . . Putt

323. . . Second coil spring

324. . . Holding member

324A. . . Through hole

325. . . bolt

340. . . Rising body

341. . . Rising board

342. . . Chain

343. . . Pull up machine

344. . . arm

345. . . Movable sprocket

346. . . Idling sprocket

350. . . Ball guiding and lifting mechanism

351. . . Ball guide

351A. . . Protrusion

352. . . Clamping rod

353. . . High board

354. . . Movable plate

355. . . Actuator

356. . . Fixture

356A. . . bolt

357. . . Coil spring

358. . . Ball sensor

360. . . Backoff mechanism

361. . . Lifting guide

362. . . Guide sheath

363. . . Beam

364. . . Chain

400. . . Sweeping mechanism

Claims (2)

A bowling pin rowing machine, which is suitable for a bowling game device in which a player rolls a ball to a plurality of ball bottles that are erected on a fairway, and dumps a plurality of ball bottles that are erected, and arranges the ball bottle at a predetermined position. The utility model comprises a dispenser for guiding the bottle to a predetermined position while sliding the bottle, the bowling bottle discharging machine further comprising a feeding device, and the same number of ball bottles arranged on the fairway are arranged. While the dispenser is being supplied, the bottle is supplied to the plurality of distributors; the bottle supply port of the plurality of distributors is disposed on a substantially straight line; and the supply device is lower than the bottle supply port The plurality of ball bottles arranged in a substantially straight line in a direction orthogonal to the direction in which the bottle is conveyed are conveyed toward the bottle supply port, and the bottle is separately supplied to the plurality of balls in a substantially straight line. The above plurality of bottle supply ports. The bowling pin placement machine of claim 1, wherein the supply device can simultaneously supply the bottle to the plurality of dispensers.