JP2005296053A - Game ball supplying structure - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To eliminate jamming with the game balls when a shooter 43 is provided on the left side of the pachinko machine 1. <P>SOLUTION: The game machine 1 has the shootor 43 which shoots game balls 23 onto the playing surface 49 where the games are offered with the game balls 23, a put-out device 51 for putting out the game balls 23, a speed reduction part 94 for reducing the moving speed of the game balls 23 put out from the put-out device 51, a downflow path member 53 which makes the game balls 23 flow down as reduced in the moving speed with the speed reduction part 94, an upper tray 19 for storing the game balls 23 discharged from the downflow path member 53, a path opening member 33 for discharging the game balls 23 stored in the upper tray 19 and a lower tray 21 for storing the game balls 23 discharged from the upper tray 19. In the game ball supplying structure, the downflow path member 53 has a downflow path 57 of the upper tray 19 and an overflow path 85 which makes the game balls 23 overflow on the lower tray 21 as retained in the downflow path 57 without flowing down from the downflow path 57. <P>COPYRIGHT: (C)2006,JPO&NCIPI

Description

  The present invention relates to a structure of a portion for supplying a game ball from a game ball payout device to a launching device for launching a game ball.

Recently, for the purpose of effectively using the game board surface, a game ball supply structure has been adopted in which the game ball launching device is moved from the conventional right side to the left side and the game ball is launched directly above (see Patent Document 1).
In such a game ball supply structure in which the game ball launching device is located on the left side, if the game ball dispensing device is moved to the right side in response to the game ball launching device being moved to the left side, interference between the two devices will occur. However, when the inner frame is opened and closed from the outer frame, the game ball payout device interferes with the outer frame, so that it is difficult to install the payout device on the right side.

Therefore, it is necessary to consider the application of the structure disposed on the left side of the gaming machine for both the game ball launching device and the game ball payout device.
In this way, when both the game ball launching device and the game ball payout device are arranged on the left side, the game ball is placed on the left side in order to smooth the flow of the game balls on the upper plate and to secure the storage amount. A structure is adopted in which a ball feeding device to be sent to the launching device is provided one by one, and a game ball from the payout device is supplied on the right side. Therefore, a row of game balls sucked into the ball feeder is formed on the left side from the vicinity of the center of the upper plate.

In addition, when a game ball is directly supplied to the upper plate from the nozzle of the rented ball machine on the game island, the game ball is supplied directly to the left side of the upper plate. A structure is provided for guiding the balls so as not to disturb the row of game balls sucked into the ball feeder.
Japanese Patent Laying-Open No. 2003-325786 (FIG. 1) Reality 6-1175 JP 2001-231936 A

   By the way, conventionally, the game ball paid out from the payout device has a structure in which it falls into a vertical cylindrical member connected to a discharge port to the upper plate as it is. For this reason, even if the game balls are full in the vertical cylinder member, the game balls are sent to the discharge port by the weight of the game balls. In addition, when the upper plate is full and the inside of the vertical cylinder member is also filled with game balls, the structure prevents the clogging by collapsing from the top of the full pile of game balls to the overflow port. It was equipped with. For this reason, in the conventional structure, the game ball paid out from the payout outlet is first supplied to the upper plate, and when the upper plate and the vertical cylinder member are full, the game ball overflows into the lower plate ( Patent Document 2).

  Moreover, although the technique provided with both a paying-out apparatus and a launching apparatus on the left side is also proposed (refer patent document 3), it has only the structure of only the upper plate which supplies a game ball one by one with respect to a launching apparatus. For this reason, there is a problem that the amount of storage only with the upper plate is insufficient and the game ball must be lifted frequently from the ball box outside the gaming machine, or it is not possible to appeal the game to the player there were.

  For the above reasons, in the configuration in which both the payout device and the launching device are installed on the left side, the storage amount of the upper plate is insufficient, and the player often places the game ball in the ball box outside the gaming machine on the upper plate. There is a problem in that the image of the gaming machine is deteriorated because the player feels that it is annoying and the digestion speed of the game ball is high. In addition, when the upper plate is full, ball clogging frequently occurs, which causes inconvenience and increases the service man-hours of staff at the game hall.

  Therefore, in the present invention, by providing a structure including both upper and lower ball trays, and an increase in the amount of storage of the upper plate and a function to prevent ball clogging, it is possible to improve the customer satisfaction of the player. The purpose is to achieve both the effect of preventing the deterioration of the image of the gaming machine and the effect of reducing the service man-hours of the staff at the game hall.

  As means for solving the above-mentioned problems, the game ball supply structure of the invention of claim 1 is characterized in that a launching means for launching the game ball to a game area that provides a game by the game ball, and a payout means for paying out the game ball. A speed reduction means for reducing the moving speed of the game ball paid out from the payout means, a flow-down passage for causing the game ball whose movement speed has been reduced by the speed reduction means to flow down in an inclined passage near horizontal, and Game ball storage means for storing game balls discharged from the downflow passage, fired ball supply means for supplying game balls stored in the game ball storage means to the launch means, and stored in the game ball storage means A game ball supply structure for a gaming machine comprising: a storage game ball discharge means for discharging a game ball that is discharged; and a discharge game ball storage means for storing the game ball discharged by the storage game ball discharge means. The road causes the game ball to flow down with respect to the game ball storage means, and a flow-down area in which a predetermined amount of game balls can be stored when the launch supply means and the game ball storage means overflow with game balls, and the flow down The gist of the invention is to provide an overflow area for overflowing the game balls with respect to the discharged game ball storage means when a predetermined amount of game balls is stored in the area.

  As a result, the game balls paid out from the payout means are reduced in moving speed by the speed reducing means, and then flowed down and discharged through the flow-down area of the flow-down passage, and are stored in the game ball storage means.

  In addition, when the launch supply means and the game ball storage means overflow with game balls, the game balls are stored on the flow-down passage, and when the storage becomes excessive, the game balls flow into the overflow area and then overflow. And enters the discharged game ball storage means.

  The game balls stored in the game ball storage means are discharged by the stored game ball discharge means and stored by the discharged game ball storage means, or supplied to the discharge means by the discharge ball supply means and launched into the game area. The

  Therefore, after the moving speed of the game ball paid out from the payout means is reduced by the speed reduction means, the game ball paid out from the payout means has already flowed down in the downflow passage of the inclined passage close to the horizontal. It is possible to prevent the game ball placed on the game ball from being bumped strongly and jumping onto the game ball. Thereby, it is prevented that the game balls are stacked on the flow-down passage and become a lump of game balls, and the ball clogging due to the bridge effect or the like does not occur on the flow-down passage.

  Further, the game balls that are excessively stored in the flow-down area flow into the overflow area, and overflow from the overflow area to the discharged game ball storage means. Therefore, the overflow from the downflow passage to the discharged game ball storage means is performed without causing the ball clogging.

  In addition, any game balls located on the flow area side from the location where the overflow occurs will eventually flow down to the game ball storage means, and the game balls located on the flow area will be stored game balls. It becomes. Therefore, it has a function of substantially increasing the amount of game balls stored by the game ball storage means.

  Moreover, since the downflow passage is installed with an inclination that is nearly horizontal to the extent that the game ball on the downflow passage rolls down, the range occupied by the downflow passage in the vertical direction is reduced, and downsizing is achieved.

  In the game ball supply structure according to the second aspect of the present invention, the flow area and the overflow area of the flow path are configured adjacent to each other on a plate-like member, and by the passage section means that separates the flow path. The game ball supply structure according to claim 1, wherein the game ball supply structure is divided into a state in which the game ball cannot move.

  Thereby, in addition to the action of claim 1, since the flow down area and the overflow area are separated by the passage section means, the area area and the shape of the flow area can be defined by the passage section means, and the flow area It becomes possible to standardize the amount of game balls stored by.

In addition, since the downflow area and the overflow area are configured adjacent to each other on the plate-like member, the downflow passage can be configured as a single horizontal plate, and the range that occupies in the vertical direction is reduced, thereby reducing the size. It is done.
According to a third aspect of the present invention, the game ball supply structure has a predetermined height that prevents the game ball flowing down from the speed reducing means from flowing down in the flow-down area direction of the flow-down passage or in the overflow area direction. The game ball supply structure according to claim 1 or 2, characterized in that the game ball supply structure according to claim 1 or 2 is provided.

  Thereby, in addition to the action of claim 1 or claim 2, the flow direction defining means having a predetermined height guides or blocks the traveling direction of the game ball, thereby causing the game ball to flow down toward the flow area. For this reason, it is possible to reliably put the game ball whose movement speed is reduced via the speed reduction means into the flow-down area.

Therefore, even if the inclination of the flow-down passage is reduced and the game ball rolls, the game ball that has passed through the speed reduction means is surely directed toward the flow-down region.
The game ball supply structure of the invention of claim 4 is characterized in that the flow direction defining means has a slope that is installed on the flow path and changes the flow direction of the game ball that has flowed down. The game ball supply structure of

  Thereby, in addition to the action of claim 3, the traveling direction of the game ball is bent in the direction of the flow-down region on the slope of the flow-down direction defining means, so that the traveling speed of the game ball is greatly decelerated by the flow-down direction defining means. Absent. Therefore, the traveling speed of the game ball whose movement speed has been reduced via the speed reduction means is not further greatly reduced, and the game ball goes directly to the flow-down area without going through the flow direction-defining means. It is possible to prevent the speed difference from increasing.

  Accordingly, since the game ball moves in the direction of the flow-down region at a moving speed without variation, the game ball does not stop even if the inclination of the flow-down passage is reduced and the speed reduction action by the speed reduction means is increased. It will surely go in the direction of the downflow area.

  The game ball supply structure of the invention of claim 5 is characterized in that the speed reducing means includes a blocking member that blocks a moving direction of the game ball, and rapidly decreases the moving speed of the game ball that collides with the blocking member. The game ball supply structure according to any one of claims 1 to 4 is summarized.

Thus, in addition to the effects of the first to fourth aspects, the blocking member blocks the moving path of the game ball paid out from the payout means, thereby rapidly reducing the moving speed of the game ball.
Therefore, the game ball is caused to flow down to the flow-down passage at a low speed, and it is prevented that the game ball hits the game ball on the flow-down passage strongly or jumps up onto the game ball on the flow-down passage.

  6. The game ball supply structure according to claim 4, wherein the slope of the flow direction defining means changes the flow of the game ball in a lateral direction. The structure is the gist.

Thereby, in addition to the operation of the fourth or fifth aspect, the traveling direction of the game ball is bent in the lateral direction by the slope of the flow direction defining means, and flows down toward the flow area.
For this reason, the change of the flow direction by the flow direction defining means can be changed to the desired state by changing the angle, curvature, length, or material of the slope, and the degree of freedom in design is high. Become.

  In the gaming ball supply structure according to the seventh aspect of the present invention, the flow-down area on the flow-down passage is formed on the upper plate-like member disposed on the top and bottom and the upper plate-like member side of the lower plate-like member, and the overflow area is on the lower The game ball supply structure according to any one of claims 1 to 6, wherein the game ball supply structure is configured on a plate-like member side.

  As a result, in addition to the actions of claims 1 to 6, when the falling ball on the upper plate member is full of gaming balls, the gaming balls that could not enter the falling zone are It enters the overflow area on the shaped member and overflows to the discharged game ball storage means.

The game ball supply structure according to claim 8 is characterized in that the slope of the flow direction defining means changes the flow of the game ball upward. .
Thus, in addition to the operation of the seventh aspect, the traveling direction of the game ball is bent upward by the slope of the flow direction defining means, and jumps into the flow area.

  For this reason, the change of the flow direction by the flow direction defining means can be changed to the desired state by changing the angle, curvature, length, or material of the slope, and the degree of freedom in design is high. Become.

  A game ball supply structure according to a ninth aspect of the present invention includes a return passage that guides a game ball that has been launched by the launching means and failed to reach the game area to the flow-down passage. The game ball supply structure according to any one of the above is summarized.

  Thereby, the game ball supplied from the game ball storage means to the launch means by the launch ball supply means and failed to be fired by the launch means returns to the flow-down passage via the return path and enters the game ball storage means again. become.

  The game ball supply structure according to claim 10, wherein the gradient of the flow-down region and the gradient of the overflow region are made different from each other. The main point is the supply structure.

  When the design is made so that the supply path to the game ball storage means for supplying the game balls from the flow-down area and the supply path to the discharge game ball storage means for supplying the game balls from the overflow area are made appropriate. In addition, it is possible to adjust and consider the gradient of the downflow region and the gradient of the overflow region separately.

  In the gaming ball supply structure according to an eleventh aspect of the present invention, a payout ball visualizing window is provided between the payout means and the flow direction defining means so that the state on the upstream side of the flow direction defining means is visible. The gist of the game ball supply structure according to any one of claims 3 to 10 is characterized.

Thereby, it is possible to visually recognize and know the severe ball clogging that has progressed to the upstream side of the flow direction defining means.
A game ball supply structure according to a twelfth aspect of the present invention is the game ball handling side in which the game ball storage means, the fired ball supply means, the stored game ball discharge means, and the discharge game ball storage means are held together. A frame, and the game ball handling side frame are held in an openable and closable manner, and include a main body side frame that holds the launching means, the payout means, the speed reducing means, and the flow-down passage. The gist of the game ball supply structure according to any one of claims 1 to 11 is characterized.

  Accordingly, the game ball handling means, the launch ball supply means, the stored game ball discharge means, and the discharge game ball storage means can be integrally opened and closed by the game ball handling side frame. It can be made in a state where the storage means and the shot ball supply means are combined, and the flow of the game ball from the game ball storage means to the shot ball supply means can be made smooth and the number of components can be minimized without waste. It becomes possible to do.

  Further, the game ball storage means, the storage game ball discharge means, and the discharge game ball storage means can be combined, and the game ball storage means can be discharged from the game ball storage means via the storage game ball discharge means. As a result, the flow of game balls can be made smooth, and the number of components can be minimized without waste.

  The game ball supply structure according to claim 13 is characterized in that the game ball handling side frame includes an overflow passage for guiding the game ball that has passed through the overflow area to the discharged game ball storage means. The game ball supply structure according to claim 12 is a gist.

Thereby, it becomes possible to guide the game ball overflowed from the overflow area to the discharged game ball storage means through the overflow passage.
A game ball supply structure according to a fourteenth aspect of the present invention is characterized by having an inspection structure that enables inspection of the overflow passage in a state where the game ball handling side frame is opened from the main body side frame. The game ball supply structure according to claim 13 is summarized.

  Thereby, the overflow channel can be inspected by opening the game ball handling side frame.

  The game ball supply structure according to the first aspect of the present invention includes a function for preventing the occurrence of clogging of the ball on the downflow passage, a function of performing overflow from the downflow passage to the discharged game ball storage means without any trouble, and Along with the ability to substantially increase the amount of game balls stored, the effect of improving the customer satisfaction of the player, the effect of preventing the deterioration of the image of the gaming machine, and the service manpower of the staff at the game hall It is possible to achieve the excellent effect of being able to achieve the reduction effect.

For example, specifically, the number of game balls stored on the upper plate is increased, and the occurrence of ball clogging is eliminated.
In addition, since the area occupied by the downflow passage in the vertical direction is reduced and the size is reduced, it is possible to reduce the number of parts and the amount of parts, and to increase the number of members used for game production such as a game board. It is possible to attach or attach a large member having a larger effect.

Therefore, there is an extremely excellent effect that resource saving and game play can be improved.
In addition to the effect of claim 1, the game ball supply structure of the invention of claim 2 can reduce the variation in the storage amount of each game machine by uniformizing the storage amount of the game ball by the downflow passage. It is possible to prevent the occurrence of defective gaming machines due to the amount being too large or too small. Therefore, in addition to the effect of the first aspect, there is an extremely excellent effect that the yield of the gaming machine is improved.

  In addition, the flow-down passage can be configured as a single plate, the range occupied in the vertical direction is reduced, and downsizing is achieved, so that the number of parts and the amount of parts can be reduced, and a game board, etc. It is possible to attach more members used for the production of the game or to attach a large member having a greater effect.

Therefore, there is an extremely excellent effect that resource saving and game play can be improved.
In addition to the effects of claim 1 or claim 2, the game ball supply structure of the invention of claim 3 reliably moves the game ball whose traveling direction tends to be unstable due to a decrease in moving speed to the flow-down region. Therefore, when the game balls on the flow-down area are not full, it is prevented that the game balls are accidentally overflowed from the overflow area to the discharge game ball storage means. As a result, even if the inclination of the flow-down passage is relaxed, the game ball can surely flow down from the flow-down area to the game ball storage means. Therefore, the downflow passage is reduced in size, so that the occupied area in the gaming machine can be reduced, and the size of the apparatus for performing the game can be increased. In other words, the present invention has an extremely excellent effect that it is possible to produce a gaming machine that pursues more gaming properties.

  In addition to the effect of claim 3, the game ball supply structure of the invention of claim 4 can reduce the variation in speed of the game ball toward the flow-down region, and therefore strengthens the speed reduction action by the speed reduction means. Or even if the slope of the downflow passage is loosened, it is possible to prevent the generation of game balls that stop on the downflow passage, and the overflow is accidentally overflowed to the discharged game ball storage means. It becomes possible to prevent this.

  This makes it possible to apply a structure that lowers the moving speed to the flow-down area, and it is possible to adopt a structure in which game balls do not hit or jump strongly against game balls in the flow-down area. In this case, it is possible to eliminate the cause of the ball clogging.

  In addition to the effects of the first to fourth aspects, the game ball supply structure according to the fifth aspect of the invention causes the game ball to flow down into the flow-down passage at a low speed, and strongly hits the game ball on the flow-down passage. Thus, it is possible to prevent jumping onto the game ball on the flow-down passage and to eliminate the cause of the ball clogging of the game ball on the flow-down passage.

  In addition to the effects of claim 4 or claim 5, the game ball supply structure of the invention of claim 6 can change the flow direction by the flow direction defining means by changing the angle, curvature, length, or material of the slope. By changing it, it becomes possible to achieve the desired state, the degree of freedom of design is increased, and the function to prevent the occurrence of clogging of the ball on the flow path and the overflowing by the discharged game ball storage means are accidentally overflowed It has an extremely excellent effect that it can be made high with the function of preventing it.

  In addition to the effects of the first to sixth aspects, the game ball supply structure according to the seventh aspect of the invention cannot enter the flow-down area when the game ball is full in the flow-down area on the upper plate member. Since the game ball enters the overflow area on the lower plate-like member due to the action of gravity and overflows to the discharge game ball storage means, the overflow is smoothly performed when the flow area becomes full, It is possible to prevent the occurrence of ball clogging, and to achieve an extremely excellent effect that the service man-hours can be reduced.

  In addition to the effect of claim 7, the game ball supply structure of the invention of claim 8 changes the flow direction change state by the flow direction defining means by changing the angle, curvature, length, material, etc. of the slope, It becomes possible to achieve a desired state, the degree of freedom of design is increased, and the function of preventing the occurrence of ball clogging on the flow-down passage and the accidental overflow to the discharged game ball storage means are prevented. There is an extremely excellent effect that the function can be enhanced together.

  According to the game ball supply structure of the ninth aspect of the present invention, since the game ball that has failed to be returned returns to the game ball storage means again, the game ball supply structure is re-launched without performing the work of returning from the discharge game ball storage means to the game ball storage means. Is possible. As a result, it is possible to save the player's time and to achieve an excellent effect that the player can enjoy the game without interruption.

  The game ball supply structure of the invention of claim 10 includes a supply path to a game ball storage means for supplying a game ball in a flowing area and a supply path to a discharge game ball storage means for supplying a game ball in an overflow area. When it is in an appropriate state, it is possible to adjust the gradient of the flow area and the gradient of the overflow area, so it is easy to select the best structure in the design of the supply path, etc. There is an effect that it is easy to provide a gaming machine having a high function for preventing ball clogging or to provide a gaming machine having a wide gaming area.

  In the gaming ball supply structure according to the eleventh aspect of the invention, it becomes possible to visually recognize and know the severe ball clogging that has progressed to the upstream side of the flow direction regulating means. Therefore, for example, before the launching device stops operating when the full tank switch is activated, it becomes possible to know the ball clogging and perform a process of eliminating the ball clogging. There is an excellent effect that it is possible to prevent suffering a disadvantage due to the stop.

The game ball supply structure according to the twelfth aspect of the present invention has an excellent effect that the flow of the game ball can be made smooth and the number of components can be minimized without waste.
The game ball supply structure according to the thirteenth aspect of the present invention is convenient because the game ball overflowed from the overflow area can be stored in the discharged game ball storage means.

  The game ball supply structure of the invention of claim 14 is convenient because the overflow channel can be checked by opening the game ball handling side frame.

Next, an embodiment of the game ball supply structure of the invention will be described.
FIG. 1 is a front view of the gaming machine 1, and FIG. 2 is an explanatory diagram of the usage state of the gaming machine 1.
As shown in FIG. 1, the gaming machine 1 includes an outer frame 3 attached to a game island (not shown), an inner frame 7 attached to the outer frame 3 by a hinge 5 so as to be opened and closed, and a game board attached to the inner frame 7. 9, a glass frame 11, and a dish unit panel 13 that is similarly attached to the inner frame 7 and located below the glass frame 11. The outer frame 3, the inner frame 7, the game board 9, and the glass frame 11 are substantially the same in appearance and structure as those of conventional pachinko gaming machines.

The dish unit board 13 combined with these commonly used structures has a structure unique to the present invention, and is attached to the inner frame 7 by a hinge 15 as shown in FIG.
As shown in FIGS. 1 and 2, the dish unit board 13 is located at a substantially central portion of the plate-shaped frame member 17 and the plate-shaped frame member 17 and stores a game ball 23 for launching. An upper plate 19, a lower plate 21 positioned below the upper plate 19, and a firing handle 25 for adjusting the firing strength of the game ball 23.

  As shown in FIG. 2, an upper game ball reservoir 27 is provided in the upper tray 19 that stores the game balls 23, and a lower game ball reservoir 29 is provided in the lower tray 21, and the upper game ball reservoir 27 is provided. A game ball passage 31 is formed between the lower game ball reservoir 29 and the lower game ball reservoir 29. A passage opening member 33 is attached to the boundary between the game ball passage 31 and the upper game ball reservoir 27.

  Although the detailed illustration of the passage opening member 33 is omitted, in a normal state, the passage opening member 33 is in a closed state in which the passage of the game ball 23 stored in the upper game ball reservoir 27 is blocked. When the game is performed, the game ball 23 stored in the upper game ball reservoir 27 is in an open state where it enters the game ball passage 31. Thereby, the game ball 23 stored in the upper game ball reservoir 27 of the upper plate 19 remains in the upper game ball reservoir 27 as it is when the passage opening member 33 is not operated, and the passage opening member 33 is opened. When operated, it moves to the lower game ball reservoir 29 via the opening formed by the passage opening member 33 and the game ball passage 31.

  The upper plate 19, the lower plate 21, the passage opening member 33, and the game ball passage 31 are all formed on the plate-like frame member 17. Therefore, with this configuration, the tray unit board 13 operates the passage opening member 33 with respect to the inner frame 7 regardless of the open / closed state, thereby allowing the game ball 23 of the upper tray 19 to be moved to the lower tray 21 without leaking outside. It is possible to move. When the plate unit panel 13 is opened as shown in FIG. 2, the inside and state of the passage opening member 33 and the game ball passage 31 can be seen from the opened surface 35 so that inspection and maintenance are possible. ing.

  Further, as shown in FIG. 2, the tray unit board 13 includes an overflow game ball passage 39 through which a game ball 23 discharged from an overflow port 37 (to be described later) of the game board 9 passes through a lower game ball reservoir 29. As will be described later, the game ball 23 sent to the overflow port 37 of the game board 9 is guided to the lower plate 21.

  Moreover, as shown in FIG. 1, the tray unit board 13 includes a game ball inlet 41 provided at the deepest part of the upper game ball reservoir 27 of the upper plate 19 and a launching device provided at the lower left portion of the game board 9. A launching ball passage 45 communicating with 43 is provided. The launch ball passage 45 has a function of supplying the game ball 23 stored in the upper plate 19 to the launch device 43.

  Due to the structure of the dish unit board 13, the launching device 43 that receives the supply of the game ball 23 from the upper dish 19 is controlled in its operating state by the launch handle 25 and will not be described in detail, but the game ball 23 is placed on the game board 9. Is fired into a launching ball passage 47 configured in a directly upward direction from the lower left portion of the.

  Thereby, the launch ball 43 is launched into the launch ball passage 47, and the game ball 23 is launched from the launch device 43 in a substantially upward direction, rises along the left side of the game board 9, and then bent to the right side. The game surface 49 is located substantially at the center of the game board 9. Thereby, a game ball game by the game surface 49 is provided. Note that the game ball 23 launched on the game surface 49 is discharged out of the gaming machine 1 through an out port (not shown).

  3 is an explanatory view of the operation state of the upper plate 19, FIG. 4 is a perspective view of the dispensing device 51 for supplying the game ball 23 to the upper plate 19 and the flow-down passage member 53, and FIG. FIG. 5 is a perspective view of a dispensing device 51 for supplying a sphere 23 and a flow-down passage member 53.

  As shown in FIG. 3, the upper plate 19 includes an upper game ball reservoir 27 on the right side of the upper plate 19, and the upper game ball reservoir 27 is paid out from a payout device 51 located on the left side of the gaming machine 1. The game ball 23 passes through a flow-down passage member 53 disposed below the gaming surface 49 (see FIG. 1) of the gaming machine 1 and from the left side to the right side of the gaming machine 1, and then flows down. It has a structure which receives supply from the supply port 55 located in the termination | terminus of the downstream flow path 57, and stores it.

  In the upper game ball reservoir 27, the game balls 23 are aligned in a row and moved down the rolling flow (using the slope, the game balls 23 are moved while rolling naturally over the game ball inlet 41 shown in FIG. 1. The game ball alignment groove 59 to be connected is connected. As a result, the game balls 23 stored in the upper game ball reservoir 27 enter the game ball intake 41 through the game ball alignment groove 59 and are supplied to the launching device 43. Further, it is discharged from the passage opening member 33 installed in the vicinity of the game ball inlet 41 to the lower plate 21.

  Further, as shown in FIG. 3, on the left side of the upper plate 19, a concave ball rental receiving base 63 is provided for receiving the game ball 23 lent out from the nozzle 61 of the table ball lending machine on the game island. A game ball passage 65 in which the game ball 23 is allowed to roll down is formed from the rental ball receiving base 63 to the upper game ball reservoir 27. Thereby, the game ball 23 lent out from the nozzle 61 of the inter-ball rental machine is first received by the rental ball receiving base 63, and the game ball path from the rental ball receiving base 63 as shown by the arrow YA shown in FIG. Then, it rolls down toward 65, moves as indicated by arrows YB and YC, and is stored in the upper game ball reservoir 27 provided from the center of the upper plate 19 to the right side. Accordingly, the game balls 23 lent out from the nozzle 61 of the pedestal ball lending machine do not directly flow into or jump into the game ball alignment groove 59, and the game balls aligned in a row in the game ball alignment groove 59. The line of 23 is not disturbed. As a result, it is possible to prevent clogging of the game balls 23 supplied from the upper plate 19 to the launching device 43 due to the game balls 23 lent out from the nozzle 61 of the inter-sphere ball lending machine.

  Moreover, as shown in FIG. 3, the upper plate 19 faces the supply port 55 for supplying the game ball 23 to the upper game ball reservoir 27 and the overflow port 37 for discharging the game ball 23 to the lower game ball reservoir 29. In the portion 67 to be connected, a wall member 75 that covers the supply port 55 and the overflow port 37, a region 71 that faces the overflow port 37, and a region 73 that faces the supply port 55, A wall member 77 separating the region 71 facing the overflow port 37, the upper game ball reservoir 27, and an overflow opening 79 from which the game ball 23 discharged from the overflow port 37 falls.

With such a configuration, the upper plate 19 functions as follows.
The game ball 23 that has flowed down the flow path 57 of the flow path member 53 rolls out from the supply port 55 onto the upper plate 19 in the direction of the arrow YD. Also, the game ball 23 that has come out to the overflow port 37 of the flow-down passage member 53 enters the overflow game ball passage 39 from the overflow opening 79, falls in the direction of the arrow YE, and rolls out to the lower plate 21. . In this case, due to the action of the wall members 75, 77, the game ball 23 that has come out to the supply port 55 does not enter the overflow opening 79, and the game ball 23 that has come out to the overflow port 37 does not Never enter.

Next, the flow-down passage member 53 will be described with reference to FIGS.
The flow-down passage member 53 has a shallow U-shaped bowl shape, and the lower part of the payout device 51 located on the left side of the gaming machine 1 has the highest altitude at the starting point 81 and is provided on the right side of the gaming machine 1. The portion facing the overflow port 37 and the supply port 55 has the lowest altitude at the end point 83, and the game ball 23 located at the start point 81 starts to rotate naturally and rolls down toward the end point 83. It arrange | positions so that it may have an inclination of a grade. It is noted that this inclination does not cause ball clogging according to the test, and the game ball 23 advances to the supply port 55 via the flow-down passage 57 as shown in FIG. When the game ball 23 is completely filled with the downflow passage 57, an appropriate value for the game ball 23 to travel to the overflow port 37 via the overflow passage 85 is determined.

  Further, the flow-down passage member 53 is provided with a passage partition wall member 87 from the end point 83 toward the start point 81. The passage partition wall member 87 is laid along substantially the center line of the downflow passage member 53 and has a function of dividing the downflow passage member 53 into the downflow passage 57 and the overflow passage 85. The range in which the passage section wall member 87 is provided, that is, the length of the passage section wall member 87 is set based on the number of game balls 23 that are fully stored on the flow-down passage 57. For example, the lending ball amount corresponds to 500 yen, and the length is such that 100 game balls 23 are stored on the flow-down passage 57. This length is a design item that is appropriately determined according to the design concept.

  At the starting point 81 side of the passage section wall member 87, the game ball 23 is normally moved to the flow-down passage 57 side, and when the game ball 23 is full on the flow-down passage 57, the game ball 23 overflows. A flow direction regulating member 89 having a slope 91 having a function of moving to the flow path 85 side is attached. The slope 91 of the flow direction regulating member 89 is installed in a state where the altitude is gradually increased from the flow path 57 side of the flow path member 53 toward the overflow channel 85 side, and thereby the start point 81 side to the end point 83. When the game ball 23 rolling down to the side reaches the slope 91, the inclination of the slope 91 acts to bend the traveling direction from the overflow passage 85 side to the flow-down passage 57.

  Thereby, for example, as shown in FIG. 4, the game ball 23 that has reached the slope 91 is bent in the arrow YF direction or the YG direction, proceeds to the flow down passage 57, and moves down the flow down passage 57 with the arrows YH, YI, YJ, It rolls in the YK, YL, and YM directions and reaches the upper plate 19. Note that the inclination and length L1 of the slope 91 are design items set to appropriate values by testing.

  Further, the length L1 of the slope 91 is paid out from the game ball 23 or the payout device 51 returned from the foul ball return port 93, and after passing through the full tank switch 95, the speed L When the game ball 23 in which the ball is rapidly reduced is directed in the directions of the arrows YN and YO directly toward the flow-down passage 57, the game ball 23 does not reach the slope 91, and the game ball 23 overflows directly. When heading in the direction of the arrow YP toward the flow path 85, the value at which the game ball 23 reaches the slope is selected. That is, the length L1 is determined to an appropriate value so that all the game balls 23 flowing down from the starting point 81 side are directed toward the downflow passage 57 side. For example, the value of the length L1 includes the length L2 of the width of the overflow passage 85, the distance L4 between the passage section wall member 87 and the flow direction regulating member 89, and the game ball 23 from the dispensing device 51 flowing down. An appropriate value is determined based on the distance L3 between the portion falling on the passage member 53 and the flow direction regulating member 89 and the inclination of the flow passage member 53, but at least length L1> length L2. There is a need.

  As described above, in the normal state, that is, as shown in FIG. 4, in the state where the game balls 23 are successively entering the flow-down passage 57 and rolling down the flow-down passage 57, the payout device The game ball 23 discharged from 51 or from the foul ball return port 93 is guided in the flow-down passage 57 directly or by being bent by the slope 91, but the game ball 23 on the upper plate 19 When the amount of storage increases and the game ball 23 does not enter the upper plate 19, the game ball 23 is stored until the game ball 23 is full on the flow-down passage 57 as shown in FIG. The Thereby, the function which the apparent storage amount of the upper plate 19 increases is exhibited. In FIG. 5, in order to explain the function of the flow-down passage 57, the actual storage amount is not accurately shown. The actual storage amount is based on the design concept of the gaming machine 1, the lending unit price, etc. Is set as appropriate.

For example, a storage amount that can store a lending ball amount for one time, for example, 500 yen lending balls, is secured.
Further, when the storage amount of the game ball 23 further increases from this state, as shown in FIG. 5, the game ball 23 is accumulated at the upstream side of the flow-down passage 57, that is, the inlet 58 on the starting point 81 side, and the passage partition wall member 87. A game ball 23 is generated that is out of the enclosure. If it becomes like this, the game ball 23 of the entrance 58 removed from the enclosure by the channel | path division wall member 87 will be pushed by the arrow YQ direction only by touching the game ball 23 which rolled down from the starting point 81 side, or this The game ball 23 that has tumbled down on the game ball 23 hits it, bounced back in the direction of the arrow YQ, and tumbled down in the directions of the arrows YR and YS. Therefore, the game balls 23 that are rolling down one after another cannot stay in the flow-down passage 57 and collapse into the overflow passage 85 side. In this way, the game ball 23 that has collapsed from the downflow passage 57 rolls down in the overflow passage 85, proceeds in the directions of arrows YT, YU, and YV, falls from the overflow opening 79 to the lower plate 21, Will be stored. Therefore, when the game ball 23 is full in the flow-down passage 57, the game ball 23 is overflowed into the overflow passage 85 even if the game ball 23 rolls at a slow traveling speed from the starting point 81 side. As a result, there is an extremely excellent effect that ball clogging caused by the fact that overflow is not possible on the flow-down passage member 53 is prevented. In addition, the game ball 23 tightly blocks the entrance 58 of the downflow passage 57 so that the game ball 23 does not overflow into the overflow passage 85, and the entrance 58 overflows in a state where the game ball 23 is not tightly blocked. Since it has a structure that causes a flow, the flow of the game ball 23 on the flow-down passage 57 does not stop at the inlet 58, and the flow-down passage 57 does not cause clogging.

  When the game balls 23 are successively dropped from the overflow opening 79 to the lower plate 21 in this manner, when the lower plate 21 is filled with the storage amount of the game balls 23, the game ball 23 is also over the overflow passage 85. When the supply of the game ball 23 continues, the flow passage member 53 is completely filled, and the game ball 23 reaches the full tank switch 95.

  When the game ball 23 reaches the full tank switch 95 in this way, the full tank switch 95 is activated and the power supply to the launching device 43 is stopped. Therefore, the game ball 23 cannot be fired. As a result, the generation of new winning balls can be prevented and the number of unpaid winning balls can be prevented from increasing excessively. As a result, the cause of trouble between the player and the amusement hall related to the winning balls is reduced. There is an excellent effect of being able to.

The position of the full tank switch 95 is not limited to the position shown in FIGS. 4 and 5, and is disposed so as to operate in a state in which almost one layer of the game ball 23 is filled on the flow-down passage member 53. Also good.
In this way, even when the full switch 95 is activated, the game balls 23 are not stacked, and the possibility of ball clogging is extremely reduced.

  A shutter member 97 is installed at the supply port 55 and the overflow port 37, and when the plate unit panel 13 is pressed against the inner frame 7 to the closed state shown in FIG. 4 and 5, the game ball 23 can pass through the supply port 55 and the overflow port 37.

  On the other hand, when the plate unit panel 13 is separated from the inner frame 7 to the open state shown in FIG. 2, the shutter member 97 is not shown in the figure, but is raised to the closed state, over the downflow passage 57 and the overflow flow. The game ball 23 on the path 85 is stopped by the shutter member 97, and does not fall out.

  Although not shown, a shutter member is also provided on the plate unit board 13 side to prevent the game balls 23 on the upper plate 19 from falling out when the plate unit board 13 is opened from the inner frame 7. Is possible.

Next, the structure of the downflow passage member 153 according to a modification of the downflow passage member 53 will be described with reference to FIG.
The flow-down passage member 153 includes a flow-down passage 157, an overflow passage 185, a supply port 155, an overflow port 137, a flow-down direction defining member 189 having a slope 191, and a speed reduction unit 193.

  In the normal state, the flow-down passage member 153 is such that the game ball 23 flowing down from the starting point 81 is bent upward by the inclined surface 191 of the flow-down direction defining member 89 and flies in the direction of the arrow YW to enter the inlet 158 of the flow-down passage 157. Then, it rolls down on the downflow passage 157 and is supplied to the upper plate 19 via the supply port 155.

  On the other hand, as shown in FIG. 6, when the flow path 157 is filled with the game balls 23, the game balls 23 flying in the direction of the arrow YW hit the game balls 23 at the entrance 158 and fall in the direction of the arrow YX. The path 185 rolls down in the direction of the arrow YY and is supplied to the lower plate 21 via the overflow port 137.

  In this way, even when the game ball 23 on the downflow passage 157 is full, the entrance 158 is not in a state where there is no gap between the game balls 23, and the game ball 23 such as a bridge phenomenon is clogged at the entrance 158. There is no occurrence of state Moreover, in this state, overflow from the downflow passage 157 to the overflow passage 185 is performed without any trouble. As a result, there is an extremely excellent effect that ball clogging caused by the fact that overflow is not possible on the downflow passage member 153 is prevented.

  The gaming machine 1 described above is based on the function of preventing the occurrence of clogging of the balls on the flow-down passages 57 and 157, the function of performing overflow from the flow-down passages 57 and 157 to the lower plate 21 without hindrance, and the upper plate 19. It is possible to obtain a function for substantially increasing the storage amount of the game balls 23, to improve the customer satisfaction of the player, to prevent the deterioration of the image of the gaming machine 1, and to improve the game staff. There is an extremely excellent effect that the service man-hour reduction effect can be achieved together.

  Further, by uniformizing the storage amount of the game ball 23 by the flow-down passages 57, 157, the variation of the storage amount for each gaming machine 1 can be reduced, and the gaming machine due to the storage amount being too much or too little It becomes possible to prevent the occurrence of defects. Therefore, an extremely excellent effect of improving the yield of the gaming machine 1 is achieved.

  In addition, it is possible to reliably move the game ball 23, which tends to be unstable in the traveling direction due to a decrease in moving speed, to the flow-down passage 57, so that the game ball 23 on the flow-down passage 57 is full. If it is not, the overflow from the overflow passage 85 to the lower plate 21 is prevented. Thereby, even if the inclination of the flow-down passage 57 is relaxed, the game ball 23 can surely flow down from the flow-down passage 57 to the upper plate 19. Accordingly, the downflow passage 57 can be downsized to reduce the occupied area in the gaming machine 1 and to increase the size of a device for producing a game. In other words, it has an extremely excellent effect that it is possible to manufacture the gaming machine 1 in pursuit of more playability.

   In addition, since the flow-down passage member 53 can be configured as a single plate, the range occupied in the vertical direction is reduced and the size can be reduced, so that the number of components and the amount of components can be reduced, and the game It is possible to attach more members that are used to produce the game, such as the board 9, or to attach larger members that have a greater effect.

Therefore, there is an extremely excellent effect that resource saving and game play can be improved.
Further, the change state of the flow direction by the flow direction defining member 89 can be changed to the desired state by changing the angle, curvature, length, material, or the like of the inclined surface 91, and the degree of freedom in design is increased. The extremely excellent effect that the function of preventing the occurrence of the clogging of the ball on the flow-down passage 57 and the function of preventing the accidental overflow of the discharged game ball storage means can be enhanced together. Play.

  Alternatively, the game ball 23 that could not enter the flow-down passage 157 enters the overflow passage 185 by the action of gravity and overflows into the lower plate 21 due to the game ball 23 becoming full in the flow-down passage 157. Therefore, the overflow when the flow-down passage 157 is full is smoothly performed, and it is possible to prevent the occurrence of the clogging of the balls, and it is possible to reduce the service man-hours.

  In addition, it is possible to change the flow direction change state by the flow direction defining member 189 to a desired state by changing the angle, curvature, length, material, or the like of the inclined surface 191 and the degree of freedom in design. The function of preventing the occurrence of the clogging of the ball on the flow-down passage 157 and the function of preventing the accidental overflow of the discharged game ball storage means can be enhanced.

In addition, this invention is not limited to said Example, Implementation of various aspects is possible in the range which does not change the summary of this invention.
Note that the gaming machine 1 includes a main board, a sub board, and other electronic circuit boards. Among these boards, only for the purpose of simplifying the test when certifying the gaming machine and validating the type. Some have electronic components used. This electronic component is mounted on the printed circuit board only at the time of testing, is not mounted at the time of mass production, and is not placed on the printed circuit board. Therefore, as shown in FIG. 7, by making it possible to identify only the silk printing on the printed board 201 that is used only during the test, the board inspection in the manufacturing process is facilitated.

  For example, a symbol indicating a capacitor and a serial number are printed on the part number display 205 of the capacitor graphic 203 mounted on the printed board 201 at the time of mass production, as in “C28”. On the other hand, an “M” symbol indicating only the test is added to the part number display 209 of the capacitor graphic 207 mounted only during the test, such as “MC4”.

  In addition, a symbol indicating IC and a serial number are printed on the part number display 213 of the IC graphic 211 mounted at the time of mass production, such as “IC6”. On the other hand, an “M” symbol indicating only the test time is added to the part number display 217 of the IC graphic 215 mounted only during the test time, such as “MIC1”.

  Alternatively, a symbol indicating a connector and a serial number are printed on the part number display 221 of the connector graphic 219 mounted at the time of mass production, such as “CN3”. On the other hand, the “M” symbol indicating only the test time is added to the part number display 225 of the connector graphic 223 mounted only during the test time, such as “MCN2”.

  This makes it possible to quickly and accurately determine whether or not a component is attached by checking the presence or absence of “M” after mounting the component. There is an excellent effect that reduction can be achieved.

Instead of adding “M”, other symbols, characters, or figures may be added, or the font may be changed. Further, the display color may be changed.
Next, the correspondence between the structure of the claims and the embodiment of the invention will be described.

  The launching means of claim 1 is the launching device 43, the payout means is the payout device 51, the speed reducing means is the speed reducing portions 94, 193, the flow down passage is the downflow passage member 53, and the game ball storage means is the upper plate 19. The launch ball supply means is a game ball intake 41 and the launch ball passage 45, the stored game ball discharge means is a passage opening member 33, the game ball passage 31, and the discharge game ball storage means is a lower plate 21, a flow-down area. The overflow passages 57 and 157 correspond to the overflow passages 85 and 185 in the overflow region. In the description of the following claims, descriptions of common parts are omitted.

The passage section means of claim 2 corresponds to a structure in which the passage section wall member 87 or the downflow passage 157 is located above the overflow passage 185.
In addition, the downflow passage 57 and the overflow passage 85 are adjacent to each other on the downflow passage member 53.

The flow direction defining means of claim 3 corresponds to the flow direction defining members 89 and 189.
The slopes of claim 4 correspond to the slopes 91 and 191.
The blocking member according to the fifth aspect corresponds to the speed reduction units 94 and 193 located substantially perpendicular to the traveling direction of the game ball 23.

The slope 91 corresponds to the slope 91.
The flow-down passage 157 corresponds to the flow-down area and the upper plate-shaped member of the seventh aspect, and the overflow flow path 185 corresponds to the lower plate-shaped member and the overflow area.

The flow direction defining means of claim 8 corresponds to the flow direction defining member 189, and the inclined surface 191 corresponds to the inclined surface.
The return passage of claim 9 corresponds to a passage formed between the launch ball passage 47 and the foul ball return port 93.

  The content of claim 10 corresponds to an example in which the downflow passage 57 and the overflow passage 85 have different gradients. Moreover, the example in case the gradient of the downflow path 157 and the overflow path 185 is different corresponds.

The payout ball viewing window of claim 11 corresponds to, for example, the viewing window 99 shown in FIG. 4 in which the vicinity of the speed reduction unit 94 is visible.
The tray unit board 13 corresponds to the game ball handling side frame of claim 12. The main body side frame corresponds to the inner frame 7.

The overflow passage of claim 13 corresponds to the overflow game ball passage 39.
The meaning of claim 14 corresponds to the fact that overflow game ball passage 39 can be inspected by opening tray unit panel 13.

1 is a front view of a gaming machine 1. FIG. It is explanatory drawing of the use condition of the gaming machine. It is explanatory drawing of the operation state of the upper plate. FIG. 3 is a perspective view of a payout device 51 for supplying a game ball 23 to an upper plate 19 and a flow-down passage member 53. FIG. 3 is a perspective view of a payout device 51 for supplying a game ball 23 to an upper plate 19 and a flow-down passage member 53. It is explanatory drawing of the structure of the flow-down channel | path member 153. FIG. It is explanatory drawing of the circuit board mounted in the gaming machine 1.

Explanation of symbols

DESCRIPTION OF SYMBOLS 1 ... Game machine, 3 ... Outer frame, 5, 15 ... Hinge, 7 ... Inner frame, 9 ... Game board,
DESCRIPTION OF SYMBOLS 11 ... Glass frame, 13 ... Dish unit board, 15 ... Hinge, 17 ... Plate-shaped frame member,
19 ... Upper plate, 21 ... Lower plate, 23 ... Game ball, 25 ... Launch handle,
27 ... Upper game ball reservoir, 29 ... Lower game ball reservoir, 31 ... Game ball passage,
33 ... Passage opening member, 35 ... Surface, 37 ... Overflow port, 39 ... Overflow game ball passage,
41 ... Game ball entrance, 43 ... Launching device, 45 ... Launch ball passage,
47 ... Launch ball passage, 49 ... Game side, 51 ... Dispensing device,
53 ... Downflow passage member, 55 ... Supply port, 57 ... Downflow passage,
58 ... Entrance, 59 ... Game ball alignment groove, 61 ... Nozzle, 63 ... Ball rental stand,
65 ... game ball passage, 67 ... part, 69 ... saddle member, 71 ... area, 73 ... area,
75, 77 ... wall members, 79 ... overflow opening, 81 ... starting point, 83 ... end point,
85, 185 ... overflow passage, 87 ... passage section wall member,
89, 189 ... flow direction regulating member, 91, 191 ... slope,
93 ... Foul ball return port, 94, 193 ... Speed reduction part,
95: Full tank switch, 97: Shutter member, 137: Overflow port,
153 ... Downflow passage member, 155 ... Supply port, 157 ... Downflow passage,
158 ... Entrance

Claims (14)

Launching means for launching the game ball into a game area that provides a game with the game ball;
A payout means for paying out the game balls;
Speed reduction means for reducing the moving speed of the game ball paid out from the payout means;
A flow-down passage for causing the game ball whose movement speed is reduced by the speed reduction means to flow down in an inclined passage close to horizontal,
Game ball storage means for storing game balls discharged from the downflow passage;
Firing ball supply means for supplying game balls stored in the game ball storage means to the launch means;
A stored game ball discharge means for discharging the game ball stored in the game ball storage means;
A game ball supply structure for a gaming machine, comprising: a discharged game ball storage means for storing the game balls discharged by the stored game ball discharge means;
The downflow passage is
A flow-down area in which a predetermined amount of game balls can be stored when the launching supply means and the game ball storage means overflow with game balls, while causing the game balls to flow down with respect to the game ball storage means;
A game ball supply structure comprising: an overflow region for overflowing game balls with respect to the discharged game ball storage means when a predetermined amount of game balls are stored in the flow-down region.   The flow area and the overflow area of the flow path are configured adjacent to each other on a plate-like member, and are divided into a state in which a game ball cannot be moved by a path dividing means that separates the flow path. The game ball supply structure according to claim 1, wherein:   A flow direction defining means having a predetermined height for preventing the game ball flowing down from the speed reduction means from flowing down in the direction of the flow area of the flow path or in the direction of the overflow area is provided. The game ball supply structure according to claim 1 or 2.   4. The game ball supply structure according to claim 3, wherein the flow direction defining means has a slope that is installed on the flow path and changes the flow direction of the game ball that has flowed down.   The speed reduction means includes a blocking member that blocks a moving direction of the game ball, and rapidly reduces the moving speed of the game ball that has collided with the blocking member. The game ball supply structure described in 1.   6. The game ball supply structure according to claim 4, wherein the slope of the flow direction defining means changes the flow of the game ball in a horizontal direction.   The downflow area on the downflow passage is configured on the upper plate-like member arranged on the upper and lower sides and the upper plate-like member side of the lower plate-like member, and the overflow area is constituted on the lower plate-like member side. The game ball supply structure according to any one of claims 1 to 6.   8. The game ball supply structure according to claim 7, wherein the slope of the flow direction defining means changes the flow of the game ball upward.   The game ball supply structure according to any one of claims 1 to 8, further comprising a return passage that guides the game ball that has been launched by the launching means and failed to reach the game area to the flow-down passage.   The game ball supply structure according to any one of claims 1 to 9, wherein a gradient of the flow-down region is different from a gradient of the overflow region.   11. A payout ball visualizing window is provided between the paying-out means and the flow-down direction defining means so that a state upstream of the flow-direction-defining means can be visually recognized. A game ball supply structure according to claim 1. A game ball handling side frame that holds the game ball storage means, the launch ball supply means, the stored game ball discharge means, and the discharge game ball storage means together;
The game ball handling side frame is held openably and closably, and includes a main body side frame holding the launching means, the payout means, the speed reducing means, and the flow-down passage. The game ball supply structure according to any one of claims 1 to 11.   13. The game ball supply structure according to claim 12, wherein the game ball handling side frame includes an overflow passage for guiding the game ball that has passed through the overflow area to the discharged game ball storage means.   14. The game ball supply structure according to claim 13, further comprising an inspection structure that enables inspection of the overflow passage in a state where the game ball handling side frame is opened from the main body side frame.

Images