JP2023152453A - Game device and assisting member - Google Patents

Abstract

To provide a game device capable of executing assisting services in a game for putting an object into one of multiple holes.SOLUTION: A game device includes: an object conveyance mechanism for dropping objects housed in a game casing on a stage in which multiple holes into which the objects are put individually are formed; detection means for detecting that the objects enter at least one target hole from among multiple holes formed on the stage; and an assisting member for guiding the objects dropped on the stage by the object conveyance mechanism to the target hole.SELECTED DRAWING: Figure 11

Description

The present invention relates to a game device and an assist member.

2. Description of the Related Art Conventionally, crane game devices have been known in which prizes are won by transporting prizes with a crane arm and dropping them into a drop slot. In the crane game device, a crane arm carries a ping pong ball from a storage container containing a large number of ping pong balls, and drops it onto a stage with multiple holes.If it hits one hole, you win a prize. Gaming devices of the winning type are also known. This type of game device is sometimes called a ``takoyaki stand'' because the shape of the stage with many holes resembles a table for making ``takoyaki.'' A ping pong ball dropped from a crane onto the stage bounces randomly depending on where it falls.

Therefore, regardless of the skill of the player, the ``Takoyaki stand'' game device has a chance of getting a ping pong ball into the hole and winning a prize with just a few plays if you are lucky, even if you are a beginner or light user. It can be easily used.

On the other hand, if you are unlucky, you may not be able to win a prize even if you play a considerable number of times. In general crane game devices, if a player cannot win a prize even after playing a considerable number of games, the player can obtain the prize by calling a staff member known as an "assist service" and repositioning the prize in a position where it is easier to win. Support is in place to make it easier.

However, the ``Takoyaki stand'' game device does not have the concept of replacing prizes, and cannot provide an assist service.

Japanese Patent Application Publication No. 2001-157773

For this reason, it has been desired that the "takoyaki stand" game device also be able to provide an assist service that replaces the replacement of prizes.

The present invention has been made in consideration of the above-mentioned circumstances, and an object thereof is to provide a game device and an assist member that can perform an assist service in a game where an object is inserted into any of a plurality of holes.

In order to solve the above problems, the present invention provides an object transport mechanism for dropping an object housed in a game case onto a stage in which a plurality of holes are formed into which the objects are individually placed; a detection means for detecting that the object has entered at least one target hole among the plurality of holes formed; and an assist for guiding the object dropped on the stage by the object transport mechanism to the target hole. It has a member.

According to the present invention, it is possible to provide an assist service in a game where an object is inserted into any of a plurality of holes.

FIG. 1 is a block diagram showing the configuration of a game system in this embodiment. FIG. 2 is a block diagram showing an example of the functional configuration of a game server in this embodiment. FIG. 1 is a diagram showing the external configuration of a game device (crane game device) in this embodiment. FIG. 2 is a block diagram showing the functional configuration of the game device according to the present embodiment. The figure which shows an example of the situation of the stage in a game. The figure which shows an example of the assist part of the 1st shape in this embodiment. The figure which shows an example of the assist part of the 1st shape in this embodiment. The figure which shows the example of attachment of an assist part. A diagram showing the vicinity of the notch when the assist part is attached. FIG. 7 is a diagram showing the vicinity of the lower end of the hole guide member when the assist part is attached. The figure which shows the situation of the game carried out after assist parts are attached to the stage. The figure which shows an example of the assist part of the 2nd shape (mortar type) in this embodiment. The figure which shows an example of the 3rd shape (wire type) assist part in this embodiment. The figure which shows an example of the assist part of the 4th shape (pipe type) in this embodiment. The figure which shows an example of the assist part of the 5th shape (pipe type) in this embodiment. The figure which shows an example of the assist part of the 6th shape in this embodiment. The figure which shows an example of the assist part of the 7th shape in this embodiment. The figure which shows an example of the assist part of 8th shape in this embodiment. The figure which shows an example of the assist part of the 9th shape in this embodiment. The figure which shows an example of the assist part of the 9th shape in this embodiment. FIG. 3 is a diagram for explaining the operation of the vertical rotation method in this embodiment. FIG. 3 is a diagram for explaining the operation of the horizontal rotation method in this embodiment. FIG. 3 is a diagram for explaining the operation of the forward and backward movement method in this embodiment. FIG. 7 is a diagram for explaining a third form in this embodiment.

Embodiments of the present invention will be described below with reference to the drawings.

FIG. 1 is a block diagram showing the configuration of a game system 5 in this embodiment. A game system 5 shown in FIG. 1 is a system for providing game services using a game device 10 through electronic devices 2 (2-1,..., 2-m) connected via a network 4 including the Internet. It is a system. The electronic device 2 is, for example, a personal computer, a smartphone, a tablet terminal, a television, or the like, which is used by a player who uses a game service. The game system 5 includes a game server 6 and at least one game device 10 (10-1, 10-2, . . . , 10-n).

The game server 6 is connected to the network 4 and sends and receives data to and from the electronic device 2 . Further, the game server 6 is connected to at least one game device 10 (10-1, 10-2,..., 10-n) installed in the facility through a network 8 such as a LAN (Local Area Network). , controls the operation of the game device 10, transmits and receives data, etc.

The game server 6 provides a game service that allows the electronic device 2 connected through the network 4 to play the game device 10 through the network 4 . When the game server 6 receives a game execution request from the electronic device 2, it enables a specific game device 10 selected from the plurality of game devices 10 to execute the game in response to the game execution request.

The game server 6 outputs the operation data received from the electronic device 2 to the game device 10, and operates the game device 10 according to the operation data. The player operating the electronic device 2 can perform input operations to control the game device 10 while checking the operating state of the game device 10 based on the video received from the game server 6.

The game device 10 executes a game under the control of the game server 6. The game device 10 receives, through the game server 6, operation data output in response to a player's input operation on the electronic device 2, and executes control according to the operation data.

In the game system 5 of this embodiment, the game device 10 is realized as, for example, a crane game device. The crane game device in this embodiment is, for example, a game device called a “takoyaki stand.” That is, the game device 10 uses a crane arm (described later) to transport a ping pong ball from a storage container containing a large number of objects (hereinafter referred to as ping pong balls, for example) onto a stage provided with a plurality of holes. This is a game device in which if you drop the ball into one target hole (winning hole), you will win a prize.

FIG. 2 is a block diagram showing an example of the functional configuration of the game server 6 in this embodiment. As shown in FIG. 2, the game server 6 includes, for example, a CPU 6a, a RAM 6b, a storage device 6c, an input device 6d, a display device 6e, and a communication device 6f, which constitute a computer.

The CPU 6a controls the entire game server 6, manages data stored in the storage device 6c, processes for providing network game services, and controls the game device 10 based on programs and data stored in the RAM 6b. /A control unit that executes various processes such as management.

The RAM 6b stores various programs executed by the CPU 6a, data executed by various processes, and the like. The programs stored in the RAM 6b include a basic program (OS (Operating System)), a management program for controlling/managing the plurality of game devices 10, and an assist service for receiving assist service requests from the electronic device 2. Includes a request receiving program, etc. In the assist service for the game device 10 in this embodiment, for example, an assist part (assist member) that guides a ping pong ball dropped on the stage by a crane arm to a target hole is attached to the stage. The attachment of the assist parts is performed by the staff managing the game device 10 or by the operation of the drive unit for attaching the assist parts. Alternatively, in the assist service, for example, an assist part (assist member) can be used that forces the ping pong ball into the target hole by the operation of the drive unit, without carrying the ping pong ball with the crane arm (FIG. 24). Details of the assist parts will be described later.

The storage device 6c stores various programs, data, and the like. Various programs, data, etc. stored in the storage device 6c are loaded into the CPU 6a and processed by the CPU 6a. The storage device 6c can store video data input from the electronic device 2.

The display device 6e displays a screen corresponding to the processing by the CPU 6a on a display such as an LCD (Liquid Crystal Display).

The input device 6d inputs data and instructions corresponding to various processing by the CPU 6a through input devices such as a keyboard and a mouse.
The communication device 6f controls communication with the electronic device 2 via the network 4 and communication with the game device 10 via the network 8 under the control of the CPU 6a.

Note that, like the game server 6 shown in FIG. 2, the electronic device 2 includes a CPU, RAM, storage device, input device, display device, communication device, etc. that constitute a computer. The CPU of the electronic device 2 performs various functions such as overall control of the electronic device 2, management of data stored in the storage device, and processing for using network game services based on programs and data stored in the RAM. Execute processing.

FIG. 3 is a diagram showing the external configuration of the game device 10 (crane game device) in this embodiment.

It is assumed that the game device 10 shown in FIG. 3 is realized by one (left side unit in FIG. 3) of two game units (left side unit, right side unit) mounted in one housing. Note that the game device 10 may have one game unit mounted in one housing.

The game device 10 includes an upper housing and a lower housing. The upper casing has a transparent plate covering the front and side surfaces of the outer periphery of the casing, so that the inside of the casing can be viewed through the transparent plate. Note that since the game device 10 is not directly operated by the player, it does not need to be covered with a transparent plate.

A transport mechanism whose operation is controlled according to operation data input from the game server 6 is provided at the upper part of the upper housing (game space). The transport mechanism includes a crane arm 10A provided at the top of the upper housing, and a crane mechanism section (not shown) for moving the crane arm 10A in, for example, the X-axis direction, the Y-axis direction, and the Z-axis direction (vertical direction). ). The crane mechanism is driven according to operation data indicating, for example, horizontal movement (left and right), vertical movement (back and forth), and descent (catch). An arm (holding claw) for holding an article (ping pong ball) is provided at the tip of the crane arm 10A. It is controlled to open to cause a ping pong ball placed on the nail to fall on the stage.

The holding claw is basically formed so that one ping pong ball can be placed on it, but it is also formed so that a plurality of ping pong balls can be placed on it with one holding operation (closing the arm). Also good. Further, even if the holding operation (arm closing) is performed, the ping pong ball may not be held.

A front camera 12A supported by a camera stand 12B is installed on the front of the game device 10, and a side camera 14A supported by a camera stand 14B is installed on the side. The front camera 12A and the side camera 14A capture images including the crane arm 10A, the stage 10B, the container 10C, and the ping pong ball inside the upper housing, with at least the upper housing as a photographing range.

Although not shown in FIG. 3, an upper camera 13A (shown in FIG. 4) is provided for photographing the inside of the upper housing of the game device 10 from above. The upper camera 13A is provided, for example, on the ceiling within the upper housing, on the upper side of the upper housing, or on the crane arm 10A (main body).

Inside the upper housing of the game device 10, there are provided a stage 10B to which ping pong balls are transported, and a container 10C in which a plurality of ping pong balls are loaded in advance. In the stage 10B, for example, a plurality of holes are formed in the bottom (approximately circular shape) of a transparent container made of plastic, and at least one of the plurality of holes is set as a target hole. The container 10C is, for example, a transparent container made of plastic.

When the game is executed, the crane arm 10A is controlled by a ball conveyance sequence. In the ball conveyance sequence, the crane arm 10A is moved above the container 10C, then moved downward, and controlled to close the arm (holding claw) at the position where it reaches the ping pong balls loaded in the container 10C. The arm is then moved upward, and after being moved above the stage 10B, the arm is controlled to open. As a result, the ping pong balls accommodated in the container 10C are dropped from above the stage 10B. The ping pong ball dropped onto the stage 10B bounces within the container of the stage 10B and either enters any hole provided on the stage 10B or rides on a ping pong ball that has already fallen.

Although the example shown in FIG. 3 shows an example in which two cameras, the front camera 12A, the upper camera 13A, and the side camera 14A, are provided, four or more cameras may be provided to view the game from different directions. The device 10 may be photographed and a video may be output.

In the game system 5 according to the present embodiment, images captured by the front camera 12A and the side camera 14A of the game device 10 are distributed through the game server 6 to the electronic device 2 that has requested execution of the game.

FIG. 4 is a block diagram showing the functional configuration of the game device 10 in this embodiment. As shown in FIG. 4, a control PCB (Print Circuit Board) 68 on which various units are mounted is provided inside the casing of the game device 10. The units mounted on the control PCB 68 include a CPU 70, a RAM 71, a storage device 72, an input/output processing unit 73, a camera control section 74, an assist drive section 75, a motor drive section 76, an arm drive section 77, and a communication control section 78. Includes ball sensor 79 and actuator 80. The assist drive unit 75 and the actuator 80 are included in a drive unit for attaching assist parts.

The CPU 70 controls the entire game device 10 by executing a control program or a game program stored in the RAM 71 or the storage device 72. The CPU 70 controls the motor drive unit 76 and the arm drive unit 77 to operate the crane arm 10A according to operation data input from the game server 6 through the communication control unit 78. Further, the CPU 70 controls video processing for images taken by the front camera 12A, upper camera 13A, and side camera 14A, and output of images taken by the front camera 12A, upper camera 13A, and side camera 14A. The CPU 70 inputs a plurality of images taken by the front camera 12A, the upper camera 13A, and the side camera 14A, and generates a game image to be displayed while the game is being executed on the game device 10. The game video can include not only one of a plurality of videos, but also a video in which a plurality of videos are displayed on one screen.

Further, when the ball sensor 79 detects that a ping pong ball has entered the target hole of the stage 10B, the CPU 70 notifies the game server 6 through the communication control unit 78. In this case, the game server 6 causes the display device 6e to display information about the game device 10 in which a win has occurred in response to the notification from the game device 10.

Moreover, for the assist service, when a notification of operation of the drive unit for attaching assist parts is received from the game server 6, the CPU 70 operates the actuator 80 through the assist drive unit 75.

The RAM 71 temporarily stores various programs such as a control program and a game program, as well as various data for controlling a game associated with processing executed by the CPU 70. The data recorded in the RAM 71 includes, for example, position data indicating the position (X position, Y position) of the crane arm 10A, and data generated based on images taken by the front camera 12A, upper camera 13A, and side camera 14A. Contains game video data, etc.

The storage device 72 stores programs and data in a nonvolatile storage medium such as a ROM or a hard disk.

The input/output processing unit 73 is an interface with various input/output devices provided outside the control PCB 68. For example, a prize sensor 84 is connected to the input/output processing unit 73. The prize sensor 84 detects the prize that has fallen onto the stage 10B and outputs a detection signal to the input/output processing unit 73.

The camera control unit 74 controls photographing by the front camera 12A, the upper camera 13A, and the side camera 14A in accordance with instructions from the CPU 70.

The assist drive unit 75 transmits an assist signal to the actuator 80 to operate it under the control of the CPU 70 . The actuator 80 operates according to the assist signal to mount the assist part on the stage 10B.

The motor drive section 76 controls the drive of the motor 82 provided in the mechanism section 69 (movement control in the X-axis direction, Y-axis direction, and Z-axis direction). The arm drive unit 77 controls the drive of an arm motor 83 for opening and closing an arm provided on the crane arm 10A.

The motor 82 is driven by the motor drive unit 76, and includes an X-axis motor that moves the crane arm 10A in the X-axis direction (horizontal direction), a Y-axis motor that moves it in the Y-axis direction (vertical direction), and a Z-axis motor that moves the crane arm 10A in the Y-axis direction (vertical direction). Includes a Z-axis motor that moves the machine in the vertical direction. The arm motor 83 is driven by the arm drive section 77 and opens and closes the crane arm 10A.

When operation data for causing the crane arm 10A to execute the ball transport sequence is received from the game server 6, the motor drive unit 76 and the arm drive unit 77 cause the crane arm 10A to operate using the motor 82 in order to execute the ball transport sequence. The crane arm 10A is lowered to a position where the tip reaches the ping pong balls loaded in the container 10C, and the arm motor 83 causes the arm to grab the ping pong balls, and then the crane arm 10A is raised and moved to the top of the stage 10B. Then make the arm open.

The communication control unit 78 controls communication with the game server 6 under the control of the CPU 70.

The ball sensor 79 is a sensor for detecting that a ping pong ball has entered the target hole of the stage 10B. The ball sensor 79 is disposed, for example, at the bottom of a target hole provided on the stage 10B, and optically detects that a ping pong ball has entered the target hole, and notifies the CPU 70 of the detection.

Next, the operation of the game system 5 in this embodiment will be explained.

First, a user operates the electronic device 2 to access a site (hereinafter referred to as a game site) for providing network game services via the network 4, and uses the game device 10, for example, from the menu screen. Select.

When any game device 10 is selected from the menu screen in the electronic device 2, the game server 6 (CPU 6a) transmits a game execution request to the selected game device 10. The CPU 6a inputs the game video output from the game device 10 that has transmitted the game execution request, and outputs video data for displaying a screen including the game video to the electronic device 2. The game video is, for example, a video that is composed of a plurality of videos taken from different directions of the game device 10 by the front camera 12A and the side camera 14A of the game device 10, in order to display them on one screen.

The electronic device 2 causes the display device to display a game screen based on the video data input from the game server 6. On the game screen, for example, game images captured by the front camera 12A and the side camera 14A of the game device 10 are simultaneously displayed on one screen. Further, the game screen is provided with an execution button for operating the crane arm 10A on the game device 10, an assist request button for requesting an assist service, and the like. When the electronic device 2 detects an input operation on a button on the game screen, the electronic device 2 transmits the operation data to the game system 5 (game server 6).

The game server 6 outputs operation data corresponding to the execution button received from the electronic device 2 to the game device 10, and causes the game device 10 to operate according to the operation data. That is, the game device 10 causes the crane arm 10A to execute a series of ball conveyance sequences in which the ping pong balls loaded in the container 10C are taken out, moved above the stage 10B, and dropped.

Specifically, the game device 10 moves the crane arm 10A above the container 10C, then moves it downward, and moves the arm (holding claw) at a position where it reaches the ping pong balls loaded in the container 10C. The arm is controlled to be closed, then moved upward, and then opened after being moved above the stage 10B.

The ping pong ball dropped onto the stage 10B bounces within the container of the stage 10B and either enters any hole provided on the stage 10B or rides on a ping pong ball that has already fallen.

Note that when one player plays a game on the game device 10, the player does not always start from a state where there are no ping pong balls on the stage 10B, but from the previous game played by the player or the game played by another player. It is possible to start from a state in which the ping pong ball dropped by is on the stage 10B (excluding the target hole 10B2).

In the game device 10 of this embodiment, one ball transport sequence is executed, for example, by one game play (one charge). The ping pong ball dropped on stage 10B bounces irregularly depending on the position where it falls, so if you are lucky, the ping pong ball will hit the target hole in one game play, but if you are unlucky, it will take a considerable number of game plays. But sometimes the ping pong ball doesn't go into the target hole.

FIGS. 5A and 5B show an example of the situation on stage 10B during the game.

As shown in FIG. 5(A), the stage 10B has a plurality of holes provided in the bottom surface 10B1 of a transparent container 10B3, one of which is set as a target hole 10B2. The bottom surface 10B1 of the container 10B3 is formed into a substantially circular shape, and the target hole 10B2 is provided at a position offset from the center of the substantially circular shape. The example shown in FIG. 5(A) shows a state in which a ping pong ball B enters the target hole 10B2 by one game play.

FIG. 5(B) shows a state in which no ping pong ball B has entered the target hole 10B2 even after multiple game plays. For example, there is a possibility that a ping pong ball enters the hole around the target hole 10B2 first, and as a result, it becomes blocked by the ping pong balls around the target hole 10B2, making it difficult to enter the target hole 10B2. In such a case, ping pong balls will pile up around the target hole 10B2.

As shown in FIG. 5(B), when it is not possible to put a ping pong ball into the target hole 10B2 even after a considerable number of game plays, the game system 5 in this embodiment makes it easier to put the ping pong ball into the target hole 10B2. This provides an assist service that allows the player to win a prize by placing a ping-pong ball in the container (or by actually placing a ping-pong ball in the container).

The conditions for implementing the assist service are, for example, if one player fails to put a ping pong ball into the target hole 10B2 even after playing the game a preset number of times or more on the same game device 10, or Let us assume that an assist request is received from a player who has not been able to put a ping pong ball into the target hole 10B2 even after playing the game a set number of times or more.

The number of times a player plays a game is managed, for example, by the game server 6. When there is a player who has played the game a preset number of times or more, the game server 6 causes the display device 6e to display information about the corresponding game device 10 and the player. Further, when operation data indicating an assist request is received in response to an input operation on an assist request button on a game screen displayed on the electronic device 2, information on the corresponding game device 10 and the player is displayed on the display device 6e. to be displayed.

Note that the conditions for implementing the assist service are not limited to those described above, and can be arbitrarily determined by the operator of the game system 5.

For example, for the purpose of shortening game play time, an assist service may be provided in response to, for example, an assist request made by a player operating an assist request button, a charge made by the player, etc., regardless of the above-mentioned implementation conditions. Furthermore, in order to adjust the game level (difficulty level) without depending on the player's request, that is, to make it easier to put the ping pong ball into the target hole 10B2, for example, the implementation status of the game device 10 and the staff's The assist service may be provided before the start of the game or during the execution of the game, depending on the judgment, payment by the player, and the like.

As a method for providing the assist service, (1) the staff member managing the game device 10 checks the game device 10 to be assisted displayed on the display device 6e of the game server 6, and selects the stage 10B of the corresponding game device 10; In contrast, a first mode in which the assist parts are attached by the staff, (2) the drive unit for attaching the assist parts (assist drive unit 75, actuator 80) is operated under the control of the CPU 6a of the game server 6; (3) Under the control of the CPU 6a of the game server 6, the drive unit for attaching the assist parts (assist drive unit 75, actuator 80) is operated to set the target. There is a third form in which a ping pong ball is placed in the hole 10B2.

Although the status of the game device 10 is checked through the game server 6, for example, a staff member may directly check the game device 10 and provide an assist service. In this case, each game device 10 may determine the situation in which it is necessary to provide an assist service, output a request to provide an assist service by display or voice, and notify the staff.

Furthermore, in the second and third embodiments, the drive unit is operated under the control of the game server 6 (CPU 6a), but for example, when the game device 10 is offline with the game server 6, the drive unit is operated independently. You can do it like this. In this case, in the same manner as described above, it is also possible to determine the situation in which the provision of an assist service is required in each game device 10 and operate the drive unit.

First, (1) the case where assist parts are attached according to the first embodiment will be explained.

First, assist parts (assist members) used in the assist service in this embodiment will be explained. Here, assist parts 20A, 20B, 20C, 20D, 20E, and 20F of the first to sixth shapes will be explained.

6 and 7 are diagrams showing an example of the first-shaped assist part 20A in this embodiment. FIG. 6 shows the appearance of the assist part 20A, and FIG. 9 is a diagram showing individual members constituting the assist part 20A.

As shown in FIGS. 6 and 7, the assist part 20A is constructed by combining three members. That is, it is constituted by a side member 20A1, a receiving member 20A2, and a hole guiding member 20A3. Each member is made of, for example, transparent plastic. The side member 20A1 and the receiving member 20A2 have a thin planar shape and have flexibility. The hole guide 20A3 has rigidity and is formed into a cylinder (pipe) shape through which a ping pong ball can pass. The hole guide member 20A3 is used as a first member that guides a ping pong ball that enters from one end (upper end) side to a position where it enters a target hole and takes it out from the other end (lower end) side.

The hole guide member 20A3 has a cylindrical shape, for example. The outer diameter of the cylinder is set to a size that does not come into contact with ping pong balls that have entered holes around the target hole when the hole guide member 20A3 is installed in accordance with the position of the target hole provided on the stage 10B. Note that the outer shape of the hole guiding member 20A3 does not have to be cylindrical as long as it does not come into contact with ping pong balls that have entered the holes around the target hole. It may be formed.

As shown in FIG. 7, the side member 20A1 is provided with three notches A11, A12, and A13 on the left side along the lower side, and three notches A14, A15, and A16 on the right side. Further, cuts A18 and A19 are formed in the lower side near both ends of the side member 20A1.

The receiving member 20A2 is formed into a substantially trapezoidal shape, and insert members A21, A22, A23, A24, A25, and A26 are formed on the sides of the trapezoidal legs to match the size of the notches A11 to A13 and A14 to A16. be done.

Curve the side member 20A1 at the center, insert the corresponding insertion members A21, A22, A23 into the notches A11, A12, A13, and similarly insert the corresponding inserts into the notches A14, A15, A16. Insert members A24, A25, and A26. In this way, the second member is configured by combining the side member 20A1 and the receiving member 20A2.

By curving the side member 20A1 at the center, the rectangular portion A17 formed at the lower center of the side member 20A1 is curved to form a curved surface close to the inner diameter or outer diameter of the hole guiding member 20A3. This makes it easier to integrate the curved rectangular portion A17 and the hole guiding member 20A3. The side member 20A1 (second member) and the hole guide member 20A3 (first member) are combined by integrating the rectangular portion A17 and the hole guide member 20A3 with adhesive tape, adhesive, rubber, etc. , assist parts 20A can be formed.

As shown in FIG. 7, each member constituting the assist part 20A is made of inexpensive material and has a simple shape, so manufacturing costs can be reduced. Moreover, even if it is damaged, it can be easily repaired.

In this way, by combining the first member (hole guiding member 20A3) and the second member (side member 20A1, receiving member 20A2), the ping pong ball dropped by the crane arm 10A is received by the receiving member 20A2, and the side member 20A1 to prevent it from falling from above the receiving member 20A2, guide the hole guiding member 20A3 to enter from the upper end side by the slope of the receiving member 20A2, and move (fall) downward from the upper end side of the hole guiding member 20A3 to the lower end side. It is possible to configure assist parts 20A that can be taken out from the machine.

FIGS. 8(A) and 8(B) show an example of how the assist part 20A is attached.

FIG. 8(A) shows a state in which ping pong balls are stacked around the target hole 10B2, making it difficult to put the ping pong balls into the target hole 10B2.

FIG. 8(B) shows a state in which the assist part 20A is attached to the stage 10B in the state shown in FIG. 8(A). As shown in FIG. 8(A), the assist part 20A hooks cuts A18 and A19 formed on the lower side near the end of the side member 20A1 to the upper side of the container 10B3 of the stage 10B. The widths of the cuts A18 and A19 are formed to be slightly wider than the thickness of the container 10B3 of the stage 10B.

FIG. 9 is a diagram showing the vicinity of the cuts A18 and A19 when the assist part 20A (side member 20A1) is attached. As shown in FIG. 9, since the notches A18 and A19 are formed on the lower side of the side member 20A1, the upper side of the container 10B3 and the notches A18 and A19 can be engaged by simply placing the container 10B3 from above. I can do it.
FIG. 10 is a diagram showing the vicinity of the lower end of the hole guide member 20A3 when the assist part 20A is attached. The assist part 20A is formed in a size such that the lower end of the hole guide member 20A3 covers the target hole 10B2 by making the cuts A18 and A19 on the upper side of the container 10B3, as shown in FIG. Since the hole guide member 20A3 has rigidity, the assist part 20A can be made to stand on its own by being placed on the stage 10B at the position of the target hole 10B2.

Further, when the assist part 20A is attached, the hole guiding member 20A3 is placed on the stage 10B in a substantially vertical state. That is, when the assist part 20A is attached, there is no risk that the hole guiding member 20A3 will come into contact with the ping pong balls piled up around the target hole 10B2. Further, since the hole guide member 20A3 is placed in a substantially vertical state, the ping pong ball entering from the upper end can be smoothly passed through and reliably placed in the target hole 10B2.

Moreover, the target hole 10B2 is arranged at a position shifted from the center of the bottom surface 10B1 of the substantially circular container 10B3. Therefore, when the hole guide member 20A3 is aligned with the target hole 10B2, one position is identified where the two notches A18 and A19 can engage the container 10B3 at the same time. Thereby, even inexperienced staff members can correctly, easily, and quickly attach the assist part 20A to the stage 10B.

FIG. 11 is a diagram showing the situation of the game that is played after the assist part 20A is attached to the stage 10B. 11(A) is a diagram of the stage 10B viewed from the front direction of the game device 10, and FIG. 11(B) is a diagram of the stage 10B viewed from the diagonal direction of the game device 10.

After the assist part 20A is installed as an assist service, a game play by the user who requested the assist service is performed on the game device 10 to which the assist part 20A is installed. In the game play, as shown in FIGS. 11(A) and 11(B), the ping pong balls housed in the container 10C are moved to above the stage 10B by the operation of the crane arm 10A. .

The upward movement destination of the stage 10B by the crane arm 10A is controlled to be approximately the same position each time. Therefore, since the mounting position of the assist part 20A is formed to match the position where the ping pong ball is dropped from the crane arm 10A, the ping pong ball dropped from the crane arm 10A falls onto the receiving member 20A2 of the assist part 20A. do. Since the receiving member 20A2 is made of flexible thin plastic, it absorbs the impact when a ping pong ball dropped from the crane arm 10A collides with it, and prevents it from bouncing and falling to the outside. I can do it.

As described above, the ping pong ball that has fallen onto the receiving member 20A2 is guided to the upper end of the hole guiding member 20A3, and reliably enters the target hole 10B2 through the hole guiding member 20A3. The ball sensor 79 detects that the ping pong ball has entered the target hole 10B2, and the game server 6 is notified. Thereby, the game server 6 can detect that a win has occurred in the game play of the game device 10. That is, the player who has received the assist service can reliably win the prize.

As described above, in the game system 5 of this embodiment, (1) by attaching the assist part 20A to the stage 10B according to the first embodiment, it is possible to provide an assist service to the user.

Next, modified examples of the assist part 20A will be described with reference to FIGS. 12 to 16.

FIG. 12 is a diagram showing an example of the second-shaped (mortar-shaped) assist part 20B in this embodiment.

The second-shaped assist part 20B is formed into a mortar-like cover shape that covers the entire opening of the container 10B3 on the stage 10B. The assist part 20B can be attached to the stage 10B by simply placing it over the container 10B3. Note that in order to cover the assist part 20B in the correct position, it is desirable to add a mark or the like for positioning the container 10B3 and the assist part 20B.

The assist part 20B is provided with a hole 20B1 through which the ping pong ball B can pass, at a position directly above the target hole 10B2 provided in the bottom surface 10B1 when the assist part 20B is installed in the correct position. The assist part 20B guides the ping pong ball dropped from the crane arm 10A to the hole 20B1 by tilting it. The ping pong ball guided to the hole 20B1 falls from the hole 20B1 and enters the target hole 10B2.

In this way, by using the second-shaped assist part 20B, it is possible to perform an assist service in the same way as the assist part 20A. The assist part 20B only needs to be placed over the container 10B3, so the installation work is simple. In addition, the assist part 20B can be installed without a member such as the hole guide member 20A3 of the assist part 20A, so that it can have a simple structure. In addition, in order to reliably guide the ping pong ball guided to the hole 20B1 to the target hole 10B2, a hole guiding member (pipe) extending downward from the hole 20B1 may be provided. In this case, the hole guide member (pipe) does not need to support the assist part 20B, so it may have a length that does not reach the target hole 10B2.

FIG. 13 is a diagram showing an example of a third-shaped (wire type) assist part 20C in this embodiment.

The third-shaped assist part 20C is composed of a receiving member 20C1 (second member) and a hole guiding member 20C2 (first member) formed in a coarse mesh shape using wire. As the hole guiding member 20C2, a member similar to the hole guiding member 20A3 of the assist part 20A can be used. One end of the wire of the receiving member 20C1 is locked to the upper end of the hole guide member 20C2, and the other end is hung to the upper side of the container 10B3 on the stage 10B.

By forming the mesh forming the receiving member 20C1 in a fan shape, it is possible to receive the ping pong balls dropped from the crane arm 10A over a wide range. Since the height of the upper end of the hole guiding member 20C2 is lower than the upper end of the container 10B3, the receiving member 20C1 is inclined in the direction of the hole guiding member 20C2. Therefore, the ping pong ball received by the receiving member 20C1 is guided to the hole guiding member 20C2, and is put into the target hole 10B2 through the hole guiding member 20C2.

Note that the receiving member 20C1 and the hole guiding member 20C2 may be configured to be fixed, or they may be configured to be separated, and after the hole guiding member 20C2 is attached first, the hole guiding member 20C2 and the container 10B3 are connected. A receiving member 20C1 may be installed between them. Further, similarly to the side member 20A1 of the assist part 20A, a side member formed in a coarse mesh shape using wire may be provided to prevent the ping pong balls received by the receiving member 20C1 from falling.

FIG. 14 is a diagram showing an example of the fourth-shaped (pipe-shaped) assist part 20D in this embodiment.

The fourth-shaped assist part 20D includes a receiving member 20D1 (second member) obtained by cutting a cylindrical pipe in the length direction and a hole guiding member 20D2 (first member). As the hole guiding member 20D2, a member similar to the hole guiding member 20A3 (or hole guiding member 20C2) of the assist part 20A can be used. The receiving member 20D1 is formed so that the radial cross section of the pipe is semicircular or arcuate, and is capable of receiving a ping pong ball dropped from the crane arm 10A.

The receiving member 20D1 is provided with a hole communicating with the upper end of the hole guiding member 20D2 at the lower part of one end thereof, and is joined to the hole guiding member 20D2 at the hole position. A ping pong ball stopping plate 20D3 is provided at one end of the receiving member 20D1 to stop the ping pong balls guided in the direction of the hole by the receiving member 20D1 and guide them to the hole guiding member 20D2.

The other end of the receiving member 20D1 is placed (or fixed by providing a fixing member) on the upper end of the container 10B3 on the stage 10B. Since the height of the upper end of the hole guiding member 20D2 is lower than the upper end of the container 10B3, the receiving member 20D1 is inclined in the direction of the hole guiding member 20D2. Therefore, the ping pong ball received by the receiving member 20D1 is guided to the hole guiding member 20D2, passes through the hole guiding member 20C, and enters the target hole 10B2.

FIG. 15 is a diagram showing an example of the fifth-shaped (pipe-shaped) assist part 20E in this embodiment.

The fifth-shaped assist part 20E is composed of a receiving member 20E1 (second member) obtained by cutting a part of a cylindrical pipe in the length direction and a hole guiding member 20E2 (first member). As the hole guiding member 20E2, a member similar to the hole guiding member 20A3 (or hole guiding member 20C2) of the assist part 20A can be used.

The fourth-shaped assist part 20D forms a receiving member 20D1 by cutting the entire cylindrical pipe lengthwise, but the fifth-shaped assist part 20E cuts a part of the cylindrical pipe lengthwise. The receiving member 20E1 is formed by cutting in the widthwise direction and opening it.

A hole communicating with the upper end of the hole guiding member 20E2 is provided at the lower end of the pipe opposite to the receiving member 20E1, and the pipe is joined to the hole guiding member 20E2 at the hole position. The end of the pipe opposite to the receiving member 20E1 is closed by a ping pong ball stopping plate 20E3 for stopping the ping pong balls guided in the direction of the hole by the receiving member 20E1 and guiding them to the hole guiding member 20E2.

FIG. 16 is a diagram showing an example of the sixth-shaped assist part 20F in this embodiment.

As shown in FIG. 16, the assist part 20F is constructed by combining plate-shaped members. That is, it is constituted by a receiving member 20F1, a hole guiding member 20F2, and a side member 20F3. Each member is made of, for example, transparent plastic. As the hole guiding member 20F2, a member similar to the hole guiding member 20A3 (or hole guiding member 20C2) of the assist part 20A can be used.

A hole communicating with the upper end of the hole guiding member 20F2 is provided in the lower part of one end of the receiving member 20F1, and is joined to the hole guiding member 20F2 at the hole position. Three sides of one end of the receiving member 20F1 are covered by a side member 20F3, and the ping pong balls guided in the direction of the hole by the receiving member 20F1 are stopped and guided to the hole guiding member 20F2.

The assist part 20F having the sixth shape has a rectangular receiving member 20F1 bent at the center in the width direction. Thereby, the ping pong ball received by the receiving member 20F1 can be guided toward the hole guiding member 20F2 while being guided near the center of the receiving member 20F1 so as not to fall from the receiving member 20F1.

FIG. 17 is a diagram showing an example of a sixth-shaped assist part 20G in this embodiment.

As shown in FIG. 17, the assist part 20G includes a receiving member 20G1 and a hole guiding member 20G2. Each member is made of, for example, transparent plastic. The receiving member 20G1 is formed in a funnel shape that is wider at the upper end and narrower at the lower end, and has a hole at the lower end that communicates with the upper end of the hole guiding member 20G2, and is joined to the hole guiding member 20G2 at the hole position. . As the hole guiding member 20G2, a member similar to the hole guiding member 20A3 (or hole guiding member 20C2) of the assist part 20A can be used.

The assist part 20G is mounted on the stage 10B by aligning the lower end of the hole guide member 20G2 with the position of the target hole 10B2 and making it stand on its own. The assist part 20G may be made to stably stand on its own by providing adhesiveness to the contact surface of the lower end of the hole guide member 20G2 with the stage 10B (bottom surface 10B1). The assist part 20G does not require engagement with the container 10B3 of the stage 10B, so it can be easily installed.

The assist part 20G having the sixth shape has a side area of the upper surface of the receiving member 20G1, that is, an area for receiving a ping pong ball dropped from the crane arm 10A, which is smaller than the assist parts 20A to 20E described above. As a result, even if the assist part 20G is attached by the assist service, the ping pong ball cannot be reliably put into the target hole 10B2, and it is possible to assist the game while preserving the gameplay.

Furthermore, since the assist part 20G can be installed in a substantially perpendicular direction to the target hole 10B2, even if ping pong balls are loaded around the target hole 10B2, although not shown in FIG. Can be easily installed.

FIG. 18 is a diagram showing an example of the sixth-shaped assist part 20H in this embodiment.

As shown in FIG. 18, the assist part 20H has a cylindrical shape through which a ping pong ball can pass. The assist part 20H can use a member similar to the hole guiding member 20A3 (or hole guiding member 20C2) of the assist part 20A, for example, made of transparent plastic.

The assist part 20H is attached to the stage 10B by aligning its lower end with the positions of all holes except for the target hole 10B2 among the plurality of holes provided in the stage 10B, and making it stand on its own. The assist part 20H may be made to stably stand on its own by providing adhesiveness to the contact surface with the stage 10B (bottom surface 10B1) at the lower end of the assist part 20H. Since the assist part 20H does not require engagement with the container 10B3 of the stage 10B, it can be easily installed.

As shown in FIG. 18, by attaching the assist parts 20H to all hole positions except the target hole 10B2, only the upper part of the target hole 10B2 is left open. That is, the plurality of assist parts 20H attached around the target hole 10B2 constitute a guide path for the ping pong balls to the target hole 10B2, and the ping pong balls dropped from the crane arm 10A can easily enter the target hole 10B2.

Furthermore, if the ping pong balls dropped from the crane arm 10A do not enter the target hole 10B2, they are accumulated within the cylinder of the assist part 20H or between the assist part 20H and the container 10B3. As a result, the guide path to the target hole 10B2 formed by the plurality of assist parts 20H is not blocked, and even if the ping pong balls do not enter the target hole 10B2 and a plurality of ping pong balls are dropped, the assist continues. be able to.

Furthermore, when the ping pong balls are accumulated up to the top of the assist part 20H, the ping pong balls that fall onto the assist part 20H from the crane arm 10A do not enter the assist part 20H, and the upper part is left open. It becomes easier to be guided to the target hole 10B2.

Further, in the example shown in FIG. 18, the plurality of assist parts 20H have the same height (length), but the height of the assist parts 20H may be lowered as the assist parts 20H are installed closer to the target hole 10B2. As a result, an inclination is formed in the direction from the assist parts 20H placed on the periphery (on the side closer to the container 10B3) to the assist parts 20H placed near the target hole 10B2, and the ping pong ball that has fallen into the assist parts 20H is directed toward the target hole 10B2. It becomes easier to be guided in the direction of the hole 10B2.

Furthermore, in the above description, the assist part 20H is not attached only to the target hole 10B2, but the assist part 20H may not be attached to the target hole 10B2 and the hole adjacent to the target hole 10B2. As a result, a guide path surrounded by the plurality of assist parts 20H that is wider (thicker) than when the assist part 20H is not attached only to the target hole 10B2 is formed, and the guide path is ping-pong between the target hole 10B2 and the hole adjacent to the target hole 10B2. You can make it easier for balls to enter. In this case, even if the ping pong ball enters a hole adjacent to the target hole 10B2 first, it can be made easier to enter the target hole 10B2 thereafter.

Note that a plurality of assist parts 20H to be attached to the stage 10B may be connected and configured as one piece to facilitate attachment to the stage 10B.

19 and 20 are diagrams showing an example of the ninth-shaped assist part 20K in this embodiment. FIG. 19 shows the assist part 20K mounted on the stage 10B, and FIG. 20 is an external view of the assist part 20K seen from the back side.

As shown in FIGS. 19 and 20, the assist part 20K basically has the same configuration as the assist part 20A, and is composed of a side member 20K1, a receiving member 20K2, and a hole guiding member 20K3. The assist part 20K differs from the assist part 20A in the configuration of the hole guiding member 20K3.

The hole guide member 20K3 is formed of, for example, three rod-shaped members. The three rod-shaped members of the hole guiding member 20K3 have rigidity and are arranged at intervals that allow the ping pong ball to pass through them. Since the three rod-shaped members have rigidity, the assist part 20K can be made to stand on its own in the same manner as the assist part 20A, as shown in FIG. 19.

The three rod-shaped members are formed in a size that does not come into contact with ping pong balls that have entered holes around the target hole 10B2 when the hole guiding member 20K3 is installed in accordance with the position of the target hole provided on the stage 10B. Ru.

In this way, like the assist part 20K, the hole guide member 20K3 can be configured with a shape different from that of a cylindrical member. In the example shown in FIGS. 19 and 20, the hole guide member 20K3 is composed of three rod-shaped members, but it may be composed of other rod-shaped members, or it can be composed of a thin plate-shaped member instead of a rod-shaped member. It may be a member. Furthermore, by engaging the notches K18 and K19 formed in the side member 20K1 with the container 10B3 of the stage 10B, the assist part 20K can be made independent if at least one rod-shaped member having rigidity is provided. can. In this case, the member for guiding the ping pong ball falling from the receiving member 20K2 to the target hole 10B2 may not be a rod-shaped member (or a plate-shaped member), but may be a flexible member (plastic, vinyl, cloth, etc.). , paper, net, etc.) can also be used.

Further, in the assist parts 20A, 20C to 20H described above, each hole guiding member can also be configured in the same manner as the hole guiding member 20K3 of the assist part 20K.

In this way, the assist parts 20B to 20H and 20K of the second to ninth shapes can be used in the same manner as the assist part 20A to provide an assist service.

Although the assist parts 20A, 20C to 20H, and 20K described above are constructed by combining a plurality of members, they may also be constructed by integrally molding the same shape as described above.

Next, (2) the case where the assist part is attached according to the second embodiment will be explained. In the second embodiment, the drive unit for attaching the assist parts is operated to attach the assist parts to the stage 10B of the game device 10.

Examples of methods for attaching the assist parts include (A) a vertical rotation method, (B) a horizontal rotation method, and (C) a longitudinal movement method. Each method will be explained below.

(A) The operation of the vertical rotation method will be explained with reference to FIG. 21.

As shown in FIGS. 21(A) and 21(B), when attaching the assist parts using the second mode (vertical rotation method), the attaching unit 16A is installed in the upper housing of the game device 10 adjacent to the stage 10B. will be installed. The mounting unit 16A is arranged closer to the rear side of the casing than the stage 10B so as not to interfere with the photographing of the stage 10B by the front camera 12A, for example.

The actuator 80 is housed in the mounting unit 16A. In the case of the vertical rotation method, as shown in FIG. 21(A), a rotation shaft 16A2 is provided parallel to the width direction of the game device 10 from the front, and a support member 16A1 for supporting the assist part 20A is provided on the rotation shaft 16A2. is rotatably mounted.

The support member 16A1 is approximately L-shaped, and in the standby state shown in FIG. 21(A) (the state in which the assist part 20A is not attached), the support member 16A1 is designed to prevent the assist part 20A from interfering with the operation of the crane arm 10A. At the rear position of the stage 10B, the assist part 20A is held so that the hole guiding member 20A3 is directed toward the stage 10B and the receiving member 20A2 is oriented vertically.

The support member 16A1 enables the hole guiding member 20A3 to move in the direction of the target hole 10B2 beyond the upper side of the container 10B3 of the stage 10B during the mounting operation of the assist part 20A, and as shown in FIG. The length of each side of the approximately L-shape is provided so that the guide member 20A3 reaches the target hole 10B2 and the notches A18 and A19 engage with the upper side of the container 10B3.

During the installation operation of the assist part 20A, by moving the assist part 20A as shown by the arrow in FIG. 21(A), the tip of the hole guide member 20A3 moves from above the target hole 10B2 toward the target hole 10B2. be done. Therefore, even if ping pong balls are loaded around the target hole 10B2, the hole guiding member 20A3 can be installed at the position of the target hole 10B2 without the hole guiding member 20A3 touching the surrounding ping pong balls. .

In order to make it difficult for the hole guiding member 20A3 to touch the surrounding ping pong balls, it is desirable to move the hole guiding member 20A3 in a direction as close to perpendicular to the target hole 10B2 as possible. That is, the distance between the assist part 20A and the rotating shaft 16A2 is increased so that the arc of the orbit along which the hole guide member 20A3 rotates becomes closer to a straight line. However, in order not to increase the size of the housing, the rotating shaft 16A2 is configured to be positioned lower, for example.

The actuator 80 operates in response to an assist signal from the assist drive section 75 during the mounting operation of the assist part 20A. As the power for rotating the rotating shaft 16A2 (assist part 20A), for example, a motor for rotating the rotating shaft 16A2 may be provided, and in the standby state shown in FIG. It is also possible to provide a structure in which an elastic member (spring, rubber, etc.) that urges the supporting member 16A1 to move and a locking member that holds the support member 16A1 in a standby position are provided, and the locking member is released by the operation of the actuator 80. Note that it is also possible to provide other motive power.

With the configuration of the mounting unit 16A shown in FIGS. 21(A) and 21(B), the installation position of the mounting unit 16A, the position of the assist part 20A supported by the mounting unit 16A, the position of the stage 10B (target hole 10B2, container 10B3), etc. By aligning and installing the assist parts 20A, the assist parts 20A can be accurately mounted on the stage 10B by rotating the assist parts 20A on the rotation axis 16A2. Therefore, automatic attachment of the assist part 20A can be realized at low cost and space saving.

(B) The operation of the horizontal rotation method will be explained with reference to FIG. 22.

As shown in FIGS. 22(A) and 22(B), when attaching the assist parts using the second form (horizontal rotation method), the attaching unit 16B is installed in the upper housing of the game device 10 adjacent to the stage 10B. will be installed. The mounting unit 16B is arranged closer to the rear side of the casing than the stage 10B so as not to interfere with the photographing of the stage 10B by the front camera 12A, for example.

The actuator 80 is housed in the mounting unit 16B. In the case of the horizontal rotation method, as shown in FIG. 22(A), a rotating shaft 16B3 extending vertically from the mounting unit 16B and a slide rail 16B2 rotating together with the rotating shaft 16B3 are provided. The rotating shaft 16B3 and the slide rail 16B2 are supported by a slide rail support 16B4. The assist part 20A is supported by a support member 16B1 extending horizontally from near the upper end of the assist part 20A. The rotating shaft 16B3 is rotatably attached while being supported by the slide rail support 16B4.

The support member 16B1 and the slide rail 16B2 are positioned at the rear of the stage 10B so that the assist part 20A does not interfere with the operation of the crane arm 10A in the standby state shown in FIG. In this step, the assist part 20A is held in a horizontal state so that the support member 16B1 and the slide rail 16B2 are oriented horizontally (facing left in FIG. 22(A)). The slide rail support 16B4 supports the slide rail 16B2 from below so as to maintain its height when the slide rail 16B2 is in a horizontal position.

During the mounting operation of the assist part 20A, the support member 16B1 and the slide rail 16B2 extend beyond the upper side of the container 10B3 of the stage 10B and direct the hole guide member 20A3 above the target hole 10B2, as shown by the arrow in FIG. 22(A). Hold it at a height that allows it to rotate.

As shown in FIG. 22(B), the support member 16A1 is configured so that the hole guiding member 20A3 reaches the target hole 10B2 and the notches A18 and A19 engage with the upper side of the container 10B3 when the assist part 20A is attached. A length from the slide rail 16B2 is provided.

During the installation operation of the assist part 20A, by rotating the rotating shaft 16B3 as shown by the arrow in FIG. 22(A), the support member 16B1 and the slide rail 16B2 are rotated together, and the assist part 20A is moved horizontally. . Thereby, the tip of the hole guiding member 20A3 of the assist part 20A is moved to be located above the target hole 10B2.

When the slide rail 16B2 is rotated until it faces forward, the support from below for the slide rail 16B2 by the slide rail support 16B4 is removed, and the slide rail 16B2 falls as shown in FIG. 22(B). As a result, the assist part 20A supported by the support member 16B1 falls together with the fall of the slide rail 16B2.

At this time, the tip of the hole guiding member 20A3 of the assist part 20A has been moved so as to be positioned above the target hole 10B2, so the hole guiding member 20A3 is placed on the target hole 10B2, and the notches A18 and A19 are aligned with the container. It is engaged with the upper side of 10B3.

At this time, the hole guiding member 20A3 is moved in a direction substantially perpendicular to the target hole 10B2, so even if ping pong balls are loaded around the target hole 10B2, the hole guiding member 20A3 is moved to the surrounding ping pong balls. The hole guiding member 20A3 can be installed at the position of the target hole 10B2 without touching the target hole 10B2.

The actuator 80 operates in response to an assist signal from the assist drive section 75 during the mounting operation of the assist part 20A. As the power for rotating the rotating shaft 16B3 (assist part 20A), for example, a motor for rotating the rotating shaft 16B3 may be provided, and in the standby state shown in FIG. 22(A), the supporting member 16A1 is It is also possible to provide a structure in which an elastic member (spring, rubber, etc.) that urges the supporting member 16B1 to move and a locking member that holds the support member 16B1 in a standby position are provided, and the locking member is released by the operation of the actuator 80. Note that it is also possible to provide other motive power.

With the configuration of the mounting unit 16A shown in FIGS. 22(A) and 22(B), the hole guiding member 20A3 can be moved vertically and placed in the target hole 10B2 when the assist part 20A is mounted. There is no risk of contact with ping pong balls loaded around the stage 10B, and the assist part 20A can be reliably mounted without affecting the current state of the stage 10B. In addition, by aligning the installation position of the mounting unit 16B, the position of the assist part 20A supported by the mounting unit 16B, and the position of the stage 10B (target hole 10B2, container 10B3), and installing each of them, the rotating shaft 16B3 By rotating the assist part 20A, the slide rail 16B2 will fall at the mounting position (front facing position) of the assist part 20A, allowing the assist part 20A to be accurately mounted on the stage 10B. Therefore, automatic attachment of the assist part 20A can be realized at low cost and space saving.

(C) The operation of the forward and backward movement method will be explained with reference to FIG. 23.

As shown in FIGS. 23(A) and 23(B), when attaching the assist parts using the second form (back and forth movement method), an attaching unit 16C is installed in the upper housing of the game device 10 adjacent to the stage 10B. will be installed. The mounting unit 16C is arranged closer to the rear side of the casing than the stage 10B so as not to interfere with the photographing of the stage 10B by the front camera 12A, for example.

The actuator 80 is housed in the mounting unit 16C. In the case of the back-and-forth movement method, as shown in FIG. 23(A), a moving unit 16C1 (slider) that moves in the back-and-forth direction (from the back of the housing to the front) and a slide rail 16C3 that extends vertically and is attached to the moving unit 16C1C. A support member 16C1 is provided extending in the front horizontal direction from near the upper end of the slide rail 16C3. The slide rail 16C3 is supported from below on the upper surface of the mounting unit 16C, and falls downward by being moved to a position removed from the upper surface of the mounting unit 16C. The assist part 20A is supported by the slide rail 16C3 and the support member 16C1.

The housing height of the mounting unit 16C is configured to be higher than the upper side of the container 10B3 of the stage 10B. Further, the moving unit 16C1 is located at the rear (back side) in the standby state shown in FIG. 23(A), and moves forward (to the front) in the mounted state shown in FIG. 23(B). Therefore, in a standby state (a state in which the assist part 20A is not attached), the assist part 20A is supported in a horizontal position at the rear of the stage 10B so as not to interfere with the operation of the crane arm 10A.

In addition, the support member 16C1 and the slide rail 16C3 allow the container 10B3 of the stage 10B to It is supported at a height that exceeds the top edge of.

As shown in FIG. 23(B), the support member 16C1 is configured so that the hole guiding member 20A3 reaches the target hole 10B2 and the notches A18 and A19 engage with the upper side of the container 10B3 when the assist part 20A is attached. A length from the slide rail 16C3 is provided.

During the attachment operation of the assist part 20A, the moving unit 16C2 is moved forward from the rear position as shown by the arrow in FIG. 23(A), thereby moving the support member 16C1 and the slide rail 16C3 forward together. Thereby, the tip of the hole guiding member 20A3 of the assist part 20A is moved to be located above the target hole 10B2.

When the moving unit 16C2 is moved to the front end of the mounting unit 16C, the support from below by the upper surface of the mounting unit 16C against the slide rail 16C3 is removed, and the slide rail 16C3 falls as shown in FIG. 23(B). . As a result, the assist part 20A supported by the support member 16C1 falls together with the fall of the slide rail 16C3.

At this time, the tip of the hole guiding member 20A3 of the assist part 20A has been moved so as to be positioned above the target hole 10B2, so the hole guiding member 20A3 is placed on the target hole 10B2, and the notches A18 and A19 are aligned with the container. It is engaged with the upper side of 10B3.

At this time, the hole guiding member 20A3 is moved in a direction substantially perpendicular to the target hole 10B2, so even if ping pong balls are loaded around the target hole 10B2, the hole guiding member 20A3 is moved to the surrounding ping pong balls. The hole guiding member 20A3 can be installed at the position of the target hole 10B2 without touching the target hole 10B2.

The actuator 80 operates in response to an assist signal from the assist drive section 75 during the mounting operation of the assist part 20A. As the power for moving the moving unit 16C1 (assist part 20A) forward, for example, a motor that moves a mechanism for horizontally moving the moving unit 16C1 may be provided, and in the standby state shown in FIG. 23(A), the arrow in the figure An elastic member (spring, rubber, etc.) that urges the moving unit 16C1 to move in the direction and a locking member that holds the moving unit 16C1 in a standby position are provided, and the locking member is released by the operation of the actuator 80. Also good. Note that it is also possible to provide other motive power.

With the configuration of the mounting unit 16C shown in FIGS. 23(A) and 23(B), the hole guiding member 20A3 can be moved vertically and placed in the target hole 10B2 when the assist part 20A is mounted. There is no risk of contact with ping pong balls loaded around the stage 10B, and the assist part 20A can be reliably mounted without affecting the current state of the stage 10B. Furthermore, by aligning the installation position of the mounting unit 16B, the position of the assist part 20A supported by the mounting unit 16B, and the position of the stage 10B (target hole 10B2, container 10B3), and installing them, the moving unit 16C1 If the slide rail 16C3 is moved forward, the slide rail 16C3 will fall at the mounting position of the assist part 20A, allowing the assist part 20A to be accurately mounted on the stage 10B. Therefore, automatic attachment of the assist part 20A can be realized at low cost and space saving.

Although the assist part 20A is used in FIGS. 21 to 23, it is also possible to use the assist parts 20C, 20D, 20E, 20F, 20G, and 20K of the third to seventh shapes and ninth shape described above. It is. However, when using the third-shaped assist part 20C, it is assumed that the receiving member 20C1 and the hole guiding member 20C2 are fixed.

Next, (3) the case of creating a state in which a ping pong ball enters the target hole 10B2 according to the third embodiment will be described. In the third form, unlike the first and second forms described above, the assist part 20A is attached to the stage 10B, and instead of having the player operate the ping pong ball to put it into the target hole 10B2, the player operates the assist part 20A. A state is created in which the ping pong ball enters the target hole 10B2 without causing the ball to enter the target hole 10B2.

As shown in FIGS. 24(A) and 24(B), in the case of the third embodiment, a mounting unit 16D is installed in the upper housing of the game device 10 adjacent to the stage 10B. The mounting unit 16D is arranged closer to the rear side of the casing than the stage 10B so as not to interfere with the photographing of the stage 10B by the front camera 12A, for example.

The actuator 80 is housed in the mounting unit 16D. As shown in FIG. 24(A), the mounting unit 16D is provided with a rotating shaft 16D3 parallel to the width direction when viewed from the front of the game device 10, and a supporting member 16D1 for supporting the ball 16D2 is rotated on the rotating shaft 16D3. movably mounted. The ball 16D2 may be, for example, a ping pong ball used in the game device 10, or may be another object having the same shape as a ping pong ball. That is, it is sufficient that the ball sensor 79 detects the ball 16D2 when it is placed in the target hole 10B2.

The support member 16D1 has a substantially U-shape, and is attached near one end so as to be rotatable about the rotating shaft 16D3, and has a ball 16D2 attached to the tip of the other end. In the standby state shown in FIG. 24(A), the support member 16D1 holds the ball 16D2 at a rear position of the stage 10B so that the ball 16D2 faces the stage 10B so that the ball 16D2 does not interfere with the operation of the crane arm 10A. .

When installing the ball 16D2, the support member 16D1 enables the ball 16D2 to move in the direction of the target hole 10B2 beyond the upper side of the container 10B3 of the stage 10B, and as shown in FIG. 24(B), the ball 16D2 is moved to the target hole. The length of each side of the substantially U-shape is set so as to reach 10B2. Note that the support member 16D may have a shape other than the substantially U-shape, such as a polygonal shape or an arc shape, as long as it has the same function as the substantially U-shaped support member 16D1 described above.

When installing the ball 16D2, by moving the ball 16D2 as shown by the arrow in FIG. 24(A), the tip of the ball 16D2 is moved from above the target hole 10B2 toward the target hole 10B2. Therefore, even if the ping pong balls are loaded around the target hole 10B2, the ball 16D2 can be placed at the position of the target hole 10B2 without the ball 16D2 touching the surrounding ping pong balls.

In order to make it difficult for the ball 16D2 to touch surrounding ping pong balls, it is desirable to move the ball 16D2 in a direction as close to perpendicular to the target hole 10B2 as possible. That is, the distance between the ball 16D2 and the rotating shaft 16D3 is made longer so that the arc of the orbit in which the ball 16D2 rotates becomes closer to a straight line. However, in order not to increase the size of the housing, the rotating shaft 16D3 is configured to be lowered, for example.

The actuator 80 operates according to an assist signal from the assist drive unit 75 when installing the ball 16D2. As the power for rotating the rotating shaft 16D3 (ball 16D2), for example, a motor for rotating the rotating shaft 16D3 may be provided, or in the standby state shown in FIG. A configuration may also be adopted in which an elastic member (spring, rubber, etc.) that biases the supporting member 16D1 to move and a locking member that holds the support member 16D1 in a standby position are provided, and the locking member is released by the operation of the actuator 80. Note that it is also possible to provide other motive power.

With the configuration of the mounting unit 16D shown in FIGS. 24(A) and 24(B), the installation position of the mounting unit 16D, the position of the ball 16D2 supported by the mounting unit 16D (support member 16D1), the stage 10B (target hole 10B2, By aligning and installing the containers 10B3) and rotating the ball 16D2 on the rotation axis 16D3, the ball 16D2 can be accurately placed in the target hole 10B2. Therefore, automatic attachment of the ball 16D2 can be realized at low cost and space saving.

Further, in the third form, in response to a request for an assist service from the player, by operating the mounting unit 16D, the ping pong ball is immediately placed in the target hole 10B2, and the player wins the prize. be able to. That is, since the player does not need to perform an operation to control the crane arm 10A after operating the mounting unit 16D, the game play time can be shortened and the operating efficiency of the game device 10 can be improved.

Note that in the third embodiment described above, the ball 16D2 supported by the support member 16D1 is put into the target hole 10B2 by operating the mounting unit 16D, but there is also a configuration in which an object is thrown into the mounting unit 16D from outside the stage 10B. may be provided and installed in the target hole 10B2 by operating the mounting unit 16D. In this case, the object can be placed in the target hole 10B2 by adjusting the strength, direction, etc. of throwing the object from the mounting unit 16D.

The state in which the ping pong ball enters the target hole 10B2 can be determined by the ball sensor 79 detecting that the object has entered the hole, so it is not necessarily necessary to put the ping pong ball into the target hole 10B2, and the ball sensor 79 can detect the object. It is sufficient if the object can be placed above the target hole 10B2.

Note that in the second and third embodiments, the mounting units 16A to 16D are arranged closer to the back of the housing than the stage 10B, but it is possible to align the mounting units 16A to 16D with the stage 10B (target hole 10B2). , it is also possible to place them at a location other than the back side of the housing.

In addition, in the explanation of the second and third forms described above, the case where the assist part 20A is installed is explained, but after providing the assist service and finishing the game play, the assist part 20A is installed on the stage 10B. The assist part 20A may be returned to the initial position by the mounting units 16A to 16D. In this case, the mounting units 16A to 16D are provided with a power such as a motor, and are caused to perform an operation opposite to that during mounting so as to return the assist part 20A to the initial position.

Further, the present invention is not limited to the above-described embodiments as they are, and in the implementation stage, the constituent elements can be modified and embodied without departing from the spirit of the invention. Moreover, various inventions can be formed by appropriately combining the plurality of components disclosed in the above embodiments. For example, some components may be deleted from all the components shown in the embodiments. Furthermore, components of different embodiments may be combined as appropriate.

2...Electronic equipment, 6...Game server, 6a...CPU, 10...Game device, 10A...Crane arm, 10B...Stage, 10B1...Bottom surface 10, 10B2...Target hole, 10B3...Container, 10C...Container, 12A...Front Camera, 13A... Upper camera, 14A... Side camera, 20A, 20B, 20C, 20D, 20E, 20F... Assist parts, B... Ping pong ball, 16A, 16B, 16C, 16D... Mounting unit.

Claims (8)

an object transport mechanism that causes an object housed in a game case to fall onto a stage formed with a plurality of holes into which the objects are individually placed;
detection means for detecting that the object has entered at least one target hole among the plurality of holes formed in the stage;
and an assist member that guides the object dropped on the stage by the object transport mechanism to the target hole. The game device according to claim 1, wherein the assist member is formed to be detachable from the stage. The assist member is
a first member formed to allow the object to pass therethrough, guiding the object entering from one end to a position where it enters the target hole and taking it out from the other end;
Claim 1, further comprising: a second member attached to one end of the first member to receive the object dropped by the object transport mechanism and guide the object to enter from the one end of the first member. The gaming device described. The assist member is
a first member formed to allow the object to pass therethrough, guiding the object entering from one end to a position where it enters the target hole and taking it out from the other end;
A second member is integrally formed, which is attached to one end of the first member, receives the object dropped by the object transport mechanism, and guides the object to enter from the one end of the first member. The game device according to claim 1. The game device according to claim 3 or 4, further comprising a mounting unit for mounting the assist member so that the other end side of the first member is installed at the position of the target hole based on the control of the control unit. . an object transport mechanism that causes an object housed in a game case to fall onto a stage formed with a plurality of holes into which the objects are individually placed;
detection means for detecting that the object has entered at least one target hole among the plurality of holes formed in the stage;
and a mounting unit for installing an object to be detected by the detection means in the target hole under the control of a control unit. a first member formed to allow an object to pass therethrough and allowing the object that entered from one end to exit from the other end;
and a second member attached to one end of the first member to receive the dropped object and guide the object to enter from the one end of the first member. a first member formed to allow an object to pass therethrough and allowing the object that entered from one end to exit from the other end;
An assist member integrally formed with a second member attached to one end of the first member to receive the dropped object and guide the object to enter from the one end of the first member.