JP5503176B2 - Game device - Google Patents

Description

  The present invention relates to a game apparatus that includes a transport mechanism that transports a predetermined spherical body and uses the spherical body transported by the transport mechanism as a game medium.

  Conventionally, a pusher-type medal game device is known as a kind of game device. In recent years, pusher-type medal game devices that supply special game media different from medals on a fixed table are also known. For example, in the medal game device of Patent Document 1, when the special game medium supplied on the fixed table is carried together with the medal placed on the fixed table and falls to the medal acquisition port, it is sorted into the medal and collected. It is transported by the transport mechanism and used as a lottery medium.

JP 2009-45289 A

  As the special game medium, for example, a spherical game medium (hereinafter referred to as “spherical body”) is generally used. However, due to the characteristics of the spherical body with low frictional resistance, a problem may occur depending on the configuration of the transport mechanism. For example, when a spherical body is pushed up from below and sequentially stored in a cylindrical body installed vertically, the spherical body depends on the direction or the contact area of the pushing force against the spherical body to be newly inserted. There may be situations such as “empty shots” and “empty swings” where the body escapes sideways without being pushed into the cylindrical body.

  The present invention has been made in view of the above-described problems. In a transport mechanism that transports a spherical body by sequentially pushing up the spherical body from below and storing it in a cylindrical body installed in a vertical orientation. It is to solve the problem of lateral escape when inserting a new spherical body.

The first invention for solving the above problems is:
A transport mechanism (for example, the lottery ball transport mechanism 100 in FIG. 4) for transporting a predetermined spherical body (for example, the lottery ball S in FIG. 4) is provided, and the spherical body transported by the transport mechanism is used as a game medium. A game device (for example, the medal game device 1000 of FIG. 1),
The transport mechanism is
A cylindrical body (for example, a lottery ball storage section 130 in FIG. 4) having an internal dimension through which one spherical body can pass and installed vertically;
The spherical body located at the lower end inlet position (for example, the lower end inlet position 130a in FIG. 4) of the cylindrical body is pushed up into the cylindrical body by displacing the protruding end from the lower side of the cylindrical body. A push-up portion (for example, the push-up portion 140 in FIG. 4);
Abutting on the lowest spherical body stacked inside the cylindrical body, allowing the spherical body to move from below to above, preventing movement in the reverse direction, and stacking inside the cylindrical body A fall prevention part (for example, the fall prevention part 150 in FIG. 4) for preventing the produced spherical body from dropping,
An inclined passage portion (for example, the inclined passage portion 120 in FIG. 4) having an inner dimension through which one spherical body can pass, and storing the spherical bodies in a row and inclined toward the lower end inlet position,
With
The inclined passage portion is
The introduction portion for introducing the spherical body into the lower end inlet position includes a steep slope portion (for example, the steep slope portion 120b in FIG. 4), and a gentle slope portion for introducing the spherical body from the side to the lower end entrance position following the steep slope portion ( For example, a refractive structure is formed by the second gentle slope portion 120c) of FIG.
The length of the gentle slope portion is related to the diameter of the spherical body, and when the spherical body located at the lower end entrance position tries to flow backward in the gentle slope portion inward by the push-up force of the push-up portion, The spherical body located on the slope is in contact with the refracting part that follows the steep slope, and is configured to prevent the backflow of the spherical body located at the lower end entrance position into the gentle slope. Yes,
It is a game device.

  According to the first invention, the transport mechanism for transporting the spherical body includes a cylindrical body, a push-up portion that pushes the spherical body located at the lower end entrance position of the cylindrical body into the cylindrical body, and the interior of the cylindrical body. A fall prevention unit that prevents the spherical bodies stacked on the slope from falling, an inclined passage part that stores the spherical bodies in a row, inclines toward the lower end entrance position, and forms a refractive structure with a steep slope part and a gentle slope part; It is configured with. When the push-up portion pushes up the spherical body located at the lower end entrance position, when the spherical body tries to flow backward in the gentle slope portion by the push-up force, the spherical body already located in the gentle slope portion becomes the steep slope portion. By abutting on the refracting portion that follows, the backflow of the spherical body located at the lower end inlet position toward the inside of the gentle slope portion is prevented.

  The spherical body is easy to move because of low frictional resistance. For this reason, depending on the direction of the push-up force when the spherical body is pushed up into the cylindrical body and the contact position / contact area that has received the push-up force, the spherical body may escape sideways. However, according to the first aspect of the invention, since the other spherical body is located on the gentle slope portion which is a portion to be side-run, the spherical body moves so as to flow backward in the gentle slope portion in the shape of a ball. Try this. However, since the spherical body located on the gentle slope portion comes into contact with the refracted portion of the steep slope portion, it cannot move further in the backflow direction. As a result, the spherical body to be newly inserted cannot escape from the push-up force and cannot escape sideways, and moves upward as it is and is stored in the cylindrical body.

  Also, as a second invention, the push-up portion of the game device of the first invention pushes up the eccentric position near the inclined passage portion of the spherical body located at the lower end entrance position (for example, the push rod 140a of FIG. (Push-up position).

  According to the second aspect of the invention, since the thrust force received by the spherical body includes a component on the opposite side to the inclined passage portion, the movement of the spherical body toward the inclined passage portion side when pushing up is suppressed. be able to.

  According to a third aspect of the present invention, the push-up portion of the game device according to the first or second aspect of the present invention has an inclined surface with the protruding end inclined to the opposite side of the inclined passage portion (for example, FIG. 6). Of the push rod 140a).

  According to the third invention, as in the second invention, the thrust force received by the spherical body includes the component on the opposite side to the inclined passage portion, and therefore the inclined passage portion of the spherical body when thrusting up. The movement to the side can be suppressed.

According to a fourth aspect of the invention, there is provided the game device according to any one of the first to third aspects of the invention,
The push-up part is a drive part (for example, the stepping of FIG. 7) that rotates the disk part (for example, the eccentric cam 240a of FIG. 7) pivotally supported at the eccentric position (for example, the eccentric position HP of FIG. 7). A motor 240b), and using the side surface of the disc portion as the protruding end portion, the spherical body positioned at the lower end inlet position is displaced so as to push up.
It is also possible to configure a game device.

As a fifth invention,
When a medal (for example, medal M in FIG. 2) is inserted from a medal insertion slot (for example, medal inserter 10 in FIG. 1), the medal is released to the game field (for example, fixed table 6 in FIG. 1), The game device according to any one of the first to fourth inventions comprising a pusher-type medal game device that pays out medals when a medal falls from a game field to a medal acquisition port (for example, medal acquisition port 4 in FIG. 1). For example, the medal game device 1000 in FIG.
It has at least first and second lottery body drop openings (for example, the first lottery ball drop opening 36 and the second lottery ball drop opening 37 in FIG. 1) and is conveyed by the conveyance mechanism. A lottery system (for example, the lottery system 20 of FIG. 2) that draws a spherical body from a predetermined insertion position (for example, the lottery ball insertion unit 35 of FIG. 1) and falls into which lottery drop opening part. )When,
A discharge guide section (for example, a normal lottery ball guide rail 75 in FIG. 1) for guiding and discharging the lottery body dropped on the first lottery body drop opening section on the game field or the medal acquisition opening;
A recovery unit for detachment (for example, a lottery ball recovery hole 59 in FIG. 1) for recovering the lottery body that has fallen into the second lottery body dropping port and guiding it to the inclined passage part of the transport mechanism;
A selection unit for selecting a lottery from among medals and lotteries dropped in the medal acquisition port;
A collection unit for collecting the lottery objects sorted by the sorting unit;
When the lottery body is collected by the collection unit, the lottery body is guided to the inclined passage portion of the transport mechanism, and a predetermined number of medals are paid out as a bonus medal or released to the game field. You may comprise the game device to perform.

  According to the fifth aspect of the present invention, in the lottery system, the lottery is carried out depending on which lottery body drop opening portion the spherical body transported by the transport mechanism is inserted from the predetermined insertion position. Then, when the lottery ball falls to the first lottery body drop opening part, it is guided and discharged to the game field or the medal acquisition port, but when the lottery ball falls to the second lottery body drop part, it is collected. To the inclined passage portion of the transport mechanism. Further, when the lottery ball falls to the medal acquisition port, the lottery ball is sorted by the sorting unit and collected by the collecting unit. When the lottery body is collected by the collection unit, the lottery body is guided to the inclined passage portion of the transport mechanism, and a predetermined number of medals are paid out as bonus medals or released to the game field.

  More specifically, when the spherical body conveyed to the lower end inlet position of the cylindrical body is pushed up into the cylindrical body by the push-up portion in a state where the spherical bodies are stacked inside the cylindrical body, The uppermost spherical body is input to the lottery system from a predetermined input position as a lottery body. Then, when the lottery body is dropped and collected at the second lottery body drop port portion of the lottery system or is dropped and collected at the medal acquisition port, the lottery body is guided again to the inclined passage portion of the transport mechanism, and is cylindrical. It is transported to the lower end entrance position of the body. In the medal game device having a lottery function by the lottery system, the spherical body is circulated inside the medal game device as a lottery body by transporting the spherical body using the transport mechanism having the effects of the first to fourth inventions. It becomes possible.

The front external view which shows the structure of the medal game device in 1st Embodiment. The longitudinal cross-sectional view of the principal part of the medal game device in 1st Embodiment. The fragmentary enlarged view which expanded the medal insertion device and its periphery in 1st Embodiment. The longitudinal cross-sectional view of the back of the medal game device in 1st Embodiment. Explanatory drawing of the function of the inclination channel | path part in 1st Embodiment, and operation | movement of a pushing-up part. Explanatory drawing of the function of the inclination channel | path part in 1st Embodiment, and operation | movement of a pushing-up part. The longitudinal cross-sectional view of the back surface of the medal game device in 2nd Embodiment. Explanatory drawing of operation | movement of the raising part in 2nd Embodiment. Explanatory drawing of operation | movement of the raising part in 2nd Embodiment. Explanatory drawing of operation | movement of the raising part in 2nd Embodiment. The block diagram of the pushing-up part in a modification. The block diagram of the pushing-up part in a modification.

  Hereinafter, an embodiment in which the present invention is applied to a medal game device which is a kind of game device will be described with reference to the drawings. The directions in the description of the medal game device below refer to the direction from the viewpoint of the player who performs the game, and the front side is the front side, the back side is the back side, the top, bottom, left, and right directions are directed to the game device. The directions are up, down, left and right.

1. 1. First embodiment 1-1. Schematic Configuration FIG. 1 is a front external view showing a configuration of a medal game device 1000 according to the first embodiment, and FIG. 2 is a longitudinal sectional view of a main part of the medal game device 1000. The medal game device 1000 defines a game space GS surrounded by the transparent cover glass 2 and the support plate 3, and a fixed table 6 having a front end extending upward from the medal acquisition port 4 in the game space GS. And a pusher table 8 that is periodically reciprocated along the upper surface of the fixed table 6. The medal game device 1000 is classified as a so-called “pusher-type” medal game device.

  The medal game device 1000 includes one medal insertion device 10 for each player to insert a new medal M on the left and right. In addition, the medal game device 1000 includes a roulette device 15 in the lower part of the standing board SB and in the vicinity of a position where a medal released from the medal discharge port 10e of the medal insertion device 10 collides with the standing board SB. A lottery system 20 for performing so-called physical lottery is provided inside. The roulette device 15 is a device for performing a roulette game and determining whether or not to grant a right to activate a lottery by the lottery system 20 according to the success or failure of the game.

  Before the game is started, a number of medals M are placed in advance on the upper surfaces of the fixed table 6 and the pusher table 8 by the managers of the medal game device 1000. As the game progresses, the player inserts new medals M into the medal inserter 10, and the medals M are successively placed on the upper surface of the pusher table 8.

  The pusher table 8 is slidably mounted on the fixed table 6. As shown in FIG. 2, a reciprocating mechanism 9 having a stepping motor 9a is provided in the pedestal, and an insertion hole in which the pusher table 8 is opened at the lower portion of the standing board SB by the operation of the stepping motor 9a. 7 is periodically reciprocated in the front-rear direction so as to enter and exit from 7.

  When the pusher table 8 moves backward (retreats) so as to slide on the fixed table 6, the medal M placed on the upper surface of the pusher table 8 moves backward together. When the pusher table 8 is pulled back into the insertion hole 7, the extension length of the pusher table 8 is shortened by the amount of backward movement, and the medal M placed on the rear surface of the pusher table 8 is inserted into the insertion hole 7. It hits the edge and is pushed relatively forward. Then, the other medals M placed on the pusher table 8 are also pushed forward in a chain-like manner, and finally the medals M placed on the front end side fall on the fixed table 6.

  Thereafter, as the pusher table 8 advances (extrusion operation), its front end surface functions as an extruding portion, and the medal M dropped on the upper surface of the fixed table 6 and placed on the fixed table 6 is pushed forward (pushing). .) Then, this time, the medal M placed on the fixed table 6 is pushed forward in the shape of a ball, and falls to the medal acquisition port 4 in order from the medal M placed on the front side of the fixed table 6.

  The lower part of the medal acquisition port 4 communicates with a passage provided with a passage sensor 11 that detects the passage of the dropped medal M. The passage sensor 11 is a means for detecting the passage of an object. For example, the passage sensor 11 detects a passage of an object by light shielding in which a light projecting element and a light receiving element are opposed to each other, and measures a distance from an ultrasonic reflection time. This can be realized by a distance sensor or the like. A swing switch that swings in contact with a passing object may be used. The medal M that has fallen into the medal acquisition port 4 is guided to the medal payout exit 13 through this passage and is paid out to the player.

  The lottery system 20 performs lottery using a lottery ball S that is a spherical lottery body. When the final lottery result by the lottery system 20 is “big hit”, the lottery ball S is guided to the medal acquisition port 4 by the big hit lottery ball guide rail 70. Below the medal acquisition port 4, a known selection mechanism (not shown) for selecting the lottery ball S from the medals M and the lottery ball S falling on the medal acquisition port 4, and the lottery ball S selected by the selection mechanism. And a known recovery mechanism (not shown) for recovering the water in the reservoir. When it is detected that the lottery ball S has dropped to the medal acquisition port 4, a predetermined number (for example, 30) of medals M is paid out from the medal payout opening 13 as a bonus medal.

  Of course, the lottery ball S on the fixed table 6 may fall into the medal acquisition port 4 even if it is not a “hit”. In the case of “hit”, the lottery ball S will fall directly to the medal acquisition port 4 and the bonus medal will be paid immediately, so the player will get “special luck”. .

  On the other hand, when the lottery result is “normal hit”, the lottery ball S is guided onto the fixed table 6 by the normal lottery ball guide rail 75, and when the lottery result is “out”, the lottery ball collection hole 59 is selected. The lottery balls S are collected.

  As shown in FIG. 3, the roulette device 15 includes roulette lamps (roulette LEDs) RL arranged in a line in the left-right direction. The roulette device 15 performs target display by switching a lamp to be lit at a predetermined moving display speed. Is moved and displayed so as to reciprocate left and right, and roulette eye movement control (hereinafter referred to as “lamp movement control”) is performed. Then, the lamp movement control is stopped at a stop timing described later. If the lamp lit at the stop timing is the winning lamp Rs, it is determined that the roulette game is “successful” and the lottery right by the lottery system 20 is given to start the lottery by the lottery system 20. On the other hand, in the case of the off-ramp Rf, the roulette game is regarded as “failure”, the lottery right is not given, and the lottery system 20 does not perform the lottery.

  Predetermined marks MK are drawn on the lower left part and the lower right part of the standing board SB, at the parts where the medals released from the medal discharge port 10e of the medal insertion device 10 provided on the left and right collide. The mark MK indicates the contact position of the medal M to the player and indicates that the timing when the roulette device 15 stops the lamp movement control when the medal M contacts the mark MK.

  Electronic and electrical components such as a CPU (Central Processing Unit) 82 and an IC memory 84 are mounted on the control unit 80, and the CPU 82 executes various arithmetic processes according to a program stored in advance in the IC memory 84, and the medal Control of each part of the game apparatus 1000 is executed.

  The speaker 90 outputs a BGM during the game, outputs a production sound according to the success or failure of the roulette game by the roulette device 15, or outputs a production sound according to the lottery result by the lottery system 20. It is.

1-2. Configuration of Medal Inserter The configuration of the medal inserter 10 will be described with reference to FIGS. 2 and 3. FIG. 3 is a partially enlarged view in which the medal insertion device 10 on the right side provided in the medal game device 1000 and its periphery are enlarged. The medal insertion device 10 is configured to include a medal insertion rail 10c in which the medal M is rotated and dropped from the front of the hand toward the back by its own weight with the medal M set up. The medal insertion rail 10c forms a bowl-shaped groove by a wall surface portion that guides the rotational drop direction while maintaining the medal M in an upright state and a floor surface portion that forms a falling surface of the medal M. The medal insertion rail 10c is inclined so that the back side is lower than the front side, and the width of the groove is slightly wider than the width of the medal M, so that the medal M moves the medal insertion rail 10c from the front side. It falls while rotating toward the back.

  One end (front side) of the medal insertion device 10 is a medal insertion port 10a provided in the support plate 3, and this medal insertion port 10a communicates with the medal insertion rail 10c through a connecting passage 10b. The width of the medal slot 10a is slightly wider than the width of the medal M, and is configured so that the player can insert the medals M one by one.

  The medal M inserted into the medal insertion slot 10a passes through the connecting passage 10b and is guided to the medal insertion rail 10c. The connecting passage 10b is connected to the medal insertion slot 10a as shown in FIG. It has a crank shape bent in a Z shape that is guided to the medal insertion rail 10c after the traveling direction is changed vertically downward. For this reason, the medal M is guided to the medal insertion rail 10c provided below the medal insertion slot 10a after the momentum at the time of insertion is reduced and once dropped. In this way, even when the medal M is inserted with momentum, the medal insertion device 10 always rotates the medal M at the same speed at the same speed, assuming that the speed at which the medal insertion rail 10c starts to rotate and drops is substantially the same. It is a mechanism to let you.

  The opening at the other end (back side) of the medal insertion device is a medal discharge port 10e, and the medal M that rolls off the bowl-shaped medal insertion rail 10c and is discharged from the medal discharge port 10e is the roulette lamp RL. The medal inserter 10 is positioned so as to contact the mark MK drawn below.

  Further, a passage sensor 10d that detects the passage of the medal M is disposed slightly in front of the medal discharge port 10e of the medal insertion rail 10c. The passage sensor 10d can be realized by, for example, a sensor that detects passage of an object by light shielding in which a light projecting element and a light receiving element are arranged to face each other, a distance sensor that measures a distance from an ultrasonic reflection time, and the like. A swing switch that swings in contact with the passing object may be used.

  In the present embodiment, after the passage of the medal M is detected by the passage sensor 10d, the timing at which a predetermined elapsed time (hereinafter referred to as “specified elapsed time”) has elapsed is set as the stop timing, and the lamp of the roulette device 15 is used. Control to stop movement control. The specified elapsed time is a time from when the passage of the medal M is detected by the passage sensor 10d until the medal M comes into contact with the mark MK.

  As described above, the medal insertion rail 10c always rotates and drops the medal M at the same speed regardless of the momentum when the medal M is inserted, so that the medal M is detected by the passage sensor 10d and then hits the mark MK. The time until contact is constant (strictly speaking, there is some error, but it can be said that the time that humans can visually recognize is constant). Therefore, in the manufacturing stage of the medal game device 1000, the medal M is actually inserted into the medal inserter 10 and a test is performed. After the inserted medal M is detected by the passage sensor 10d, the medal M is inserted into the medal outlet. The specified elapsed time is set by measuring the time from when it is released from 10e until it abuts against the mark MK.

  One characteristic is not to stop the lamp movement control by detecting the timing at which the medal M actually contacts the mark MK, but to be defined after the passage of the medal M is detected by the passage sensor 10d. The lamp movement control is stopped at the timing when the elapsed time has elapsed. This control makes it possible to make the player have an illusion as if the lamp movement control is stopped at the moment when the medal M contacts the mark.

1-3. Next, the configuration of the lottery system 20 in the present embodiment will be described. In the lottery system 20, the first lottery device 30 and the second lottery device 40, which are two lottery devices provided on the standing board SB standing in the back of the game space GS, are arranged in the vertical direction. In addition, a connection passage 50 that connects the first lottery device 30 and the second lottery device 40 is provided.

  The first lottery device 30 rotates the first lottery wheel portion 31 formed so as to be fitted in a circular recess 32 provided in the front view provided at the top of the standing board SB, and the first lottery wheel portion 31. And a first stepping motor 33 to be driven. The first stepping motor 33 rotates the first lottery wheel unit 31 in the designated rotation direction (clockwise / counterclockwise) and rotation speed in accordance with the drive control signal from the control unit 80.

  Although the outer peripheral side surface of the first lottery wheel portion 31 is formed as a smooth surface, four openings for the lottery balls S to enter and exit are provided at equal intervals. Of these, three openings are openings of the well pocket portion 31a, which is a pocket-type pocket portion. The depth of the pothole pocket portion 31a is designed to be a depth that just fits one lottery ball. The remaining one opening is an opening of a bent pocket portion 31b which is a bent pocket portion. The bent pocket portion 31b has a shape simulating a boot having a horizontal hole in the clockwise direction toward the bottom of the pit hole in the clockwise direction in FIG. 1, and the length of the heel hole and the horizontal hole forming the bent pocket portion 31b is as follows: It is designed to be long enough to fit one lottery ball.

  In FIG. 1, the standing board SB is provided with a lottery ball throwing section 35 at the 10 o'clock position on the clock face of the first lottery wheel section 31. The lottery ball throwing portion 35 is integrally formed in communication with the upper end of the lottery ball storage portion 130 formed in the vertical direction on the left portion of the standing board SB, and is formed downward from the upper end portion of the lottery ball storage portion 130. It consists of an inclined passage that inclines toward

  As will be described in detail later, the lottery ball storage unit 130 is a cylindrical passage having an inner diameter that is slightly larger than the diameter of the lottery ball S and allows only one lottery ball S to pass therethrough. Are provided with a fall prevention unit 150 that prevents the lottery balls S from falling and a push-up unit 140 that pushes up the new lottery balls S from below. In the state where the lottery balls S are stacked in the passage of the lottery ball storage unit 130, when one new lottery ball S is pushed up from below the passage by the push-up unit 140, the entire lottery balls S that are stacked are further increased. Pushed up. Then, the lottery ball S that has reached the upper end of the lottery ball storage unit 130 falls into the lottery ball insertion unit 35 that forms an inclined passage.

  The lottery ball S that has fallen into the lottery ball throwing portion 35 abuts on the outer peripheral side surface of the first lottery wheel portion 31 and stays in that position, but the rotation of the first lottery wheel portion 31 causes the pothole pocket portion 31a or When the opening portion of the bent pocket portion 31b arrives at the position opposite to the lottery ball throwing portion 35, it falls to the pocket portion through the opening portion. The lottery ball throwing portion 35 opens downward, and any opening formed on the outer peripheral side surface of the first lottery wheel portion 31 comes to face the opening, so that the opening Becomes a position facing upward, and the lottery ball S falls into the pocket portion.

  In FIG. 1, the standing board SB is provided with a first lottery ball dropping opening 36 at the 8 o'clock position on the clock face of the first lottery wheel 31. The first lottery ball dropping port portion 36 communicates with the upper end of the connection passage 50 that connects the first lottery wheel portion 31 and the second lottery wheel portion 41. When the opening of the pot hole pocket portion 31a or the bent pocket portion 31b of the first lottery wheel portion 31 arrives at the position opposite to the first lottery ball drop opening portion 36, the lottery ball S is drawn through the opening portion. It falls to the ball drop opening 36. Then, the lottery balls S are guided to the second lottery wheel portion 41 through the connection passage 50.

  In FIG. 1, the standing board SB is provided with a second lottery ball drop opening 37 at the 4 o'clock position on the clock face of the first lottery wheel 31. The second lottery ball drop opening portion 37 is connected to the upper end of the guide passage 58 that guides the lottery ball S to the lottery ball collection hole 59 for collecting the lottery ball S because the lottery result is “out”. The lottery balls S collected in the lottery ball collection holes 59 are conveyed to a lottery ball storage unit through a lottery ball conveyance mechanism 100 formed inside the standing board SB.

  As described above, the first lottery wheel portion 31 is formed so as to be fitted into the circular recess 32 provided in the upper part of the standing board SB. Therefore, when the opening part of the hole pocket part 31a or the bending pocket part 31b of the 1st lottery wheel part 31 comes to the opposing position of the 1st lottery ball fall opening part 36 or the 2nd lottery ball fall opening part 37. Except for the outer peripheral wall surface of the recess 32. Therefore, the outer peripheral wall surface of the dent 32 functions as a drop prevention unit for the lottery balls S, and the lottery balls S are prevented from falling outside the first and second lottery ball drop openings.

  The second lottery device 40 is a lottery device having substantially the same configuration as the first lottery device 30. Therefore, a detailed description will be omitted and the main configuration will be described. As shown in FIG. 2, the second lottery device 40 includes a second lottery wheel portion 41 formed so as to be fitted into a circular recess 42 in a front view provided at the lower portion of the standing board SB, And a second stepping motor 43 that rotationally drives the lottery wheel unit 41, and the rotation direction (clockwise / counterclockwise) and the rotation speed of the second lottery wheel unit 41 according to the drive control signal from the control unit 80. Variablely controlled. Similar to the first lottery wheel portion 31, the second lottery wheel portion 41 is configured to include three pothole pocket portions 41a and one bent pocket portion 41b.

  In FIG. 1, the standing board SB is provided with a lottery ball throwing section 45 at the 10 o'clock position on the clock face of the second lottery wheel section 41. The lottery ball throwing portion 45 communicates with the lower end of the connection passage 50 and is integrally formed. Also, a first lottery ball drop opening 46 is provided at the 8 o'clock position on the clock face. The first lottery ball drop opening portion 46 communicates with one end of the jackpot lottery ball guide rail 70, and the other end of the jackpot lottery ball guide rail 70 is located above the medal acquisition port 4. In other words, the lottery ball S that has fallen to the first lottery ball drop opening 46 rolls on the big hit lottery ball guide rail 70 and falls directly to the medal acquisition port 4.

  In FIG. 1, the standing board SB is provided with a second lottery ball drop opening 47 at the 4 o'clock position on the clock face of the second lottery wheel 41. The second lottery ball drop opening 47 communicates with one end of the normal winning lottery ball guide rail 75, and the other end of the normal winning lottery ball guide rail 75 is located above the fixed table 6. That is, the lottery ball S that has fallen to the second lottery ball drop opening 47 rolls on the normal lottery ball guide rail 75 and falls onto the fixed table 6.

  The first lottery wheel unit 31 and the second lottery wheel unit 41 configured as described above are rotated in the clockwise direction toward FIG. 1 by the first stepping motor 33 and the second stepping motor 43, respectively. The drive is controlled as follows. And the lottery by the lottery system 20 is performed as follows.

  First, when the lottery ball transport mechanism 100 inserts a new lottery ball S from below the lottery ball storage unit 130 and pushes the stacked lottery ball S upward, the lottery ball S positioned at the top is lottery. It falls along the inclined passage of the ball throwing portion 35. Since the first lottery wheel portion 31 is always controlled to rotate, the lottery ball S falls and is thrown into the pocket portion that has arrived first. However, when the lottery ball portion 31 is thrown into the pothole pocket portion 31a, The lottery balls S rotate from the pothole pocket portion 31a to the second lottery ball drop opening portion 37 when the opening of the pothole pocket portion 31a reaches the position opposite to the second lottery ball drop opening portion 37 by rotating around. And is collected in the lottery ball collection hole 59. The lottery result in this case is “out”.

  On the other hand, when the lottery ball S is thrown into the bent pocket portion 31 b, the lottery ball S rotates clockwise, and the opening portion of the bent pocket portion 31 b arrives at the position opposite to the second lottery ball drop opening portion 37. However, the lottery ball S does not fall into the second lottery ball drop opening 37. A lateral hole is formed in the bent pocket portion 31b in the clockwise direction. While the first lottery wheel portion 31 is rotating in the clockwise direction, the direction of the opening of the bent pocket portion 31b is displaced in the order of directly above, top right, right, bottom right, bottom, bottom left toward FIG. However, while the direction of the opening is directly above to the right, the lateral hole of the bent pocket portion 31b faces downward. Accordingly, during this time, the lottery ball S moves to the lateral hole of the bent pocket portion 31b. And while the direction of the opening is from right to lower right to lower, the horizontal hole does not become inverted, so the lottery ball S still remains in the horizontal hole. Since the second lottery ball drop opening 37 is located at the 4 o'clock position on the clock face, it is assumed that the opening of the bent pocket portion 31b is located at the position opposite to the second lottery ball drop opening 37. However, the lottery ball S stays in the side hole and does not fall.

  When the first lottery wheel 31 further rotates in the clockwise direction and the direction of the opening of the bent pocket portion 31b is from bottom to bottom left, the side hole is reversed and the lottery ball S that has remained in the side hole becomes the bent pocket. It falls into the pothole of the part 31 and comes to be located at the opening. And if the said opening part is located in the opposing position of the 1st lottery ball fall opening part 36, the lottery ball S will fall to the 1st lottery ball fall opening 36, and will pass through the connection channel | path 50, and will be 2nd lottery wheel. Guided to the lottery ball throwing section 45 of the section 41.

  As with the first lottery wheel unit 31, the lottery ball S guided to the lottery ball insertion unit 45 is thrown into one of the pocket portions of the second lottery wheel unit 41. At this time, when the lottery ball S is thrown into the pothole pocket portion 41a, when the opening of the pothole pocket portion 41a arrives at the position opposite the second lottery ball drop opening portion 47, the pothole pocket portion 41a The ball falls to the second lottery ball drop opening 47 and is guided onto the fixed table 6 by the normal lottery ball guide rail 75. The lottery result in this case is “ordinary hit”.

  On the other hand, when the lottery ball S is thrown into the bent pocket 41b, the opening of the bent pocket portion 41b is positioned opposite the second lottery ball drop opening portion 47 according to the same principle as the first lottery wheel portion 31. When it reaches the position opposite to the first lottery ball drop opening 46, it falls to the first lottery ball drop opening 46 and is directly guided to the medal acquisition port 4 by the big hit lottery ball guide rail 70. The lottery result in this case is “big hit”.

  Since the first lottery wheel part 31 has three pothole pocket parts 31a and one bent pocket part 41b, the lottery balls S are transferred from the first lottery wheel part 31 to the second lottery wheel part 41. The probability of being guided is “¼”. When the lottery ball S is guided to the second lottery wheel unit 41, it is always “ordinary hit” or “big hit”. Therefore, the winning probability is “1/4”.

  Further, since the second lottery wheel portion 41 also has three hole pocket portions 41a and one bent pocket portion 41b, the lottery ball S moves from the second lottery wheel portion 41 to the medal acquisition port 4. The probability of being guided is also [1/4]. Therefore, it can be said that the probability of “big hit” is “1/16” and the probability of “normal hit” is “3/16”.

1-4. Next, the configuration of the lottery ball transport mechanism 100 will be described with reference to FIGS.
FIG. 4 is a longitudinal sectional view of the medal game device 1000 viewed from the back side. A lottery ball transport mechanism 100 is formed inside the standing board SB. The lottery ball transport mechanism 100 includes a vertical passage portion 110 formed vertically on the left portion of the standing board SB toward the left side of the standing board SB and a lottery ball S dropped on the vertical passage portion 110 at the lower end of the lottery ball storage portion 130. The inclined passage 120 that guides to the entrance position 130a, the lottery ball storage 130 that is installed vertically on the right side of the standing board SB toward FIG. 4, and the push-up formed below the lottery ball storage 130 Unit 140 and a fall prevention unit 150 that prevents the lottery balls S stacked in the lottery ball storage unit 130 from falling.

  The vertical passage portion 110 is a cylindrical passage that is slightly larger than the diameter of the lottery ball S and has an inner diameter through which only one lottery ball S can pass. The upper portion of the vertical passage portion 110 communicates with the lottery ball collection hole 59, and the lower end communicates with the upstream end portion of the inclined passage portion 120 and is integrally formed. The lottery balls S dropped from the first lottery wheel portion 31 to the guide passage 58 and collected in the lottery ball collection hole 59 fall in the vertical passage portion 110 and are guided to the inclined passage portion 120.

  The inclined passage portion 120 is a passage that is slightly larger than the diameter of the lottery ball S, has an inner diameter through which only one lottery ball S can pass, and is inclined downward from the left to the right as viewed in FIG. Yes, the lottery balls S that have fallen through the vertical passage 110 are stored in one row. The upstream end portion of the inclined passage portion 120 communicates with the lower end portion of the vertical passage portion 110, and the downstream end portion of the inclined passage portion 120 communicates with the lower end inlet position 130 a of the lottery ball storage portion 130. As shown in FIG. 4, the inclined passage portion 120 has a crank shape bent in a Z shape, which is led to the lower end inlet position 130 a after the traveling direction of the lottery ball S is changed substantially vertically downward.

  This will be specifically described. The inclined passage portion 120 has a refractive structure including a first gentle slope portion 120a, a steep slope portion 120b, and a second gentle slope portion 120c. In particular, one of the major features is that the introduction portion for introducing the lottery ball S to the lower end entrance position 130a has a refraction structure of the steep slope portion 120b and the second gentle slope portion 120c.

  The first gentle slope portion 120a has a gradient of, for example, “10 ° to 20 °”, and the length thereof is configured to accommodate, for example, 7 to 8 lottery balls.

  The steep slope portion 120b has a steeper slope than each of the first gentle slope portion 120a and the second gentle slope portion 120c, for example, about 70 ° to 80 °, and the length thereof is, for example, It has a length that can accommodate 1 to 3 lottery balls.

  Similar to the first gentle slope portion 120a, the second gentle slope portion 120c has a slope of, for example, “10 ° to 20 °”. The length of the second gentle slope portion 120c prevents backflow of the lottery ball S located at the lower end entrance position 130a in the second gentle slope portion 120c in relation to the diameter of the lottery ball S. Configured to length. Specifically, a length in which N lottery balls S are arranged so that the lottery balls S are positioned at the lower end entrance position 130a and sequentially come into contact with the lottery balls S, and more preferably, N = 1 to 1 is set. It is about 3 in length.

  The push-up unit 140 operates to push up the lottery ball S located at the lower end entrance position 130a of the lottery ball storage unit 130 from below, and pushes the lottery ball S into the lottery ball storage unit 130 so as to be stored. The mechanism includes a push rod 140a and a reciprocating mechanism 140b.

  The push rod 140a is controlled to reciprocate in the vertical direction by the reciprocating mechanism 140b, enters and exits the opening 130b formed in the bottom surface of the lower end inlet position 130a of the lottery ball storage unit 130, and enters the lower end inlet position 130a. It is a rod-shaped body which pushes up the lottery ball S located at the bottom from below.

  The push rod 140a is arranged and configured to reciprocate through a hole penetrating to a position slightly closer to the inclined passage portion 120 than the center of the lower end inlet position 130a. The position slightly closer to the inclined passage portion 120 is that the position of the lottery ball S located at the lower end entrance position 130a is pushed slightly upward toward the left from FIG. It is for suppressing. In addition, an inclined surface is formed on the projecting end portion of the push rod 140a on the side opposite to the inclined passage portion 120, and when the abutting against the lottery ball S, a shape along the curved surface of the lottery ball S is formed. Has been.

  The reciprocating mechanism 140b is a direct acting mechanism that reciprocates the push rod 140a in the vertical direction by displacing the protruding end of the push rod 140a from below the lottery ball storage unit 130. The reciprocating mechanism 140b is realized, for example, by a rack and pinion mechanism, and includes a member such as a rack and a pinion, and a power source such as a motor.

  The fall prevention unit 150 is provided at the bottom of the lottery ball storage unit 130 and one lottery ball above the lower end entrance position 130a, and the roller 150a is attached to the lowest lottery ball S stored in the lottery ball storage unit 130. Is a fall prevention mechanism that contacts and supports and prevents the lottery ball storage unit 130 from falling.

  The fall prevention unit 150 includes a swing arm 150b having a roller 150a supported at the tip thereof so as to be swingable by a swing shaft 150c. A part of the roller 150 a is arranged and configured to protrude into the lottery ball storage unit 130. The swing arm 150b is always urged counterclockwise by the spring 150d toward FIG. 4. When a new lottery ball S is pushed up by the push-up portion 140, the swing arm 150b is clockwise according to the push-up force. The lottery ball S is rotated in the turning direction by a predetermined angle to guide the lottery ball S to the inside of the lottery ball storage unit 130. When the lottery ball S is located in the lottery ball storage unit 130, the lottery ball S rotates counterclockwise according to the tensile force of the spring 150d and returns to the position shown in FIG. Accordingly, the fall prevention unit 150 allows the lottery balls S to move from below to above and prevents the lottery balls S stacked in the lottery ball storage unit 130 from falling. Is done.

1-5. Operation and Principle With reference to FIGS. 5 and 6, the operation and principle of lifting the lottery ball S to the lottery ball storage unit 130 in this embodiment will be described. In order to make the features of the present embodiment easier to understand, description will be made in comparison with a comparative example in which the inclined passage portion is formed of a single slope portion.

  FIG. 5 is an explanatory diagram of lift-up in a comparative example in which the inclined passage portion is formed of a single slope portion. The push rod 140a of this embodiment is configured to reciprocate slightly closer to the inclined passage portion 120 than the center of the lower end inlet position 130a, but the push rod 540a of the comparative example passes through the center of the lower end inlet position 130a. It is configured to reciprocate. Further, unlike the push rod 140a of the present embodiment, the push rod 540a is not provided with an inclined surface at the protruding end portion.

  As shown in FIG. 5A, when the lottery ball S1 is positioned at the lower end entrance position 130a of the lottery ball storage unit 130 and the push rod 540a moves forward and the lottery ball S1 is pushed up, the push rod 540a. The lottery ball S1 does not move vertically upward because of the contact position where the ball is in contact with the lottery ball S1, the direction of the force with which the pushing force acts on the lottery ball S1, the arrangement relationship between the lottery ball S1 and the roller 150a, etc. There is a case where the side escapes so as to flow backward into the slope portion 520.

  In this case, as shown in FIG. 5 (b), other lottery balls S2 to S4 are located on the slope portion 520. However, the lottery balls S1 that have received the pushing-up force are ball-shaped inwardly from the slope portion 520. Pushed back. When the push rod 540a moves backward, as shown in FIG. 5C, the lottery balls S1 to S4 again roll on the inclined surface 520 due to their own weight, and the lowest lottery ball S1 again moves to the lower end inlet position 130a. It becomes a situation located in.

  That is, when the event as shown in FIG. 5 occurs, there is a problem that a new lottery ball S is not easily pushed up into the lottery ball storage unit 130 and the lottery ball cannot be conveyed.

  FIG. 6 is an explanatory diagram of lift-up of the lottery balls S in the present embodiment. In the present embodiment, when the lottery ball S1 is located at the lower end entrance position 130a of the lottery ball storage unit 130, when the push rod 140a moves forward and pushes up the lottery ball S1, the lottery ball S1 is moved to the second loose ball. It is pushed upward without flowing back to the slope portion 120c. The reason why the lottery ball S1 cannot flow backward to the second gentle slope 120c is as follows.

The first reason is the refraction structure by the steep slope part 120b and the second gentle slope part 120c.
As shown in FIG. 6 (a), the second gentle slope portion 120c is formed to a length that can accommodate N (three in the example of FIG. 6) lottery balls S. In 120c, N (three) lottery balls S2 to S4 that have rolled on the slope are accommodated. In this state, the leftmost lottery ball S4 of the second gentle slope portion 120c is in a position close to or in contact with the refractive portion RP to the steep slope portion 120b. On the other hand, when the lottery ball S1 collides with the following lottery ball S2 in an attempt to flow backward, the lottery balls S2 to S4 are in a ball-like state so as to flow backward through the second gentle slope portion 120c.

  However, as shown in FIG. 6B, since the lottery ball S4 is pushed back by the refracting portion RP, the lottery ball S4 cannot flow backward. Eventually, the lottery ball S1 is also inward of the second gentle slope portion 120c. It cannot be reversed. Therefore, as shown in FIGS. 6C to 6D, the lottery ball S1 is pushed up and stored in the lottery ball storage unit 130.

  The second reason is that the push rod 140a reciprocates. The push rod 140a reciprocates up and down through a position slightly closer to the second gentle slope portion 120c than the center of the lower end inlet position 130a. For this reason, as shown in FIGS. 6A to 6D, the protruding end portion of the push rod 140a pushes up the position closer to the second gentle slope portion 120c than the lower end of the lottery ball S1. As a result, the push-up force received by the lottery ball S1 becomes a force including a direction component opposite to the second gentle slope portion 120c in addition to the vertical upward direction component, and the lottery ball S1 It becomes difficult to move in the direction of the slope portion 120c. That is, the lateral escape of the lottery ball S1 is suppressed.

  The third reason lies in the inclined surface formed at the protruding end of the push rod 140a. An inclined surface is formed on the protruding end portion of the push rod 140a on the side opposite to the direction of the second gentle slope portion 120c. For this reason, the push-up force received by the lottery ball S1 is a force including a direction component on the side opposite to the second gentle slope portion 120c in addition to the vertical upward direction component, and the lottery ball S1 It becomes difficult to move in the direction of the slope portion 120c. That is, the lateral escape of the lottery ball S1 is suppressed.

1-6. Operational Effect In the medal game device 1000, the lottery ball S which is a spherical lottery body is used for physical lottery by the lottery system 20. When the lottery result by the lottery system 20 is “out”, the lottery ball S is collected in the lottery ball collection hole 59 and stored in the inclined passage portion 120 which is a storage portion. The lottery ball transport mechanism 100 includes a vertical passage portion 110, an inclined passage portion 120, a lottery ball storage portion 130, a push-up portion 140, and a fall prevention portion 150.

  The inclined passage portion 120 has a refractive structure including the first gentle slope portion 120a, the steep slope portion 120b, and the second gentle slope portion 120c, and functions as a storage portion that stores the lottery balls S in one row. The second gentle slope portion 120c has a length (for example, lottery) that prevents the lottery ball S located at the lower end inlet position 130a from flowing backward in the second gentle slope portion 120c in relation to the diameter of the lottery ball S. The length is such that three balls can be stored.

  The lottery balls S that have passed through the second gentle slope portion 120 c are guided to the lower end entrance position 130 a of the lottery ball storage unit 130, then pushed up by the push-up unit 140 and stored in the lottery ball storage unit 130. . At this time, the lottery ball S tends to flow backward to the second gentle slope portion 120c by the pushing force, but the lottery ball S located on the most upstream side of the lottery balls S located on the second gentle slope portion 120c The backflow of the lottery balls S is prevented by contacting the refracted portion RP with the steep slope portion 120b. With this configuration, the lottery balls S can be effectively prevented from running sideways, and the lottery balls S can be reliably pushed from the bottom of the lottery ball storage unit 130 and conveyed.

  Further, the push-up portion 140 is configured to push up a position closer to the second gentle slope portion 120c than the lower end of the lottery ball S. In addition, the protrusion portion includes a direction of the second gentle slope portion 120c and Has an inclined surface on the opposite side. With this configuration, the lottery ball S receives a push-up force including a component on the opposite side to the second gentle slope portion 120c by being pushed up by the push-up portion 140, and the second lottery ball S is pushed up when the lottery ball S is pushed up. Side escape to the slope portion 120c is effectively prevented.

2. Second Embodiment FIG. 7 is a longitudinal sectional view as seen from the back side of a medal game device 2000 according to the second embodiment. 8-10 is explanatory drawing of operation | movement of the raising part 240 which showed the inclination channel | path part 120 and the lottery ball storage part 130 in the cross section. 8A is a view of the push-up portion 240 as viewed from the back side, and FIG. 8B to FIG. 10B are AA, BB, It is CC sectional drawing. Note that the same components as those of the medal game apparatus 1000 in FIG. 4 are denoted by the same reference numerals and description thereof is omitted, and only parts different from the medal game apparatus 1000 will be described.

  The lottery ball transport mechanism 200 of the medal game device 2000 includes a push-up portion 240 instead of the push-up portion 140 of the medal game device 1000.

  The push-up portion 240 is pivotally supported at an eccentric position HP and is an eccentric cam 240a that is a disc body configured to rotate in the vertical direction, a stepping motor 240b that rotationally drives the eccentric cam 240a, and a shaft of the stepping motor 240b And a coupling 240c that transmits a rotational force to the eccentric cam 240a. The stepping motor 240b rotates the eccentric cam 240a in the clockwise direction from the stepping motor 240b toward the eccentric cam 240a, for example.

  Similarly to the push rod 140a of the push-up portion 140, the eccentric cam 240a is positioned so that the side surface is exposed and rotated at a position slightly closer to the inclined passage portion 120 than the center of the lower end inlet position 130a. Further, the side surface of the eccentric cam 240a is an inclined surface inclined to the opposite side to the inclined passage portion 120, like the push rod 140a. A rotating eccentric cam 240a can pass through a lower portion of the lottery ball storage portion 130, and an opening portion 130c having an opening width shorter than the diameter of the lottery ball S is formed.

  As shown in FIGS. 8 to 10, when the eccentric cam 240a is driven to rotate in the clockwise direction by the stepping motor 240b, the lottery ball S1 is drawn upward when it is pushed up in a state of being in contact with the side surface of the eccentric cam. Even if the sphere S1 tries to flow backward into the second gentle slope portion 120c, the lottery balls S2 to S4 are located on the second gentle slope portion 120c, and therefore the reverse flow is based on the same principle as in the first embodiment. Will be blocked.

3. Modifications Embodiments to which the present invention is applied have been described above, but additions, omissions, and changes can be appropriately made without departing from the spirit of the invention.

3-1. In the first embodiment, the push rod 140a of the push-up portion 140 is described as being positioned so as to push up a position slightly closer to the inclined passage portion 120 than the center of the lower end inlet position 130a. As shown in FIG. 11, it is good also as positioning so that the center position of the lower end inlet position 130a may be pushed up. In addition, the protruding end portion of the push rod 140a has been described as being provided with an inclination for preventing lateral escape, but as shown in FIG. 11, it may be a flat protruding end portion without being inclined. This is because only the refractive structure of the inclined passage portion 120 is considered to exert a sufficient effect to prevent the lottery balls S from running sideways.

  The same applies to the eccentric cam 240a constituting the push-up portion 240 described in the second embodiment, and as shown in FIG. 12, the position of the protruding end portion of the eccentric cam 240a is set to the center position of the lower end inlet position 130a. You may decide to comprise flat the side surface which is a protrusion part.

3-2. In the above-described embodiment, the second gentle slope portion 120c of the inclined passage portion 120 is described as having a length that can accommodate three lottery balls, but two lottery balls are accommodated. It may be configured to a possible length, or may be configured to be a length capable of storing one lottery ball. In any case, as long as the lottery sphere S located at the uppermost stream of the second gentle slope portion 120c is configured to come into contact with or close to the refracted portion RP with the steep slope portion 120b, it is the same as in the above-described embodiment. The effect of is demonstrated.

10 medal thrower 20 lottery system 30 first lottery device 40 second lottery device 50 connecting passage 70 big hit lottery ball guide rail 75 normal lottery ball guide rail 100 lottery ball transport mechanism 110 vertical passage portion 120a first gentle slope Part 120b steep slope part 120c second gentle slope part 130 lottery ball storage part 130a lower end inlet position 130b opening part 140 push-up part 140a push rod 140b reciprocating mechanism 150 fall prevention part 150a roller 150b swing arm 150c swing shaft 150d spring GS Game space M Medal S Lottery ball RL Roulette lamp MK mark

Claims (4)

A game device comprising a transport mechanism for transporting a predetermined spherical body, and using the spherical body transported by the transport mechanism as a game medium,
The transport mechanism is
A cylindrical body having an internal dimension through which one spherical body can pass and installed vertically;
By displacing the projecting end part from below the tubular body, a thrusting part that pushes the spherical body located at the lower end inlet position of the tubular body into the tubular body; and
Abutting on the lowest spherical body stacked inside the cylindrical body, allowing the spherical body to move from below to above, preventing movement in the reverse direction, and stacking inside the cylindrical body A fall prevention part for preventing the fall of the formed spherical body,
An inclined passage portion having an inner dimension through which one spherical body can pass, and storing the spherical bodies in a row and inclined toward the lower end inlet position;
With
The inclined passage portion is
The introduction part for introducing the spherical body to the lower end inlet position has a refractive structure by a steep slope part and a gentle slope part for introducing the spherical body from the side to the lower end inlet position from the side following the steep slope part,
The length of the gentle slope portion is related to the diameter of the spherical body, and when the spherical body located at the lower end entrance position tries to flow backward in the gentle slope portion inward by the push-up force of the push-up portion, The spherical body located on the slope is in contact with the refracting part that follows the steep slope, and is configured to prevent the backflow of the spherical body located at the lower end entrance position into the gentle slope. Yes,
Game device.   The game device according to claim 1, wherein the push-up portion is configured to push up an eccentric position near the inclined passage portion of the spherical body located at the lower end entrance position. The push-up part has a drive part for vertically rotating a disk part pivotally supported at an eccentric position, and pushes a spherical body located at the lower end inlet position with the side surface of the disk part as the projecting end part. To displace,
The game device according to claim 1 or 2 . Releases the medal in the game field by the medal from the medal slot is turned on, the medal from the game field to the token chute is in pusher-type token game machine to pay out medals by dropping claims 1-3 A game device according to any one of the above,
It has at least first and second lottery body drop opening portions, and the lottery is drawn depending on which lottery body drop opening portion is loaded with the spherical body transported by the transport mechanism from a predetermined loading position. A lottery system to perform,
A discharge guide part for guiding and discharging the spherical body dropped on the first lottery body drop opening part on the game field or the medal acquisition opening;
A recovery unit for detachment that recovers the spherical body that has dropped to the second lottery body drop port and guides it to the inclined passage part of the transport mechanism;
A selection unit for selecting a spherical body from medals and spherical bodies that have fallen into the medal acquisition port;
A collection unit for collecting the spherical bodies selected by the selection unit;
Comprising a release when the spherical body by the recovery section is recovered, as well as guides the spherical body to the inclined path of the transport mechanism, to pay out or the game field a predetermined number of medals as a bonus medals Game device to play.

Images