JP2012187153A - Game machine - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a game machine having a presentation device for enlarging an area that can be brightened by one light emitting body.SOLUTION: A storage recess 73 into which a first LED 72 fits is formed on a protrusion wall 66b of a second light transmission member 66. A V-shaped first light diffusion part 74 enlarged and opened toward a second surface 71b is formed at a position corresponding to the storage recess 73 of the protrusion wall 66b. A second light diffusion part 75 is formed at a side of a first surface 71a of the protrusion wall 66b to be continuous to the storage recess 73. A third light diffusion part 76 including a third reflection surface 76a inclined to a side of the first light diffusion part 74 toward the second surface 71b from the first surface 71a is formed at a position corresponding to the second light diffusion part 75 in the protrusion wall 66b. A V-shaped fourth light diffusion part 77 enlarged and opened toward the first surface 71a is formed at a position corresponding to the third light diffusion part 76 between the first light diffusion part 74 and the second surface 71b.

Description

  The present invention relates to a gaming machine including an effect device that produces an effect by light emission of a light emitter.

  A pachinko machine, which is a typical gaming machine, has a frame-shaped frame-shaped decorative member (a so-called center accessory) disposed at a substantially central position of the game area defined on the surface of the game board. A symbol display device such as a liquid crystal type or a drum type that performs a symbol change game by variably displaying a plurality of symbols through the opening of the member is faced from the rear, and at a position below the frame-shaped decorative member in the game board, Many proposals have been made to arrange a start winning device that starts fluctuations in the symbol display device by winning a pachinko ball (game ball) and a special winning device that opens at the time of a big hit. In such a pachinko machine, the pachinko ball launched into the game area gradually flows down due to its own weight while bouncing off by contact with a game nail or the like implanted in the game area, and starts in the process of flowing down the game area. By winning the winning device, various game effects such as a reach effect accompanying the symbol variation effect are made on the symbol display device, and when the symbols stop on the symbol display device in a predetermined combination, a so-called big hit occurs. A special winning device provided on the game board is configured to be opened to obtain a large number of prize balls. On the other hand, pachinko balls that have flowed down to the bottom of the game area without winning the various prize-winning devices such as the start prize device provided on the game board in the process of flowing down the game area are out provided at the bottom of the game area. It is collected in the ball collecting part on the back side of the pachinko machine through the mouth (see, for example, Patent Document 1).

  Further, in many recent pachinko machines, a movable effect device provided with a movable body capable of a required operation is disposed on the frame-shaped decorative member, and the movable body is adapted to the effect performed by the symbol display device. Pachinko machines that enhance the visual effect by operating and improve the fun of games are also known. For example, Patent Document 1 discloses a configuration in which a movable body formed in a bar shape is supported on a frame-shaped decorative member facing a symbol display device so as to be able to swing, and the movable body is operated at various timings. . Further, the movable body disclosed in Patent Document 1 accommodates a substrate having a light emitter in a space portion defined between a base member forming a rear surface and a light transmitting cover member forming a front surface, A so-called “hold number” is displayed by emitting light from the light emitter.

JP 2005-110862 A

However, in the case where the light emitting body provided on the movable body is used as a point light source as in Patent Document 1, when the light emitting area of the movable body is set to a wide range with the light emitting body, the cover member is subjected to diamond cutting or Even if a light diffusing process such as a spherical cut is performed, the light diffusing effect is not sufficient, and the range that can be brightened by one light emitter must be limited. That is, when the light emitting area set on the movable body is brightened at the same brightness at the same time, it is necessary not only to perform the light diffusion process on the cover member but also to increase the number of light emitting bodies, However, there is a problem that the manufacturing process increases and the manufacturing cost increases.
Accordingly, the present invention has been proposed to solve this problem in view of the above-described problems inherent in the gaming machine according to the prior art, and can provide an effect device capable of enlarging an area brightened by a single light emitter. It aims at providing the gaming machine provided with.

In order to overcome the above-mentioned problems and achieve the intended purpose, the invention according to claim 1 of the present application provides:
In a gaming machine provided with an effect device (M1) that produces effects by light emission,
The stage device (M1)
A first light transmission member (64) having a first light transmission part (70) for transmitting light;
A second light transmission member (66) comprising a second light transmission part (66b) capable of transmitting light facing the first light transmission part (70) of the first light transmission member (64);
The second light transmission member (66) is disposed on the opposite side of the first light transmission part (70) with the second light transmission part (66b) in between, and is directed toward the second light transmission part (66b). A light emitter (72) that emits light,
The second light transmission part (66b)
An accommodation recess (73) formed on the first surface (71a) side facing the arrangement side of the luminous body (72) and accommodating the luminous body (72);
The second surface (71b) is formed between the second surface (71b) facing the first light transmitting portion (70) and the first surface (71a) at a position corresponding to the accommodating recess (73). A V-shaped first light diffusion portion (74) that expands toward the
A triangular second light diffusion portion (75) formed on the first surface (71a) side so as to be continuous with the housing recess (73) and projecting outwardly away from the second surface (71b);
An inclined surface (76a) formed at a position corresponding to the second light diffusing portion (75) and inclined toward the first light diffusing portion (74) as it goes from the first surface (71a) to the second surface (71b). A third light diffusing section (76) comprising:
V is formed between the first light diffusing portion (74) and the second surface (71b) at a position corresponding to the third light diffusing portion (76) and expands toward the first surface (71a). A fourth light diffusing part (77) in the shape of a letter,
A part of the irradiation light of the light emitter (72) is reflected by the first light diffusing unit (74) toward the second light diffusing unit (75), and the reflected light from the first light diffusing unit (74) is reflected. A part of the light is reflected by the second light diffusing unit (75) toward the third light diffusing unit (76), and a part of the reflected light from the second light diffusing unit (75) is reflected by the third light diffusing unit (76). ) Reflected toward the fourth light diffusing portion (77), and a part of the reflected light from the third light diffusing portion (76) is reflected on the second surface (71b) by the fourth light diffusing portion (77). The gist is that it is configured to reflect toward the screen.
According to the first aspect of the present invention, the light diffusing effect at the time of light emission of the light emitter is improved by superimposing a plurality of light transmitting members in the light irradiation direction of the light emitter. A wide range can be brightened. Accordingly, it is possible to reduce the number of light emitters, simplify the manufacturing process by reducing the number of parts, and realize cost reduction. In addition, since the first to fourth light diffusing portions are formed on the second light transmitting member, the light mutually reflected by each light diffusing portion is diffused in a wide range, and there is a range in which light can be irradiated with one light emitter. Remarkably spread. In addition, a fourth light diffusing portion is provided between the first light diffusing portion and the second surface, and a part of the light reflected from the first light diffusing portion to the second light diffusing portion is passed through the third light diffusing portion. Is reflected on the fourth light diffusing portion and the light is reflected toward the second surface, so that the illuminance of the portion corresponding to the first light diffusing portion on the second surface is prevented from being lowered, The two surfaces can be brightened equally.

In the invention according to claim 2, the second light diffusing portion (75) is continuously formed in a direction away from the accommodating recess (73), and the protruding end of each second light diffusing portion (75). The gist is that the portion is configured to be displaced toward the second surface (71b) as it is separated from the housing recess (73).
According to the second aspect of the present invention, a plurality of second light diffusing portions are continuously formed, so that the reflected light reflected by the reflecting surface of the first light diffusing portion over a wide range is reflected on the reflecting surface of the second light diffusing portion. And can be reliably received and reflected toward the second surface. In addition, since the projecting end of each second light diffusing portion is displaced toward the second surface as it is separated from the receiving recess, the reflected light is also reflected on the reflecting surface of the second light diffusing portion located away from the receiving recess. Can be reliably distributed, and the range in which light can be irradiated with one light emitter can be expanded.
The gist of the invention according to claim 3 is that the surface (73a) facing the light emitter (72) in the housing recess (73) is formed in an arc shape protruding toward the light emitter (72). .
According to the third aspect of the present invention, the light from the light emitter can be collected in the first light diffusing section, and more light can be reflected from the first light diffusing section to the second light diffusing section.
In the invention according to claim 4, the first light transmission member (64) includes another light transmission part (69) intersecting the first light transmission part (70),
On the second surface (71b) of the second light transmission part (66b) of the second light transmission member (66), another light transmission part (69) is provided as the distance from the first light transmission part (70) increases. The gist of the present invention is that an inclined surface (78a) that is separated from the surface is formed.
According to the invention which concerns on Claim 4, the two light transmissive parts which cross | intersect in a 1st light transmissive member can be illuminated with one light-emitting body.

  According to the gaming machine according to the present invention, the light of one light emitter can be effectively diffused, and the brightened area can be enlarged.

1 is a front view showing a pachinko machine according to a preferred embodiment of the present invention. It is a front view which shows the game board which concerns on an Example in the state which the 1st and 2nd movable body moved to the operation position. It is the perspective view which decomposes | disassembles and shows the installation member, game board, and frame-shaped decoration body which concern on an Example from the front side. It is a front view which shows the installation member which removed the game board based on an Example in the state in which the 1st and 2nd movable body is a standby position. It is a front view which shows the installation member which removed the game board which concerns on an Example in the state which the 1st and 2nd movable body moved to the operation position. It is a principal part cross-sectional top view in the state which assembled | attached the game board which concerns on an Example, an installation member, and a frame-shaped decoration body. It is a perspective view shown from the front side in the state which isolate | separated the 1st and 2nd movable production | presentation apparatus from the installation member which concerns on an Example. It is a perspective view which shows the 1st and 2nd movable production | presentation apparatus which concerns on an Example from the back side. It is a schematic perspective view shown in the state which decomposed | disassembled the 1st movable production | presentation apparatus which concerns on an Example, and was seen from the front side. It is a schematic perspective view shown in the state which decomposed | disassembled the 1st movable production | presentation apparatus which concerns on an Example, and was seen from the back side. It is a principal part side view which shows the installation member which concerns on an Example longitudinally by the arrangement | positioning location of a 1st movable production | presentation apparatus. It is principal part sectional drawing which each shows the support location by the front and rear sphere in the 1st movable production | presentation apparatus which concerns on an Example. It is a principal part front view which shows the positional relationship of the front and back spherical body and a movable base in the state which removed the 1st cover body about the 1st movable production | presentation apparatus which concerns on an Example. In the 1st movable production | presentation apparatus which concerns on an Example, it is a principal part front view which shows the routing state of 1st wiring. In the 1st movable production | presentation apparatus which concerns on an Example, it is explanatory drawing which shows a mode that the state of 1st wiring changes at the time of a movement of a 1st movable body in the state which removed the 1st cover body. While showing sectional drawing of the 1st movable body of the 1st movable production | presentation apparatus based on an Example, the enlarged view of a 5th light-diffusion part is circled and shown. It is an enlarged view which shows the light-diffusion part provided in the 1st movable body of the 1st movable production | presentation apparatus based on an Example, Comprising: A mode that the light from LED reflects in each light-diffusion part is demonstrated. It is a principal part expansion perspective view which shows the 2nd light transmissive member of the 1st movable body which concerns on an Example from the back side. It is a schematic perspective view shown in the state which decomposed | disassembled and looked at the 2nd movable production | presentation apparatus which concerns on an Example from the front side. It is a schematic perspective view shown in the state which decomposed | disassembled and looked at the 2nd movable production | presentation apparatus which concerns on an Example from the back side. It is a principal part side view which shows the installation member which concerns on an Example longitudinally by the arrangement | positioning location of a 2nd movable production | presentation apparatus. It is principal part sectional drawing which each shows the support location by the front and rear sphere in the 2nd movable production | presentation apparatus which concerns on an Example. It is a principal part front view which shows the positional relationship of the front and back spherical body and a movable base in the state which removed the 2nd cover body about the 2nd movable production | presentation apparatus which concerns on an Example. In the 2nd movable production device concerning an example, it is a principal part front view showing the routing state of the 2nd wiring. In the 2nd movable production device concerning an example, it is an explanatory view showing signs that the state of the 2nd wiring changes at the time of movement of the 2nd movable body in the state where the 2nd cover body was removed. It is a vertical side view of the 3rd movable production device concerning an example. It is the perspective view shown in the state which decomposed | disassembled the 3rd movable body which concerns on an Example, and was seen from the front side. It is the perspective view shown in the state which decomposed | disassembled the 3rd movable body which concerns on an Example, and was seen from the rear side. It is an enlarged view which shows the light-diffusion structure part provided in the 3rd movable presentation apparatus which concerns on an Example, Comprising: While showing the mode that the light from LED reflects, the figure which expanded the 8th light-diffusion part further. Shown in circles. It is an enlarged view which shows the deformed light diffusion part provided in the 3rd movable production | presentation apparatus which concerns on an Example, Comprising: While showing the mode that the light from LED reflects, the figure which expanded the 9th light diffusion part further Shown in circles. It is a principal part expansion perspective view which shows the decoration cover body of the 3rd movable body which concerns on an Example from the back side.

  Next, the gaming machine according to the present invention will be described in detail below with reference to the accompanying drawings by way of preferred embodiments. In the embodiment, a pachinko machine that plays a game using a pachinko ball as a game ball will be described as an example. In the following description, “front”, “rear”, “left”, “right”, “upper”, and “lower” refer to the pachinko machine as shown in FIG. Named as viewed from the player side.

(About pachinko machines)
As shown in FIG. 1, the pachinko machine 10 according to the embodiment will be described later on the front side of the opening of the outer frame 11 as a fixed frame that is formed in a rectangular frame shape and fixed to an installation frame base (not shown) of the amusement store. A middle frame 12 as a body frame on which a game board 17 (see FIG. 2) is detachably held is assembled so as to be openable and detachable, and various symbols can be variably displayed on the back side of the game board 17. The symbol display device 13 is arranged to be detachable. On the front side of the middle frame 12, a front frame 14 as a decorative frame provided with a glass plate that protects the game board 17 from see-through is assembled so as to be openable and closable. An upper ball tray 15 for storing pachinko balls is integrally assembled at a lower position of the front frame 14, and the upper ball tray 15 is also configured to be opened and closed integrally with the opening and closing of the front frame 14. . A lower ball tray 16 for storing pachinko balls is assembled to the middle frame 12 so as to be openable and closable below the front frame 14.

(About game board)
As shown in FIG. 2, the game board 17 disposed in the inner frame 12 has a game area 17a in which a pachinko ball can flow down on the front surface (board surface), and is made of a light-transmitting material such as acrylic or polycarbonate. It consists of a flat transparent plate made of a synthetic resin material. A guide rail 18 formed in an arc shape is disposed on the front surface of the game board 17, and a panel decoration member 19 formed in an arc shape whose left end edge is recessed rightward is provided at the right side of the guide rail 18. Arranged. Then, a game area 17a is defined in a substantially circular shape by the guide rail 18 and the board decoration member 19, and a pachinko ball launched from a ball striking device (not shown) disposed in the middle frame 12 is formed in the game area 17a. A game is played with a pachinko ball flowing down in the game area 17a. In addition, a large number of game nails are planted in the game area 17a of the game board 17, and the flow direction of the pachinko balls flowing down the game area 17a is irregularly changed by contact with the game nails. It is.

  As shown in FIG. 1 or FIG. 2, the game board 17 has a start prize device 20 and a special prize device that can win a pachinko ball flowing down the game area 17a below the lower edge of a frame-shaped decorative member 23 described later. A winning device 21 and the like are arranged. The start winning device 20 is provided with a start winning opening through which a pachinko ball flowing down the game area 17a can win. Then, a pachinko ball that has won a start winning opening of the start winning device 20 is detected by a start winning sensor (not shown), whereby the symbol variation is started on the display unit 13a of the symbol display device 13, and a predetermined number (For example, five) pachinko balls are paid out to the upper and lower ball trays 15 and 16 as prize balls.

  The special winning device 21 has a winning opening that is always closed by an open / close door. As a result of the symbol variation in the symbol display device 13, a predetermined symbol combination (for example, the same symbol) is displayed on the display unit 13a of the symbol display device 13. When a symbol is stopped and displayed in a three-piece set, etc., a so-called `` big hit '' occurs, so that the door is opened and controlled so that a large number of prize balls can be obtained by winning a prize opening It has become. Note that reference numeral 22 in FIG. 2 indicates a normal winning device that is disposed on the game board 17 and always opens the winning opening.

(About decorative members)
As shown in FIG. 3, a large through-hole 17b penetrating in the front-rear direction is formed in the center of the game board 17, and a frame-like frame-shaped decorative member (so-called so-called) that opens in the front-rear direction with respect to the through-hole 17b. Center accessory) 23 is detachably disposed so as to be fitted therein. And the display part 13a of the said symbol display apparatus 13 which faces from the opening part 28a of the installation member 28 mentioned later is exposed to the front side of the game board 17 via the window (visible part) 23a opened in the front and back in the frame-shaped decoration member 23. Thus, the symbol variation effect developed on the display unit 13a of the symbol display device 13 can be viewed from the front side.

  As shown in FIGS. 1 to 3, the frame-shaped decorative member 23 is provided with an arc-shaped bowl-shaped portion 23 b that protrudes forward from the front surface of the game board 17 from the upper edge portion to the left and right edge portions. The pachinko ball launched into the game area 17a can be guided by the bowl-shaped portion 23b on the outer peripheral portion, and the pachinko ball 23b flows down across the window 23a of the frame-shaped decorative member 23. It is regulated by. The frame-shaped decorative member 23 is provided with a stage 24 on the lower side of the window 23a, and on the left side of the window 23a, takes a pachinko ball that opens into the game area 17a and flows down the game area 17a. The ball introduction part 25 for guiding to the stage 24 is provided, and the pachinko balls passed from the ball introduction part 25 to the stage 24 roll left and right on the stage 24, and then each of the winning devices 20, 21, The game area 17a in which 22 is disposed is discharged.

  The rear edge of the stage 24 is provided with a transparent wall 26 that rises at a predetermined height toward the upper side over the entire length in the left-right direction, and a pachinko ball that rolls on the stage 24 is displayed on the symbol display device 13. The transparent wall 26 prevents movement toward the portion 13a.

(About installation members)
As shown in FIGS. 3 to 7, the symbol display device 13 is detachably disposed on the back surface of the game board 17, and movable rendering devices M 1, M 2, M 3, which will be described later, and a plurality of light emitting devices 144, An installation member 28 made of a synthetic resin material on which gaming parts such as 145 and 146 are arranged is provided, and the symbol display device 13 is connected to the design display device 13 via an opening 28a formed in the installation member 28 and opening forward and backward. The display unit 13 a is configured to be visible from the front side of the game board 17. In the embodiment, the opening 28a of the installation member 28 is opened in a substantially square shape defined by the upper side, the lower side, the left side, and the right side, and the display unit 13a of the symbol display device 13 is visible from the opening 28a. Therefore, the edge portion of the opening 28a is the outer edge of the display portion 13a.

  As shown in FIGS. 3 to 7, the installation member 28 includes a box-shaped main body 29 formed in a rectangular box shape opening forward, and an opening front end portion of the box-shaped main body 29. 29, and the mounting portion 30 that extends to the outside of the opening 29 and abuts against the back surface of the game board 17. The box-shaped main body 29 opens forward from an opposing surface wall 31 formed in a rectangular plate shape facing the game board 17 and an image wall 32 extending forward from each of the upper, lower, left and right edges of the opposing surface wall 31. The attachment portion 30 is formed so as to extend from the front end portion of each drawing wall 32 toward the outside of the opening of the box-shaped main body 29. Then, the installation member 28 is fixed to the game board 17 by screwing the attachment part 30 to the game board 17 with the front surface of the attachment part 30 in contact with the back surface of the game board 17.

  As shown in FIG. 7, the opposing surface wall 31 is formed with a large opening 28 a that opens most of the vertical and horizontal widths. In the following description, the portions of the opposing surface wall 31 that are positioned vertically and horizontally with respect to the opening 28a are referred to as an upper opposing surface wall 31a, a lower opposing surface wall 31b, a left opposing surface wall 31c, and a right opposing surface wall 31d, respectively.

  With the installation member 28 attached to the back side of the game board 17, a required installation space S is defined between the facing wall 31 of the installation member 28 and the game board 17. 4 and 6, the first movable effect device M1 is disposed on the left facing surface wall 31c and the lower facing surface wall 31b on the facing surface wall 31 of the installation member 28, and the right facing surface wall 31d and the lower facing surface wall are disposed. A second movable effect device M2 is disposed at 31b, and the first movable effect device M1 and the second movable effect device M2 are separated from each other in the direction along the board surface of the game board 17. The third movable effect device M3 is disposed on the upper facing surface wall 31a. These three movable effect devices M 1, M 2, and M 3 are accommodated in an installation space S defined between the installation member 28 and the game board 17, respectively.

(About the first movable effect device)
As shown in FIGS. 4 to 9, the first movable effect device M <b> 1 is a game that is supported by the first support member 33 that forms the first main body attached to the installation member 28, and the first support member 33. A first movable body 34 that can perform a required operation along the board surface of the board 17 and a first drive unit that is disposed on the front side of the first support member 33 and drives the first movable body 34. 1 motor 35. The first movable body 34 is provided with a first decorative body portion 36 formed in a long shape simulating the blade of a sword, and at one end in the longitudinal direction of the first decorative body portion 36, and the first support body 34. The first movable base 37 is supported by the member 33 so as to be swingable. The first support member 33 includes a plurality of first mounting projections 38 projecting from a corner (the lower left corner of the box-shaped main body 29) where the left facing surface wall 31c and the lower facing surface wall 31b of the installation member 28 intersect. The first movable body 34, which is fixed to the front end by screws and supported by the first support member 33, normally extends in the vertical direction along the left opening end of the installation member 28 (see FIG. 4). ) Is held at the standby position. The front end position of the first attachment protrusion 38 is located behind the front end position of the second attachment protrusion 90 described later for fixing the second movable effect device M2 to the installation member 28, and the first attachment protrusion With the first support member 33 fixed to the front end of 38, the back surface of the first support member 33 is close to the facing surface wall 31 and the game board 17 attached to the front side of the installation member 28 and the first board as shown in FIG. It is comprised so that the space which can accommodate the 1st motor 35 between the 1 support members 33 can be ensured.

  In the embodiment, as shown in FIG. 1, the game board 17 and the frame-shaped decorative member 23 are positioned on the front side of the first movable body 34 in a state where the first movable body 34 is in the standby position. The right side portion of the first movable body 34 is covered with the frame-shaped decorative member 23. Note that a left light-emitting device 144 described later is positioned between the first movable body 34 and the game board 17 at the standby position, and the left light-emitting device 144 covers the left side portion of the first movable body 34. (See FIG. 6). The first movable body 34 is a large one that extends from the corresponding left end edge of the window 23a to the approximate center of the display portion 13a in the symbol display device 13 in the operating position described later (FIGS. 2 and 2). 5), and is configured to move along the board surface of the game board 17 between the standby position and the operating position in a first movement area biased toward the opposing surface wall 31 of the installation member 28 in the installation space S. . In the embodiment, the first movable body 34 moves behind the middle of the installation space S in the front-rear direction.

(About the first support member)
As shown in FIGS. 6 and 9 to 11, the first support member 33 includes a first attachment base body 39 attached to the facing surface wall 31 (the lower left corner of the box-shaped main body 29) of the installation member 28, and The first cover body 40 is attached to the front surface of the first attachment base body 39. The first mounting base body 39 is formed in a box shape that opens to the front with a side wall 39b projecting forward from the outer peripheral edge portion of the rear plate 39a formed in a flat plate shape. Further, the first cover body 40 has a side wall 40b projecting rearward from the outer peripheral edge portion of the front plate 40a formed in a flat plate shape. Then, the first mounting base body 39 and the first cover body 40 are assembled so that the rear plate 39a and the front plate 40a face each other so that the end portions of both side walls 39b and 40b are in contact with each other. A first housing space S1 is defined between the body 39 and the first cover body 40 (see FIGS. 6 and 11). The first mounting base body 39 and the first cover body 40 are both formed from a synthetic resin material.

(About the first mounting base)
On the back surface of the rear plate 39a in the first mounting base 39, as shown in FIGS. 8 to 10, a flat plate-like first reinforcing metal plate 41 is screwed and fixed via a plurality of screws. A first support shaft 41a, which is disposed on one reinforcing sheet metal 41 and protrudes forward, is inserted through a central through hole 39c formed in the rear plate 39a and faces the first accommodation space S1. Then, by inserting the first support shaft 41a through the shaft hole 53a formed in the first movable base portion 37 of the first movable body 34 and penetrating in the front-rear direction, the first movable body 34 becomes the first mounting base. The body 39 (first support member 33) is supported so as to be swingable in the left-right direction about a first support shaft 41a (rotary shaft) along the front-rear direction. The central through-hole 39c is set to have an inner diameter larger than the diameter of the first support shaft 41a, and a later-described support protrusion 37c formed on the first movable base 37 of the first movable body 34 is inserted. It comes to allow. Further, as shown in FIG. 9, the side wall 39b of the first mounting base body 39 is notched over a predetermined length on the upper side of the rear plate 39a, and the first support member 33 is formed at the notch 39d. The first housing space S1 is open to the outside, and a fixing portion 55 (to be described later) of the first movable body 34 extends from the cutout portion 39d to the outside. Note that a magnet 58 (described later) disposed on the first movable body 34 is magnetically attracted to the first support member 33 at a position corresponding to the left end of the notch 39d so that the first movable body 34 is on standby. A metal body 42 is provided that functions to hold in position.

  As shown in FIG. 9, an annular reinforcing rib 43 having a predetermined diameter centered on the central through hole 39c is projected on the front surface of the rear plate 39a of the first mounting base body 39, and the reinforcing plate The ribs 43 are provided with rear receiving portions 44 at equal intervals in the circumferential direction. In the embodiment, four rear receiving portions 44 are provided at an angular interval of 90 ° in the circumferential direction. As shown in FIG. 12A, each rear receiving portion 44 is formed with a concave portion 44a that opens to the front side, and a rear sphere (rolling body) 45 is loosely fitted to the concave portion 44a from the front side. The portion projecting forward from the rear receiving portion 44 of the rear sphere 45 is configured to contact the back surface of the first movable base portion 37 in a rollable manner. The rear sphere 45 is preferably made of a material harder than the first movable base 37 with which the rear sphere 45 contacts. In the embodiment, a stainless sphere is used. In addition, the rear plate 39a of the first mounting base body 39 has a spring locking portion 46 formed of a pair of pieces spaced apart in the circumferential direction between the reinforcing rib 43 and the central through hole 39c. The first engaging coil spring 57, which will be described later, is engaged with the spring engaging portion 46 so as to be engaged therewith.

  A motor installation portion 47 is formed at a lower portion of the first mounting base body 39. The motor installation portion 47 extends in parallel with the rear plate 39a from the front end of the lower side wall 39b downward. The first motor 35 for swinging the first movable body 34 is disposed on the front surface of the motor installation portion 47 from the front side with the output shaft directed rearward, and on the back side of the motor installation portion 47 in the motor 35. A plate-like first drive gear 48 is disposed on the extending output shaft. A part of the lower side wall 39b corresponding to the position where the motor installation portion 47 is formed is cut out, and a part of the first drive gear 48 faces the first housing space S1 from the cutout part. (See FIG. 11). 8 to 11, reference numeral 49 indicates a support plate that is disposed on the back side of the motor installation portion 47 and rotatably supports the first drive gear 48.

  A first position detection sensor 50 for detecting the swinging position of the first movable body 34 is attached to a portion of the lower end portion of the first attachment base body 39 adjacent to the position where the first motor 35 is disposed. ing. As the first position detection sensor 50, an optical sensor provided with a light receiving element and a light emitting element is employed in the embodiment. It can be employed according to a detected part (described later) provided on the movable body 34 side.

  On the side wall 39b of the first mounting base body 39, stoppers 51a and 51b projecting inwardly (on the side of the first housing space S1) at two locations spaced in the circumferential direction across the position where the first motor 35 is disposed. Is provided. When the first movable body 34 is swung with respect to the first support member 33, the stoppers 51 a and 51 b have circumferential end portions of a gear portion 37 d provided on the first movable base portion 37, which will be described later. The swing range of the first movable body 34 is limited by contacting the stoppers 51a and 51b. In the following description, the stopper 51a located on the right side is referred to as a first stopper, and the stopper 51b located on the left side is referred to as a second stopper.

  As shown in FIGS. 9, 13, and 14, the first attachment base body 39 is provided with a base-side wiring stopper 52 in the vicinity of the positions where the first motor 35 and the first position detection sensor 50 are disposed. It is done. Then, the wiring derived from the first position detection sensor 50, the wiring derived from the first motor 35, and the first wiring H1 derived from the first LED board 65 described later of the first movable body 34 are collected. In this state, it is locked to the base-side wiring stopper 52 via a binding tool 52a to prevent the wiring H1 from being largely displaced forward of the first support member 33 (see FIG. 14). .

(About the first cover body)
As shown in FIG. 11, the front plate 40 a of the first cover body 40 is formed in a size and shape that can cover the upper opening portion of the motor installation portion 47 in the first mounting base body 39. In a state where the first cover body 40 is screwed and fixed to the front side of the base body 39, the first motor 35 disposed in the motor installation portion 47 is configured to extend forward from the first cover body 40. Further, the side wall 40b of the first cover body 40 is cut out at a portion corresponding to the cutout portion 39d formed by cutting out the side wall 39b of the first mounting base body 39, and the first movable body 34 is cut. The fixing portion 55 is allowed to extend outward, and a gap having a dimension that allows the fixing portion 55 (the first movable body 34) to move in the left-right direction can be secured. Yes.

  As shown in FIGS. 10 and 11, the back surface of the front plate 40a in the first cover body 40 (the surface on the first housing space S1 side) is inserted through the shaft hole 53a of the first movable body 34 and is front side. A left first bearing portion 40c is formed to support the tip of the first support shaft 41a projecting to the left. Further, on the back surface of the front plate 40a, a left second bearing portion 40d that is a cylindrical shape that surrounds the left first bearing portion 40c and that opens rearward is projected in a required length, and the left second bearing portion 40d includes: A front end of a later-described shaft support portion 53 in which a shaft hole 53a of the first movable body 34 is formed is rotatably inserted.

  As shown in FIG. 10, an annular first protrusion 40e having a required diameter centering on the left first bearing part 40c is provided on the back surface of the front plate 40a of the first cover body 40. As shown in FIG. 12 (b), a front sphere 61 (described later) provided on the first movable base 37 of the first movable body 34 is configured to come into contact with the portion 40e so as to be able to roll. In the embodiment, the first protrusion 40 e is formed with the same diameter as the reinforcing rib 43 of the first mounting base body 39, and the first protrusion 40 e is reinforced with the first movable base 37 interposed therebetween. It faces the front of the rear sphere 45 that is loosely fitted to each rear receiving portion 44 provided on the rib 43. Further, as shown in FIG. 10, the front plate 40a of the first cover body 40 has a wiring port 40f penetrating in the front-rear direction between the first protrusion 40e and the left second bearing portion 40d. The first wiring H1, which will be described later, is drawn out to the outside of the first support member 33 through the wiring port 40f (see FIG. 14).

(About the first movable body)
As shown in FIG. 9 or 10, the first movable body 34 is connected to the rear plate 39 a of the first mounting base body 39 and the front plate 40 a of the first cover body 40 with respect to the first support member 33. From the first movable base portion 37 pivotally supported in a direction crossing the facing direction, and the first decorative body portion 36 attached to the first movable base portion 37 outside the first support member 33. Composed. The first movable body 34 is configured to swing around the first support shaft 41a by driving the first motor 35 disposed on the first support member 33 in the forward and reverse directions. ing. The first decorative body portion 36 of the first movable body 34 includes a first LED board 65 which will be described later, and is configured to perform a light emission effect by light emission of the LEDs 72 and 81 disposed on the first LED board 65. The first movable effect device M1 also functions as an effect device that produces an effect by light emission.

(About the first movable base)
As shown in FIGS. 9 to 13, the first movable base portion 37 is provided with a side wall 37 b that protrudes forward and rearward at an outer peripheral edge portion of a main body portion 37 a formed in a substantially disc shape. A support protrusion 37c that protrudes rearward by denting the wall is provided at the approximate center of the main body 37a, and a cylindrical shaft support 53 protrudes forward from the center of the support protrusion 37c. The first support shaft 41a is rotatably inserted into a shaft hole 53a that is provided and penetrates the shaft support 53 in the front-rear direction. That is, the first movable base portion 37 is supported by the first support member 33 so as to be rotatable about the first support shaft 41 a inserted through the shaft hole 53 a of the shaft support portion 53. Further, as shown in FIG. 11, the support protrusion 37c of the main body portion 37a is rotatably inserted into the central through hole 39c of the first mounting base body 39, and the front end of the shaft support portion 53 is connected to the first cover. By being rotatably inserted into the left second bearing portion 40d of the body 40, the first movable base portion 37 is configured to be stably and rotatably supported with respect to the first support member 33.

  The shaft support 53 is set to have a smaller diameter than the support protrusion 37c, and a substantially cylindrical groove portion 54 is formed between the inside of the recess defined on the front side of the support protrusion 37c and the shaft support 53. It is like that. Moreover, the axial support part 53 is set to the dimension which protrudes ahead from the said side wall 37b. Then, with the first cover body 40 assembled to the first mounting base body 39, the front end of the shaft support portion 53 is inserted into the left second bearing portion 40d as shown in FIG. The rear end of the second bearing portion 40d is configured to face the groove portion 54.

  The outer peripheral edge of the first movable base portion 37 is provided with a fixing portion 55 extending in the radial direction at a position facing the upper side of the first support shaft 41a at the standby position of the first movable body 34. The fixing portion 55 extends outward from the cutout portion 39d of the first support member 33 (see FIG. 8). As shown in FIG. 9, the main body portion 37a of the first movable base portion 37 extends radially outwardly on the opposite side of the fixing portion 55 (lower side in the standby position) across the shaft hole 53a. A gear portion 37d is provided at a required central angle. The gear portion 37d is positioned between the first stopper 51a and the second stopper 51b in a state where the first movable base portion 37 is disposed on the first support member 33, and is connected to the first drive gear 48. They are engaged (see FIG. 13). That is, by driving the first motor 35 and rotating the first drive gear 48 in the forward and reverse directions, the first movable base portion 37 (first movable body 34) moves the first support shaft 41a. It swings in the left-right direction as the center. In the embodiment, the first movable base portion 37 provided with the gear portion 37d functions as a plate-like movable gear. Further, at the standby position of the first movable body 34, one end in the circumferential direction of the gear portion 37d abuts on the first stopper 51a, so that the swinging of the first movable body 34 is restricted, and from the standby position. The first movable body 34 swings so as to tilt rightward, and the other end in the circumferential direction of the gear portion 37d contacts the second stopper 51b, whereby the swing of the first movable body 34 is restricted. It is like that. In the following description, a position where the gear portion 37d contacts the second stopper 51b and the swing of the first movable body 34 is restricted is referred to as an operating position (see FIGS. 5 and 15B). . That is, the first movable body 34 is swung between the standby position and the operating position.

  As shown in FIG. 13, the main body portion 37a of the first movable base portion 37 is formed with a fan-shaped through hole 37e communicating with the groove portion 54 surrounding the shaft support portion 53 and penetrating in the front-rear direction. 37e faces the spring locking portion 46 provided on the first mounting base body 39. An image wall 56 projects from the front surface of the main body 37a so as to protrude forward from the inner periphery of the groove 54 and the through hole 37e, and a through hole 37e is formed in the image wall 56. A spring locking portion 56a that communicates with the groove portion 54 is recessed at a required position that is separated from the position in the circumferential direction. Then, one engaging piece of the first torsion coil spring 57 disposed so that the shaft support portion 53 is inserted into the coil portion is locked to the spring locking portion 46 of the first mounting base body 39, and The other engagement piece of the first torsion coil spring 57 is engaged with the spring engagement portion 56 a of the image wall portion 56, and the first movable body 34 is always in the standby position by the first torsion coil spring 57. It has come to be urged towards. In the first movable base 37, a magnet 58 is disposed at the left end of the fixed portion 55, and the magnet 58 is disposed on the first mounting base body 39 at the standby position of the first movable body 34. The metal body 42 is configured to be magnetically adsorbed.

  In the state where the first cover body 40 is assembled to the first mounting base body 39, the rear end of the left second bearing portion 40d is in the groove portion 54 inside the painting wall portion 56 as shown in FIG. In front, the left second bearing portion 40d can regulate the forward movement of the first torsion coil spring 57.

  On the back surface (the other surface) of the main body portion 37a of the first movable base portion 37, an annular second ridge portion 59 protrudes at a position facing the reinforcing rib 43 provided on the first mounting base body 39. Then, the rear sphere 45 loosely fitted to the rear receiving portion 44 is configured to come into contact with the protrusion 59 so as to be able to roll (see FIG. 12A). Further, on the front surface (one surface) of the main body portion 37a, as shown in FIG. 9, a plurality of front receiving portions 60 protruding forward are provided at equal intervals in the circumferential direction in the vicinity of the outer peripheral edge portion. In the embodiment, four front receiving portions 60 are provided at an angular interval of 90 ° in the circumferential direction on the circumference of an imaginary circle aligned with the reinforcing rib 43 where the rear sphere 45 is located around the shaft hole 53a. . Each front receiving portion 60 is provided with a recessed portion 60a that opens to the front side, and a front sphere (rolling body) 61 is loosely fitted to each recessed portion 60a from the front side. And the part which protrudes ahead from the front receiving part 60 of the front sphere body 61 contacts the said 1st protrusion 40e of the said 1st cover body 40 so that rolling is possible, as shown in FIG.12 (b). Composed. That is, the main body portion 37a of the first movable base portion 37 is rotatably supported by a plurality of spheres 45 and 61 on both the front and rear sides, and the first movable base portion 37 swings around the first support shaft 41a. At this time, the rear sphere 45 and the front sphere 61 are configured to swing stably in contact with the rear sphere 45 and the front sphere 61. The front sphere 61 is preferably made of a material harder than the first cover body 40 with which the front sphere 61 contacts, and in the embodiment, a stainless sphere is used.

  Each rear sphere 45 that contacts the back surface of the first movable base 37 at the standby position of the first movable body 34 is disposed on the front surface of the first movable base 37 as shown in FIG. It is set so as to face the middle of the front spheres 61 and 61 adjacent to each other in the moving direction of one movable body 34). That is, since the four spheres of the rear sphere 45 and the front sphere 61 are arranged at an angular interval of 90 ° in the circumferential direction, the rear sphere 45 adjacent to the front sphere 61 in the circumferential direction when viewed from the front at the standby position. It faces at an angle interval of 45 °.

  A position detection piece 62 is formed on the gear portion 37d of the first movable base portion 37 as the detected portion extending outward in the radial direction. The position detection piece 62 is provided at a position that can face between the light emitting element and the light receiving element of the first position detection sensor 50, and the light emitting element and the light receiving element are moved along with the swing of the first movable base 37. The position detection piece 62 can move between the two. When the position detection piece 62 is detected by the first position detection sensor 50, the first movable body 34 is set at the standby position (see FIG. 13). In the embodiment, the first movable body 34 is moved to the right by a predetermined angle on the basis of the position (standby position) where the first position detection sensor 50 has detected the position detection piece 62 as a reference. By driving and controlling one motor 35, the first movable body 34 is positioned at the operating position. Two position detection pieces are formed in the gear portion 37d so as to be separated from each other in the circumferential direction, and the position where one position detection piece is detected by the first position detection sensor 50 is a standby position, and the position where the other position detection piece is detected. The control means may drive the first motor 35 based on the detection of each position detection piece by the first position detection sensor 50.

  On the front surface of the main body 37a of the first movable base 37, as shown in FIGS. 13, 14, and 15, a pair of guide walls 63 extending from the formation position of the fixing portion 55 toward the shaft hole side, 63 protrudes in parallel with a predetermined interval. A main body portion 37a between the two guide walls 63, 63 is recessed toward the rear side, and the radially outer sides of the two guide walls 63, 63 are opened to be described later provided in the first decorative body portion 36. A path for routing the first wiring H <b> 1 led out from the first LED substrate 65 in the first housing space S <b> 1 is secured between the guide walls 63 and 63. Further, the wiring port 40f formed in the first cover body 40 is located on the front side of the both ends of the guide walls 63, 63 on the image wall 56 side, and is routed between the guide walls 63, 63. The first wiring H1 is drawn out from the wiring port 40f.

(About the first decorative body)
As shown in FIGS. 9 and 10, the first decorative body portion 36 includes a first light transmitting member 64 (first light transmitting member) and a first LED disposed on the back side of the first light transmitting member 64. A substrate (electrical component) 65 and a second light transmissive member (second light transmissive member) 66 disposed between the first light transmissive member 64 and the first LED substrate 65 are basically configured. One end of the light transmitting member 64 in the longitudinal direction is fixed to the fixing portion 55 of the first movable base portion 37 with a screw.

  As shown in FIGS. 9 and 10, the first light transmitting member 64 includes a decorative main body 67 formed in a shape imitating a blade of a sword with a synthetic resin material having optical transparency, and a longitudinal direction of the decorative main body 67. And a fixed portion 68 extending outward from one end of the first fixed base portion. The fixed portion 68 is fixed to the fixed portion 55 of the first movable base portion 37 by screws. As shown in FIG. 16, the decoration main body 67 includes a plate-shaped front plate (another light transmitting portion) 69 and a side plate (a first plate) that protrudes backward from the outer peripheral edge of the front plate 69 so as to intersect the front plate 69. A state in which the second light transmission member 66 and the first LED substrate 65 are accommodated inside the decoration main body 67 (first light transmission member 64). Arranged. Note that the second light transmitting member 66 and the first LED substrate 65 are both substantially similar to the decorative main body 67. In addition, the front plate 69 of the decoration body 67 is a light-shielding portion that cannot transmit light due to the light-shielding process, and patterns and characters according to the motif of the pachinko machine 10 are formed. Different light transmitting portions are formed, and the light transmitting portions are illuminated from the back side by the light of the LEDs 72 and 81 to be described later, so that the surroundings of the pattern and characters formed by the light shielding portions are illuminated.

  The side plate 70 of the decorative main body 67 has a portion extending rearward from an end edge (blade edge side of the blade) facing the center of the game board 17 in the front plate 69, as shown in FIG. The inclined surface 70a is spaced apart from the face plate 69, and the vertical surface 70b extends rearward from the extending end of the inclined surface 70a so as to be orthogonal to the board surface of the game board 17.

(About the second light transmitting member)
As shown in FIGS. 9, 10, and 16, the second light transmission member 66 includes a plate-like face plate portion 66 a formed in a shape that substantially matches the contour shape formed by the front plate 69 in the decoration body 67. , Which is provided along the outer peripheral edge of the face plate portion 66a, and includes a projecting wall 66b projecting rearward from the face plate portion 66a, and is formed to be transparent so that the whole can transmit light. That is, when the second light transmission member 66 is accommodated inside the decoration body 67 through the rear opening of the decoration body 67, the front surface of the face plate portion 66a is opposed to the back side of the front plate 69, and the protruding wall 66 b is disposed to face the side plate 70. The first LED substrate 65 is positioned and fixed in a state where the front surface is in contact with the rear end surface of the protruding wall 66b of the second light transmitting member 66, and the front surface of the substrate is separated from the back surface of the face plate portion 66a by a predetermined distance. It is designed to be positioned. The decoration body 67, the second light transmission member 66, and the first LED board 65 are accurately positioned with respect to each other by positioning means such as fitting positioning protrusions and holes, and the first LED board 65 is mounted on the decoration body 67. The second light transmission member 66 is sandwiched and fixed between the decoration main body 67 and the first LED substrate 65 by fixing with screws.

(About the light diffusion part of the second light transmitting member)
Next, a specific configuration of the light diffusion portion provided in the second light transmission member 66 will be described. As shown in FIGS. 16, 17, and 18, the second light transmitting member 66 has an edge corresponding to the side plate 70 provided with the inclined surface 70 a in the decorative body 67 (the game in the front view of FIG. 4). In the protruding wall (second light transmitting portion) 66b provided on the right end edge facing the center side of the panel 17 (which may be referred to as a light emitting edge in the following description), the inner side rising from the face plate portion 66a. A housing recess 73 formed on the first surface 71a side so as to open on the back side and the inner side (right side in FIG. 16) facing the first LED substrate 65 and into which the first LED 72 of the first LED substrate 65 is fitted, and the protrusion The wall 66b is formed at a position corresponding to the receiving recess 73 between the outer second surface 71b and the first surface 71a facing the side plate 70 (specifically, the inclined surface 70a) of the decorative body 67, and Toward 2 side 71b A V-shaped first light diffusing portion 74 that spreads out, and a triangular shaped first protrusion that is formed on the first surface 71a side so as to be continuous with the housing recess 73 and protrudes outwardly away from the second surface 71b. Two light diffusing portions 75 and an inclined surface formed at a position corresponding to the second light diffusing portion 75 and inclined to the first light diffusing portion 74 side from the first surface 71a toward the second surface 71b (third A third light diffusing unit 76 having a reflecting surface 76a), and a position corresponding to the third light diffusing unit 76 between the first light diffusing unit 74 and the second surface 71b; And a V-shaped fourth light diffusing portion 77 that spreads out. The second light transmitting member 66 includes a light diffusing unit set composed of the four light diffusing units 74, 75, 76, 77 (a plurality of the second light diffusing units 75 are one set). Are provided continuously along the light emitting edge.

  As shown in FIG. 17, the housing recess 73 has a rectangular shape whose longitudinal direction is located in the extending direction of the light emitting edge, and is on the second surface 71 b side facing the light emitting surface of the first LED 72 housed in the housing recess 73. This surface is formed in an arc shape that is convex toward the first LED 72 side, and is configured such that light can be condensed on the first light diffusion portion 74 by the lens action of the arc-shaped surface 73a.

(About the first light diffusion part)
As shown in FIG. 16 or FIG. 17, the first light diffusing portion 74 is a recess formed by recessing the protruding wall 66 b toward the front surface corresponding to the lateral position of the receiving recess 73. It is comprised from two inclined surfaces which oppose the accommodation recessed part 73. FIG. Here, the inclined surface constituting the first light diffusing portion 74 is referred to as a first reflecting surface 74a. Then, both the first reflective surface 74a, 74a is a base line L ₁ passing through the center in the longitudinal direction of the housing recess 73 connected to a V-shape toward the second surface 71b as a reference, in the accommodation recess 73 The light from the accommodated first LED 72 is applied to the first reflecting surfaces 74 a and 74 a of the first light diffusion portion 74. That is, the light emitted from the first LED 72 housed in the housing recess 73 toward the side passes through the arcuate surface 73a of the housing recess 73 and enters the first reflecting surface 74a of the first light diffusion section 74. Irradiated. A part of the light applied to the first reflecting surface 74a is reflected toward the upper side or the lower side (longitudinal direction of the second light transmitting member 66). Further, the light that is transmitted laterally without being reflected by the first reflecting surface 74 a is refracted at a refraction angle corresponding to the incident angle of the light with respect to the first reflecting surface 74 a and is transmitted to the fourth light diffusion portion 77. Irradiated toward.

The angle theta ₁ of the second surface 71b side of the reference line L ₁ in the embodiment and the first reflecting surface 74a intersect, is set smaller than approximately 45 °. That is, the angle of the first surface 71a side of the reference line _{L 1} and the first reflection surface 74a intersect is set to be larger than approximately 135 °, the reflection position with respect to the first reflecting surface 74a of the light emitted from the 1LED72 but it configured to reflect as to bias the second surface 71b side as spaced apart from the reference line L _1.

(About the second light diffusion part)
As shown in FIGS. 17 and 18, a plurality of the second light diffusion portions 75 are continuously formed in the direction away from the housing recess 73 on both the upper and lower sides of the housing recess 73 and have a saw-tooth shape. It is configured as follows. The second light diffusion portion 75 is inclined so that the surface facing the accommodation recess 73 constituting the corresponding light diffusion portion set is separated from the accommodation recess 73 as it goes from the first surface 71a side to the second surface 71b side. The inclined surface is referred to as a second reflecting surface 75a. Here, the angle θ _{2 at which} the second reflecting surface 75a in the embodiment crosses the reference line L ₂ parallel to the reference line L ₁ passing through the top of the second light diffusing unit 75 on the first surface 71a side is: , Approximately 45 °. In the embodiment, an inclined surface serving as a base end of the second light diffusing portion group constituting the light diffusing portion group is disposed between the second light diffusing portion 75 closest to the accommodating concave portion 73 and the accommodating concave portion 73. Since the inclined surface has the same function as the second reflecting surface 75a of the second light diffusing portion 75, the inclined surface on the base end side is referred to as a proximal second reflecting surface 75a. I will do it.

  As shown in FIG. 17, each of the second light diffusing portions 75 has a second end as the distal end portion of the second reflecting surface 75 a on the second surface 71 b side of each second light diffusing portion 75 moves away from the accommodating recess 73. It is formed so as to be displaced toward the second surface 71b. That is, the second reflection surface 75 a of the adjacent second light diffusion portion 75 is configured such that the portion on the second surface 71 b side faces the first reflection surface 74 a of the first light diffusion portion 74. Accordingly, the light reflected by the first reflecting surface 74a is irradiated onto the second reflecting surface 75a of the second light diffusing unit 75 and reflected to the side (the second surface 71b side) by the second reflecting surface 75a. It is like that. In the embodiment, the distal end portion of the proximal second reflection surface 75a serving as the proximal end of the second light diffusing portion group is located closest to the first surface 71a.

(About the third light diffusion part)
As shown in FIGS. 17 and 18, the third light diffusing unit 76 is located laterally to the second light diffusing unit 75 at a position biased to the second surface 71 b side on both the upper and lower sides of the first light diffusing unit 74. It is provided at each of the corresponding positions. The third light diffusing portion 76 is formed by recessing the protruding wall 66b toward the front surface, and the concave third light diffusing portion 76 includes an inclined surface facing the first light diffusing portion 74 side. Here, the inclined surface constituting the third light diffusion portion 76 is referred to as a third reflecting surface 76a. In the embodiment, the second reflection surface 75a of the second light diffusion portion group and the third reflection to the side of the second reflection surface 75a of the second light diffusion portion 75 connected to the second reflection surface 75a of the second end. The surface 76a is located.

Said third reflecting surface 76a, passes through the top portion of the first surface 71a side of the third reflecting surface 76a, the angle theta ₃ in which the said reference line _{L 1} and parallel reference line _{L 3} intersects is substantially 45 ° Is set. That is, a part of the light reflected by the base end second reflection surface 75a and the second reflection surface 75a is reflected by the third reflection surface 76a toward the first light diffusion portion 74 side and the fourth light diffusion portion 77 side. It has come to be. Further, the light that is transmitted laterally without being reflected by the third reflecting surface 76 a is refracted at a refraction angle corresponding to the incident angle of the light with respect to the third reflecting surface 76 a, thereby forming the third light diffusing unit 76. The diffused effect is enhanced by irregular reflection on other surfaces (surfaces parallel to the horizontal direction or vertical direction in the embodiment).

(About the 4th light diffusion part)
The fourth light diffusing portion 77 is formed on the surface on the second surface 71b side in the concave portion forming the first light diffusing portion 74 as shown in FIGS. ₁ is provided with a pair of inclined surfaces that are inclined so as to expand in a V shape toward the first surface 71a. In the embodiment, another fourth light diffusion portion 77 connected to each inclined surface is formed. In the embodiment, three fourth light diffusion portions 77 are formed on the side of the first light diffusion portion 74. Here, the inclined surface constituting the central fourth light diffusing portion 77 and the inclined surfaces of the other fourth light diffusing portions 77 on both the upper and lower sides are both referred to as a fourth reflecting surface 77a.

Each fourth reflecting surface 77a constituting the fourth light diffusing portion 77 of the central, separate the fourth reflecting surface of the fourth light diffusing portion 77 of the angle theta ₄ and upper and lower sides and the reference line L ₁ intersects as a 77a, the end portion of the second surface 71b side of the fourth reflecting surface 77a, the angle theta ₄ to parallel reference lines L ₄ and the reference line L ₁ intersects are both set to approximately 45 ° ing. That is, the pair of fourth reflecting surfaces 77a and 77a constituting the fourth light diffusing portion 77 intersect with each other at approximately 90 °. Further, the intersection (the top portion on the second surface 71b side) of both the fourth reflecting surfaces 77a and 77a in the central fourth light diffusing portion 77 is the both reflecting surfaces 77a and 77a in the upper and lower fourth light diffusing portions 77. Is set so as to be located on the second surface 71b side from the intersection (the top portion on the second surface 71b side). That is, part of the light reflected by the third reflecting surface 76a of the third light diffusing unit 76 is reflected by the plurality of fourth reflecting surfaces 77a toward the second surface 71b. Further, the light that is transmitted through the recess without being reflected by the fourth reflecting surface 77a is refracted at a refraction angle corresponding to the incident angle of the light with respect to the fourth reflecting surface 77a, and the other fourth reflecting surface 77a. The diffuse effect is enhanced by irregular reflection.

(About rear inclined surface)
As shown in FIG. 16, the second surface 71 b of the protruding wall 66 b protrudes laterally so as to be close to the side plate 70 of the decorative body 67 at a position facing the side of the fourth light diffusing portion 77. A protruding portion 78 is formed. A rear surface (a surface constituting a part of the second surface 71 b) separated from the front plate 69 of the decorative body 67 in the projecting portion 78 is an inclined surface that is separated from the front plate 69 as being separated from the side plate 70. ing. Here, the inclined surface formed in the protrusion 78 is referred to as a rear inclined surface 78a. The rear inclined surface 78 a is set so as to be inclined at an angle of approximately 45 ° from the back surface to the front surface of the second light transmission member 66, and a part of the light irradiated laterally from the fourth light diffusion portion 77. Is reflected toward the front plate 69 (specifically, the connecting portion between the front plate 69 and the side plate 70) by the rear inclined surface 78a.

(About the front light diffusion part)
A plurality of front light diffusion portions 79 are formed in the face plate portion 66 a of the second light transmission member 66. As shown in FIG. 16 or FIG. 18, the front side light diffusion portion 79 is formed at a position facing the front surface of the flat surface 79a formed on the back surface of the face plate portion 66a and the flat surface 79a on the front surface of the face plate portion 66a. A fifth light diffusing portion 80 that is recessed rearward in an arc shape and a plurality of sixth light diffusing portions 82 formed concentrically around the flat surface 79a on the back surface of the face plate portion 66a. The flat surface 79 a faces the light emitting surface of the second LED 81 disposed on the first LED substrate 65, and the light emitted from the second LED 81 to the flat surface 79 a and transmitted through the flat surface 79 a is transmitted through the fifth light diffusion unit 80. The arc surface is irradiated. In addition, the circular arc surface which comprises the 5th light-diffusion part 80 shall be called the 5th reflective surface 80a.

  Here, the fifth reflecting surface 80 a of the fifth light diffusing unit 80 in the embodiment is set to an angle at which light can be reflected toward the outermost sixth light diffusing unit 82 constituting the fifth light diffusing unit 80. Is done. Accordingly, the light reflected by the fifth light diffusing unit 80 is applied to the plurality of sixth light diffusing units 82.

As shown in FIG. 16, each of the sixth light diffusing portions 82 is constituted by a substantially triangular groove whose cross-sectional shape is recessed forward. The front light diffusing portion 79 is formed such that each front end portion of each sixth light diffusing portion 82 is displaced to the front side as the distance from the flat surface 79a increases. The sixth light diffusing portion 82 is inclined so that the surface facing the flat surface 79a is separated from the flat surface 79a as it goes from the rear side to the front side, and the inclined surface is referred to as a sixth reflecting surface 82a. Here, the angle θ _{6 at which} the sixth reflecting surface 82a and the reference line L ₆ passing through the front end portion of the sixth reflecting surface 82a intersect is set to approximately 45 °. That is, each sixth reflecting surface 82 a of each sixth light diffusing portion 82 is configured to face the fifth light diffusing portion 80. Accordingly, the light reflected by the fifth reflecting surface 80a of the fifth light diffusing unit 80 is applied to the sixth reflecting surface 82a of the sixth light diffusing unit 82, and is reflected forward by the sixth reflecting surface 82a. It has become.

(About the first LED board)
The first LED board 65 is provided with a first LED (light emitting body) 72 at a position corresponding to each housing recess 73 formed in the second light transmission member 66 in a posture of irradiating light laterally. ing. Further, the second LED 81 is applied to the first LED substrate 65 in a posture in which light is irradiated forward to a position corresponding to the flat surface 79a in each front light diffusion portion 79 formed on the face plate portion 66a of the second light transmission member 66. Is provided. That is, by emitting the first LED 72 and the second LED 81, the first decorative body portion 36 of the first movable body 34 is forward and sideward (side facing the center of the game board 17) through the light diffusion portion. Is configured to shine. In the embodiment, the LED is also disposed at a position where the light diffusing portion of the second light transmitting member 66 is not formed on the first LED substrate 65, and the first decorative body portion 36 is not interposed through the light diffusing portion. The front side (specifically, the front plate 69 of the decorative body 67) can be brightened in different manners. Each of the LEDs 65 and 81 may have a single emission color or may emit a plurality of colors.

  On the front surface of the first LED board 65, a connector receiving part 65 a to which a connector can be connected from the lower side along the first LED board 65 is provided at the end part (lower end part) on the fixed part 55 side. One end of the first wiring H1 is connected to the connector receiving portion 65a by a connector, and the first wiring H1 is connected to the front side of the main body portion 37a of the first movable base 37 from the gap between the first light transmitting member 64 and the fixed portion 55. It is supposed to be drawn into. Then, the first wiring H1 is drawn out from the inside of the first support member 33 through the wiring port 40f formed in the front plate 40a of the first cover body 40. The first wiring H1 drawn out of the first support member 33 is combined with the wiring derived from the first motor 35 and the first position detection sensor 50, and then provided on the back side of the installation member 28. Connected to a relay board (board) (not shown) arranged in the installation section.

(About the first wiring)
The first wiring H1 extends from the gap between the first light transmitting member 64 and the fixed portion 55 to the guide wall 63 between the main body portion 37a of the first movable base 37 and the front plate 40a of the first cover body 40, 14 and 15, after being drawn in between 63, it is pulled out from the wiring port 40f in the vicinity of the left second bearing portion 40d and on the front side of the first cover body 40 (front plate 40a). The first movable body 34 is configured to be wound in an annular shape so as to surround the swing axis of the first movable body 34 (the left second bearing portion 40d in a front view). (Allowing part) 83 functions. Further, a portion of the first wiring H1 closer to the board connecting portion than the first movement allowing portion 83 is bound to a cover side wiring stopper (holding portion) 84 formed on the front surface of the front plate 40a in the first cover body 40. It is held so as not to move by being bound through a tool (holding means) 84a. The holding position of the first wiring H1 by the cover-side wiring stopper 84 is opposite to the first decorative body 36 across the wiring port 40f at the standby position of the first movable body 34 (first wiring). The first movement permitting portion 83 is configured to be able to hold an annular shape in a front view, which is set on the opposite side of the H1 main body portion 37a and the front plate 40a. In FIG. 15, the first cover body 40 of the first support member 33 is omitted.

  The annular first movement allowance portion 83 maintains an initial state in which a required load is applied at the standby position of the first movable body 34 so that the first wiring H1 is not disconnected, as shown in FIG. Thus, when the first movable body 34 swings from the standby position to the operating position, the diameter is increased, so that the state is changed to an allowable state in which the load is reduced. That is, since the first movable body 34 moves from the standby position to the right and reaches the operating position, the first movement allowance portion 83 has the first wiring H1 drawn from the wiring port 40f. The first movable body 34 is wound clockwise around the swing axis (left second bearing portion 40d) in the order of right side-lower side-left side-upper side. As a result, when the first movable body 34 swings from the standby position to the operating position, the first LED substrate 65 of the first movement substrate 83 is fixed to the side fixed to the cover-side wiring stopper 84. As the connection side moves to the right, the first movement allowing portion 83 changes in a direction in which the diameter increases. In the initial state of the first movement allowance portion 83, the inner diameter of the movement allowance portion 83 is set sufficiently larger than the outer diameter of the left second bearing portion 40d.

  In the first movement allowance portion 83, a first portion 83 a that is routed to the first LED substrate 65 side is held by the cover-side wiring stopper 84 at the intersection when the first wiring H <b> 1 is wound in an annular shape. The first movable base 34 is overlapped on the swinging region side of the first movable body 34, which is the main body portion 37a side of the first movable base 37. That is, in the embodiment, the second part 83b is configured to overlap the first part 83a on the front side, and the first movement allowance part 83 changes when the first movable body 34 swings. The second portion 83b prevents the portion 83a from being displaced forward.

(About the second movable effect device)
As shown in FIGS. 4 to 8, 19, and 20, the second movable effect device M <b> 2 has the same basic configuration as the first movable effect device M <b> 1, and the second movable effect device M <b> 2. The second support member 85 forming the second main body attached to the installation member 28, and the second movable member supported by the second support member 85 and capable of performing a required operation along the board surface of the game board 17. A body 86 and a second motor 87 disposed on the rear side of the second support member 85 and serving as second driving means for driving the second movable body 86. In the second movable effect device M2 and the first movable effect device M1, in the basic configuration, the arrangement positions of the motors 35 and 87 with respect to the support members 33 and 85 are different forward and backward, so that both the movable effect devices M1 and M2 are arranged. The size of the front and rear dimensions when the is installed on the installation member 28 is suppressed.

  As shown in FIGS. 19 and 20, the second movable body 86 includes a second decorative body portion 88 formed in a long shape simulating the tip of a heel, and the second decorative body portion 88. A second movable base portion (movable base portion) 89 is provided at one end in the longitudinal direction and is swingably supported by the second support member 85. The second support member 85 has a plurality of second mounting protrusions 90 protruding from the corner (the lower right corner of the box-shaped main body 29) where the right facing surface wall 31d and the lower facing surface wall 31b of the installation member 28 intersect. The second movable body 86 fixed to the front end of the mounting member and supported by the second supporting member 85 normally extends in the vertical direction along the right opening end of the installation member 28 (FIG. 4). (See)). The front end position of the second mounting projection 90 is located in front of the front end position of the first mounting projection 38, and the second support member 85 is fixed to the front end of the second mounting projection 90. 6, a space capable of accommodating the second motor 87 can be secured between the back surface of the second support member 85 and the opposing surface wall 31.

  Moreover, the 2nd movable body 86 is a large sized thing extended to the approximate center of the display part 13a in the symbol display apparatus 13 from the corresponding right end edge part of the said window 23a in the operation position mentioned later (refer FIG. 2). The second movable body 86 has a second movement region in which the second movable body 86 moves so that the second movable body 86 does not interfere with the first movable body 34 at the operating position. The body 34 is set so as to be separated from the front side of the first movement region in which the body 34 moves. That is, in the state where the second support member 85 is fixed to the front end of the second attachment protrusion 90, the second movable body 86 is a first movement region in which the first movable body 34 moves in the installation space S. On the other hand, the second movement area biased toward the game board 17 is moved along the board surface of the game board 17. In the embodiment, the second movable body 86 moves in front of the middle of the installation space S in the front-rear direction. In the embodiment, as shown in FIG. 1, the frame-shaped decorative member 23 is positioned on the front side of the second movable body 86 in a state where the second movable body 86 is in the standby position. The frame-shaped decorative member 23 covers most (right side) of the second movable body 86.

(About the second support member)
As shown in FIGS. 19 and 20, the second support member 85 includes a second attachment base body 91 attached to the facing surface wall 31 (the lower right corner of the box-shaped main body 29) of the installation member 28, and the second The second cover body 92 is attached to the front surface of the mounting base body 91. The second motor 87 for swinging the second movable body 86 is disposed on the back surface of the second mounting base body 91 from the back side so that the output shaft faces the inside of the second support member 85. The second mounting base body 91 is formed in a box shape that opens to the front with a side wall 91b projecting forward from the outer peripheral edge of a rear plate (second counter plate) 91a formed in a flat plate shape. Further, the second cover body 92 has a side wall 92b projecting rearward from an outer peripheral edge portion of a front plate (first counter plate) 92a formed in a flat plate shape. Then, the second mounting base body 91 and the second cover body 92 are assembled so that the rear plate 91a and the front plate 92a face each other so that the end portions of both side walls 91b and 92b are in contact with each other. A second housing space S2 is defined between the body 91 and the second cover body 92 (see FIGS. 6 and 21). The second mounting base body 91 and the second cover body 92 are both formed from a synthetic resin material.

(About the second mounting base)
On the back surface of the rear plate 91a in the second mounting base body 91, as shown in FIGS. 8 and 19, a flat plate-like second reinforcing sheet metal 93 is screwed and fixed via a plurality of screws. A second support shaft 93a, which is disposed on the reinforcing sheet metal 93 and protrudes forward, is inserted into a central through hole 91c formed in the rear plate 91a and faces the second accommodation space S2. The second movable body 86 is inserted into the second mounting base 89 by inserting the second support shaft 93a through the shaft hole 107a formed in the second movable base 89 of the second movable body 86 and penetrating in the front-rear direction. The body 91 (second support member 85) is supported so as to be swingable in the left-right direction around a second support shaft 93a (rotary shaft) along the front-rear direction. The center through hole 91c is set to have an inner diameter larger than the diameter of the second support shaft 93a, and the insertion of a support protrusion 89a (described later) formed in the second movable base 89 of the second movable body 86 is performed. It comes to allow. Further, as shown in FIGS. 19 and 20, the side wall 91b of the second mounting base body 91 is notched over a predetermined length on the upper side of the rear plate 91a. The second housing space S2 of the support member 85 is opened to the outside, and the second decorative body portion 88 of the second movable body 86 is configured to extend to the outside from the cutout portion 91d.

  On the front surface of the rear plate 91a in the second mounting base body 91, as shown in FIG. 19, two arc-shaped reinforcing ribs 94 and 95 having a predetermined diameter centered on the central through hole 91c are concentrically arranged. Projected. A plurality of rear receiving portions (first receiving portions) 96 and 97 are provided on the outer reinforcing rib 94 positioned on the outer side and the inner reinforcing rib 95 positioned on the inner side. In the embodiment, the outer reinforcing rib 94 is provided with three outer rear receiving portions 96 at an angular interval of 90 ° in the circumferential direction, whereas the inner reinforcing rib 95 is provided with one inner rear receiving portion 97. The reinforcing rib 94 is provided between the two outer rear receiving portions 96 adjacent to each other at an angular interval of 180 ° in the circumferential direction at a position facing the remaining one of the outer rear receiving portions 96 with the central through hole 91c therebetween. . That is, a total of four rear receiving portions 96, 96, 96, 97 provided on the outer reinforcing rib 94 and the inner reinforcing rib 95 pass through the rear receiving portions 96, 96, 96, 97 from the center of the central through hole 91c. Radiation is provided at an angular interval of 90 ° in the circumferential direction.

  The rear receiving portions 96, 97 are formed with recesses 96a, 97a that open to the front side, and a rear sphere (second rolling element) 98 is loosely fitted to the recesses 96a, 97a from the front side. A portion projecting forward from the rear receiving portions 96, 97 of the rear sphere 98 is configured so as to be able to roll on the back surface (the other surface) of the second movable base 89 (see FIG. 22A). ). As the rear sphere 98, a material harder than the second movable base 89 with which the rear sphere 98 contacts is preferably used, and in the embodiment, a stainless sphere is used. The rear plate 91a of the second mounting base body 91 has a spring locking portion 99 consisting of a pair of pieces spaced apart in the circumferential direction between the outer reinforcing rib 94 and the inner reinforcing rib 95. And is configured such that one engagement piece of a second torsion coil spring 111 described later is locked to the spring locking portion 99.

  In the second mounting base body 91, a right side wall 91b located on the opposite side of the center through hole 91c with the inner rear receiving portion 97 interposed therebetween (inside of the outer reinforcing rib 94) (on the side of the center through hole 91c). A restricting portion 100 is provided so as to protrude to (see FIG. 23). When the second movable body 86 is swung with respect to the second support member 85, the regulation portion 100 is configured so that later-described regulation walls 106 c and 106 d provided on the second movable base 89 will contact the regulation portion 100. By contacting, the swing range of the second movable body 86 is limited (see FIG. 25).

  The second motor 87 is disposed on the back surface of the second mounting base body 91 on the lower end side of the rear plate 91a. 101 is arranged to face the second accommodation space S2. A second position detection sensor 102 for detecting the swing position of the second movable body 86 is attached to a portion adjacent to the position where the second drive gear 101 is disposed at the lower end of the rear plate 91a. . As the second position detection sensor 102, an optical sensor provided with a light receiving element and a light emitting element is employed in the embodiment. It can be employed according to a detected part (described later) provided on the movable body side. Note that wiring (not shown) derived from the second position detection sensor 102 is drawn to the outside through a through hole 91e formed in the rear plate 91a.

  The second mounting base body 91 is provided with a wiring hook 104 outside the side wall 91 b close to the position where the second motor 87 and the second position detection sensor 102 are disposed, and is led out from the second position detection sensor 102. The wiring to be connected and the wiring derived from the second motor 87 are collectively routed along the outer surface of the side wall 91b from the back side to the front side while being locked to the wiring hook 104. The lower side wall 91 b of the second mounting base body 91 is provided with a guide portion 105 that defines a passage 105 a penetrating in the front-rear direction with the outer surface of the side wall 91 b and is locked to the wiring hook 104. The wiring once drawn to the front side is inserted into the passage 105a and drawn to the back side.

(About the second cover)
The front plate 92 a of the second cover body 92 is formed to have a size and a shape that can cover the upper opening portion of the guide portion 105 in the second mounting base body 91. By fixing the two cover bodies 92 with screws, the second housing space S2 is defined inside. The right first bearing portion that supports the tip of the second support shaft 93a that is inserted through the shaft hole 107a of the second movable body 86 and protrudes to the front side is provided on the back surface of the front plate 92a in the second cover body 92. 92c is formed. Further, on the back surface of the front plate 92a, a right second bearing portion 92d that is a cylindrical shape that surrounds the right first bearing portion 92c and opens rearward is projected in a required length, and the right second bearing portion 92d includes A front end of a later-described shaft support 107 in which the shaft hole 107a of the second movable body 86 is formed is rotatably inserted (see FIG. 21).

  On the back surface of the front plate 92a of the second cover body 92, as shown in FIG. 20, an annular outer protrusion 92e with a required diameter centering on the right first bearing portion 92c is projected. An arc-shaped inner protrusion 92f concentrically with the outer protrusion 92e is provided on the back surface of the front plate 92a on the inner side (right first bearing portion 92c side) of the protrusion 92e. As shown in FIG. 22 (b), a front sphere 119 (to be described later) provided on the second movable base 89 of the second movable body 86 comes into contact with the inner and outer protrusions 92e and 92f so as to roll freely. It is configured as follows. In the embodiment, the outer protrusions 92e and the inner protrusions 92f are formed with the same diameter as the corresponding outer reinforcing ribs 94 and inner reinforcing ribs 95 of the second mounting base body 91, respectively, and the outer protrusions 92e. Faces the front of the rear sphere 98 that is loosely fitted to each outer rear receiving portion 96 with the second movable base 89 interposed therebetween, and the inner protrusion 92f has the inner rear receiving portion with the second movable base 89 interposed therebetween. It faces the front of the rear sphere 98 loosely fitted in the portion 97.

(About the second movable body)
As shown in FIG. 19 or FIG. 20, the second movable body 86 is connected to the rear plate 91 a of the second mounting base body 91 and the front plate 92 a of the second cover body 92 with respect to the second support member 85. The second movable base 89 is pivotally supported in a direction crossing the facing direction, and the second decorative body 88 is attached to the second movable base 89. The second movable body 86 is configured to swing about the second support shaft 93a by driving the second motor 87 disposed on the second support member 85 in the forward and reverse directions. ing.

(About the second movable base)
As shown in FIGS. 19 and 23, the second movable base 89 has side walls 106 a, 106 b, 106 c, and 106 d projecting forward from the outer peripheral edge of the main body 109 formed in a substantially disc shape. ing. A support protrusion 89a that protrudes backward by recessing the wall is provided at the approximate center of the main body 109, and a cylindrical shaft support 107 protrudes forward from the center of the support protrusion 89a. The second support shaft 93a is rotatably inserted into a shaft hole 107a that is provided and penetrates the shaft support portion 107 in the front-rear direction. That is, the second movable base 89 is supported by the second support member 85 so as to be rotatable about the second support shaft 93 a inserted through the shaft hole 107 a of the shaft support 107. Further, the support protrusion 89 b of the main body 109 is rotatably inserted into the central through hole 91 c of the second mounting base body 91, and the front end of the shaft support portion 107 is the second right side of the second cover body 92. By being rotatably inserted into the bearing portion 92d, the second movable base 89 is configured to be stably and rotatably supported with respect to the second support member 85 (see FIG. 21).

  As shown in FIG. 21, the shaft support 107 is set to have a smaller diameter than the support protrusion 89b, and is formed between the shaft support 107 and the inner side of the recess defined on the front side of the support protrusion 89b. A groove 108 is formed. Further, the shaft support 107 is set to a dimension that projects forward from the side walls 106a, 106b, 106c, 106d. Then, with the second cover body 92 assembled to the second mounting base body 91, the front end of the shaft support portion 107 is inserted into the right second bearing portion 92d, and the right second bearing portion 92d A rear end is configured to face the groove 108.

  As shown in FIG. 23, the main body 109 of the second movable base 89 is provided with a large-diameter portion 109a and a small-diameter portion 109b having different outer diameters around the shaft hole 107a, and the outer peripheral edge of the large-diameter portion 109a. The side wall provided in the part is referred to as the large diameter side wall 106a, and the side wall provided in the outer peripheral edge of the small diameter part 109b is referred to as the small diameter side wall 106b. In addition, one side wall connecting the both ends in the circumferential direction of the small-diameter side wall 106b and the corresponding end of the large-diameter side wall 106a is referred to as a first regulating wall 106c, and the other side is designated as a second regulating wall 106d. The central angle of the arc forming the outer peripheral edge of the small diameter portion 109b, that is, the circumferential length of the small diameter side wall 106b is set to be larger than the circumferential length of the regulating portion 100 of the second mounting base body 91, In a state where the two movable bases 89 are disposed on the second support member 85, the restriction part 100 is configured to be positioned between the restriction walls 106c and 106d. And the rocking | fluctuation of the 2nd movable body 86 is controlled because the 1st control wall 106c contact | abuts to the control part 100 in the standby position of the 2nd movable body 86 (refer Fig.25 (a)). The second movable body 86 is swung from the standby position so that the second movable body 86 is tilted to the left, and the second restricting wall 106d comes into contact with the restricting portion 100 so that the swing of the second movable body 86 is regulated. It has become. In the following description, the position where the second restricting wall 106d abuts on the restricting portion 100 and the swinging of the second movable body 86 is restricted is referred to as an operating position (see FIG. 26B). That is, the second movable body 86 is swung between the standby position and the operating position. The central angle of the arc that forms the outer periphery of the small-diameter portion 109b is between the two front spheres 119 and 119 that are adjacent to each other in the circumferential direction to support the second movable base 89 in a swingable manner with respect to the second support member 85. The central angle is set larger than the central angle between the rear spheres 98 and 98.

  The main body 109 of the second movable base 89 is formed with a fan-shaped through-hole 89b that communicates with the groove 108 surrounding the shaft support 107 and penetrates in the front-rear direction, and the first through-hole 89b includes the first through-hole 89b. 2. A spring locking portion 99 provided on the mounting base body 91 faces. Further, an image wall 110 is projected from the front surface of the main body 109 so as to protrude forward from the inner periphery of the groove 108 and the through hole 89b, and a through hole 89b is formed in the image wall 110. A spring locking portion 110a that communicates with the groove portion 108 is recessed in a required position that is separated from the position in the circumferential direction. Then, one engaging piece of the second torsion coil spring 111 disposed so that the shaft support portion 107 is inserted into the coil portion is locked to the spring locking portion 99 of the second mounting base body 91, and The other engagement piece of the second torsion coil spring 111 is engaged with the spring engagement portion 110 a of the image wall 110, and the second movable body 86 is always in the standby position by the second torsion coil spring 111. It has come to be urged towards.

  In the state where the second cover body 92 is assembled to the second mounting base body 91, as shown in FIG. In front, the right second bearing portion 92d regulates the forward movement of the second torsion coil spring 111.

  At the standby position of the second movable body 86, a notch 112 having a required length is formed in the circumferential direction on the large-diameter side wall 106a facing the second support shaft 93a. The corresponding main body portion 109 is integrally provided with a fixing portion 103 that extends radially outward. The fixing portion 103 is set to a dimension that does not protrude outward from the outer peripheral edge of the rear plate 91a in the second mounting base body 91. Further, as shown in FIG. 20, a plurality of (two in the embodiment) tube receiving portions 114 are formed in the fixing portion 103 so as to be separated in the left-right direction on the protruding end side. A through hole 114a for insertion is formed. Further, the main body 109 has a screw insertion passage at a position inside the first virtual circle T1 between the fixed portion 103 and the drawing wall portion 110 and passing through a plurality of outer front receiving portions 117 described later. A hole 109c is formed.

  An arc-shaped outer protrusion on the back surface (the other surface) of the main body 109 of the second movable base 89 at a position facing the outer reinforcing rib 94 and the inner reinforcing rib 95 provided on the second mounting base body 91. A portion 115 and an inner ridge portion 116 are provided to project. Then, as shown in FIG. 22 (a), the rear spheres loosely fitted on the inner and outer rear receiving portions 96, 97 of the second mounting base body 91 are provided on the inner and outer protrusions 115, 116, respectively. 98 is configured to contact in a rollable manner. Further, as shown in FIG. 23, the front surface (one surface) of the main body 109 is formed with a recess 117a that protrudes forward and opens forward in the vicinity of the outer peripheral edge of the large-diameter portion 109a. A receiving portion (second receiving portion) 117 is provided spaced apart in the circumferential direction, and an inner front receiving portion is formed in the vicinity of the outer peripheral edge portion of the small-diameter portion 109b. The recessed portion 118a protrudes forward and opens to the front side. A part (second receiving part) 118 is provided. In the embodiment, the three outer front receiving portions 117 are provided at an angular interval of 90 ° in the circumferential direction on the large diameter portion 109a, whereas one inner front receiving portion 118 is provided on the small diameter portion 109b. Between the two outer front receiving portions 117 and 117 adjacent to each other at an angular interval of 180 ° in the circumferential direction in the portion 109a, it is provided at a position facing the remaining one outer front receiving portion 117 across the shaft hole 107a. That is, a total of four front receiving portions 117, 117, 117, 118 provided in the large diameter portion 109 a and the small diameter portion 109 b receive radiation passing through the front receiving portions 117, 117, 117, 118 from the center of the shaft hole 107 a. It is provided so as to have an angular interval of 90 ° in the circumferential direction.

  In each of the inner and outer front receiving portions 117, 118, a front sphere (first rolling element) 119 is freely fitted in the recesses 117a, 118a from the front side so as to freely roll, and as shown in FIG. Portions protruding forward from the respective front receiving portions 117 and 118 of the front sphere 119 are configured to contact the corresponding inner and outer protrusions 92e and 92f of the second cover body 92 so as to be capable of rolling. That is, the main body 109 of the second movable base 89 is rotatably supported by a plurality of spheres 98 and 119 on both front and rear sides, and the second movable base 89 swings about the second support shaft 93a. At this time, the rear sphere 98 and the front sphere 119 are configured to swing stably in contact with the rear sphere 98 and the front sphere 119. The projecting dimensions of the front receiving portions 117, 118 from the main body 109 are set longer than the side walls 106a, 106b, 106c, 106d, and the front ends of the side walls 106a, 106b, 106c, 106d are the second cover bodies. The back surface of 92 is not touched. The front sphere 119 is preferably made of a material harder than the second cover body 92 with which the front sphere 119 contacts, and a stainless steel sphere is used in the embodiment.

  Each rear sphere 98 that contacts the back surface of the second movable base 89 at the standby position of the second movable body 86 is disposed on the front surface of the second movable base 89 as shown in FIG. The moving direction of the second movable body 86 is set so as to face the middle of the front spheres 119 and 119 adjacent to each other. That is, since the four rear spheres 98 and the front sphere 119 are arranged at an angular interval of 90 ° in the circumferential direction, the rear sphere 98 adjacent to the front sphere 119 in the circumferential direction when viewed from the front at the standby position. It faces at an angle interval of 45 °. Note that two of the four rear spheres 98 are substantially aligned in the longitudinal direction of the second decorative body 88 disposed on the second movable base 89 at the standby position and the operating position of the second movable body 86. Thus, the second support shaft 93a is located on both sides. Each of the outer front sphere 119 and the outer rear sphere 98 that are loosely fitted to the outer front receiving portion 117 and the outer rear receiving portion 96 to support the second movable base 89 from the front and the rear is the second movable base 89. It passes through the outer periphery of the small-diameter portion 109b (specifically, the outer periphery of the small-diameter side wall 106b), is located outside the second virtual circle T2 with the shaft support portion 107 as the center (rotation center of the second movable body 86), The second movable base 89 is configured to be stably supported.

  A gear portion 89c that meshes with the second drive gear 101 is formed in a predetermined angle range on the large-diameter side wall 106a of the main body 109 of the second movable base 89 at a position spaced apart from the notch 112 in the circumferential direction. ing. That is, by driving the second motor 87 and rotating the second drive gear 101 in the forward and reverse directions, the second movable base 89 (second movable body 86) is centered on the second support shaft 93a. Swings in the left-right direction. In the embodiment, the second movable base 89 provided with the gear portion 89c functions as a plate-shaped movable gear.

  The gear portion 89c of the second movable base 89 is formed with a first position detection piece 120a and a second position detection piece 120b as the detected portions extending outward in the radial direction and spaced apart in the circumferential direction. Yes. Both the position detection pieces 120a and 120b are provided at positions that can face between the light emitting element and the light receiving element of the second position detection sensor 102, and the light emitting element is accompanied by the swinging of the second movable base 89. The position detection pieces 120a and 120b can move between the light receiving element and the light receiving element. When the first position detection piece 120a is detected by the second position detection sensor 102, the second movable body 86 is positioned at the standby position (see FIGS. 23 and 25A), and the second position is detected. When the second position detection sensor 102 detects the detection piece 120b, the second movable body 86 is located at the operating position (see FIG. 25B). The second motor 87 is driven and controlled by a control means (not shown) based on the position of the second movable body 86 detected by the second position detection sensor 102. It should be noted that one position detection piece is formed on the gear portion 89c, and, like the first movable effect device M1, the control means uses the second motor for detecting the position detection piece by the second position detection sensor 102 as a reference. It is good also as an aspect which controls drive of 87.

(About the second decorative body part)
19 and 20, the second decorative body portion 88 includes a decorative base 121, a second LED board (electric part) 122 disposed on the back side of the decorative base 121, the decorative base 121 and the second LED. The lens cover 123 disposed between the substrates 122 and a plurality of ornaments 124 disposed on the front side of the decoration base 121 are basically configured, and one end in the longitudinal direction of the decoration base 121 is the second movable. The fixing portion 103 and the main body 109 of the base 89 are fixed with screws.

  The decorative base 121 is formed of a light-transmitting synthetic resin material in a shape simulating the tip of a cocoon, and a decorative main body 125 formed so as to bulge forward entirely. And a fixed portion 126 extending outward from one end in the longitudinal direction. A fixing boss 127 corresponding to each of the tube receiving portions 114 provided on the fixing portion 103 of the second movable base 89 protrudes rearward from the end of the decoration main body 125 on the fixed portion 126 side. The decorative base 121 (second decorative body portion 88) is positioned with respect to the second movable base 89 by inserting the fixing boss 127 into the corresponding tube receiving portion 114 from the front side. In addition, a screw hole 127 a is formed in each fixing boss 127, and a screw hole 126 a is formed on the extending end side of the fixed portion 126, and each passage formed in each tube receiving portion 114 and the main body portion 109 is formed. Screws inserted through the holes 114 a and 109 c from the rear side are screwed into the screw holes 127 a of the corresponding fixing boss 127 and the screw holes 126 a of the fixed portion 126, so that the decorative base 121 is attached to the second movable base 89. The (second decorative body portion 88) is positioned and fixed. The fixed portion 126 of the decoration base 121 with respect to the second movable base 89 has the plurality of outer front receiving portions 117 as shown in FIG. 23 in a state where the fixing boss 127 is inserted into the tube receiving portion 114. It extends to the inner side (axial support side) from the first virtual circle T1 that passes through, and the fixed portion 126 is screwed to the main body 109 at this extended portion. In the embodiment, the through-hole 109c is pivoted from a virtual support line T3 that connects the front spheres 119, 119 loosely fitted to a pair of outer front receiving portions 117, 117 that are adjacent to each other around the fixed portion 126. The decoration base 121 is provided on the support side, and is fixed to the second movable base 89 with screws on the inside and outside of the virtual support line T2.

  A part of the front surface of the decorative base 121 is provided with a light shielding part that cannot transmit light by a light shielding process. The light of the LED 122a, which will be described later, is blocked by the light shielding part. Is displayed brightly. That is, the area that is not subjected to the light shielding function functions as a light transmitting portion that can transmit the light from the LED 122a. The light shielding treatment can be realized by painting the decoration base 121 or vapor-depositing a metal such as aluminum, or can be realized by separately attaching a member that cannot transmit light.

  19 and 20, the decorative base 121 is formed with a plurality of opening portions 121a penetrating in the front-rear direction and spaced apart in the longitudinal direction. The lens cover 123 is provided on the back side of each opening portion 121a. Respectively. The second LED substrate 122 is substantially similar to the decorative base 121 and is set to a size hidden on the back side, and the lens cover 123 is sandwiched between the second LED substrate 122 and the decorative base 121. A plurality of LEDs 122 a are mounted on the front surface of the second LED substrate 122 at positions corresponding to the lens covers 123 and positions corresponding to the light transmission portions of the decoration base 121, and the light from the LEDs 122 a is transmitted to the lens cover 123. And it is comprised so that it may irradiate to the front side via a light transmissive part. Note that the LED 122a may have a single emission color or may emit a plurality of colors.

  On the front surface of the second LED substrate 122, a connector receiving portion 122 b is provided at the end on the fixed portion 103 side so that a connector can be connected along the second LED substrate 122 from below. The second wiring H <b> 2 having one end connected to the connector receiving portion 122 b is drawn out to the front side of the main body 109 of the second movable base 89 from the gap between the decorative base 121 and the fixed portion 103. In the front plate 92a of the second cover body 92, as shown in FIG. 20, a wiring port 92g penetrating in the front-rear direction is formed at a required length in the circumferential direction at an inner position of the outer protrusion 92e. The second wiring H2 is drawn out of the second support member 85 through the wiring port 92g. Further, as shown in FIG. 24, the second wiring H2 drawn to the outside of the second support member 85 is pulled out from the passage 105a of the guide portion 105 to the back side, and then installed on the back side of the installation member 28. It is connected to a relay board (board) (not shown) disposed in the section.

(About the second wiring)
The routing pattern of the second wiring H2 is basically the same as the routing pattern of the first wiring H1. That is, after the second wiring H2 is drawn between the main body 109 of the second movable base 89 and the front plate 92a of the second cover body 92 through the gap between the decorative base 121 and the fixed portion 103, the right wiring In the vicinity of the second bearing portion 92d, it is pulled out from the wiring port 92g, and on the front side of the second cover body 92 (front plate 92a), the swing axis of the second movable body 86 (right second bearing portion in front view). 92d) is configured to be wound in an annular shape so as to surround the portion, and the annularly wound portion functions as a second movement allowance portion (movement allowance portion) 128. Further, as shown in FIG. 24, the portion closer to the board connecting portion than the second movement allowing portion 128 is provided on the front surface of the front plate (holding portion) 92a of the second cover body 92 by a holding means 129 made of an adhesive tape or the like. It is held so as not to move. Note that the holding position of the second wiring H2 by the holding means 129 is opposite to the second decorative body portion 88 across the wiring port 92g at the standby position of the second movable body 86 (the main body of the second wiring H2). The second movement allowing portion 128 can hold an annular shape when viewed from the front, on the opposite side of the drawing portion between the portion 109 and the front plate 92a. In the embodiment, the second wiring H2 is held by the holding means 129 even immediately before being drawn into the passage 105a of the guide portion 105. In FIG. 25, the second cover body 92 of the second support member 85 is omitted.

  As shown in FIG. 26, the annular second movement allowance unit 128 maintains an initial state in which a required load that does not break the second wiring H2 is applied at the standby position of the second movable body 86, When the second movable body 86 swings from the standby position to the operating position, the diameter increases, so that the state is changed to an allowable state in which the load is reduced. That is, since the second movable body 86 moves from the standby position to the left and moves to the operating position, the second movement allowing portion 128 has the second wiring H2 drawn from the wiring port 92g. The second movable body 86 is wound in the counterclockwise direction that passes around the swing axis (right second bearing portion 92d) in the order of left side-lower side-right side-upper side. Thereby, when the second movable body 86 swings from the standby position to the operating position, the connection side of the second LED substrate 122 is on the left side with respect to the side fixed by the holding means 129 in the second movement allowance unit 128. By moving in the direction, the second movement allowing portion 128 changes in a direction in which the diameter increases. In the initial state of the second movement allowing portion 128, the inner diameter of the movement allowing portion 128 is set sufficiently larger than the outer diameter of the right second bearing portion 92d.

  The second movement allowing portion 128 has the first portion 128a drawn to the second LED substrate 122 side at the intersection when the second wiring H2 is wound in an annular shape, and is drawn out from the wiring port 92g and held. The second portion 128b drawn to the side held by the means 129 overlaps the main body 109 side of the second movable base 89 (the swing region side of the second movable body 86). That is, in the embodiment, the second portion 128b is configured to overlap the first portion 128a on the front side, and the first movement allowance portion 128 changes when the second movable body 86 swings. The second portion 128b prevents the portion 128a from being displaced forward.

(About the third movable effect device)
As shown in FIG. 1, FIG. 2, or FIG. 4, the third movable effect device M3 includes a third movable body 130 that is movably arranged in the vertical direction along the upper facing wall 31a, and the third movable body 130. A driving mechanism (not shown) for moving the movable body 130, and the third movable body 130 is moved to the front side of the display unit 13 a in the symbol display device 13 by the driving mechanism and the front side of the display unit 13 a. It is comprised so that it may move between the standby positions which evacuate from. The third movable body 130 includes a third LED board 133 which will be described later, and is configured to perform a light emission effect by light emission of the LEDs 133a and 133b disposed on the third LED board 133. The third movable effect device M3 functions not only as an effect by operation but also as an effect device that produces an effect by light emission.

(About the third movable body)
As shown in FIGS. 26 to 28, the third movable body 130 is disposed on the front side of the light-transmitting lens body portion 131 and the rear side of the lens body portion 131 and is connected to the drive mechanism. The rear cover body 132 and the third LED substrate 133 disposed between the lens body portion 131 and the rear cover body 132 are basically configured so that light from the LEDs 133a and 133b of the third LED substrate 133 is transmitted. The light passes through the lens body 131 and is irradiated forward. The lens body portion 131 includes a front surface portion 134a and a third light transmission member (first light transmission member) 134 formed from an outer peripheral wall portion 134b protruding rearward from the outer peripheral edge of the front surface portion 134a and opening rearward. The fourth light transmitting member (second light transmitting member) is formed in a shape that matches the inner contour shape formed by the outer peripheral wall portion 134b of the third light transmitting member 134 and is accommodated inside the third light transmitting member 134. Member) 135 and each of the third light transmitting member 134 and the fourth light transmitting member 135 is formed of a transparent synthetic resin material. The third light transmission member 134, the fourth light transmission member 135, the third LED substrate 133, and the rear cover body 132 are accurately positioned with respect to each other by positioning means such as fitting positioning protrusions and holes, By fixing the rear cover body 132 to the third light transmission member 134 with screws, the fourth light transmission member 135 and the third LED substrate 133 are sandwiched and fixed between the third light transmission member 134 and the rear cover body 132. .

(About the third light transmitting member)
A part of the front surface part 134a and the outer peripheral wall part 134b of the third light transmission member 134 are subjected to a light shielding process for blocking light, and a part of the front surface part 134a functions as a light transmission part that transmits light. It is supposed to be. In the embodiment, the light transmission part is formed in an appropriate form by performing metal plating on a part of the front surface part 134a and the outer peripheral wall part 134b of the third light transmission member 134. In the embodiment, the light transmission portion formed on the front surface portion 134a displays characters and the like related to the motif of the pachinko machine 10. The back surface side of the front surface portion 134a of the third light transmitting member 134 is entirely subjected to light diffusion processing, and diffuses light from the LEDs 133a and 133b provided on the third LED substrate 133 and irradiates the front side. It is supposed to be. In the embodiment, a large number of corrugated protrusions are formed in parallel on the back surface of the third light transmitting member 134 as light diffusion processing. However, the present invention is not limited to this, and has a conventionally known shape that diffuses light. It may be formed.

(About the 4th light transmission member)
As shown in FIGS. 26 and 28, the fourth light transmission member 135 is formed into a shape that matches the inner contour shape formed by the outer peripheral wall portion 134b of the third light transmission member 134 and is subjected to light diffusion processing. The plate-shaped opposing surface portion 135a and a contact wall 135b provided along the outer peripheral edge of the opposing surface portion 135a and projecting rearward from the opposing surface portion 135a. When the fourth light transmitting member 135 is accommodated inside the third light transmitting member 134 through the rear opening of the third light transmitting member 134, the front end portion of the contact wall 135b is the front surface of the third light transmitting member 134. The abutting surface portion 135a is regulated to a position spaced from the front surface portion 134a of the third light transmitting member 134 by a predetermined distance by coming into contact with the regulating projection provided on the back surface of the portion 134a. That is, the light from the LEDs 133 a and 133 b of the third LED substrate 133 disposed on the back side of the fourth light transmission member 135 is diffused by the fourth light transmission member 135 and then irradiated to the third light transmission member 134. By doing so, the light transmission part of the third light transmission member 134 can be brightened as a whole.

(About the light diffusion part of the fourth light transmitting member)
Next, a specific configuration of the light diffusion portion provided in the fourth light transmission member 135 will be described. As shown in FIG. 31, a large number of light diffusion component parts (light diffusion parts) 136 are formed on the opposing surface part 135 a of the fourth light transmission member 135. As shown in FIG. 29, the light diffusion component 136 is formed on the back surface of the facing surface portion 135a and protrudes backward, and a position facing the front of the center portion of the arc-shaped convex surface 137 on the front surface of the facing surface portion 135a. And a plurality of eighth light diffusion portions 139 formed concentrically with the arcuate convex surface 137 as a center. The arc-shaped convex surface 137 is opposed to the light emitting surface of the first LED 133a disposed on the third LED substrate 133, and is configured so that the light irradiated to the arc-shaped convex surface 137 from the first LED 133a can be collected by the arc-shaped convex surface 137. Then, the light collected by the arcuate convex surface 137 is applied to the conical surface of the seventh light diffusion portion 138. The conical surface constituting the seventh light diffusing unit 138 is referred to as a seventh reflecting surface 138a.

Here, the seventh reflection surface 138a of the seventh light diffusion portion 138 in the embodiment is formed in an arc shape that protrudes forward from the rear end toward the front end, and is formed on the seventh reflection surface 138a and the opposing surface portion 135a. The angle θ _{7 at which the} vertical reference line L ₇ intersects is set to gradually increase from 45 ° from the rear side toward the front side. That is, the seventh reflection surface 138a of the seventh light diffusion portion 138 is configured to approach the back side of the facing surface portion 135a toward the front side, and the light irradiated to the seventh reflection surface 138a The light can be reflected toward the portion 139. However, the angle θ ₇ of the seventh reflecting surface 138 a is set to an angle at which light can be reflected toward the outermost eighth light reflecting portion 139 constituting the light diffusion constituting portion 136. Therefore, the light reflected by the seventh light diffusing unit 138 is applied to the plurality of eighth light diffusing units 139.

As shown in FIG. 29, the eighth light diffusing portion 139 is formed of a substantially triangular concave portion whose cross-sectional shape converges forward and the inclined surface converges. And in the light-diffusion structure part 136, it forms so that each front-end part in each 8th light-diffusion part 139 may be displaced to the front side as it separates from the said arc-shaped convex surface 137. Here, the eighth light diffusing portion 139 formed by recessing the facing surface portion 135a on the front side is composed of an inclined surface on the center side (arc-shaped convex surface 137 side) and an inclined surface spaced from the center. The inclined surface facing the center side constituting the light diffusion portion 139 is referred to as an inner eighth reflecting surface 139a, and the inclined surface facing the opposite side of the center is referred to as an outer eighth reflecting surface 139b. Then, in the embodiment, the inner and outer eighth reflecting surfaces 139a, and 139b, the angle theta ₈ to the vertical reference line _{L 8} to the opposing surface portion 135a crosses through the front end portion of the eighth light diffusing portion 139, respectively substantially It is set to 45 °. That is, each inner eighth reflecting surface 139a of each eighth light diffusion portion 139 is configured to face the seventh light diffusion portion 138. Accordingly, the light reflected by the seventh light diffusing unit 138 is applied to the inner eighth reflecting surface 139a of the eighth light diffusing unit 139, and is reflected forward by the inner eighth reflecting surface 139a. . The light that is transmitted without being reflected by the inner eighth reflecting surface 139a is refracted at a refraction angle corresponding to the incident angle of the light with respect to the inner eighth reflecting surface 139a and diffusely reflected by the outer eighth reflecting surface 139b. It is configured to improve the diffusion effect.

(About the irregular light diffusion part of the 4th light transmission member)
On the back surface of the facing surface portion 135 a, a plurality of irregular light diffusion portions (light transmission portions) 140 having different light diffusion forms (brightness forms) in the light diffusion structure portion 136 are separated from the light diffusion structure portions 136. Is formed. As shown in FIGS. 30 and 31, the odd-shaped light diffusing portion 140 includes a groove portion 141 that is recessed in a substantially cross shape with the facing surface portion 135a facing the front side. The concave groove 141 is set such that a portion extending outward from the center (intersection of two line portions) has a width that decreases toward the extending end. A plurality of ninth light diffusion portions 142 are formed as light diffusion processing on the back surface of the irregular light diffusion portion 140, that is, the bottom surface of the concave groove portion 141. As shown in FIG. 30, the ninth light diffusion portion 142 has a substantially triangular shape with a cross-sectional shape protruding rearward, and is arranged so as to be parallel to the extending end side from the center of the concave groove portion 141.

In the embodiment, the two inclined surfaces constituting each ninth light diffusing portion 142 are referred to as ninth reflecting surfaces 142a. Then, the angle theta ₉ that each ninth reflecting surface 142a, and a vertical reference line _{L 9} to the opposite surface 135a through the front end portion of said 9 reflecting surface 142a intersect is set respectively approximately 45 °. As a result, the light emitted from the second LED 133b disposed on the third LED substrate 133 and corresponding to the center of the concave groove portion 141 is separated from one of the ninth reflecting surfaces 142a of each ninth light diffusion portion 142. The light is reflected toward the ninth reflecting surface 142a facing the ninth light diffusing portion 142, and is reflected forward from the ninth reflecting surface 142a.

  The front surface (front surface) of the facing surface portion 135a is subjected to light diffusion processing at a portion other than the irregular light diffusion portion 140. In the embodiment, as the light diffusion processing performed on the front surface of the facing surface portion 135a, a diffusion processing of a form different from the light diffusion processing performed on the third light transmission member 134 is performed, and the third light transmission member 134 An interesting light emission form can be shown on the front surface. In the embodiment, diamond processing is performed as the light diffusion processing applied to the facing surface portion 135a. However, the present invention is not limited to this, and is different from the light diffusion processing applied to the third light transmitting member 134. If it exists, conventionally well-known various forms can be employ | adopted.

  A portion corresponding to the deformed light diffusing portion 140 is formed flat on the front surface of the facing surface portion 135a, and the light emission form appearing on the flat surface 143 is changed to the front surface of the facing surface portion 135a corresponding to each of the light diffusing components 136. The light emission form that appears in the screen is remarkably different.

(About the 3rd LED board)
The third LED substrate 133 is irradiated with light forward at a position corresponding to the arc-shaped convex surface 137 located at the center of each light diffusion component 136 formed on the opposing surface 135a of the fourth light transmission member 135. The first LED (first light emitter) 133a is provided in such a posture. Further, the third LED substrate 133 is irradiated with light forward at a position corresponding to the center (intersection) of the concave groove portion 141 in each of the deformed light diffusing portions 140 formed on the facing surface portion 135a of the fourth light transmitting member 135. The 2nd LED (2nd light-emitting body) 133b is provided with the attitude | position to irradiate. That is, by emitting light from the first LED 133a and the second LED 133b, the front surface of the third light transmitting member 134 in the third movable body 130 is configured to shine in different forms at the corresponding locations of the LEDs 133a and 133b. Each LED 133a, 133b may have a single emission color or may emit a plurality of colors.

(Other light emitting devices)
The left and right light emitting devices 144 and 145 are disposed on the left and right facing surface walls 31c and 31d of the installation member 28 so as to be spaced apart in front of the corresponding first movable effect device M1 and second movable effect device M2. . In the space (installation space S) defined between the left light emitting device 144 and the left facing surface wall 31c, the first movable body 34 in the first movable effect device M1 is accommodated in the standby position, and the right light emitting device 145 is provided. And the second movable body 86 of the second movable effect device M2 are accommodated in a standby position in a space (installation space S) defined between the right opposing surface wall 31d. Each light-emitting device 144, 145 includes a light-emitting substrate on which a plurality of LEDs are mounted on the back side of a light-transmitting decorative component, and is configured to illuminate the decorative component with light emitted forward from the LED. In the embodiment, the left light emitting device 144 is located on the back side of the transparent gaming board 17, and the illuminated decorative part is seen from the front side through the gaming board 17, whereas The right light-emitting device 145 is positioned so as to be exposed in the window of the frame-shaped decorative component 23, and the illuminated decorative component is directly visually recognized from the front side (specifically, visually recognized through a glass plate). Yes.

  The upper light emitting device 146 is disposed on the upper facing surface wall 31a of the installation member 28, and the upper light emitting device 146 faces the back side of the third movable body 130 located at the standby position in the third movable effect device M3. It is configured to be largely hidden (see Figure 1). Then, as the third movable body 130 moves to the operating position, the upper light emitting device 146 is greatly exposed to the front side as shown in FIG. The upper light-emitting device 146 includes a light-emitting substrate on which a plurality of LEDs are mounted on the back side of the light-transmitting decorative component, and is configured to illuminate the decorative component with light emitted forward from the LED.

(Effects of Example)
Next, the operation of the pachinko machine according to the above-described embodiment will be described.

  The pachinko balls launched into the game area 17a flow down around the outer periphery of the frame-shaped decorative member 23. When the pachinko balls enter the ball introduction portion 25, the pachinko balls are ejected to the stage 24. After the stage 24 rolls left and right, it is discharged to the game area 17a, and this pachinko ball can be awarded to the start winning device 20, the normal winning device 22 or the like. When the pachinko ball wins the start winning device 20, the symbols on the symbol display device 13 start to fluctuate, and a required symbol combination game is developed. As a result of the symbol variation game developed on the symbol display device 13, a big hit is generated when symbols are stopped and displayed on the display unit 13a of the symbol display device 13 in a predetermined symbol combination. And when a big hit occurs, according to the symbol combination displayed on the display part 13a of the symbol display device 13, the winning opening of the special winning device 21 provided below the game board 17 is opened, and there are many players. The prize ball can be acquired.

  In accordance with the effect of the symbol variation game developed on the symbol display device 13, the movable bodies 34, 86, and 130 of the movable effect devices M1, M2, and M3 are actuated to enhance the fun of the game by dynamic effects. It is done. In addition, each of the light emitting devices 144, 145, 146 and other various lighting devices disposed on the game board 17 are also lighted in accordance with the effect of the symbol variation game, and the entertainment of the game is improved by the effect of the light emission. The

  In particular, the first movable body 34 in the first movable effect device M1 and the second movable body 86 in the second movable effect device M2 are, as shown in FIG. 2, the window 23a in the frame-shaped decorative member 23 in the operating position. These are large-sized ones extending from the left and right edge portions to the center portion of the display portion 13a in the symbol display device 13, and the production effect can be greatly improved. In addition, since the first movable body 34 and the second movable body 86 overlap in the front-rear direction at the central portion of the display portion 13a, the player can be more impacted.

  Here, the configurations of the first movable effect device M1 and the second movable effect device M2 are the support members 33, 85 disposed on the installation member 28, and along the board surface of the game board 17 from the support members 33, 85. The movable bodies 34 and 86 that extend and the motors 35 and 87 that are disposed on the support members 33 and 85 and drive the movable bodies 34 and 86 are provided with the same basic configuration. In the embodiment, as shown in FIG. 6, in the first movable effect device M <b> 1 in which the first movable body 34 moves in the first movement area along the board surface of the game board 17, the first motor 35 is installed. The first movable member 86 is disposed on the front side of the first support member 33 and is set so that the second movable body 86 moves along the board surface of the game board 17 in the second movement area in front of the first movement area. In the second movable effect device M2, the second motor 87 is disposed on the rear side of the second support member 85. Thereby, it becomes possible to install both movable production devices M1 and M2 within the space of the front and rear dimensions in one of both movable production devices M1 and M2 having substantially the same configuration, and the installation space in the front-rear direction can be kept small. . That is, in the two movable effect devices, when each motor is disposed on the same side before or after the support member, in order to produce an effect of crossing the two movable bodies forward and backward, one of the movable effect devices It is necessary to install the other movable effect device as a whole in either the front or rear direction with respect to the device, which increases the size of the movable effect device in the front-rear direction in the installation space. On the other hand, in the embodiment, the arrangement of the motors 35 and 87 relative to the support members 33 and 85 is simply reversed so that the front and rear dimensions in the installation space of the movable effect devices M1 and M2 are not increased. In addition, the movable bodies 34 and 86 that are large and can produce an effect that overlaps in the front and rear in the operating position can be employed. Therefore, the longitudinal dimension of the pachinko machine 10 itself can be kept small.

  Further, in both the movable effect devices M1 and M2, plate-like movable bases 37 and 89 are rotatably disposed on the support shafts 41a and 93a extending in the front-rear direction, and are extended in the front-rear direction of the motors 35, 87. The plate-like drive gears 48 and 101 are disposed on the existing output shaft, and the power of the motors 35 and 87 is generated under the meshing action of the drive gears 48 and 101 and the gear portions 37d and 89c of the movable base portions 37 and 89. The movable bodies 34 and 86 are transmitted to the movable bodies 34 and 86 (see FIGS. 13 and 23). That is, by adopting the plate-like drive gears 48 and 101 and the plate-like movable bases 37 and 89 as drive mechanisms that transmit the power of the motors 35 and 87 to the movable bodies 34 and 86, the drive mechanisms are accommodated. The front and rear dimensions of the supporting members 33 and 85 themselves can be kept small, and the front and rear dimensions in the installation space of the movable effect devices M1 and M2 can be further reduced.

(About the action of the first movable effect device)
As shown in FIG. 12, the first movable base portion 37 of the first movable body 34 is movably supported by a front sphere 61 and a rear sphere 45 that can roll from both front and rear sides. That is, when the first movable body 34 swings, the corresponding front and rear spheres 61 and 45 roll, respectively, so that the resistance can be significantly reduced as compared with the case of sliding. Therefore, even in the large first movable body 34 in which the first decorative body portion 36 is set longer than the first movable base portion 37 supported by the first support member 33, the movable body 34 is smoothly moved. The load applied to the first motor 35 that can be swung and that swings the first movable body 34 can be kept low.

  When the first movable body 34 swings, each of the rear sphere 45 that contacts the back surface of the first movable base 37 and the front sphere 61 that contacts the back surface of the first cover body 40 rolls. The wear of the surface contacted by 45 and 61 is suppressed, and the first movable body 34 is stably supported by the spheres 45 and 61 over a long period of time, so that the smooth operation of the first movable body 34 is performed over a long period of time. Maintained. Further, when the first movable body 34 swings, the rear sphere 45 disposed on the first mounting base body 39 comes into contact with the second ridge 59 protruding from the first movable base 37. The front sphere 61 disposed on the movable base 37 rolls in contact with the first ridge 40e protruding from the first cover body 40. That is, since each protrusion 59,40e protrudes from the back surface of the 1st movable base 37 or the back surface of the 1st cover body 40 by required height, each protrusion 59, each spherical body 45,61 contacts. Even if the wear 40e is worn, the first mounting base body 39 (specifically, the rear receiving portion 44) slidably contacts the back surface of the first movable base 37, or the first movable base 37 (specifically, the front receiving portion 60). ) Can be extended until it comes into sliding contact with the back surface of the first cover body 40.

  As shown in FIG. 13, the front sphere 61 and the rear sphere 45 arranged before and after the first movable base 37 are all arranged at equal intervals in the circumferential direction. The operation of the first movable body 34 when swinging about the support shaft 41a is stabilized. Further, since the first reinforcing sheet metal 41 is disposed on the rear side of the rear plate 39a of the first mounting base body 39, the rear plate 39a is prevented from being deformed. That is, since the deviation in the front-rear direction when the first movable body 34 swings is suppressed, as described above, the first movable body 34 and the second movable body 86 can intersect in the front-rear relationship during operation. In such a configuration, the moving regions of both movable bodies 34 and 86 can be brought closer to each other without interfering with each other, and this can contribute to shortening the longitudinal dimension of the pachinko machine itself.

  Further, at the standby position serving as a reference for the first movable body 34 of the first movable effect device M1, the positions of the front sphere 61 and the rear sphere 45 with respect to the first movable base 37 are located on the rear side and are circumferential. Each front sphere 61 located on the front side faces between the rear sphere 45 and the rear sphere 45 adjacent to each other in the direction (see FIG. 13). That is, eight spheres 61 and 45 are positioned at equal intervals (45 ° angular intervals) on the same circumference centered on the first support shaft 41a in front view to support the first movable base 37. Therefore, the first movable base 37 can be stably supported at the standby position, and the first movable body 34 can be held in an appropriate posture. Further, since the front and rear spheres 61 and 45 are alternately positioned in the circumferential direction in the front view, the circumferential interval at which the spheres 61 and 45 are in contact with the first movable base 37 in the front view is only the front sphere 61. Or it becomes smaller than the space | interval only in the back sphere 45 (it becomes a half). That is, with respect to the front sphere 61 disposed on the first movable base 37 and the rear sphere 45 disposed on the first mounting base 39, the first movable base 37 is stably supported with a small number of arrangements. The number of parts can be reduced and the cost can be reduced. In the standby position of the first movable body 34, the longitudinal direction of the first decorative body portion 36 extends in a state of being substantially aligned above the first support shaft 41a, and along the longitudinal direction. The two front spheres 61 are located between the first support shafts 41a, thereby contributing to stable holding of the first movable body 34.

  At the standby position of the first movable body 34, as shown in FIG. 13, the magnet 58 disposed on the first movable body 34 is magnetically attracted to the metal body 42 disposed on the first support member 33. The first movable body 34 is held at the standby position. That is, even if the first decorative body portion 36 is enlarged, the first movable body 34 can be reliably held at the standby position, and when the pachinko machine 10 vibrates, the first movable body It is possible to prevent 34 from performing an unintended movement. Further, in the first movable effect device M1, the first movable body 34 is urged toward the standby position by the first torsion coil spring 57 disposed on the first movable base portion 37. The first movable body 34 can also be held at the standby position by the torsion coil spring 57.

  Here, as shown in FIGS. 4 and 5, the first movable body 34 of the embodiment is in a standing posture in which the first decorative body portion 36 extends substantially in the vertical direction at the standby position. At the position, the first decorative body 36 is inclined obliquely to the right. That is, when the large and long first decorative body portion 36 is raised from the inclined position to the standing position, the load applied to the first motor 35 is increased. At this time, the biasing force of the first torsion coil spring 57 is increased. This assists the first movable body 34 to move to the standby position, so that the load applied to the first motor 35 can be reduced. Therefore, a small motor can be used as the first motor 35 and the durability life can be extended. When the first movable body 34 moves from the standby position to the operating position, the first motor 35 drives the first movable body 34 against the urging force of the first torsion coil spring 57. However, at this time, since the weight of the first decorative body portion 36 acts in the direction toward the operating position, the urging force of the first torsion coil spring 57 does not become a heavy burden on the first motor 35.

  The first wiring H1 connected to the connector receiving portion 65a of the first LED board 65 provided on the first movable body 34 is connected to the main body of the first movable base portion 37 through the gap between the first light transmitting member 64 and the fixed portion 55. It is drawn between the guide walls 63, 63 between the portion 37 a and the front plate 40 a of the first cover body 40. Further, as shown in FIGS. 14 and 15, the first wiring H <b> 1 has an annular shape so as to surround the left second bearing portion 40 d on the front side of the first cover 40 in a front view after being pulled out from the wiring port 40 f. And is bound to a cover side wiring stopper 84 formed on the front surface of the front plate 40a of the first cover body 40 through a binding tool 84a so as not to move.

  When the first movable body 34 swings from the standby position to the operating position, as shown in FIG. 15B, the first movement allowance portion 83 wound on the front side of the first cover body 40 is By changing the state to an allowable state in which the diameter is increased and the load is reduced, the movement of the first movable body 34 is allowed without the first wiring H1 being pulled. Further, when the first movable body 34 swings from the operating position to the standby position, the first movement allowance portion 83 changes to a state in which the diameter decreases, but in the initial state of the first movement allowance portion 83, The first movement allowance portion 83 is set so that a large load that damages the wiring is not applied. That is, when the first movable body 34 moves between the standby position and the operating position, a large load is not applied to the first movement allowance portion 83, and damage to the first wiring H1 can be prevented.

  The first movement allowance portion 83 of the first wiring H1 is formed in an annular shape, and when the first movable body 34 moves, the diameter changes so as to increase or decrease. Therefore, the specific part of the first wiring H1 has an acute angle. The load does not concentrate due to bending, and damage to the first wiring H1 can be further prevented. Further, since the first movement allowance portion 83 is formed in an annular shape surrounding the swing center of the first movable body 34, the first movement allowance portion 83 is smoothly moved when the first movable body 34 swings. The state changes and the load applied to the first wiring H1 can be further reduced.

  Here, when the first movable body 34 is moved, in the first movement allowance portion 83, the first portion 83 a led to the first LED substrate 65 side which is the movable side is the cover side wiring stopper portion 84. It moves larger than the second portion 83b drawn around to the side fixed to the head. In this case, the first part 83a is located on the rear side of the second part 83b, and the first part 83a is sandwiched between the second part 83b and the front plate 40a of the first cover body 40, so that the first part 83a moves greatly. The first portion 83a can be prevented from being displaced forward by the second portion 83b. That is, the first wiring H1 can be reliably prevented from moving forward unintentionally and coming into contact with other components. Further, as shown in FIG. 15, the first wiring H1 on the first portion 83a side is guided by the guide walls 63 and 63, and movement in the direction along the plate surface of the main body portion 37a is restricted. The first wiring H <b> 1 from the first LED board 65 to the first movement allowing portion 83 is not displaced in an unintended direction. That is, when the first movable body 34 is moved, the first movement allowance portion 83 can be displaced, and it is possible to prevent the first wiring H1 from being subjected to a large load or being caught by other parts. It is possible to prevent the wiring H1 from being damaged or the smooth movement of the first movable body 34 from being hindered.

  As shown in FIGS. 16 and 17, the second light transmission member 66 in the first movable body 34 has a first light diffusion portion 74 on the side of the housing recess 73 for housing the first LED 72 of the first LED substrate 65. A portion of the light emitted from the first LED 72 of the first LED substrate 65 toward the side is positioned in the longitudinal direction of the second light transmission member 66 via the first reflection surface 74a of the first light diffusion portion 74. The reflected light is reflected in the direction and reflected by the second reflecting surface 75a of the second light diffusing portion 75 to the side (side plate 70 side of the first light transmitting member 64).

  Here, a plurality of the second light diffusing portions 75 are continuously formed in a direction away from the accommodating recess 73, and the tip of the second reflecting surface 75 a on the second surface 71 b side is separated from the accommodating recess 73. Accordingly, the reflected light reflected by the first reflecting surface 74a is also effective for the second reflecting surface 75a positioned away from the housing recess 73. Can be irradiated. Thereby, the reflected light reflected through the first reflecting surface 74a of the first light diffusing unit 74 can be reliably received by the second reflecting surface 75a of the second light diffusing unit 75 and reflected to the side. . Moreover, it is possible to reliably distribute the reflected light to the second reflecting surface 75a of the second light diffusing unit 75 at a position away from the housing recess 73 (that is, the arrangement position of the first LED 72 on the first LED substrate 65) The range in which the light of one first LED 72 can be irradiated can be greatly expanded. Therefore, even when it is necessary to irradiate light over a wide range, the number of the first LEDs 72 can be reduced, and the manufacturing process can be simplified by reducing the number of components, and the cost can be reduced. And the side plate 70 in which the inclined surface 70a in the said 1st light transmissive member 64 was formed by the light reflected laterally by the 2nd reflective surface 75a becomes bright. In the embodiment, since the inclined surface 70a of the first light transmitting member 64 corresponds to the blade edge of the blade, the effect of the presentation can be improved by brightening the blade edge.

  Since the surface directly irradiated with the light from the first LED 72 in the housing recess 73 is an arc-shaped surface 73a that protrudes toward the first LED 72, the light is condensed on the arc-shaped surface 73a and the first light diffusion portion 74 is collected. The first reflection surface 74a can be irradiated, and strong light can be irradiated also to the second reflection surface 75a of the second light diffusion portion 75 at a position away from the housing recess 73. Further, the third light diffusing portion 76 is formed on both sides of the second light transmitting member 66 in the longitudinal direction with the first light diffusing portion 74 interposed therebetween, and the fourth surface is formed on the second surface 71 b side of the first light diffusing portion 74. A part of the reflected light from the second reflecting surface 75a of the proximal second reflecting surface 75a that forms the light diffusing portion 77 and is adjacent to the housing recess 73 and the adjacent second light diffusing portion 75 is converted into the third light diffusing portion. The fourth reflection surface 77a of the fourth light diffusion portion 77 is irradiated through the third reflection surface 76a of 76, and is reflected to the side (side plate 70 side of the first light transmission member 64) by the fourth reflection surface 77a. Like to do. That is, light is reflected on the second light diffusing unit 75 by the first reflecting surface 74a of the first light diffusing unit 74, so that the amount of light that passes through the first light diffusing unit 74 and is irradiated to the side is small. However, by returning a part of the light reflected laterally from the second reflecting surface 75a back to the side of the first light diffusion portion 74, the side plate 70 of the first light transmitting member 64 is moved in the longitudinal direction. Brightness can be achieved with substantially uniform brightness.

  Further, a protrusion 78 is provided on the end surface of the second light transmissive member 66 facing the side plate 70 of the first light transmissive member 64, and a part of the light radiated laterally from the fourth light diffusing portion 77 is provided. The rear inclined surface 78 a of the projecting portion 78 is reflected toward the front plate 69 of the first light transmitting member 64. In other words, the light emitted from the first LED 72 can brighten the intersecting front plate 69 and side plate 70 in the first light transmitting member 64, and an effective light emission effect can be achieved with a small number of LEDs.

  Further, in the first movable body 34, as shown in FIG. 18, a plurality of front light diffusion portions 79 are provided on the face plate portion 66a of the second light transmission member 66, and the second LED 81 provided on the first LED substrate 65 is used. The irradiated light is applied to the front plate 69 of the first light transmission member 64 through the front light diffusion portion 79. In the front side light diffusing portion 79, as shown in FIG. 16, a plurality of sixth light diffusing portions 82 are formed concentrically continuously with a flat surface 79a facing the second LED 81 as a center. Since the front end portion of the sixth reflecting surface 82a is positioned so as to be displaced forward as it is separated from the flat surface 79a, the reflected light reflected by the fifth reflecting surface 80a is separated from the flat surface 79a. The surface 82a can also be irradiated effectively. Thereby, the reflected light reflected through the fifth reflecting surface 80a of the fifth light diffusing unit 80 can be reliably received by the sixth reflecting surface 82a of the sixth light diffusing unit 82 and reflected forward. Moreover, the reflected light can be reliably distributed to the sixth reflecting surface 82a of the sixth light diffusion portion 82 at a position away from the flat surface 79a (that is, the position where the second LED 81 is disposed on the first LED substrate 65). The range in which the light of one second LED 81 can be irradiated can be greatly expanded. Therefore, the number of second LEDs 81 can be reduced, and the manufacturing process can be simplified by reducing the number of parts, and the cost can be reduced. The front plate 69 of the first light transmitting member 64 is brightened by the light reflected forward by the sixth reflecting surface 82a. In the embodiment, since the diffusion form by the light diffusion part for diffusing the light of the first LED 72 is different from the diffusion form by the light diffusion part for diffusing the light of the second LED 81, they are different on the surface of the first light transmission member 64. The bright effect appears, and the effect can be improved as compared with the case where the whole is bright in the same form.

  Next, the assembly of the first movable body 34 to the first support member 33 in the unitized first movable effect device M1 will be described.

  A first reinforcing sheet metal 41 is disposed on the back side of the rear plate 39a, and the first mounting base body 39 with the first support shaft 41a projecting forward is used as a work table or the like. The rear spheres 45 are respectively fitted into the recesses 44a of the rear receiving portions 44 from above. Next, the first movable base portion 37 of the first movable body 34 is approached from above the first mounting base body 39 so that the first support shaft 41a is inserted into the shaft hole 53a and the support protrusion 37c is passed through the center. The second protrusion 59 formed on the back surface of the first movable base 37 is brought into contact with the rear sphere 45 by being inserted into the hole 39c. After the first movable base portion 37 is attached to the first attachment base body 39 in this manner, the front sphere bodies 61 are fitted into the recesses 60a of the front receiving portion 60 of the first movable base portion 37 from above. Then, the first cover body 40 is placed on the first movable base 37 so that the fixed portion 55 faces the notch 39 d and the first protrusion 40 e contacts the front sphere 61. At this time, the front end of the first support shaft 41a is supported by the left first bearing portion 40c, and the shaft support portion 53 is inserted into the left second bearing portion 40d. Finally, the first cover body 40 is screwed and fixed to the first mounting base body 39 so that the first movable body 34 is assembled to the first support member 33 in a state where the first movable body 34 is swingably supported. .

  As described above, the rear receiving portion 44 on which the rear sphere 45 is loosely fitted is provided on the front side of the first mounting base 39, and the front receptacle 61 on which the front sphere 61 is loosely fitted is provided. By providing the portion 60 on the front side of the first movable base portion 37, when assembling the first movable body 34 to the first support member 33, it is only necessary to assemble each component in order from one direction. It becomes easy.

(About the action of the second movable effect device)
Next, the operation of the second movable effect device M2 will be described. The second movable base 89 of the second movable body 86 is movably supported by a front sphere 119 and a rear sphere 98 that can roll from both front and rear sides, as shown in FIG. That is, when the second movable body 86 is swung, the corresponding front and rear spheres 119 and 98 roll, respectively, so that the resistance can be significantly reduced as compared with the case of sliding. Accordingly, even in the large second movable body 86 in which the second decorative body portion 88 is set longer than the second movable base portion 89 supported by the second support member 85, the movable body 86 is smoothly moved. The load applied to the second motor 87 that can be swung and the second movable body 86 is swung can be kept low.

  When the second movable body 86 swings, each of the rear sphere 98 that contacts the back surface of the second movable base 89 and the front sphere 119 that contacts the back surface of the second cover body 92 rolls. The wear of the surfaces that come into contact with 98, 119 is suppressed, and the second movable body 86 is stably supported by the spheres 98, 119 over a long period of time. Therefore, the smooth operation of the second movable body 86 is performed over a long period of time. Maintained. Further, when the second movable body 86 is swung, the rear sphere 98 disposed on the second mounting base body 91 has a corresponding outer protrusion 115 and an inner protrusion protruding from the second movable base 89. The front sphere 119 that rolls in contact with the strip 116 and is disposed on the second movable base 89 is connected to the corresponding outer ridge 92e and the inner ridge 92f that project from the second cover 92. Rolls in contact. That is, since each protrusion 115, 116, 92e, 92f protrudes from the back surface of the second movable base 89 or the back surface of the second cover body 92 at a required height, each protrusion 98, 119 comes into contact with. Even if the strips 115, 116, 92 e, 92 f are worn, the second mounting base body 91 (specifically, the inner and outer rear receiving portions 96, 97) is in sliding contact with the back surface of the second movable base 89, The period until the movable base 89 (specifically, the inner and outer front receiving portions 117 and 118) comes into sliding contact with the back surface of the second cover body 92 can be extended.

  Since both the front sphere 119 and the rear sphere 98 arranged before and after the second movable base 89 are arranged at equal intervals in the circumferential direction, the second movable base 89 is centered on the second support shaft 93a. The operation of the second movable body 86 when swinging is stabilized. Further, since the second reinforcing sheet metal 93 is disposed on the rear side of the rear plate 91a of the second mounting base body 91, the rear plate 91a is prevented from being deformed. That is, since the deviation in the front-rear direction when the second movable body 86 swings is suppressed, the second movable body 86 and the first movable body 34 can intersect in the front-rear relationship during operation as described above. In such a configuration, the moving paths of both movable bodies 86 and 34 can be made closer to each other without interfering with each other, which can contribute to shortening the longitudinal dimension of the pachinko machine itself.

  At the standby position serving as a reference for the second movable body 86 of the second movable effect device M2, the positions of the front sphere 119 and the rear sphere 98 with respect to the second movable base 89 are located on the rear side in the circumferential direction. The front spheres 119 positioned on the front side face each other in the middle in the circumferential direction between the adjacent rear spheres 98 and 98 (see FIG. 23). In addition, the front and rear spheres 119 and 98 that support the large-diameter portion 109a of the main body 109 of the second movable base 89 support positions close to the outer peripheral edge of the large-diameter portion 109a, and a small-diameter portion of the main body 109. The spheres 119, 98 before and after supporting the 109b support the positions close to the outer peripheral edge of the small diameter portion 109b. That is, eight spheres 119, 98 are positioned at equal intervals (45 ° angular interval) in the circumferential direction in a front view, and the second movable base 89 is positioned close to the outer peripheral edge of the second movable base 89. Since they are respectively supported, the second movable base 89 can be stably supported at the standby position, and the second movable body 86 can be held in an appropriate posture. In addition, even when the second movable body 86 is moved, the front and rear spheres 119 and 98 maintain the relationship of supporting the outer peripheral edge of the second movable base 89, so that the second movable base 89 is displaced in the axial direction. Stable operation of the second movable body 86 can be achieved by suppressing the above.

  In addition, since the front and rear spheres 119 and 98 are alternately positioned in the circumferential direction in the front view, the circumferential interval between the spheres 119 and 98 in contact with the second movable base 89 in the front view is only the front sphere 119. Or it becomes smaller than the space | interval only in the back sphere 98 (it becomes a half). That is, with respect to the front sphere 119 disposed on the second movable base 89 and the rear sphere 98 disposed on the second mounting base body 91, the second movable base 89 is stably supported with a small number of arrangements. The number of parts can be reduced and the cost can be reduced. In the standby position of the second movable body 86, the longitudinal direction of the second decorative body portion 88 extends in a state of being aligned above the second support shaft 93a, and 2 along the longitudinal direction. The two rear spheres 98 are positioned with the second support shaft 93a interposed therebetween, thereby contributing to stable holding of the second movable body 86.

  Here, the second decorative body portion 88 is fixed to the second movable base portion 89, and the fixed portion 126 of the second decorative body portion 88 is fixed to the fixed portion 103 of the second movable base portion 89. Since the bosses 127 are respectively inserted into the corresponding tube receiving portions 114 and fixed with screws, the both 88 and 89 are firmly positioned and fixed. Moreover, the fixed portion 126 of the second decorative body portion 88 is, as shown in FIG. 23, front spheres 119, 119 loosely fitted to outer front receiving portions 117, 117 on both sides sandwiching the fixed portion 126 in the circumferential direction. Is extended to the inner side of the virtual support line T3 connecting the two, and the extension portion is fixed to the main body 109 of the second movable base 89 with screws. That is, with respect to the second movable base portion 89, the second decorative body portion 88 has a radially inner side and an outer side across a virtual support line T3 connecting the two front spheres 119 and 119 that support the second movable base portion 89. Since the front spheres 119 and 119 can restrict the displacement of the second decorative body portion 88 in the front-rear direction, the second movable body 86 can achieve more stable operation. .

  In the second movable effect device M2, as shown in FIG. 25, the second movable base portion 89 (large diameter portion 109a) that can be accommodated in the second support member 85 is adopted, so that the stable movement by the spheres 119 and 98 is achieved. On the other hand, a small-diameter portion 109b is provided in a part of the second movable base 89, and the restricting portion 100 provided on the second support member 85 is positioned in the small-diameter portion 109b. . In addition, the movement range of the second movable body 86 is regulated within a range in which the regulation walls 106c and 106d between the small diameter part 109b and the large diameter part 109a abut against the regulation part 100. That is, the second movable body 86 can be stably supported and the movement range of the second movable body 86 can be restricted. In addition, in both the large diameter portion 109a and the small diameter portion 109b, the position close to the outer peripheral edge is supported by the front and rear spheres 119 and 98 as described above, so that the second movable body 86 can be stably moved. Can do.

  In the second movable effect device M2, the second movable body 86 is urged toward the standby position by the second torsion coil spring 111 disposed on the second movable base 89, and the second decoration Even if the body 88 is enlarged, the second movable body 86 can be reliably held at the standby position, and when the pachinko machine 10 vibrates, the second movable body 86 performs an unintended movement. Can be prevented.

  Here, as shown in FIGS. 4 and 5, the second movable body 86 of the embodiment is in the standing position in which the second decorative body portion 88 extends in the vertical direction in the standby position, whereas in the operating position. The second decorative body 88 is inclined obliquely to the left. That is, when the large and long second decorative body portion 88 is raised from the inclined posture, the load applied to the second motor 87 becomes large. At this time, the biasing force of the second torsion coil spring 111 is increased. Thus, the second movable body 86 is assisted to move to the standby position, so that the load applied to the second motor 87 can be reduced. Therefore, a small motor can be used as the second motor 87, and the durability life can be extended. Note that when the second movable body 86 moves from the standby position to the operating position, the second motor 87 drives the second movable body 86 against the biasing force of the second torsion coil spring 111. However, at this time, since the weight of the second decorative body portion 88 acts in the direction toward the operating position, the urging force of the second torsion coil spring 111 does not become a heavy burden on the second motor 87.

  The second wiring H2 connected to the connector receiving portion 122b of the second LED substrate 122 provided on the second movable body 86 is connected to the main body portion 109 of the second movable base 89 from the gap between the decorative main body 125 and the fixed portion 103. The second cover body 92 is drawn between the front plate 92a. Further, as shown in FIGS. 24 and 25, the second wiring H2 is drawn out from the wiring port 92g and then surrounds the right second bearing portion 92d on the front side of the second cover body 92 in a front view. The second cover body 92 is wound around the front surface of the front plate 92a so as not to move by the holding means 129.

  When the second movable body 86 swings from the standby position to the operating position, as shown in FIG. 25B, the second movement allowing portion 128 wound on the front side of the second cover body 92 is By changing the state to an allowable state in which the diameter is increased and the load is reduced, the movement of the second movable body 86 is allowed without the second wiring H2 being pulled. Further, when the second movable body 86 swings from the operating position to the standby position, the second movement allowance portion 128 changes to a state in which the diameter becomes small, but in the initial state of the second movement allowance portion 128, The second movement permission unit 128 is set so that a large load that damages the wiring is not applied. That is, when the second movable body 86 moves between the standby position and the operating position, a large load is not applied to the second movement allowance unit 128, and damage to the second wiring H2 can be prevented.

  Since the second movement allowing portion 128 of the second wiring H2 is formed in an annular shape and changes in diameter when the second movable body 86 moves, the specific portion of the second wiring H2 has an acute angle. The load is not concentrated due to bending, and damage to the second wiring H2 can be further prevented. Further, since the second movement allowing portion 128 is formed in an annular shape surrounding the swing center of the second movable body 86, the second movement allowing portion 128 is smoothly moved when the second movable body 86 is swung. The state changes and the load applied to the second wiring H2 can be further reduced.

  Here, in the movement of the second movable body 86, in the second movement allowance unit 128, the first portion 128 a that is routed to the second LED substrate 122 side that is the movable side is formed on the second cover body 92. It moves larger than the second part 128b drawn to the side fixed by the holding means 129 on the front surface. In this case, the first part 128a is located on the rear side of the second part 128b, and the first part 128a is sandwiched between the second part 128b and the front plate 92a of the second cover body 92, so that the first part 128a moves greatly. The first portion 128a can be prevented from being displaced forward by the second portion 128b. That is, it is possible to reliably prevent the second wiring H2 from moving unintentionally and coming into contact with other components. Therefore, when the second movable body 86 is moved, it is possible to prevent a large load from being applied to the second wiring H2 or to be caught by other parts, and the second wiring H2 can be damaged or the second movable body 86 can be smoothly moved. It is possible to prevent the movement from being inhibited.

  Next, the assembly of the second movable body 86 to the second support member 85 in the unitized second movable effect device M2 will be described.

  The second reinforcing sheet metal 93 is disposed on the back side of the rear plate 91a, and the second mounting base body 91 with the second support shaft 93a projecting forward is used as a work table or the like. The rear sphere 98 is fitted into the concave portions 96a and 97a of the inner and outer rear receiving portions 96 and 97 from above, respectively. Next, the second movable base portion 89 of the second movable body 96 is approached from above the second mounting base body 91 so that the second support shaft 93a is inserted into the shaft hole 107a and the support protrusion 89a is passed through the center. Inserted into the hole 91 c, the inner and outer protrusions 115, 116 formed on the back surface of the second movable base 89 are brought into contact with the rear sphere 98. After the second movable base 89 is attached to the second attachment base body 91 in this way, the front sphere 119 is fitted from above into the recesses 117a and 118a of the 117 and 118 inside and outside the second movable base 89, respectively. Include. Then, the second cover base 92 is placed on the second movable base 89 so that the fixed portion 103 faces the inside of the notch 91d and the inner and outer protrusions 92e and 92f are in contact with the front sphere 119. At this time, the tip of the second support shaft 93a is supported by the right first bearing portion 92c, and the shaft support portion 107 is inserted into the right second bearing portion 92d. Finally, the second cover body 92 is fixed to the second mounting base body 91 with screws, so that the second movable body 86 is assembled to the second support member 85 in a state of being swingably supported. .

  As described above, the rear receiving portions 96 and 97 on which the rear sphere 98 is loosely fitted are provided on the front side of the second mounting base 91, and the front sphere 119 is loosely fitted. By providing the front receiving portions 117 and 118 on the front side of the second movable base 89, when assembling the second movable body 86 to the second support member 85, it is only necessary to assemble each component in order from one direction. Assembly work becomes easy.

(About the action of the third movable effect device)
Next, the operation of the third movable effect device M3 will be described. In other words, by operating the drive mechanism, the third movable body 130 moves to the standby position of the upper edge of the window 23a in the frame-shaped decorative member 23 and the symbol display device 13 as shown in FIGS. The display unit 13 is moved between the operation position on the center side.

  In the third movable body 130, as shown in FIG. 31, a plurality of light diffusing components 136 are provided on the opposed surface portion 135 a of the fourth light transmission member 135 and irradiated from the first LED 133 a provided on the third LED substrate 133. The front light 134a of the third light transmission member 134 is irradiated through the light diffusing component 136. In the light diffusing component 136, as shown in FIG. 29, a plurality of eighth light diffusing portions 139 are formed concentrically continuously with the arcuate convex surface 137 facing the first LED 133a as the center, and each of the eighth light diffusing portions 139 Since the front end portion of the inner eighth reflecting surface 139a is positioned so as to be displaced forward as it is separated from the arcuate convex surface 137, the reflected light reflected by the seventh reflecting surface 138a is located inside the arcuate convex surface 137. It is possible to effectively irradiate the eighth reflecting surface 139a. Moreover, since the surface directly irradiated with the light from the first LED 133a is an arc-shaped convex surface 137 that protrudes toward the first LED 133a, the light is collected by the arc-shaped convex surface 137, and the seventh light diffusion portion 138 has a seventh surface. The reflective surface 138a can be irradiated, and strong light can also be irradiated to the inner eighth reflective surface 139a of the eighth light diffusion portion 139 at a position away from the arcuate convex surface 137. Thereby, the reflected light reflected through the seventh reflecting surface 138a of the seventh light diffusing portion 138 can be reliably received by the inner eighth reflecting surface 139a of the eighth light diffusing portion 139 and reflected forward. . Moreover, it is possible to reliably distribute strong reflected light to the inner eighth reflecting surface 139a of the eighth light diffusing portion 139 at a position away from the arcuate convex surface 137 (that is, the arrangement position of the first LED 133a on the third LED substrate 133). it can.

  The light reflected forward by the inner eighth reflecting surface 139a is transmitted through the fourth light transmitting member 135 and then irradiated to the front surface portion 134a of the third light transmitting member 134, and the front surface portion 134a is illuminated. In this case, since the front surface of the fourth light transmission member 135 is subjected to light diffusion processing and the front surface portion 134a of the third light transmission member 134 is also subjected to light diffusion processing, the inner eighth reflection surface 139a. The light reflected forward in step 4 is diffusely reflected by the fourth light transmitting member 135 and the third light transmitting member 134, respectively, so that a wider range can be brightened. That is, the range in which the light of one first LED 133a can be irradiated can be greatly expanded, the number of LEDs can be reduced, the number of parts can be reduced, the manufacturing process can be simplified, and the cost can be reduced. Moreover, since the form of the light-diffusion process given to the 4th light transmissive member 135 and the 3rd light transmissive member 134 is varied, an interesting light emission effect can be performed.

  In the third movable body 130, as shown in FIG. 31, a plurality of deformed light diffusion portions 140 having different forms from the light diffusion configuration portion 136 are provided on the facing surface portion 135 a of the fourth light transmission member 135. The light emitted from the second LED 133b provided on the third LED substrate 133 is applied to the front surface portion 134a of the third light transmitting member 134 through the deformed light diffusion portion 140. The odd-shaped light diffusing unit 140 is formed by a cross-shaped concave groove partitioned from the light diffusing component 136, and a plurality of ninth light diffusing units 142 are formed in the groove, and the front side of the second LED 133b is formed. As shown in FIG. 30, the light irradiated toward the surface can be diffusely reflected by the ninth reflecting surface 142a of the ninth light diffusing unit 142 to brighten the entire irregular shaped light diffusing unit 140.

  Here, the ninth light diffusing portion 142 of the odd-shaped light diffusing portion 140 extends linearly in the groove width direction and is arranged in parallel in the groove extending direction, whereas the light diffusing component portion The eighth light diffusion portion 139 of 136 is arranged concentrically around the arc-shaped convex surface 137. That is, the form that shines when light is irregularly reflected by the ninth light diffusing part 142 of the deformed light diffusing part 140 and the form that shines when light is reflected by the eighth light diffusing part 139 of the light diffusing component 136 Clearly, it appears as a different bright pattern on the surface of the third light transmitting member 134, and the effect can be improved as compared with the case where the whole is bright in the same form.

  In addition, the front surface of the facing surface portion 135a of the fourth light transmitting member 135 is subjected to light diffusion processing at a portion other than the position corresponding to the deformed light diffusion portion 140, whereas the deformed light diffusion portion 140 The corresponding position is a flat surface 143. Thereby, it becomes clear that the bright form is different between the formation part of the deformed light diffusion part 140 and the formation part of the light diffusion component part 136, and a more interesting light emission effect can be performed.

(Example of change)
The configuration of the gaming machine is not limited to that of the embodiment, and various changes can be made.
(1) In the embodiment, the movable body is configured to rotate (oscillate) within a predetermined angle range. However, the present invention is not limited to this, and the movable body may be configured to rotate 360 ° or may be configured to reciprocate linearly. Can be adopted.
(2) In the embodiment, the first light transmitting member (first light transmitting member) and the first light transmitting member (second light transmitting member) are disposed on the moving first movable body. The arrangement site of the 1 light transmission member (first light transmission member) and the second light transmission member (second light transmission member) may be a fixed site such as a game board or a frame-shaped decorative member.
(3) The light diffusion processing for the first light transmitting member (first light transmitting member) and the second light transmitting member (second light transmitting member) is not limited to the structure shown in the embodiment. Alternatively, it may be formed by a conventionally known light diffusion process that diffuses light, such as embossing. Moreover, the structure which sticks the light-diffusion sheet provided separately is also employable.
(4) The number and installation position of each light diffusion portion formed on the second light transmission member (second light transmission member) are not limited to those of the embodiment, and can be arbitrarily determined.
(5) The cross-sectional shape and the angle of the reflecting surface in each light diffusion portion formed on the second light transmitting member (second light transmitting member) are not limited to those of the embodiment, and can be arbitrarily determined.
(6) In the embodiment, the second light diffusing portions formed on the second light transmissive member (second light transmissive member) are all formed in the same cross-sectional shape. The cross-sectional shape may be changed.
(7) In the embodiment, a plurality of second light diffusing parts are continuously formed for one accommodating recess, but a configuration including only one second light diffusing part can also be adopted.
(8) In the embodiment, in the light diffusing unit provided in the first movable body, the third light diffusing unit is configured by one third reflecting surface, but the second light diffusing unit group constituting the light diffusing unit group depending on the forming configuration or a displacement form of the second surface side of the third reflecting surface is formed so as to be vertically symmetrical with respect to the said reference line L _3, it is emitted from the second reflecting surface of the second light diffusing member It is possible to adopt a configuration in which the reflected light is reflected in a direction away from the first light diffusing unit and the fourth light diffusing unit. That is, if the second light diffusing unit is formed up to a position facing the first light diffusing unit and the fourth light diffusing unit across the third light diffusing unit, a wider range can be brightened by one LED. Can do.
(9) In the embodiment, three fourth light diffusion portions are formed for one first light diffusion portion, but a configuration including one, two, four or more fourth light diffusion portions can also be adopted. .
(10) In the embodiment, the game board is made of a transparent board, but a wooden game board such as a plywood board can also be adopted.
(11) In the embodiment, a pachinko machine has been described as an example of the gaming machine. However, the present invention is not limited to this, and various gaming machines such as an arrangement ball machine, a pinball machine, and a slot machine machine can be adopted.

64 1st light transmission member (1st light transmission member)
66 Second light transmitting member (second light transmitting member)
66b Protruding wall (second light transmission part)
69 Front plate (another light transmission part)
70 Side plate (first light transmission part)
71a 1st surface 71b 2nd surface 72 1st LED (light-emitting body)
73 accommodation recess 73a arcuate surface 74 first light diffusing portion 75 second light diffusing portion 76 third light diffusing portion 76a third reflecting surface (inclined surface)
77 4th light-diffusion part 78a Back inclined surface M1 1st movable production | presentation apparatus (production apparatus)

Claims (4)

In a gaming machine provided with an effect device that produces an effect by light emission,
The stage device is
A first light transmitting member including a first light transmitting portion that transmits light;
A second light transmission member comprising a second light transmission part capable of transmitting light facing the first light transmission part of the first light transmission member;
A light emitter that is disposed on the opposite side of the first light transmission portion across the second light transmission portion of the second light transmission member and irradiates light toward the second light transmission portion;
The second light transmission part is
An accommodation recess that is formed on the first surface facing the light-emitting body, and that accommodates the light-emitting body;
A V-shaped first light diffusion portion that is formed between the second surface facing the first light transmission portion side and the first surface at a position corresponding to the housing recess and expands toward the second surface. When,
A triangular second light diffusing portion that is formed on the first surface side so as to be continuous with the housing recess and protrudes outwardly away from the second surface;
A third light diffusing portion that is formed at a position corresponding to the second light diffusing portion and includes an inclined surface that is inclined toward the first light diffusing portion as it goes from the first surface to the second surface;
A V-shaped fourth light diffusing portion that is formed between the first light diffusing portion and the second surface at a position corresponding to the third light diffusing portion and expands toward the first surface;
A part of the light emitted from the light emitter is reflected by the first light diffusing part toward the second light diffusing part, and a part of the reflected light from the first light diffusing part is reflected by the second light diffusing part. Reflected toward the diffusing portion, a part of the reflected light from the second light diffusing portion is reflected toward the fourth light diffusing portion at the third light diffusing portion, and the reflected light from the third light diffusing portion is reflected. A gaming machine, wherein a part is reflected by the fourth light diffusion portion toward the second surface.   The second light diffusing portion is formed continuously in a direction away from the receiving recess, and is configured to be displaced toward the second surface as the protruding end of each second light diffusing portion moves away from the receiving recess. The gaming machine according to claim 1.   The gaming machine according to claim 1 or 2, wherein a surface of the housing recess facing the light emitter is formed in an arc shape that is convex toward the light emitter. The first light transmission member includes another light transmission part that intersects the first light transmission part,
The inclined surface which separates from another light transmission part as the 2nd surface of the 2nd light transmission part in the said 2nd light transmission member leaves | separates from the said 1st light transmission part was formed. The gaming machine according to any one of the above.

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