JP2006020741A - Rotary game component - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a rotary game component which can relax the phenomenal state that a following ball drops in a following ball stopping section in a notched section of a rotator, and can reduce ball biting or the state that a stopped ball and a following ball are continuously thrown in a specified region. <P>SOLUTION: This rotary game component is equipped with a base 21 which is attached to a game region of a game panel, the rotator 52 which is rotatably provided on the front surface of the base 21, and a motor as a driving source for the rotator which is provided on the rear side of the base 21. The rotary game component is also equipped with the notched section 66 which is indented from the peripheral surface 65 of the rotator 52 to the center of the rotator and loads one ball, and e.g., a lower lens element 25 as a front surface panel which covers the front surface 67 of the rotator 52 and has light permeability. Then, the rotary game component is constituted in such a manner that the depth D from the peripheral surface 65 of the rotator 52 to the center of the rotator 52 in the notched section 66 is formed to be shallower than the diameter of one ball P. <P>COPYRIGHT: (C)2006,JPO&NCIPI

Description

  The present invention relates to a rotating game component including a rotating body rotatably provided in a game area of a pachinko machine, and the rotating body takes in a single sphere that is recessed from the peripheral surface of the rotating body toward the center of the rotating body. It relates to a thing provided with a notch.

There is known a pachinko machine in which a sorting device is attached to the front surface of a game board housed in a gaming machine frame, and the sorting device includes a rotating gaming part (see, for example, Patent Document 1). The rotating game component includes a rotating body, and a circular arc-shaped cutout portion that is recessed from the peripheral surface of the cylindrical body toward the center of the cylindrical body is formed on a part of the peripheral surface of the cylindrical body that constitutes the rotating body. The notch is provided to extend straight along the axial center of the cylindrical body forming the rotating body. The notch can take in one sphere. That is, the rotator is formed in a shape that is recessed from the peripheral surface of the rotator toward the center of the rotator, and includes a cutout portion that takes in one sphere. The rotating body is arranged in a direction along the direction perpendicular to the front surface of the base of the sorting apparatus attached to the game board, and the rotating body transmits the rotational force from the drive source provided on the back side of the base. The axis to be rotated is fixed at the axis center, and rotates around the axis center of the cylindrical body. That is, the rotating game component includes a base of a sorting device attached to the game area of the game board, a rotating body provided rotatably on the front surface of the base, a driving source of the rotating body provided on the back side of the base, and a rotation And a cutout portion for taking in one sphere recessed from the peripheral surface of the body toward the center of the rotating body.
JP 2004-49898 A

  In the sorting apparatus, as shown in FIG. 11A, the rotating body 100 of Patent Document 1 allows the notch 101 to take in the sphere P that flows down from the upper ball intake port outside the drawing of the sorting apparatus 200. There are the following problems when the rotating body 100 is provided at a position where it is possible and is stopped in a state where the sphere P is taken into the notch 101. The cross-sectional shape of the cutout portion 101 of the rotating body 100 of the rotating game component 201 of Patent Document 1 is an arc that extends from the bottom top portion 102 of the cutout portion 101 on the center side of the columnar body to the left and right toward the outer peripheral surface of the columnar body. The depth D1 from the peripheral surface of the rotating body 100 to the center direction of the rotating body 100 in the notch 101 is formed to be greater than the length of the diameter of one sphere P. That is, when one sphere P is taken into the notch 101, the outer circumference of the taken sphere P is an outer circumference corresponding to the outer circumference of the cylindrical body connecting the left and right edges 103; 104 of the notch 101. It is the same as the equivalent line 105 or located on the center C side of the rotating body 100 from the outer peripheral surface equivalent line 105. In a state in which one sphere P is taken into the notch 101 and is stopped at the notch 101, the succeeding sphere P1 taken in from the ball take-in port above the sorting device 200 is forward from the front surface of the base 106 of the sorting device. In the case of flowing down in the direction of the notch 101 through the spherical passage 108 delimited by the partition wall 107 protruding in the normal direction, the subsequent sphere P1 collides with the stationary sphere P and is generally partitioned by the partition walls 110 and 111. The following ball P1 is discharged to a discharge port outside the figure by the ball guide path 112; 113. The partition walls 110; 111 are formed on the peripheral surface 109 of the rotating body 100 at a position slightly lower than the positions of the left and right end edges 103; 104 of the notch 101 of the rotating body 100 stopped in a state where the previous sphere P is taken in. It protrudes forward from the front surface of the base 106 at a position slightly away from the position and extends left and right. However, the following ball P1 is stuck between the stationary ball P, which is stopped at the notch 101, and one of the left and right edges 103; 104 of the notch 101 (hereinafter referred to as “following ball stopping part”). There is. That is, in a state where the notch 101 is stopped by taking one sphere P into the notch 101 with the open side facing up, the surface 114 of the stationary sphere P contained in the notch 101 and the notch 101. Of the left and right edges 103; 104, the contact portion 115 is in contact with the surface 116 of the succeeding sphere P1 flowing down in the direction of the notch 101, and the succeeding sphere P1. Is stopped at the subsequent sphere stopping portion, and the center of gravity G of the stopped subsequent sphere P1 is positioned on the stopping sphere P side from right above the edge 103; 104 of the notch 101. Thus, when the center of gravity G of the succeeding sphere P1 caught in the succeeding sphere stopping part is located on the stopping sphere P side from the position of the edge 103; 104 of the notch 101, the rotating body 100 is assumed to have rotated. However, the succeeding sphere P1 may be difficult to escape from the state where it is stuck in the succeeding sphere stop, and may not move to the ball guiding path 112; 113 and may not be discharged from the discharge port. If the state where the succeeding sphere P1 is stuck in the succeeding sphere stopping portion continues, for example, when a further succeeding sphere flows down in the direction of the notch 101, the sphere is bitten or partitioned by the partition walls 110 and 111. The stationary sphere P and the succeeding sphere P1 may be continuously thrown into a specific area set as one of the left area 120 and the right area 121 of the rotating body 100. In pachinko machines, which are said to be of the three types, when two or more balls are continuously thrown into a specific area, the right state advantageous to the player may be set to disappear. When set, there is a problem that the right is lost because the stationary ball P and the succeeding ball P1 are continuously thrown into the specific area.

  Further, as shown in FIG. 11 (b) corresponding to the AA cross section of FIG. 11 (a) and FIG. 11 (a), the bottom surface 125 of the notch 101 of the rotating body 100 is formed in an arc surface. In some cases, the sphere P entering the notch 101 from above collides with the bottom surface 125 and rebounds vigorously (in the direction of the arrow X) and jumps out of the notch 101. A rotating body support base 130 is positioned and attached by a positioning portion 131 on the back side of the rotating body 100, and a shaft 132 for transmitting a rotational force from a driving source (not shown) to the rotating body support base 130 is provided with a bush 133. Used to be connected and fixed. A front panel 136 of a light-transmitting sorting apparatus 200 that covers the front surface 135 of the rotating body 100 is provided in front of the rotating body 100.

  The present invention relates to a base attached to a game area of a game board, a rotating body rotatably provided on the front surface of the base, a driving source of the rotating body provided on the back side of the base, and rotating from a peripheral surface of the rotating body. In a rotary game component comprising a notch portion for taking in one sphere recessed in the center direction of the body and a light-transmitting front panel covering the front surface of the rotating body, the rotating body from the peripheral surface of the rotating body in the notch portion It is characterized in that the depth in the center direction is formed shallower than the diameter of one sphere. A base attached to the game area of the game board, a rotating body provided rotatably on the front surface of the base, a driving source of the rotating body provided on the back side of the base, and a center direction of the rotating body from the peripheral surface of the rotating body In a rotating game component having a notch for taking in a single sphere that is recessed and a light-transmitting front panel that covers the front surface of the rotating body, the notched portion has a sphere in the notch in the direction of the front panel. It is also characterized in that a projection for guiding to is provided. The protrusion has an inclined surface that continuously and smoothly inclines from the peripheral surface side of the base side of the cutout portion to the bottom of the front panel side of the cutout portion, and the cutout portion is 1 in the cutout portion with the open side facing up. In a state in which a single ball is taken in and stopped, it has a contact part formed by a stationary ball in the notch part and an edge of the notch part, and the contact part flows down to the notch part. The subsequent ball is stopped between the stationary ball and the edge of the notch, and the center of gravity of the stopped subsequent ball is positioned on the edge of the game area from directly above the edge of the notch. It is also characterized.

  According to the present invention, the depth from the peripheral surface of the rotating body to the center of the rotating body in the notch is formed to be shallower than the diameter of one sphere. Therefore, it is possible to reduce the phenomenon that the succeeding sphere gets stuck in the succeeding sphere stop, and therefore the situation where the stop sphere and the succeeding sphere are continuously thrown into the specific area is reduced. it can. In addition, since the notch is provided with a projection that guides the ball that has entered the notch in the direction of the front panel, the ball that has entered the notch can be guided in the direction of the front panel, and the ball jumps out of the notch Can be prevented. Since the protrusion has an inclined surface that smoothly and smoothly inclines from the peripheral surface side on the base side of the notch portion to the bottom of the front panel side of the notch portion, the inclined surface causes the sphere to move downward and downward toward the front panel. The ball can be more effectively prevented from jumping out from the notch. The center of gravity of the succeeding sphere stopped by the succeeding sphere retaining part formed between the retaining ball and the edge of the notch is positioned on the end side of the game area from directly above the edge of the notch. Therefore, when the rotating body rotates, the succeeding sphere is likely to be detached from the succeeding sphere retaining portion, and a state in which the succeeding sphere is moored for a long time can be avoided. Therefore, it is possible to reduce the situation where the ball is bitten or the stationary ball and the succeeding ball are continuously thrown into the specific area.

  1 to 8 show the best mode of the present invention. FIG. 1 shows a rotating body of rotating game parts provided in the sorting device, (a) shows the rotating body and its vicinity from the front, (b) shows a cross section AA of (a), FIG. 3 shows a pachinko machine equipped with a sorting device, FIG. 3 shows an exploded view of the sorting device, FIG. 4 shows an appearance of the sorting device, FIG. 5 shows a sorting device attached to a game board, and FIG. 6 shows a rotating game. FIG. 7 shows an external appearance of the rotating body unit, and FIG. 8 shows a spherical path in the sorting device.

  FIG. 2 shows a pachinko machine 1 called three kinds. The pachinko machine 1 is configured by storing a game board 2 in a game machine frame 3. On the front face 4 of the game board 2 shown in FIG. 2, a symbol display device 5, a symbol start winning device 6, a sorting device 7, a third type winning device 8, a variable winning device 9, a general winning device 10, a windmill 11, a nail 12, a game part such as a guide rail 13 is provided, and a game part such as a control device (not shown) and a ball cage is provided on the back side of the game board 2. A front panel 15 having light transmission is provided in front of the front surface 4 of the game board 2. The distribution device 7 includes a rotating game component 20.

  As shown in FIGS. 3 to 5, the sorting device 7 includes a base 21 attached to the front surface 4 of the game board 2 with a set screw 43, a pair of opening / closing bodies 23; 23 assembled to the front surface 22 of the base 21, and an upper lens. A front part 29 including a body 24, a lower lens body 25 as a front panel, a left lens body 26, a right lens body 27, and a front decoration 28; an opening / closing body drive unit 32 assembled to the base 21 from the back surface 31 side of the base 21; The upper movable piece unit 33, the lower movable piece unit 34, the rotating body unit 35, and the back part 37 including the back cover 36 are configured. Specifically, as shown in FIG. 4, the sorting device 7 is particularly configured by assembling a front part 29 on the front surface 22 of the base 21 and a back part 37 on the back surface 31 of the base 21. In particular, as shown in FIG. 5, the sorting device 7 is provided on the back surface 31 of the base 21 by inserting the back component 37 side from the front surface 4 side of the game board 2 into the escape hole 38 formed in the game board 2. The positioning member 40 is fitted into the positioning hole 41 formed in the front surface 4 of the game board 2 to perform positioning, and the base 21 is in contact with the front surface 4 of the game board 2 around the escape hole 38. The base 21 is fastened to the front surface 4 of the game board 2 through a set screw 43 in the mounting through hole 42 of the game board 2, so that it can be attached to the front surface 4 of the game board 2.

  As shown in FIGS. 6 and 7, the rotating body unit 35 includes a rotating body unit base 51, a rotating body 52 assembled to the rotating body unit base 51, a rotating body support base 53, a shaft 54, a bush 55, and an origin detection rotation. Rotating body drive unit 58 comprising a body cam 56, a motor 57 as a drive source, an origin detection switch board 59, a sphere detection switch 60 provided in a detachment area to be described later, a sphere detection switch 61 provided in a specific area, these The switch unit 63 includes a switch holder 62 that holds a switch. That is, the rotating body unit 35 is configured by assembling a rotating body drive unit 58 and a switch unit 63 to a rotating body unit base 51 as shown in FIG.

  As shown in FIG. 1, the rotating body 52 of the rotating body unit 35 is formed of a cylindrical body 52A, and a part of the peripheral surface 65 of the cylindrical body 52A is connected to the center (axial center) of the cylindrical body 52A from the peripheral surface 65 of the cylindrical body. ) A notch 66 having an arcuate cross section that is recessed in the direction C is provided. The notch 66 extends straight to the front surface 67 and the back surface 68 of the cylindrical body 52A along the axial center C of the cylindrical body 52A, and opens forward and backward. One sphere P can be taken into the notch 66. The rotating body support base 53 is formed of a disk body having the same diameter as that of the cylindrical body 52A forming the rotating body 52. As shown in FIG. 6, a bush mounting hole 71 that penetrates the front surface 69 and the back surface 70 of the rotating body support base 53 is formed in the center of the rotating body support base 53, and is formed in the back surface 68 of the rotating body 52. The positioning protrusion 72 (see FIG. 1B) and the positioning protrusion 73, the engagement protrusion 74, and the engagement hole 75 that are engaged with the engagement hole and the engagement protrusion (not shown) are formed. Accordingly, the bush 55 is attached to the bush mounting hole 71 from the front surface 69 side of the rotating body support base 53, and the front surface 69 of the rotating body support base 53 and the back surface 68 of the rotating body 52 are connected to the engagement holes and the engagement protrusions. The shaft mounting hole 79 (see FIG. 1B) of the bush 55 and the front portion of the shaft 54 are attached to each other by fitting, and the rear portion of the shaft 54 and the rotating shaft 57A of the motor 57 are connected to each other. Are coupled to each other via the origin detecting rotating body cam 56. As described above, the rotating body 52 is rotated by the rotational driving force of the motor 57. The rotating body unit 35 is attached from the back side of the base 21 of the sorting device 7, and the rotating body 52 passes through a drawing hole 21 a (see FIG. 3) formed in the base 21 and is drawn out to the front surface 22 of the base 21. The front surface 69 of the body support base 53 and the front surface 22 of the base 21 are assembled on the same surface. Thereby, the lower lens body 25 as a light-transmitting front panel covering the front surface 67 of the rotator 52 is positioned on the front surface 67 of the rotator 52.

  Further, the front surface 69 of the rotator support base 53 is provided with a protrusion 76 that projects into the notch 66 of the rotator 52 and guides the sphere P entering the notch 66 toward the lower lens body 25 as a front panel. It is done. The protrusion 76 has an inclined surface 78 that descends from the peripheral surface 77 side of the rotating body support base 53 toward the center side.

  Returning to FIG. 2, the ball taken into the launching device (not shown) in the pachinko machine 1 from the pan 16 is launched from the launching device by the operation of the launching operation device (handle) 17, and along the guide rail 13 the guide rail 13, a game area 18 surrounded by the front panel 15 and the front surface 4 of the game board 2 is entered. In the three types of pachinko machines 1, when a ball thrown into the game area 18 wins the symbol start winning device 6, this winning signal is detected by the control device, and the control device makes a winning lottery at the detection timing of the winning signal. The symbol 19 of the symbol display device 5 is changed. The control device stops the symbol of the symbol display device 5 at the time of the lottery and opens and closes the left and right opening / closing bodies 23; 23 provided on the upper portion of the sorting device 7 by a predetermined number of times in a direction away from each other. While the opening / closing body 23; 23 is open, after the sphere P enters the sorting device 7 from the gap between the opening / closing body 23; 23, the sphere P clears a specific condition and is detected by a specific sphere detector. The right to the player is set.

  With reference to FIG. 8, the path | route of the ball | bowl P thrown in in the distribution apparatus 7 is demonstrated. A detection signal indicating that the ball P that has entered the sorting device 7 via the opening / closing body 23; 23 has passed through the ball detector 80 is sent to the control device, and the control device receives a prize for a certain number of balls. While being given to the player, the upper movable piece 82 provided under the ball holding cylinder 81 located below the ball detector 80 is projected forward for a predetermined time by driving a driving source such as a solenoid. Therefore, while the upper movable piece 82 protrudes forward, only one sphere P that has passed through the sphere detector 80 can be held in the sphere holding cylinder 81, and 2 taken in via the opening / closing body 23; 23. The first and subsequent balls collide with the ball P held by the ball holding cylinder 81 and are discharged from the left and right upper discharge ports 83; After a predetermined time has elapsed, the control device drives the drive source to retract the upper movable piece 82 backward. As a result, the sphere P held by the sphere holding cylinder 81 flows down the sphere passage 84 and flows down toward the lower movable piece 85. The lower movable piece 85 is driven to move forward and backward at all times by controlling a drive source such as a solenoid after the control device detects a detection signal from the ball detector 80, for example. Accordingly, when the ball P flows down at the timing when the lower movable piece 85 protrudes forward, the ball P is guided to the lower movable piece 85 and discharged to the middle discharge port 86 on the left side of the drawing. When the sphere P flows down at the timing when the lower movable piece 85 is sunk backward, the sphere P passes through the sphere detector 87 positioned below the lower movable piece 85 and is cut out of the rotating body 52. 66. When the ball detection signal from the ball detector 87 is output to the control device, the control device performs a winning lottery at the timing when the ball detection signal is input, and the symbol 19 of the symbol display device 5 (see FIG. 2). ). If the winning lottery result is a win, the symbol 19 of the symbol display device 5 is stopped at the winning symbol, and the rotating body 52 is rotated to the right in FIG. As a result, the sphere P passes through the specific area, flows down to the contact port 90, and is detected by a specific sphere detector (not shown). When this detection signal is output to the control device, the control device recognizes the occurrence of the right to win. When the control device recognizes the occurrence of the right to win, for example, a guide such as “Right-handed” is displayed on the screen of the symbol display device 5. When the ball hits the third type start winning device 8 by hitting right, the control device plays a game in which the big winning opening 9 is opened and closed and the front and rear open / close door 9a is opened and closed. If the winning lottery result is unsuccessful, the symbol 19 of the symbol display device 5 is removed and stopped at the symbol, and the rotating body 52 is rotated to the left in FIG. Thereby, the sphere P of the notch 66 of the rotator 52 passes through the detachment region 120 and flows down to the detachment port 89. Normally, the rotating body 52 is stopped at a position where the opening side of the notch 66 is directed upward as shown in FIG. 8, and even after the ball P is taken into the notch 66, the symbol by the winning and winning lottery is displayed. The ball P is stopped at the notch 66 while the open side of the notch 66 is stopped upward as shown in FIG. 8 until the symbol display device 5 confirms the display. Therefore, as shown in FIG. 1, the succeeding sphere P1 may flow down in a state where the sphere P is stopped at the notch 66. In this case, normally, the succeeding sphere P1 collides with the stationary sphere P stopped at the notch 66, and is discharged to the discharge port 88; 88 by the ball guide path 112; 113 partitioned by the partition wall 110; 111. .

  In this embodiment, as shown in FIG. 1, the cross-sectional shape of the notch 66 of the rotating body 52 is from the bottom top 66E of the notch 66 on the center C side of the cylinder 52A toward the circumferential surface 65 of the cylinder 52A. The length of the horizontal distance between the left and right edges 91; 92 of the notch 66 in FIG. 1 is formed from the diameter of one sphere P. long. A depth D from the peripheral surface 65 of the rotating body 52 to the center of the rotating body 52 in the notch 66 is formed to be shallower than the diameter of one sphere P. That is, the length D of the vertical distance from the bottom top 66E of the notch 66 to the outer peripheral surface equivalent line 93 of the rotating body 52 is shorter than the diameter of one sphere P. Therefore, when one sphere P is taken into the notch 66, the outer circumference of the taken sphere P corresponds to the peripheral surface 65 of the cylindrical body 52A connecting the left and right edges 91; 92 of the notch 66. It protrudes from the outer peripheral surface equivalent line 93. Also in this embodiment, the following ball P1 is stuck between the stationary ball P where the notch portion 66 is stopped and the left and right edges 91; 92 of the notch portion 66 (hereinafter referred to as “following ball stopping portion”). Although the depth H to be fitted becomes shallower than the configuration of FIG. 11, the succeeding sphere P <b> 1 is easily discharged to the discharge port 88. Therefore, it is possible to reduce the phenomenon that the succeeding sphere P1 gets stuck in the succeeding sphere stopping portion, and therefore, the situation where the stopping sphere P and the succeeding sphere P1 are continuously thrown into the specific area 121 is reduced. it can.

  Further, as shown in FIG. 1, even when the succeeding sphere P1 gets stuck in the succeeding sphere stop, either the surface 94 of the stop sphere P in the notch 66 or the left and right edges 91; 92 of the notch 66 The contact portion 95 formed by the heel comes into contact with the subsequent sphere P1 flowing down to the notch portion 66 to stop the subsequent sphere P1 at the subsequent sphere stop portion, and the center of gravity G of the stopped subsequent sphere P1 is It is located on the end side (left and right sides in FIG. 1) of the game area 18 from directly above the end edges 91; For example, in FIG. 1, the center of gravity G of the succeeding sphere P <b> 1 stopped at the succeeding sphere retaining portion formed between the retaining sphere P and the end edge 91 of the notched portion 66 is obtained by the contact portion 95. The structure located in the left side from right above the edge 91 is shown. By being configured in this way, the rotation of the rotator 52 makes it easier for the subsequent sphere P1 to be detached from the subsequent sphere retaining portion, and a state where the subsequent sphere P1 is moored for a long time in the subsequent sphere stationary portion can be avoided. . Therefore, it is possible to reduce a situation where the ball is caught or the stationary ball P and the succeeding ball P1 are continuously thrown into the specific area 121.

  Furthermore, in this embodiment, the inclined surface 78 of the protrusion 76 is continuously and smoothly inclined from the peripheral surface 65 side of the notch 66 on the base 21 side to the bottom of the notch 66 on the lower lens body 25 (front panel) side. It is an inclined surface. In the present embodiment, as described above, the depth of the notch 66 is reduced and the projection 76 is provided. Therefore, even when the depth of the notch 66 is reduced, the sphere P that has entered the notch 66 is illustrated in FIG. Since it can be guided in the direction of the lower lens body 25 as indicated by the arrow F in 1 (b), it is possible to prevent the sphere P from jumping out of the notch 66.

  That is, since the depth of the notch 66 is reduced and the protrusion 76 is provided, a state in which the subsequent sphere P1 is moored for a long time in the subsequent sphere stopping portion can be avoided and the sphere P is less likely to jump out of the notch 66. The rotary gaming component 20 having 52 can be obtained. The protrusion 76 may be any protrusion that protrudes in the direction of the lower lens body 25. As the protrusion 76, the lower lens body 25 (front panel) of the notch 66 from the peripheral surface 65 side of the notch 66 on the base 21 side. In the case of using the one provided with the inclined surface 78 that continuously and smoothly inclines toward the bottom on the side, the inclined surface 78 can guide the sphere in the direction of the lower lens body 25 and downward. It is possible to more effectively prevent the ball from jumping out from the portion 66. In this embodiment, the rotating game component 20 includes a base 21, a rotating body 52 having a notch 66, a motor 57 as a driving source for the rotating body 52, and a light-transmitting front surface that covers the front surface 67 of the rotating body 52. It comprises a lower lens body 25 as a panel.

Other example 1
FIG. 9 shows another example 1. Note that the same components as those of the best configuration described above are denoted by the same reference numerals and description thereof is omitted. That is, a base 21 attached to the game area 18 of the game board 2, a rotating body 52 rotatably provided on the front surface 22 of the base 21, and a motor 57 as a driving source of the rotating body provided on the back side of the base 21. A notch 66 for taking in one sphere P recessed from the peripheral surface 65 of the rotator 52 toward the center of the rotator, and a light transmitting front panel covering the front surface 67 of the rotator 52, for example, a lower lens A rotary game component 20A having a configuration in which the depth from the circumferential surface 65 of the rotary body 52 to the center of the rotary body 52 is shallower than the diameter of one sphere P. . According to this rotating game component 20A, since the depth H at which the subsequent ball P1 fits into the subsequent ball stop portion becomes shallow, the phenomenon that the subsequent ball P1 gets into the subsequent ball stop portion can be reduced. The situation in which the stationary ball P and the succeeding ball P1 are continuously thrown into the specific area 121 can be reduced.

Other example 2
FIG. 10 shows another example 2. In addition, the same code | symbol is attached | subjected about the same structure as the best form shown previously and the structure of FIG. 11, and the description is abbreviate | omitted. That is, a base 21 attached to the game area 18 of the game board 2, a rotating body 100 rotatably provided on the front surface 22 of the base 21, and a motor as a drive source of the rotating body 100 provided on the back side of the base 21 57, a cutout portion 101 for taking in one sphere P recessed from the peripheral surface 109 of the rotating body 100 toward the center of the rotating body 100, and a light-transmitting front panel 136 covering the front surface 135 of the rotating body 100. The notch 101 is a rotating game component 20B having a configuration in which a protrusion 76 that guides the ball P that has entered the notch 101 in the direction of the front panel 136 is provided. That is, the protrusion 76 is provided in the notch 101 of the rotating body 100 in FIG. According to the rotating game component 20B, since the protrusion 76 is provided, the ball P that has entered the notch 101 can be guided toward the front panel 136, and the ball P can be prevented from jumping out of the notch 101.

  The rotating body support base 53 may not be used, and the rotating body 52 may be rotated by connecting a shaft. Further, the protrusion 76 may be provided on the bottom of the notch 66.

BRIEF DESCRIPTION OF THE DRAWINGS It is a figure which shows the rotary body of the rotation game component by the best form of this invention, Comprising: (a) is a front view which shows a rotary body and its vicinity, (b) is AA sectional drawing of (a). The front view which shows the pachinko machine provided with the sorting device incorporating the rotation game component by the best form. The exploded view of the distribution device incorporating the rotation game parts by the best form. The perspective view of the sorting apparatus incorporating the rotation game component by the best form. Sectional drawing which shows the state with which the sorting apparatus incorporating the rotation game component by the best form was attached to the game board. The exploded view of the rotary body unit which comprises the rotation game component by the best form. The external view of the rotary body unit which comprises the rotation game component by the best form. The figure which shows the ball | bowl path | route in the sorting apparatus incorporating the rotation game component by the best form. The front view which shows the rotary body of the rotation game component by the other example 1. FIG. The front view which shows the rotary body of the rotation game component by the other example 2. FIG. It is a figure which shows the rotary body of the conventional rotary game component, Comprising: (a) is a front view which shows a rotary body and its vicinity, (b) is AA sectional drawing of (a).

Explanation of symbols

1 pachinko machine, 2 game board, 18 game area, 21 base,
25 Lower lens body (front panel), 52 Rotating body, 57 Motor (drive source),
66 notch, 76 protrusion, 78 inclined surface, 91; 92 edge of notch, 95 contact portion.

Claims (4)

  A base attached to the game area of the game board, a rotating body provided rotatably on the front surface of the base, a driving source of the rotating body provided on the back side of the base, and a center direction of the rotating body from the peripheral surface of the rotating body In a rotary game component comprising a notch portion for taking in a single sphere that is recessed and a light-transmitting front panel that covers the front surface of the rotator, from the peripheral surface of the rotator to the center of the rotator at the notch A rotating game component characterized in that the depth of the ball is shallower than the diameter of one sphere.   A base attached to the game area of the game board, a rotating body provided rotatably on the front surface of the base, a driving source of the rotating body provided on the back side of the base, and a center direction of the rotating body from the peripheral surface of the rotating body In a rotating game component having a notch for taking in a single sphere that is recessed and a light-transmitting front panel that covers the front surface of the rotating body, the notched portion has a sphere in the notch in the direction of the front panel. A rotating game component, characterized in that a projection for guiding is provided.   3. The rotating game component according to claim 2, wherein the protrusion has an inclined surface that continuously and smoothly inclines from a peripheral surface side on the base side of the notch portion to a bottom on the front panel side of the notch portion.   In the state where the notch is stopped by taking one sphere into the notch with the open side facing up, a contact portion formed by the stationary ball contained in the notch and the edge of the notch is provided. The contact portion comes into contact with the succeeding sphere flowing down to the notch, stops the succeeding sphere between the stationary sphere and the edge of the notch, and the center of gravity of the stopped succeeding sphere is 4. The rotating gaming component according to claim 1, wherein the rotating gaming component is positioned on the edge side of the gaming area from directly above the edge.

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