JP2009254652A - Operator for presentation and game machine using the same - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a chance button providing a presentation effect in a game machine. <P>SOLUTION: The chance button 1 includes: an assembly case 2 formed of a body portion 3, a bottom portion 4, and a lid portion 5; a frame 6 for holding a spherical chance ball 7 in the assembly case 2 so as to be rotated in any direction; a transparent cover 9 covering a window 5c opened in the lid portion 5 and attached to the lid portion 5; pressure-sensitive conductive rubber 10; an LED 18 for emitting incident light to light paths in the chance ball 7. The frame 6 is provided with driving mechanisms 50A and 50B for rotationally driving the chance ball 7, and a circumferential movement-detecting portion 55 for detecting the amount or direction of vertical, horizontal, or rotational movement of the outer peripheral surface of the chance ball 7. The driving mechanisms 50A and 50B rotationally drive the chance ball 7 to an optional position to provide presentation by the light paths. <P>COPYRIGHT: (C)2010,JPO&INPIT

Description

  The present invention relates to a production operation element called a chance button provided in a gaming machine such as a slot machine or a pachinko machine, and a gaming machine using the same.

In the conventional pachinko machine, the current measurement value of the big hit counter is acquired on the condition that the pachinko ball has won the winning opening, and the big hit is judged based on comparing the acquired result of the measurement value with the big hit value. It has been known. Then, in the pachinko machine, the jackpot symbol is set based on the judgment of the jackpot, and the probability of setting the jackpot symbol displayed in the special symbol variation area of the symbol display device is compared with the specific symbol. There is a configuration for determining whether the mode is established. At this time, in order to make the player expect the establishment of the high probability mode, the chance button (corresponding to the “actuator for presentation” of the present invention) is flashed to prompt the player to press the chance button, and the chance button There is a pachinko machine that displays a symbol based on the contents of the symbol on a symbol display device constituted by a liquid crystal device or the like and expects the establishment of a high probability mode.
In Patent Document 1, in the pachinko machine having such a configuration, the player operates the chance button, and performs the determination process of the high probability mode based on the operation content of the chance button, thereby allowing the player to enter the high probability mode. It is considered to give a sense of achievement gained by skill.

JP 2004-275402 A

However, in such a configuration of a chance button (production operation element), the chance button is a function that merely blinks, has no other functions, and lacks a production effect.
The present invention has been made in view of the above circumstances, and an object of the present invention is to provide a chance button (production operator) having a production effect and a gaming machine using the chance button.

  The production operator according to claim 1 is a ball-shaped ball, a drive mechanism that rotationally drives the ball in a rotational direction, a holding unit that rotatably holds the ball, A holding structure member having a window capable of displaying a part of an outer peripheral surface of the ball to a player; and a transparent cover that covers the window apart from the ball; And a detection sensor for detecting when the cover member is pressed.

  According to the present invention, the display pattern or display color applied to the outer peripheral surface of the ball through the window can be freely changed. Further, since the transparent cover member covers the window away from the ball, it is possible to prevent the player from intentionally obstructing the rotation of the ball or conversely driving the ball to rotate.

  In the configuration of the invention according to claim 1, the operating operator for production according to the invention of claim 2 is disposed at a position separated by a predetermined distance along the outer peripheral surface of the ball, Two motors for driving the balls in a direction perpendicular to each other on the outer peripheral surface, and by appropriately driving the two motors, a target display is displayed on the player from the window.

  According to the present invention, the two motors are arranged at positions separated from each other by a predetermined distance along the outer peripheral surface of the ball, with the driving directions being changed at right angles to each other. Thus, the ball can be driven in any direction.

  According to a third aspect of the present invention, there is provided a production operator according to the first or second aspect of the invention, wherein the production operator is installed in a gaming machine and won in the gaming machine. The display pattern or display color of the ball displayed on the player from the window is changed in accordance with an accessory.

  According to the present invention, for example, the target drive control signal output from the game control board of the gaming machine can change the display pattern or display color of the ball displayed to the player from the window according to the winning combination. The chance button can also be used as a means of effect for the player.

  In the configuration of the invention according to claim 3, the operation operator for performance according to the invention according to claim 4 displays the remaining time of the bonus according to the winning combination from the window to the player. It is characterized by.

  According to the present invention, while a player operates an operation button, an operation lever, or the like for a gaming machine installed on the operation panel unit, a privilege according to a winning combination displayed by the ball on the same operation panel unit is displayed. Since the remaining continuation time can be recognized, it is easy to operate operation buttons and operation levers for gaming machines without greatly shifting the viewpoint. That is, the operability of the gaming machine is enhanced.

  The production operator according to claim 5 is the configuration of the invention according to claim 2, wherein the production operator is installed in a gaming machine, and further, the movement amount of the outer peripheral surface of the ball A peripheral surface movement amount detection means for detecting the movement direction, a reference display means set on the outer peripheral surface, and a movement amount detection signal from the reference display means and the peripheral surface movement amount detection means, Drive control means for determining a current position on the surface, and controlling the player to display a target display from the window based on the accessory control signal from the game control board of the gaming machine and the current position; It is characterized by providing.

  According to the present invention, since the current position of the outer peripheral surface of the ball is determined using the peripheral surface movement detection means, for example, a gimbal mechanism such as a three-dimensional gyro used for an aircraft or a spacecraft and a sensor are used. Even without using such an expensive mechanism or sensor, it can be constructed at low cost.

  According to a sixth aspect of the present invention, there is provided a gaming machine in which the directing operation element according to any one of the first to fifth aspects is installed on an operation panel unit operated by a player, and the directing operation is performed on the operating element. It is characterized by producing an effect.

  According to the present invention, it is possible to provide a gaming machine capable of producing a production effect on a chance button (production operator).

  ADVANTAGE OF THE INVENTION According to this invention, the chance button (manipulator for production) which has the production effect, and a game machine using the same can be provided.

<Structure of slot machine>
Hereinafter, a slot machine will be described as an example of a gaming machine to which a chance button (production operation element) according to an embodiment of the present invention is applied with reference to the drawings. FIG. 1 is a front view showing an external structure of a slot machine to which a chance button according to the embodiment is applied.

  As shown in FIG. 1, in a slot machine (game machine) 101, a front door 103 on which a so-called front mask facing a player is formed has a hinge (not shown) with respect to an opening of a housing which is a substantially rectangular box. It is attached so that it can be opened and closed by a mechanism. The front mask is roughly divided into an upper panel portion, a middle panel portion, and a lower panel portion from the top, and these are integrally formed of a hard plastic designed to enhance the visual effect as a decorative board. Further, a tray unit 104 including a tray 104a for storing medals is provided below the lower panel portion.

  An effect lamp (fever lamp) such as an effect lamp 105 with a built-in high-intensity light-emitting diode is arranged on the upper panel, and the effect that appeals to the player's vision by lighting or flashing in the event of a reach or jackpot Is going. In addition, sound emitting units 106A and 106B each having a built-in speaker are provided at the left and right positions of the upper panel unit, and a game is produced with sound effects and musical sounds. Further, a liquid crystal display unit 107 is disposed at a central position between the sound emitting units 106A and 106B.

  The liquid crystal display unit 107 displays a moving image that is appropriately selected according to the progress of the game to give the game a story, and in the case of a big hit such as a bonus game, a more dynamic image is displayed. It is displayed and effects such as causing a player to expect a high payout.

  Side lamps 109 </ b> A and 109 </ b> B, which are one of the effect lamps incorporating the above-described light emitting diodes, are arranged on the left and right positions of the middle middle panel.

  A middle panel 108 having a substantially rectangular transparent reel display window 108a is attached to the front center of the middle panel portion. The player can view the three cylindrical reels 110A, 110B, and 110C provided in the housing through the reel display window 108a.

  The peripheral surfaces of the reels 110A, 110B, and 110C include a plurality of different types, for example, 21 symbols (not shown) are arranged at substantially equal intervals, and three vertically facing the reel display window 108a. Three horizontal rows of symbols are visually recognized by the player through the reel display window 108a. Although not shown, game information display units such as a notification display unit for notifying the winning combination and a numerical display unit for displaying the remaining credit number are formed at appropriate positions on the front surface of the middle panel 108. ing.

Below the middle panel 108 is formed an operation panel portion 120 slightly protruding forward. Here, a medal slot 111 for inserting medals used in the game, a bet button 112 for instructing the operation of the game, a start lever 113, and three stop buttons 114 (individual stop buttons 114A, 114B, 114C) and the like.
On the upper surface at the center of the left and right of the operation panel unit 120, a chance button (production operation element) 1 is provided. The chance button 1 will be described later.

  The bet button 112 is a push-type button switch for presenting the number of medals bet on the game. The start lever 113 is a lever switch for instructing to rotate the reels 110A, 110B, and 110C all at once. The start lever 113 is turned on when a lever having a spherical operation knob at the tip is tilted in any direction, up, down, left, or right. When the hand is released from the lever, the spring is automatically returned to the original position by the urging force of the spring and is turned off.

  The stop buttons 114A, 114B, and 114C are push-type button switches for individually instructing to stop the rotation of the reels 110A, 110B, and 110C, and are arranged in parallel corresponding to the arrangement of the reels 110A, 110B, and 110C. Has been.

  On the lower panel 115 constituting the lower panel portion of the front mask, for example, a picture (not shown) of an appearing character or the like is printed and displayed so that the player can recognize the model type of the slot machine 101 and the like. .

  The tray unit 104 provided at the lowermost part of the front door 103 has a medal payout opening 116 for paying out medals by winning prizes and the like, and speakers 144A and 144B (see FIG. 2). Sound emitting portions 117A and 117B that generate sound are respectively provided.

Next, the internal structure of the slot machine 101 will be described with reference to FIG.
As shown in FIG. 2, a main control board assembly 200 in which a main control board (game control board) 201 is accommodated in a board case 190 is attached to the upper position inside the housing 102.
The main control board assembly 200 includes a transparent board case 190 including a case main body and a case lid, and a main control board that is housed in the board case 190 and is a main game control board that controls the overall operation of the slot machine 101. 201.

  The main control board assembly 200 is attached so as not to be easily detached via a mounting bracket 300 fixed to the inner surface side of the back plate 102a of the housing 102, and is sealed via a sealing seal 320. . That is, when the main control board assembly 200 is illegally removed from the mounting bracket 300, the seal seal 320 is cut or peeled off, thereby leaving the removed trace.

  Around the center of the casing 102 in the vertical direction, the above-described three reels 110A, 110B, and 110C are arranged in a unit by arranging the reels 110A, 110B, and 110C in parallel in the axial direction. It is fixed to the reel base 122 so as to face the reel display window 108a formed on the side.

  A rotating device substrate is attached to the upper part of the rotating device 110. The rotation device board relays the rotation drive pulse data from the main control board 201 and outputs a rotation drive pulse obtained by current amplification to the stepping motors of the reels 110A, 110B, and 110C, so that each reel 110A, 110B, and 110C. Rotation and stop drive control is performed.

  In a space below the spinning device 110, a hopper device 123 that stores medals inserted from the medal insertion slot 111 (see FIG. 1) and pays out medals at the time of a prize payout, and medals overflowing from the hopper device 123 are stored. An auxiliary storage unit 124 for housing, a power supply device 125 for distributing required power to each device built in the slot machine 101, and the like are installed.

Next, an LED (Light Emitting Diode) substrate 131 on which a light emitting diode as a light source such as the above-described effect lamp 105 (see FIG. 1) is mounted on the back side of the front door 103, and a sound emitting unit 106A. , 106B (see FIG. 1), speakers 132A, 132B, a liquid crystal display unit 107 (see FIG. 1), a sub-control board (game control board) 203 that mainly controls game effects by audiovisual effects, etc. An upper panel assembly 133 is attached.
The sub control board 203 is also one of the game control boards like the main control board 201 described above, and is housed in the board case 195 which is a transparent plastic case and cannot be easily detached from the back surface of the front door 103. It is provided as follows.

  Below the upper panel assembly 133, a middle panel 8 (see FIG. 1) having a reel display window 108a through which the reels 110A, 110B, and 110C are seen through by a player in front is provided on the front side, and the reels 110A, 110B, A cold cathode fluorescent tube 134 for irradiating 110C, lamp substrates 135 and 136 on which light-emitting elements such as a notification display unit and a numerical display unit are mounted, a start lever 113 (see FIG. 1) and stop buttons 114A, 114B and 114C. A central display board 137 that relays the output of the switches such as (see FIG. 1) to the main control board 201, a chance button control ECU (Electric Control Unit) 70 that controls the above-described chance ball 1, and the like are assembled into a unit. The lamp house unit 138 is attached.

  A selector 139 is attached below the lamp house unit 138. The selector 139 is a device that determines and distributes the suitability of medals inserted into the medal slot 111 (see FIG. 1) of the front mask, for example, illegal medals.

  The selector 139 is provided with a medal sensor. The medal sensor detects a medal determined to be appropriate by the selector 139 and transmits a medal acceptance signal to the main control board 201. The main control board 201 stores medals internally by adding a credit each time a medal acceptance signal is received.

  Below the selector 139, a lower panel 115 (see FIG. 1) provided on the front mask, and a lower panel unit 140 that is unitized with a fluorescent tube or the like for illuminating the lower panel 115 from the back surface are attached.

  On the back side of the lower panel unit 140, a medal guiding member 141 for guiding medals selected as appropriate by the selector 139 to the hopper device 123 on the housing 102 side, and medals (foreign matter) excluded as inappropriate by the selector 139. ) To the medal payout exit 116, a payout guide member 143 for guiding the medals paid out from the hopper device 123 to the medal payout exit 116, and the like.

  Furthermore, speakers 144A and 144B facing the sound emitting portions 117A and 117B (see FIG. 1) are attached to the lower part of the back surface of the lower panel unit 140.

  The slot machine 101 configured as described above enters a standby state when a prize is won in the previous game and the payout of medals is completed, or when a loss is confirmed in the previous game. In this state, when the bet button 112 (see FIG. 1) is pressed, medals are bet on the game from the medals (credits) stored therein, and the game starts.

  When the start lever 113 (see FIG. 1) is tilted in the game start state, the main control board 201 starts rotating the reels 110A, 110B, and 110C all at once. At the same time, the winning combination is drawn by internal processing, and the result is stored in a flag (memory).

  Next, when the player presses the stop buttons 114A, 114B, 114C (see FIG. 1) in an arbitrary order, the main control board 201 sequentially stops the corresponding reels accordingly. When the main control board 201 detects that all the reels 110A, 110B, and 110C have stopped, the combination of symbols displayed on the reels 110A, 110B, and 110C relates to the winning combination stored in the flag. It is determined whether or not the symbol combination matches. When they match, the winning is confirmed, and a medal with the number of payouts corresponding to the type of winning combination is added to the credit. When the credit exceeds the upper limit due to the payout of the winning prize, the excess medals are paid out from the hopper device 123 to the tray unit 104.

  As described above, the player of the slot machine 101 performs a game operation for rotating and stopping the reels 110A, 110B, and 110C, and loses the bet medals if the symbols displayed in the reel display window 108a are not variably displayed. If a winning combination is achieved with a combination of symbols determined, it is possible to obtain more medals than the betted number, so that it is possible to enjoy a win / lose game with an interest in increasing medals according to skill and luck.

<< First Embodiment >>
Next, the chance button according to the first embodiment of the present invention will be described with reference to FIGS. 3 to 6 and with reference to FIG. 9 as appropriate.
3A is a schematic cross-sectional view showing the overall configuration of the chance button, FIG. 3B is an enlarged view of a portion A in FIG. 3A, and FIG. 3C is an enlarged view of a portion B in FIG. It is. FIG. 4 is a perspective view for explaining the holding structure and driving method of the chance ball constituting the chance button. FIG. 5 is a perspective view for explaining a method of attaching a stepping motor for driving the chance ball, and FIG. 6 is an outline of the peripheral surface movement amount detection unit for detecting the movement amount and the movement direction of the outer surface of the chance ball. FIG.

As shown in FIG. 3, the chance button (production operation element) 1 includes a body portion 3, a bottom portion 4, and a lid portion (holding structure member) 5, for example, a rectangular cylindrical assembly case 2, and an assembly case 2, a frame (holding structure member) 6 that holds a spherical chance ball (ball) 7 in a freely rotating direction, and a window 5 c opened in the lid 5, and a transparent cover attached to the lid 5 (Cover member) 9, a light emitting element provided in a hole opened in the center of the bottom portion 4, for example, an LED 18 that emits white light, and a light receiving element 19 are included.
Hereinafter, each configuration will be described in detail.

(Chance ball holding structure)
A pattern (display pattern) and a color (display color) to be displayed to the player through the window 5 c and the cover 9 are attached to the outer peripheral surface of the chance ball 7. And it is rotatably held in an arbitrary direction by a ball bearing (holding means) 12A provided on the frame 6 and a ball bearing (holding means) 12B provided on the lid 5.
The frame 6 is made of plastic (resin), and the frame body 6a is a substantially hemispherical spherical frame body as shown in FIG. 4, and has a network shape for weight reduction. The lower part of the frame body 6a is connected to a frame base 6b having a square shape with a circular opening 6h in the center, and a cylindrical support ring 6c is connected to the lower surface side of the frame base 6b. It is supported from the bottom 4 by a support ring 6c and a frame base 6b.

  A ball bearing 12A is provided on the lower end side of the frame body 6a as shown in the enlarged view of the A part in FIG. In the thick holding portion 6d provided in the vicinity of the frame base 6b of the frame body 6a, a groove is formed in a ring shape, and a cage member 11a that holds the ball 11 while smoothly sliding the rotation of the ball 11 in the groove. The ball bearing 12A is configured by being fitted. The ball 11 is made of, for example, stainless steel or a hard resin having a smooth surface, and the cage member 11a has good slidability, such as PTFE (polytetrafluoroethylene (tetrafluoroethylene resin)) or the like. It is made of nylon 66 or the like.

  In a normal ball bearing, a cage for holding a ball is disposed between an inner ring and an outer ring, the ball is in contact with both the inner ring and the outer ring, and the cage is configured to rotate freely with respect to the inner ring and the outer ring. is there. However, in this ball bearing 12A, the ball 11 is in contact with the outer peripheral surface of the chance ball 7 and is slidably supported by the cage member 11a without contacting the bottom portion 6e of the groove provided in the holding portion 6d. It is. That is, the ball bearing 12A has a rolling bearing configuration with respect to the chance ball 7, but has a sliding bearing configuration with the cage member 11a, and the cage member 11a has a holding portion 6d. It is fixed to.

  As shown in FIG. 3 (a), a groove is similarly formed in the holding portion 5a facing the window 5c of the lid portion 5, and the ball 11 is held while smoothly sliding in the groove. The cage member 11a to be inserted is fitted to constitute a ball bearing 12B. In the ball bearing 12B, the ball 11 is in contact with the outer peripheral surface of the chance ball 7 and is slidably supported by the cage member 11a without contacting the bottom portion 5b of the groove provided in the holding portion 5a. .

Further, a ring-shaped groove 5d is formed on the upper surface of the lid portion 5, and the edge portion 9a of the cover 9 is fitted therein. In this fitting structure, for example, a predetermined number of notch portions (not shown) are provided at predetermined circumferential length intervals along the inner periphery of the pressing portion 5e protruding to the upper portion of the groove 5d shown in FIG. The edge portion 9a is also provided with a predetermined number of notch portions (not shown) along the outer periphery thereof at predetermined circumferential length intervals, the notch portion of the pressing portion 5e and the edge portion 9a are aligned, and the pressing portion 5e The notches of the edge 9a are aligned so that the lid 5 and the cover 9 can be connected to the bayonet. A spring 8 and a pressure-sensitive conductive rubber (detection sensor) 10 are disposed in parallel between the lower surface of the edge portion 9a and the bottom surface of the groove 5d.
Incidentally, the spring 8 and the pressure-sensitive conductive rubber 10 are fixed to the lower surface side of the edge portion 9a first, and then inserted into the groove 5d at the same time as the edge portion 9a of the cover 9 is fitted.

As shown in the enlarged view of part B in FIG. 3C, a spring 8 and a pressure-sensitive conductive rubber 10 are provided between the bottom surface of the groove 5d and the lower surface of the edge part 9a, and the edge part 9a is formed in the groove 5d. It is configured to be movable up and down between the bottom surface and the bottom surface of the holding portion 5e. When the player presses the top surface of the cover 9, the resistance value of the pressure-sensitive conductive rubber 10 decreases, and the switch is turned on. When the pressing is stopped, the cover 9 is pushed upward by the spring 8, the resistance value of the pressure-sensitive conductive rubber 10 is increased, and the switch is turned off.
Incidentally, the cover 9 is made of polycarbonate resin, for example. And the cover part 5 is fixed to the upper end of the trunk | drum 3 with an adhesive agent, for example.

  Further, as shown in FIG. 4, motor bases 6f and 6f are provided near the upper end of the frame body 6a, and a drive mechanism 50A including a stepping motor (motor) 15A and a drive mechanism 50B including a stepping motor (motor) 15B are provided. In addition to being attached, a sensor substrate base 6g is also provided, and a peripheral surface movement amount detection unit (peripheral surface movement amount detection means) 55 configured on the sensor substrate 17 is attached thereto.

(Chance ball)
As shown in FIG. 9, a plurality of chance balls 7 (indicated by reference numeral 7A in FIG. 9) pass through the center of the chance ball 7 (hereinafter simply referred to as “ball center point”) through the resin solid sphere. The light passage is formed and covered with a thin spherical shell made of colorless and transparent resin. And the display pattern and display color for production | presentation are attached | subjected to this spherical shell outer peripheral surface. Further, an “equator” is set on the outer peripheral surface of the chance ball 7 as will be described later, and the reference of three kinds of patterns having different patterns or colors from the upper side to the lower side in FIG. 9 along the “equator”. A reference band 35 including bands 35a, 35b, and 35c is provided, and a marker indicating the reference point 36 is set at one specific point in the circumferential direction of the reference band 35.
The inner peripheral surface 33 of the light passage is subjected to, for example, aluminum vapor deposition.
Here, the reference band 35 and the reference point 36 correspond to the reference display means described in the claims.

Here, the “equator” is an intersection line between the outer peripheral surface and the plane when the chance ball 7 is divided into two hemispheres in a plane. The divided plane is referred to as a virtual “equator plane”, and a straight line passing through the reference point 36 and the ball center point is referred to as a virtual “equator plane base axis”.
Here, the reference band 35a corresponds to the “equator”.
The virtual “equatorial plane” and “equatorial plane basic axis” are fixed to the chance ball 7, and when the chance ball 7 is driven to rotate, the virtual “equatorial plane” and “equatorial plane basic axis” also rotate. .

As described above, the chance ball 7 has a light passage formed therein, and the entrance window 31 (shown as 31A, 31B, 31C in FIG. 9) of the light passage remains colorless and transparent, for example. The exit window 32 (shown as 32A, 32B, 32C in FIG. 9) is colored. When the incident window 31 is located directly above the LED 18 arranged directly under the chance ball 7, the light from the LED 18 enters from the colorless and transparent incident window 31, and the exit window 32 facing the window 5c (see FIG. 3) is formed. Illuminate. The exit window 32 is larger than the entrance window 31, and the light from the LED 18 passes through the exit window 32 to become colored light, and emits effect light to the player through the window 5c and the cover 9 (see FIG. 3). .
The size of the entrance window 31 and the size and the color of the exit window 32 are different among the plurality of light paths, and they correspond to each other depending on the type of the accessory. For example, in FIG. 9, the exit window 32A corresponds to a bonus accessory, and the exit windows 32B and 32C correspond to smaller features.
A light receiving element 19 having a shielding plate 19a provided so as to block direct light from the LED 18 as shown in FIG. 3 is installed on the bottom 4 in the vicinity of the LED 18, and from the chance ball 7 when the LED 18 is turned on. The intensity of the reflected light is detected.

(Chance ball drive mechanism)
Next, a chance ball driving mechanism for driving the chance ball 7 will be described with reference to FIGS.
As shown in FIG. 4, the driving wheel 16 of the stepping motor 15 </ b> A and the driving wheel 16 of the stepping motor 15 </ b> B are pointed one by one with the outer peripheral surface of the chance ball 7 when the chance ball 7 is fixed (placed) on the frame 6. , Contact at two points in total. The two contact points are formed by the stepping motors 15A and 15B so that when the chance ball is placed (fixed) on the frame 6, the position on the outer peripheral surface of the chance ball 7 is 90 ° apart. Is arranged.

Supplementally, an intersection line between the outer peripheral surface of the chance ball 7 and the horizontal plane when the chance ball 7 is divided into upper and lower hemispheres on the horizontal plane including the two contact portions described above is referred to as “ecliptic” 43. Then, the contact part of the driving wheel 16 of the stepping motor 15A with the chance ball 7 and the contact part of the stepping motor 15B with the chance ball 7 of the driving wheel 16 are on the “ecliptic” 43 and become “ecliptic” 43. Stepping motors 15A and 15B are arranged on the frame main body 6a so as to be at a position just 90 ° apart.
Further supplementally, the “Zodiac” 43 is based on the frame 6, and the position of the “Zodiac” 43 does not change regardless of the rotation position of the chance ball 7. On the other hand, the “equator” is based on the chance ball 7, and if the chance ball 7 rotates, the position of the “equator” also rotates according to the rotation.

  The horizontal plane that divides the chance ball 7 into upper and lower hemispheres is referred to as a virtual “ecliptic plane”. This “ecliptic plane” is fixed to the frame 6. A straight line passing through the light receiving portion 23a and the ball center point, which will be described later, is referred to as a virtual “ecliptic plane base axis”. Incidentally, the light receiving portion 23 a is located on the “ecliptic plane”, and the “ecliptic plane base axis” is also fixed to the frame 6.

Since the stepping motor 15A and the stepping motor 15B are arranged on the frame 6 as described above, for example, when only the stepping motor 15A is driven without driving the stepping motor 15B, the chance ball 7 becomes the driving wheel 16 of the stepping motor 15B. The chance ball 7 is rotationally driven in the vertical direction with the axis passing through the contact portion and the center point of the ball as the rotation axis. In FIG. 4, the rotation direction in which the chance ball 7 rotates around the “ecliptic” 43 in the light receiving unit 23 a is defined as “upward”, and the rotation direction in which the chance ball 7 rotates across the “ecliptic” 43 is defined as “upward”. It is defined as “downward”.
Further, an axis passing through an intermediate point of the driving wheel 16 of each of the stepping motors 15A and 15B and the contact point with the chance ball 7 and the ball center point is defined as a virtual “rotation axis”.

  When only the stepping motor 15B is driven without driving the stepping motor 15A, the chance ball 7 is rotationally driven in the horizontal direction with the vertical axis as the rotation axis. At this time, skidding has occurred at the contact portion of the driving wheel 16 of the stepping motor 15A with the chance ball 7. Regarding the rotation direction of the chance ball 7 around the vertical axis, when viewed from the upper side in FIG. 4, clockwise rotation is defined as “right direction” and counterclockwise rotation is defined as “left direction”.

  Further, when the stepping motor 15A is driven so that the chance ball 7 rotates upward and the stepping motor 15B is driven so that the chance ball 7 rotates rightward, the chance ball 7 is viewed from the light receiving portion 23a. It is driven to rotate in the upper right direction. Conversely, when the stepping motor 15A is driven so that the chance ball 7 rotates downward and the stepping motor 15B is driven so that the chance ball 7 rotates leftward, the chance ball 7 is seen from the light receiving portion 23a. And is driven to rotate in the lower left direction.

  Further, when the stepping motor 15A is driven so that the chance ball 7 moves downward and the stepping motor 15B is driven so that the chance ball 7 moves rightward, the chance ball 7 is moved to the “rotation axis”. ”Is driven to rotate leftward, that is, rotates. On the other hand, when the stepping motor 15A is driven so that the chance ball 7 moves upward, if the stepping motor 15B is driven so that the chance ball 7 moves leftward, the chance ball 7 has a “rotation axis”. It is driven to rotate rightward, that is, it rotates.

  Then, as shown in FIG. 5, the stepping motor 15A has the outer periphery of the drive wheel 16 fixed to the motor rotating shaft 15a in contact with the outer peripheral surface of the chance ball 7, and rotationally drives the chance ball 7 in the vertical direction. As described above, the fixing member 52 is fixed to the motor base 6f via the spring 51 whose one end is bent. The fixing member 52 is, for example, a rivet and is caulked to fix one end of the spring 51 to the motor base 6f. The other end of the spring 51 is an open end, and the driving wheel 16 is biased toward the outer peripheral surface of the chance ball 7 by the spring force of the bent portion of the spring 51. A bearing 53 is erected on the motor base 6f, and a U-shaped notch 53a is provided on the top of the bearing 53 to restrict movement of the motor rotating shaft 15a within the outer peripheral surface of the chance ball 7, The movement of the chance ball 7 in the radial direction is allowed.

  One end of the stepping motor 15B is bent so that the outer periphery of the drive wheel 16 fixed to the motor rotation shaft 15a contacts the outer peripheral surface of the chance ball 7 and rotationally drives the chance ball 7 in the horizontal direction. It is fixed to the motor base 6f by a fixing member 52 via a spring 51. The stepping motor 15B has the same mounting structure as the stepping motor 15A except that the mounting direction is different from that of the stepping motor 15A.

Incidentally, the drive wheel 16 is made of hard resin and has a surface roughness enough to cause a slight friction on the peripheral surface contacting the outer peripheral surface of the chance ball 7. Further, the outer peripheral surface of the chance ball 7 is hard and smooth, and is configured to be smoother than the peripheral surface of the drive wheel 16.
By adopting such a combination of surface roughnesses, the drive wheel can be used even when only one drive wheel 16 of the stepping motors 15A and 15B is rotating or when both of the drive wheels 16 are rotating. The chance ball 7 can be slid in a direction perpendicular to the drive direction of the 16 and the chance ball 7 is rotationally driven in a direction of a substantially combined drive amount of the drive amount of each drive wheel 16.
The stepping motor 15A, the driving wheel 16, the spring 51, and the bearing 53 constitute a driving mechanism 50A, and the stepping motor 15B, the driving wheel 16, the spring 51, and the bearing 53 constitute a driving mechanism 50B.

(Surrounding surface movement detection unit)
Next, the structure of the circumferential surface movement amount detection unit 55 that detects the movement amount of the outer circumferential surface of the chance ball 7 will be described with reference to FIGS.
As shown in FIG. 4, the circumferential surface movement amount detection unit 55 is mounted on the sensor substrate 17 on the sensor substrate base 6 g at a substantially upper end position of the frame 6. This attachment position is a position where the light receiving portion 23a described later can be located on the above-mentioned “Zodiac” 43. In FIG. 4, the light receiving portion 23 a is depicted as being shifted rightward on the “Zodiac” 43 from the contact portion between the driving wheel 16 of the stepping motor 15 </ b> A and the outer peripheral surface of the chance ball 7. It is. It is desirable that the light receiving unit 23a is as close as possible to the contact portion between the driving wheel 16 of the stepping motor 15A and the outer peripheral surface of the chance ball 7 on the “ellipse” 43.

  As shown in FIG. 6, the sensor substrate 17 is provided with an opening 17a, which is aligned with an opening (not shown) provided in the sensor substrate base 6g. In the vicinity of the opening 17 a of the sensor substrate 17, an LD (Laser Diode) 21 and a light guide member 22 that guides light emitted from the LD 21 to the outer peripheral surface of the chance ball 7 are arranged. A light receiving circuit 23 that receives reflected light and recognizes it as an image is arranged with the light receiving portion 23a facing the opening 17a (the outer peripheral surface of the chance ball 7). The sensor board 17 is a printed board, but its printed wiring is omitted in FIG.

Further, on the sensor substrate 17, image information transmitted from the light receiving circuit 23 at a predetermined cycle is received, and compared with the image information received immediately before, the amount of movement and movement in the horizontal direction and the vertical direction are compared. A determination circuit 24 that determines the direction, the rotation angle, and the rotation direction and outputs them to the chance button control ECU 70 described later is provided.
Here, the “horizontal direction”, “vertical direction” movement amount and “movement direction”, and “rotation angle” and “rotation direction” are referred to as images by the light receiving circuit 23 and the determination circuit 24. Recognition is recognition of a two-dimensional image, and is a term for not being able to recognize the image as the rotation angle of the sphere, but only to recognize the parallel movement and rotation of the object left and right and up and down.
The “horizontal direction” movement amount, the “vertical direction” movement amount, and the “rotation angle” in the present embodiment correspond to the “movement amount” described in the claims, and the “movement direction” and the “movement direction” in the present embodiment The “rotation direction” corresponds to the “movement direction” recited in the claims.
Here, the LD 21 is, for example, an LD that emits red laser light. By using a laser beam, the horizontal and vertical movement amounts and directions, and the rotation angle and rotation can be achieved by image recognition without drawing a regular pattern for image recognition such as a dot pattern on the outer peripheral surface of the chance ball 7. The direction can be determined.

  Further, the determination circuit 24 has a function of identifying the pattern of the reference bands 35a, 35b, 35c on the outer peripheral surface of the chance ball 7 as shown in FIG. 9 and the marker of the reference point 36, and the reference band 35 is positioned at the light receiving portion 23a. When it does, it has the function to determine the inclination with respect to the horizontal surface of the reference | standard zone 35. FIG.

(Chance button control method)
Next, the control method of the chance button 1 will be described with reference to FIGS. 7 to 11 and with reference to FIGS. 1 to 3 as appropriate.
FIG. 7 is a functional block diagram of the chance button control ECU. FIG. 8 is a flowchart showing the flow of chance button control when there is a winning combination in the chance button control ECU. FIG. 9 is a diagram for explaining a light emission method for production by a chance ball with respect to a reference band set for a chance ball and a winning combination. FIG. 10 is a diagram for explaining an example of displaying the remaining time in the bonus state with a chance ball when the bonus is established. FIG. 11 is a diagram for explaining an example in which when the bonus is established, the player is informed by the movement of the chance ball that the state is continuing.

The chance button control ECU 70 that controls the chance button 1 includes a control unit 71, an LED drive circuit 73 that is controlled by the control unit 71 to supply a predetermined power to the LED 18, and a stepping motor 15A, 15B that is controlled by the control unit 71. Motor driving circuits 75A and 75B for independently driving the motors.
Here, the motor drive circuits 75A and 75B are normally used for driving the stepping motors 15A and 15B, and are control drive circuits including a logic sequencer.
The control unit 71 includes a microcomputer, a ROM, a RAM, a nonvolatile memory (for example, a flash memory), an interface circuit, and the like, and includes a program stored in advance in the ROM and various data stored in advance in the nonvolatile memory. The functions described below are implemented by the functions control block determination unit 71a, current position determination unit 71b, LED control unit 71c, drive control unit 71d, and learning correction unit 71e.
Here, the accessory control signal determination unit 71a, the current position determination unit 71b, and the drive control unit 71d in the present embodiment constitute drive control means described in the claims.

For example, the chance button control ECU 70 is disposed on the back side of the front door 103 of the slot machine 101 as shown in FIG.
The chance button control ECU 70 is, for example, a control that is output from the main control board 201 that controls the rotation operations of the reels 110A, 110B, and 110C (see FIG. 1) in the slot machine 101, the payout of medals, the winning probability, etc. In response to the signal, the sub-control board 203 performs control of display on the liquid crystal display unit 107, control of blinking of the effect lamp 105 and the side lamps 109A and 109B, control of sound output from the sound emitting units 106A, 106B, and 117, and the like. Communicate with.
Then, the chance button control ECU 70 outputs a control signal to the sub-control board 203 as necessary to control the display of the liquid crystal display unit 107, the blink control of the effect lamp 105 and the side lamps 109A and 109B, and the release. Control of audio output from the sound units 106A, 106B, and 117 is changed to the sub-control board 203.

  Here, chance button control ECU70 may receive the control signal output from the main control board 201 directly. However, nothing is input from the chance button control ECU 70 to the main control board 201.

(Accessory control signal determination unit)
The bonus control signal determination unit 71a is a winning bonus that is output from the sub-control board 203 in response to a control signal such as winning a prize or not winning from the main control board 201, or a chance button 1 when no prize is awarded. An effect code signal determined for each effect content requested and a winning combination code signal indicating the type of winning combination are received. Then, the accessory control signal determination unit 71a selects which content (menu) to produce according to the received production code signal, and outputs a lighting control signal to the LED control unit 71c according to the selection result. Then, a display command signal is output to the drive control unit 71d.
Here, the effect code signal and the winning combination code signal in the present embodiment correspond to the combination control signal described in the claims.
It should be noted that the correspondence relationship between the effect code signal for making this determination and the winning combination code signal indicating the type of the winning combination and which content (menu) to produce is stored in the ROM in advance. The object control signal determination unit 71a refers to it and selects an effect menu. Also, a plurality of types of display command signals are prepared, and the types of display command signals and the specific “target position” of the chance ball 7 include, for example, target correspondence data of angle coordinates (α, β, γ) described later. Pre-stored in the ROM.
The accessory control signal determination unit 71a accepts an ON signal from the pressure-sensitive conductive rubber 10 (see FIG. 3) when a specific accessory wins, for example, when a bonus wins, based on the selected effect menu. Then, an ON signal of the chance button 1 is output to the sub-control board 203, or a command signal for learning and correcting the current position of the chance ball 7 is output to the learning correction unit 71e as occasion demands.

(Current position determination unit)
The current position determination unit 71b determines whether the light receiving unit 23a is currently based on the amount of movement of the outer peripheral surface of the chance ball 7 from the determination circuit 24 in the vertical direction, the amount of movement in the horizontal direction, and the rotation angle (movement amount detection signal). The position of the chance ball 7 with respect to the frame 6 (hereinafter referred to as the “current position” of the chance ball 7) determined by the position of the expected outer peripheral surface of the chance ball 7 and the rotation angle position of the position of the outer peripheral surface is determined. .
The position and posture of the outer peripheral surface of the chance ball 7 are defined as follows. As shown in FIG. 9, in the chance ball 7, a reference band 35 is set on the “equator”, and a reference point 36 is set on the reference band 35. A predetermined triangle is formed on the spherical surface with reference thereto. A latitude / longitude coordinate network is formed, and an identification code, for example, a combination of latitude and longitude is defined in this “latitude / longitude coordinate” like a globe.

By the way, the above-mentioned “current position” of the chance ball 7 is an angle formed between the “equatorial axis” fixed at the frame 6 and stationary and the “equatorial axis” intersecting at the ball center point, for example, “ecliptic plane” It can be expressed by the elevation angle or depression angle from the “base axis”, the longitude and the rotation angle of the “equatorial plane base axis”.
Here, the reference point 36 is in the center of the field of view of the light receiving unit 23a, and the vector of the “equatorial plane basic axis” starting from the reference point coincides with the vector of the “equatorial plane basic axis” starting from the light receiving unit 23a. When the “ecliptic plane” coincides with the “equatorial plane”, the elevation angle is 0 °, the longitude is 0 °, and the rotation angle is 0 °. At this time, it is assumed that the “equatorial plane” is “normal” vertically, that is, the reference band 35b is above the reference band 35a.
Then, if a point obtained by drawing a perpendicular line from the tip of the vector of the “equatorial plane basic axis” to the “ecliptic plane” is a point A, a vector A0 starting from the ball center point and ending at the point A is considered. The angle between the vector of the “plane basis” and the vector A0 is a longitude (for example, β), and the angle between the vector A0 and the vector of the “equatorial plane” is an elevation or depression (for example, α). Yes, the rotation angle around the “equatorial axis” is referred to as a rotation angle (for example, represented by γ). The “current position” of the chance ball 7 can be specified by the angle coordinates (α, β, γ) represented by these three angles.

Therefore, (1) a first “latitude / longitude coordinate” located in the center of the field of view of the light receiving unit 23a, and (2) a second “latitude / longitude coordinate” in a predetermined direction, for example, “the ecliptic from the center of the field of view of the light receiving unit 23a”. “43” is a vector connecting the second “latitude and longitude coordinates” adjacent to the “43” along the right direction and (3) the first “latitude and longitude coordinates” to the second “latitude and longitude coordinates”. The above-described control of the “current position determination correspondence table” that makes the above-described angle coordinates (α, β, γ) correspond one-to-one with the three parameters of the angle (hereinafter referred to as “look-ahead angle”) Stored in advance in the ROM constituting the unit 71.
Incidentally, the posture of the chance ball 7 corresponding to the display command signal with respect to the frame 6 is displayed in the above-described angular coordinates (α, β, γ) and stored in advance in the ROM, and is controlled by the drive control unit 71d. Used in.

  In this way, a network of “latitude / longitude coordinates” by a predetermined triangle is set on the outer peripheral surface of the chance ball 7, and the first “latitude / longitude coordinates”, the second “latitude / longitude coordinates”, and “accrual” By defining the “current position” of the chance ball 7 with the “angle” and further linking it with the angle coordinates (α, β, γ), the light receiving unit 23a moves in the vertical direction (vertical direction) and in the horizontal direction ( Even if there is a movement in the left-right direction and a movement in the rotation, the “current position” can be determined based on the general angular coordinates (α, β, γ) in the current position determination unit 71b from the image recognition in the determination circuit 24.

  In addition, since the number of “latitude / longitude coordinates” that can be set on the entire outer peripheral surface varies depending on the size of the chance ball 7, the first “latitude / longitude coordinates”, the second “latitude / longitude coordinates”, and “accrual” The correspondence between the “corner” data set and the angular coordinates (α, β, γ) changes, but the “target position” of the display command corresponding to the type of the accessory is a general angular coordinate ( α, β, γ) can be defined in advance, so that the display requirement specification on the upstream side of the chance button 1 can be set separately from the detailed design on the downstream side. One display requirement specification defined by angle coordinates (α, β, γ) can be easily applied to the model of the chance button 1 and is convenient.

  Then, the determination circuit 24 has a reference point 36 located at the center of the image acquired by the light receiving unit 23a, and the reference band 35 is horizontal {"Zodiac plane" and normal state (reference band 35b) as shown in FIG. Is the upper side of the reference band 35a), the “equatorial plane” matches, and the “equatorial plane axis” matches the “equatorial plane axis”. The horizontal movement amount and the rotation angle are output to the current position determination unit 71b. The current position determination unit 71b receives the vertical and horizontal movement amounts and rotation angles from the determination circuit 24 at regular intervals, and each time the current position determination unit 71b receives the center of the image field acquired by the current light receiving unit 23a. The first “latitude and longitude coordinates”, the second “latitude and longitude coordinates”, and the “look-ahead angle” corresponding to the first “latitude and longitude coordinates” are calculated, stored in the nonvolatile memory, and stored in the previous cycle. Delete "latitude and longitude coordinates" and "accrual angle". In this way, the current position determination unit 71b calculates the first and second “latitude / longitude coordinates” and the “look-ahead angle” at a constant cycle, and always stores the latest one in the nonvolatile memory.

(LED control unit)
The LED control unit 71c outputs an on signal or an off signal to the LED drive circuit 73 in accordance with the lighting control signal received from the accessory control signal determination unit 71a. An LED drive circuit 73 that is a power source that supplies a predetermined voltage to the LED 18 supplies a predetermined power source to the LED 18 from the reception of the ON signal from the LED control unit 71c to the reception of the OFF signal.

(Drive control unit)
The drive control unit 71d refers to the target correspondence data described above based on the type of the display command signal received from the accessory control signal determination unit 71a, and the angle coordinates (α, β, γ) that are “target positions”. To get. Thereafter, the drive control unit 71d refers to the “current position determination correspondence table” for the angle coordinates (α, β, γ) of the “target position”, and the first and second “latitudes” corresponding to the “target position”. Obtain the “longitude coordinates” and “look-ahead angle”, calculate the vertical movement amount, horizontal movement amount, and rotation angle for rotationally driving the chance ball 7 from “current position” to “target position”, and a motor drive circuit Output to 75A and 75B.
Based on the first and second “latitude / longitude coordinates” and “accrual angle” data that the current position determination unit 71b updates and stores in the nonvolatile memory, the drive control unit 71d generates a new vertical movement amount, The horizontal movement amount and the rotation angle are calculated and output to the motor drive circuits 75A and 75B, and the drive control to the “target position” is performed by feedback control.

  This drive control is performed by the following steps, for example. (1) First, the stepping motor 15A and the stepping motor 15A are arranged so that the first “longitude / latitude coordinate” corresponding to the angular coordinates (α, β, γ) corresponding to the “target position” is located at the center of the field of view of the light receiving unit 23a. The stepping motor 15B is driven simultaneously or independently to perform vertical direction drive control and horizontal direction drive control. (2) Next, when the control of the first “longitude / latitude coordinate” of the target is completed, the “accrual angle” formed by the first and second “longitude / latitude coordinates” acquired from the current position determination unit 71b The difference γ between the angle γ of the angle coordinates (α, β, γ) based on the “γ” and the angle γ of the angle coordinates (α, β, γ) of the “target position” is obtained. (3) Further, the first “longitude / latitude coordinate” of the “target position” is an intermediate point on the ecliptic between the contact portion of the driving wheel 16 of the stepping motor 15A and the contact portion of the driving wheel 16 of the stepping motor 15B. Only the stepping motor 15B is driven to control the position so as to be positioned. (4) Thereafter, the stepping motors 15A and 15B are simultaneously driven to rotate the chance ball 7 around the axis (rotation axis) passing through the first “longitude / latitude coordinate” of the “target position” and the ball center point. Control is performed to rotate by the difference γ so that the rotation angle γ of the target angular coordinate becomes the driving angle. For example, when the stepping motor 15A is driven so that the chance ball 7 moves downward, and the stepping motor 15B is driven so that the chance ball 7 moves leftward, the chance is about the rotation axis. The ball 7 rotates counterclockwise. Conversely, when the stepping motor 15A is driven so that the chance ball 7 moves upward, when the stepping motor 15B is driven so that the chance ball 7 moves rightward, the rotation axis is centered, The chance ball 7 rotates clockwise.

(5) Thereafter, the stepping motor 15A and the stepping motor 15B are driven simultaneously or independently so that the first “longitude / latitude coordinate” of the “target position” is located at the center of the field of view of the light receiving unit 23a, and the vertical direction Drive control and horizontal direction drive control are performed, and control to the “target position” is completed.
The reason why the control takes a plurality of steps is that what is originally performed by the three-axis control is performed by a simple mechanism of the two-axis control.
Such drive control to the “target position” is not limited to the above-described method, and may be another known method.

(Learning correction part)
Next, the learning correction unit 71e will be described. The learning correction unit 71e determines the first and second “latitude / longitude coordinates” and “account angle” of the “current position” stored in the nonvolatile memory based on the activation completion signal when the slot machine 101 is activated. Based on the data, by using a signal from the current position determination unit 71b in a predetermined procedure, the drive control unit 71d controls the drive of the chance ball 7 so that the reference point 36 is positioned at the center of the visual field of the light receiving unit 23a. When the reference point 36 is positioned “horizontal” in the center of the field of view of the light receiving unit 23a, the first and second “latitude / longitude coordinates” and “look-ahead angle” of the “current position” are reset. Specifically, for example, (latitude 0 °, longitude 0 °), (latitude 0 °, longitude + 0.5 °), and accrual angle 0 (zero) are stored in the nonvolatile memory.

Also, when a bonus state display command is received, the first and second “latitude / longitude coordinates” and “look-ahead angle” are reset by another method.
By resetting the first and second “latitude / longitude coordinates” and the “look-ahead angle” as described above, it is possible to calibrate a position control shift due to error accumulation. Details will be described in detail in the flowcharts of FIGS.

(Chance ball display control when winning a prize)
Next, the flow of display control of the chance ball 7 when winning a prize will be described. FIG. 8 is a flowchart showing the flow of display control of the chance ball at the time of winning the winning combination. FIG. 9 is a perspective view for explaining the pattern and color of the outer peripheral surface of the chance ball.
The display control of the chance ball 7 is mainly performed in the accessory control signal determination unit 71a.
In step S11, the initial state of flag A is reset to 0 (FLAGA = 0). In step S12, which is a process for the accessory control signal determination unit 71a to recognize that the chance button 1 is not yet switched on by the player at the time of bonus winning, the accessory control signal determination unit 71a Then, it is checked whether or not an accessory control signal has been received from the sub control board 203. If received (Yes), the process proceeds to step S13. If not received (No), step S12 is repeated.

In step S13, an effect menu is displayed by referring to the correspondence stored in the ROM based on the received accessory control signal (the above-described effect code signal and the winning accessory code signal indicating the type of the winning prize). select. In this flowchart, as an example, the case of three types of menus of “object A”, “object B”, and “bonus” is illustrated. In FIG. 9, the display pattern or display color is displayed when the exit window 32A is the menu “bonus”, and the display pattern or display color is displayed when the exit window 32B is the menu “object A”. Is a display pattern or a display color to be displayed when the menu item is “Ring B”.
In the case of “bonus”, the process proceeds to step S14, in the case of “community A”, the process proceeds to step S22, and in the case of “combination B”, the process proceeds to step S24.

  In step S14, acceptance of an ON signal from the pressure-sensitive conductive rubber 10 (see FIG. 3) is permitted (chance button switch input permission). In step S15, the accessory control signal determination unit 71a outputs a command to display the menu “bonus” selected in step S13 to the LED 71c and the drive control unit 71d. Specifically, the lighting control signal is output to the LED control unit 71c, and the display by the “target position” corresponding to the menu “bonus” of the angle coordinate (α, β, γ) display described above on the drive control unit 71d. A command signal is output.

In response to this, the LED control unit 71c outputs a lighting signal to the LED driving circuit 73, is supplied with power from the LED driving circuit 73, and the LED 18 is lit. Further, the drive control unit 71d controls the motor drive circuits 75A and 75B by feedback control in cooperation with the current position determination unit 71b, and the current position of the chance ball 7 is “target” displayed in angle coordinates (α, β, γ). Rotation drive control is performed so as to match the “position”. When the chance ball 7 is controlled to move to the “target position” corresponding to the “bonus”, the entrance window 31A is positioned immediately above the LED 18, as shown in FIG.
The chance ball 7 looks through the exit window 32A from the window 5c and presents a display indicating the bonus state to the player.

  In step S16, it is checked whether an ON signal is received from the pressure-sensitive conductive rubber 10 (chance button switch ON?). When the on signal is received (Yes), the process proceeds to step S17, and when the on signal is not received (No), step S16 is repeated. In step S17, it is checked whether or not the flag A is in a reset normal state (FLAGA = 0?). If FLAG = 0 (Yes), the process proceeds to step S18. If FLAG ≠ 0 (No), the process proceeds to step S20. In step S18, a chance button on signal is output to the sub control board 203, and FLAGA = 1 is set (step S19). The sub-control board 203 receives this chance button on signal and switches, for example, the video displayed on the liquid crystal display unit 107 (see FIG. 1), the sound output from the sound emitting units 106A, 106B, 117, and the like. Produce a state of excitement.

In step S20, it is checked whether or not a bonus end signal has been received from the sub-control board 203. If received (Yes), the process proceeds to step S21. If not received (No), the process returns to step S16, and steps S16 to S20 are repeated. Here, once in the bonus state and an ON signal from the pressure-sensitive conductive rubber 10 is received, the second and subsequent times are not received, and the chance button ON signal is not output to the sub control board 203. The control is not disturbed complicatedly.
If the result of step S20 is No and the process proceeds to step S21, a command to make the chance ball 7 useless is output to the drive control unit 71d. Specifically, since the command to make the state of no use accompanies the “target position” displayed in the angular coordinates (α, β, γ) corresponding to the no use, the drive control unit 71d determines that the chance ball 7 The position is moved to the “target position” of the angular coordinate (α, β, γ) display corresponding to the rolelessness, the roleless display is presented from the window 5c (see FIG. 3), and the series of control is finished.

In step S13, when the menu is “actual item A” and the process proceeds to step S22, a command “display a chance ball as a functional item A” is output to the drive control unit 71d. Specifically, a lighting control signal is output to the LED control unit 71c, and the “target position” corresponding to the menu “object A” of the angle coordinate (α, β, γ) display on the drive control unit 71d. The display command signal by is output.
In step S23, it is checked whether or not a display end signal for the accessory A has been received from the sub-control board 203. If received (Yes), the process proceeds to step S21. If not received (No), step S23 is repeated.

In step S13, if the menu is “actual item B” and the process proceeds to step S24, a command “display chance ball with functional item B” is output to the drive control unit 71d. Specifically, a lighting control signal is output to the LED control unit 71c, and the “target position” corresponding to the menu “object B” of the angle coordinate (α, β, γ) display on the drive control unit 71d. The display command signal by is output.
In step S25, it is checked whether or not a display end signal for the accessory B has been received from the sub control board 203. If received (Yes), the process proceeds to step S21. If not received (No), step S25 is repeated.

Next, another display example of the bonus chance ball 7 will be described.
FIG. 10 is a diagram for explaining a timer display pattern in the bonus display, and FIG. 11 is a diagram for explaining a display by precession with a focus on an emission window of the bonus display in the bonus display.
In the example illustrated in FIG. 10, when the drive control unit 71 d looks through the window 5 c of the exit window 32 </ b> A of the chance ball 7 </ b> B corresponding to the menu “bonus”, the remaining time depicted around the exit window 32 </ b> A is shown. The timer indicator 37 corresponds to the marker 41 drawn on the edge of the window 5c. The drive control unit 71d aligns the current position of the chance ball 7B with the “target position” of the menu “bonus”, and then the drive control unit 71d sends a command pulse for rotationally driving only the stepping motor 15B to the left in a predetermined cycle. The state where the position of the timer index 37 indicated by the marker 41 is changed and the duration of the bonus state is reduced is shown to the player by the display shown in FIG.

  In the example of FIG. 11, the drive control unit 71 d controls the stepping motors 15 </ b> A and 15 </ b> B alternately after viewing the exit window 32 </ b> A of the chance ball 7 </ b> C from the window 5 c in response to the menu “bonus”. Precession is performed around 32A, and the display color and display pattern change alternately to bring out the glamorousness.

Next, two methods of position correction in the learning correction unit 71e will be described.
(Position correction at startup)
First, the position correction method at the time of activation will be described with reference to FIGS.
12 and 13 are flowcharts showing the flow of position correction control at the time of activation in the learning correction unit.
When power is supplied from an island (not shown) and the slot machine 101 (see FIG. 1) is turned on, the main control board 201, sub-control board 203, chance button control ECU 70, etc. are automatically operated by a sequencer included in the power supply (not shown). Power is supplied automatically. When power is supplied to the main control board 201, the sub control board 203, and the chance button control ECU 70, the respective built-in programs start to establish communication with each other. The control board 203 and the chance button control ECU 70 perform a self-diagnosis check, and the main control board 201, the sub control board 203, and the chance button control ECU 70 shift to an activation completion state. At this time, for example, the chance button control ECU 70 is assumed to perform a procedure for receiving an activation completion signal from the sub-control board 203.
The activation completion signal may be output by the control unit 71 itself.
In step S51, the learning correction unit 71e checks whether an activation completion signal has been received or not. If the activation completion signal has been received (Yes), the process proceeds to step S52. If the activation completion signal has not been received (No), step S51 is repeated.

In step S52, the learning correction unit 71e instructs the drive control unit 71d to rotationally drive the chance ball 7 around the vertical axis, and detects the pattern of the reference band 35 to the determination circuit 24 via the current position determination unit 71b. To do. Then, it is checked whether or not the determination circuit 24 has detected the reference band 35 (step S53). When the reference band 35 is not detected (No), the process returns to step S52, and when the reference band 35 is detected (Yes), the process proceeds to step S54. Here, the rotation of the chance ball 7 around the vertical axis is performed by driving only the stepping motor 15B without driving the stepping motor 15A. In step S54, the rotation drive around the vertical axis of the chance ball 7 is stopped, and the determination circuit 24 determines whether the reference band 35 is normal or reverse through the current position determination unit 71b (step S55). If it is normal, the process proceeds to step S58 according to symbol (4).
Whether the upper and lower sides of the reference band 35 are normal or reverse can be easily determined by looking at the arrangement order from above the reference bands 35b, 35a, and 35c shown in FIG.

  In step S56, a command is given to the drive control unit 71d, and the chance ball 7 is rotationally driven in the vertical direction. That is, the stepping motor 15B is stopped, and only the stepping motor 15A is driven to rotate upward, for example, and it is checked whether or not the determination circuit 24 has detected the reference band 35 via the current position determination unit 71b. If not detected (No), Steps S56 and S57 are repeated, and if detected (Yes), the process proceeds to Step S58. If steps S56 and S57 detect the reference band 35 of the “equator” on the side opposite to the currently visible side of the “equator” at the time of step S55 (the other side), it is a reference in a state where the vertical relationship is normal. The band 35 is detected.

In step S58, the determination circuit 24 detects the inclination of the reference band 35 via the current position determination unit 71b, and as a result, it is determined whether the reference band 35 is horizontal, upper right, or left up (step S59). In the case of going up to the left, the chance ball 7 is rotated 90 ° counterclockwise around the vertical axis in the drive control unit 71d (step S60), and then in the drive control unit 71d by an amount corresponding to the inclination detected in step S58. The chance ball 7 is rotationally driven downward (step S61). Thereafter, the process proceeds to step S64.
In the case of the upper right, the chance ball 7 is rotated 90 ° clockwise around the vertical axis in the drive control unit 71d (step S62), and then the drive control unit 71d is an amount corresponding to the inclination detected in step S58. The chance ball 7 is driven to rotate upward (step S63). Thereafter, the process proceeds to step S64.

  In step S64, the chance ball 7 is rotationally driven around the vertical axis, for example, in the right direction in the drive control unit 71d. In step S65, it is checked whether or not the reference point 36 is detected in the determination circuit 24 via the current position determination unit 71b. If not detected (No), Steps S64 and S65 are repeated, and if detected (Yes), the process proceeds to Step S66. In step S66, the rotation driving of the chance ball 7 around the vertical axis is stopped. Then, the current position determination unit 71b is corrected as the “reference position” (step S67). That is, the current position determination unit 71b stores the first and second “latitude and longitude coordinates” in the nonvolatile memory, for example, (latitude 0 °, longitude 0 °), (latitude 0 °, longitude + 0.5 °), “ Save as "Occurrence angle" 0 °. That is, for example, this corresponds to the angular coordinates (α, β, γ) of the “target position” of the bonus display in the present embodiment.

Therefore, when checking whether or not the position correction of the slot machine 101 is normally performed, for example, in the case of a bonus display pattern of the chance ball 7 (shown as 7B in FIG. 10) as shown in FIG. It can also be visually confirmed that the positional relationship between the marker 41 and the timer index 37 is in the state shown in FIG.
Note that after the bonus display continues for a predetermined time, the learning correction unit 71e issues a command for an unusable display position to the drive control unit 71d and returns to the normal state.

(Position correction during bonus display)
Next, a position correction method at the time of bonus display will be described with reference to FIG.
FIG. 14 is a flowchart showing a flow of position correction control at the time of bonus display in the learning correction unit.
In step S71, the learning correction unit 71e checks whether or not a command for bonus display of the chance ball 7 is received from the accessory control signal determination unit 71a. If received (Yes), the process proceeds to step S72. If not received, step S71 is repeated.
In step S72, the learning correction unit 71e monitors the control signal from the drive control unit 71d to check whether or not the chance ball 7 has been rotationally driven at the bonus display position.

In step S73, the timer t is started. Next, in step S74, the drive controller 71d is instructed to cause the chance ball 7 to precess around the emission window 32A of the bonus display as shown in FIG. 11, and the reflected light from the light receiving element 19 is transmitted. The intensity is temporarily stored in time series with “current position” data (first and second “latitude / longitude coordinates” and “look-ahead angle” set) output by the current position determination unit 71b, and the intensity of the reflected light intensity is the highest. Search for weak positions. In step S75, it is checked whether or not the timer t is equal to or greater than the predetermined value T. If it is equal to or greater than the predetermined value T (Yes), the process proceeds to step S76, and if it is less than the predetermined value T (No), step S74 is continued. In step S76, the position where the reflected light intensity is the weakest is extracted from the temporarily stored time-series reflected light intensity and the “current position”, and the drive control unit 71d stops at that position. Thereafter, the process proceeds to step S64 in the flowchart of FIG.
With the bonus display exit window 32A displayed on the window 5c in this manner, when the chance ball 7 is precessed and the intensity of the reflected light is the weakest, the light emitted from the LED 18 is efficiently incident. It is determined that the light is incident on the light path from the window 31A. In this state, it is determined that the light path is directed in the vertical direction, and the process proceeds to steps S64 and S65 to detect the reference point 36. It is to make.

By doing so, it is possible to use the opportunity of bonus display, and the learning correction of the position display of the chance ball 7 being provided for the game can be performed, which is convenient.
The precession used in this learning correction should have a smaller vertical swing than that shown in FIG.

According to the present embodiment, the stepping motors 15A and 15B are arranged at positions separated from each other by a predetermined distance along the outer peripheral surface of the chance ball 7, and the driving directions are changed in the direction perpendicular to each other. The chance ball 7 can be driven in an arbitrary direction according to the composite amount of the driving amount of 15B, and the display pattern and display color displayed at an arbitrary position on the outer peripheral surface are presented to the player through the window 5c. can do.
For example, the display pattern or display color of the chance ball 7 displayed to the player from the window 5c is changed according to the winning combination control signal output from the sub-control board 203 of the throttle machine 101 according to the winning combination. The chance button 1 can be used as a means of effect for the player.
Further, for example, the chance button 1 can be provided with a timer function indicating the remaining duration of the bonus state.

  Further, the same operation panel unit 120 is operated while the player operates various operation buttons and operation levers for gaming machines such as the bet button 112, the start lever 113, the stop button 114, and the like installed in the operation panel unit 120. The player can recognize the remaining time of the bonus according to the winning prize displayed by the chance ball 7 above, so that the player can operate the various operation buttons and levers for the gaming machine without greatly shifting the viewpoint. It's easy to do. That is, the operability of the gaming machine is enhanced.

According to the present embodiment, since the “current position” of the outer peripheral surface of the chance ball 7 is determined using the peripheral surface movement detection unit 55, for example, a three-axis gyro used for an aircraft, a spacecraft, or the like. Even if an expensive mechanism or sensor using a gimbal mechanism and an angular velocity detection sensor is not used, it can be constructed at low cost.
Furthermore, since the transparent cover 9 is spaced apart from the chance ball 7 and covers the window 5c, it is possible to prevent the player from intentionally obstructing the rotation of the chance ball 7 or conversely driving the chance ball 7 to rotate. it can.

  In the present embodiment, the control unit 71 of the chance button control ECU 70 is controlled by the accessory control signal from the sub-control board 203, but is controlled by receiving the accessory control signal from the main control board 201. It may be configured.

<< Second Embodiment >>
Next, a chance button according to the second embodiment of the present invention will be described with reference to FIGS. 15 to 17.
FIG. 15 is a perspective view for explaining a holding structure and driving method of a chance ball constituting the chance button, and FIG. 16 is a perspective view for explaining a mounting method of a stepping motor for driving the chance ball. FIG. 17 is a functional block diagram of a chance button control ECU that controls the chance button.

In the chance button 1A according to the present embodiment, three drive mechanisms 50C, 50D, and 50E are fixed to the frame 6, and the stepping motors 15C, 15D, and 15E are attached to the motor base 6f in the first embodiment. And different.
The same components as those in the first embodiment are denoted by the same reference numerals, and redundant description is omitted.

(Chance ball drive mechanism)
As shown in FIG. 15, the driving wheel 16 of the stepping motor 15 </ b> C and the driving wheel 16 of the stepping motor 15 </ b> D are in contact with the outer peripheral surface of each chance ball 7 at that time of the chance ball 7 held by the frame 6. In this state, the drive wheels 16 and 16 are driven to rotate the chance ball 7 in the vertical direction so that it is in the vicinity of the ecliptic 43 and just 90 degrees away along the ecliptic 43. Is disposed on the frame body 6a. Similarly, a stepping motor 15E is arranged so that the driving wheel 16 is positioned in the vicinity of the “Zodiac” 43 and the chance ball 7 is rotationally driven in the horizontal direction.
In the present embodiment, it is not always necessary that the contact portion of the drive wheels 16, 16, 16 of the stepping motors 15 C, 15 D, 15 E with the outer peripheral surface of the chance ball 7 is on the “ecliptic” 43. However, the light receiving portion 23 a is a position on the “ecliptic” 43 below the contact portion between the driving wheel 16 of the stepping motor 15 C and the outer peripheral surface of the chance ball 7.

  Then, as shown in FIG. 16, the stepping motor 15C has one end so that the outer periphery of the drive wheel 16 fixed to the motor rotation shaft 15a contacts the outer peripheral surface of the chance ball 7 and rotationally drives the chance ball 7. It is fixed to a flat spring 51A having a bent portion. Furthermore, the spring 51A is attached to the motor base 6f via a bearing 56 that supports a hinge shaft 56a provided at the bent portion. One end of the actuator 51A is connected to one end of the spring 51A (the end away from the stepping motor 15C from the hinge shaft 56a), and the other end is fixed to the motor base 6f. The actuator 54A is composed of, for example, a piezoelectric element. When a voltage is applied to the actuator 54A and extended, the drive wheel 16 is pressed more strongly against the outer peripheral surface of the chance ball 7, and when the voltage application is stopped, the actuator 54A is applied to the outer peripheral surface. The pressing force is released, and the frictional force at the contact portion between the drive wheel 16 and the outer peripheral surface of the chance ball 7 is almost eliminated. The other end of the spring 51A is an open end, to which the main body of the stepping motor 15C is fixed, and the driving wheel 16 is biased toward the outer peripheral surface of the chance ball 7 by the spring force of the bent portion of the spring 51A. Is possible. A bearing 53 is erected on the motor base 6f, and a U-shaped notch 53a is provided on the top of the bearing 53 to restrict movement of the motor rotating shaft 15a within the outer peripheral surface of the chance ball 7, The movement of the chance ball 7 in the radial direction is allowed.

The stepping motors 15D and 15E are also attached to the motor base 6f via the spring 51A in the same manner as the stepping motor 15C. The actuators 54B and 54C have the same configuration as the actuator 54A.
The stepping motor 15C, the driving wheel 16, the spring 51A, the bearing 53, the actuator 54A, and the bearing 56 constitute a driving mechanism 50C, and the stepping motor 15D, the driving wheel 16, the spring 51A, the bearing 53, the actuator 54B, and the bearing 56 are included. The drive mechanism 50D is configured, and the stepping motor 15E, the drive wheel 16, the spring 51A, the bearing 53, the actuator 54C, and the bearing 56 configure the drive mechanism 50E.
Hereinafter, when it is not necessary to specify the drive mechanisms 50C, 50D, and 50E, they are simply referred to as the drive mechanism 50, and when it is not necessary to specify the actuators 54A, 54B, and 54C, they are simply referred to as the actuator 54.

As described above, the contact portion between the drive wheel 16 of each of the stepping motors 15C, 15D, and 15E and the outer peripheral surface of the chance ball 7 is positioned in the vicinity of or on the “ecliptic” 43 as described above. Since it is arranged on the frame 6, the chance ball 7 can be driven to rotate as follows.
(1) When a voltage is not applied to the actuators 54B and 54C, the stepping motors 15D and 15E are not driven, a voltage is applied to the actuator 54A and only the stepping motor 15C is driven, the chance ball 7 It is rotationally driven in the vertical direction with an axis perpendicular to the “ecliptic plane axis” on the “ecliptic plane” as a rotation axis. At this time, since the actuators 54B and 54C are not extended, the contact pressure at the contact portion of the drive wheels 16 and 16 of the stepping motors 15D and 15E with the chance ball 7 is zero or slight, which is the first embodiment. The rotation of the chance ball 7 becomes smoother than in the case of.
(2) If no voltage is applied to the actuators 54A, 54C, the stepping motors 15C, 15E are not driven, a voltage is applied to the actuator 54B, and only the stepping motor 15D is driven, the chance ball 7 It is rotationally driven in the vertical direction around the “ecliptic plane base axis”. At this time, since the actuators 54A and 54C are not extended, the contact pressure at the contact portion of the driving wheels 16 and 16 of the stepping motors 15C and 15E with the chance ball 7 is zero or slight, which is the first embodiment. The rotation of the chance ball 7 becomes smoother than in the case of.
(3) When no voltage is applied to the actuators 54A and 54B, the stepping motors 15C and 15D are not driven, the voltage is applied to the actuator 54C and only the stepping motor 15E is driven, the chance ball 7 is vertically The shaft is driven to rotate in the horizontal direction about the rotation axis. At this time, since the actuators 54A and 54B are not extended, the contact pressure at the contact portion of the driving wheels 16 and 16 of the stepping motors 15C and 15D with the chance ball 7 is zero or slight, which is the first embodiment. The rotation of the chance ball 7 becomes smoother than in the case of.

  In addition, since the driving wheels 16 are arranged at three locations and the chance ball 7 can be rotated independently by three axes, the above-mentioned “equatorial plane basic axis” is moved in the horizontal direction and the vertical direction, “equatorial base axis” The rotation around each can be performed more quickly than in the first embodiment. Furthermore, since the contact pressure of the drive wheel 16 that is not used for rotational driving can be reduced to substantially zero, the rotational driving of the chance ball 7 becomes smooth.

  Therefore, in this embodiment, when the chance ball 7 is rotationally driven by the drive mechanism 50, a voltage is applied to the actuator 54 of one of the three drive mechanisms 50, and the chance ball 7 is rotationally driven only by the stepping motor 15. The drive wheels 16 and 16 of the remaining two drive mechanisms 50 and 50 are controlled so that no voltage is applied to the actuators 54 and 54 and the stepping motors 15 and 15 are not rotated so as not to contact the outer peripheral surface of the chance ball 7. . By adopting such a control, the frictional resistance due to the drive wheels 16 is reduced, and the display control that can be viewed through the window 5c of the chance ball 7 can be performed quickly.

(Chance button control method)
Next, the control method of the chance button 1A will be described with reference to FIG.

The chance button control ECU A70A that controls the chance button 1A includes a control unit 71, an LED drive circuit 73 that is controlled by the control unit 71 to supply a predetermined power to the LED 18, and a stepping motor 15C, 15D that is controlled by the control unit 71. , 15E respectively, and motor drive circuits 75C, 75D, 75E that are independently driven, and actuator drive circuits 76A, 76B, 76C that are controlled by the control unit 71 and can independently apply a predetermined voltage to the actuators 54A, 54B, 54C; , Including.
Here, the motor drive circuits 75C, 75D, and 75E are control drive circuits that are normally used to drive the stepping motor 15 and include a logic sequencer.
The actuator drive circuits 76A, 76B, and 76C are configured with, for example, an IC switch that can turn on and off a predetermined power supply voltage.

The chance button control ECU 70A has essentially the same configuration as the chance button control ECU 70 in the first embodiment. The change is that the number of stepping motors 15 to be controlled is changed from two to three as described above. Thus, the point at which three actuators 54 are controlled is changed. In addition, when the chance ball 7 is rotationally driven, a voltage is applied to the actuator 54 included in one drive mechanism 50 to drive the stepping motor 15.
Hereinafter, only the configuration of the chance button control ECU 70A different from that of the first embodiment will be described, and description overlapping with that of the first embodiment will be omitted.

(Drive control unit)
Next, a method of rotationally driving the chance ball 7 to the “target position” by the drive control unit 71d in the present embodiment will be described. In the present embodiment, the number of stepping motors 15 is three, and the three-axis control is performed, so that it is easier than in the case of the first embodiment.
The drive control unit 71d refers to the target correspondence data described above based on the type of the display command signal received from the accessory control signal determination unit 71a, and the angle coordinates (α, β, γ) that are “target positions”. To get. Thereafter, the drive control unit 71d refers to the “current position determination correspondence table” for the angle coordinates (α, β, γ) of the “target position”, and the first and second “latitudes” corresponding to the “target position”. Obtain the “longitude coordinates” and “look-ahead angle”, calculate the vertical movement amount, horizontal movement amount, and rotation angle for rotationally driving the chance ball 7 from “current position” to “target position”, and a motor drive circuit Output to 75C, 75D, 75E.

The drive control unit 71d updates the current position determination unit 71b based on the first and second “latitude / longitude coordinates” and the “look-ahead angle” data that the current position determination unit 71b updates and stores in the nonvolatile memory. The angle coordinates (γ, β, δ) of the “current position” are calculated with reference to the table, and the difference from the angle coordinates (γ, β, δ) of the “target position” is obtained. The chance ball 7 is rotationally driven to the “target position” by repeated feedback control of rotationally driving the chance ball 7. Accordingly, even if the chance ball 7 is not precisely rotated by the amount driven by the stepping motor 15 due to occasional sliding of the driving wheel 16, it is accurately rotated to the “target position” by feedback control.
At this time, the stepping motor 15C is used for controlling the vertical movement amount, the stepping motor 15E is used for controlling the horizontal movement amount, and the stepping motor 15D is used for controlling the rotation angle.

This drive control is performed by the following steps, for example. (1) First, the stepping motor 15C and the stepping motor 15C are arranged so that the first “longitude / latitude coordinate” corresponding to the angular coordinates (α, β, γ) corresponding to the “target position” is located at the center of the field of view of the light receiving unit 23a. The stepping motor 15E is driven alternately to perform vertical direction drive control and horizontal direction drive control. (2) Next, when the control of the first “longitude / latitude coordinate” of the target is completed, the “accrual angle” formed by the first and second “longitude / latitude coordinates” acquired from the current position determination unit 71b The difference γ between the angle γ of the angle coordinates (α, β, γ) based on the “γ” and the angle γ of the angle coordinates (α, β, γ) of the “target position” is obtained. (3) After that, the stepping motor 15D is driven to control to rotate by the difference γ so that the rotation angle γ of the target angular coordinate is obtained. This completes the control to the “target position”.
Thus, the control of the rotation angle γ is simpler than that of the first embodiment.

(Learning correction part)
Next, the difference from the first embodiment in the position correction function of the learning correction unit 71e will be described. The correction method is essentially the same as in the first embodiment, and the stepping motor 15A is read as a stepping motor 15C, and the stepping motor 15B is read as a stepping motor 15E. However, steps S60 and S62 in the flowcharts of FIGS. 12 to 14 are deleted, and steps S61 and S63 are replaced as follows.
In the case of left ascending, in step S61, the learning correction unit 71e turns the stepping motor 15D in the drive control unit 71d by an amount corresponding to the inclination detected in step S58, and the counterclockwise direction when the chance ball 7 is viewed from the light receiving unit 23a. To drive. Thereafter, the process proceeds to step S64.
In the case of upper right, in step S63, the learning correction unit 71e causes the drive control unit 71d to drive the stepping motor 15D so that the chance ball 7 rotates clockwise as viewed from the light receiving unit 23a. Thereafter, the process proceeds to step S64.

According to the present embodiment, as in the first embodiment, the stepping motor 15C and the stepping motor 15D are disposed so as to be rotatable in the vertical direction at positions separated by 90 ° along the outer peripheral surface of the chance ball 7. Further, since the stepping motor 15E is disposed so as to be rotatable in the horizontal direction, the chance ball 7 is driven in an arbitrary direction according to the light receiving unit 23a and the driving amounts of the three stepping motors 15C, 15D, and 15E. The display pattern and display color displayed at an arbitrary position on the outer peripheral surface can be presented to the player through the window 5c.
For example, the display pattern or display color of the chance ball 7 displayed to the player from the window 5c is changed according to the winning combination control signal output from the sub-control board 203 of the throttle machine 101 according to the winning combination. The chance button 1 can be used as a means of effect for the player.
Further, for example, the chance button 1 can be provided with a timer function indicating the remaining duration of the bonus state.

  Also, the player operates various operation buttons and operation levers for gaming machines installed on the operation panel unit 120, and according to the winning combination displayed by the chance ball 7 on the same operation panel unit 120. Since the remaining time of the privilege can be recognized, the player can easily operate the above-described various operation buttons and operation levers for the gaming machine without greatly shifting the viewpoint. That is, the operability of the gaming machine is enhanced.

In addition, according to the present embodiment, since the “current position” of the outer peripheral surface of the chance ball 7 is determined using the peripheral surface movement detection unit 55, for example, a three-axis gyro used for an aircraft, a spacecraft, or the like. Even if an expensive mechanism such as a gimbal mechanism and an angular velocity detection sensor is not used, the sensor can be configured at a low cost.
Furthermore, since the transparent cover 9 is spaced apart from the chance ball 7 and covers the window 5c, it is possible to prevent the player from intentionally obstructing the rotation of the chance ball 7 or conversely driving the chance ball 7 to rotate. it can.

<< Third Embodiment >>
Next, a chance button according to a third embodiment of the present invention will be described with reference to FIG. FIG. 18 is a schematic cross-sectional view showing the overall configuration of the chance button in the present embodiment.
The chance button 1B in this embodiment is located in the modification of the first embodiment or the second embodiment, and the assembly case 2 in the first embodiment or the second embodiment is changed to the assembly case 2B. The difference is that the pressure-sensitive conductive rubber 10 arranged at the edge 9 a of the cover 9 is a pressure-sensitive conductive rubber (detection sensor) 10 B arranged at the bottom 4. The same components as those in the first embodiment or the second embodiment are denoted by the same reference numerals, and redundant description is omitted.

The body portion of the assembly case 2B is divided into a square cylinder inner cylinder 3C like the square cylinder outer cylinder 3B, and the inner cylinder 3C is slidable within the bottomed outer cylinder 3B. The inner cylinder 3C has a lid 5B connected and fixed at the upper end, and the outer periphery of the frame base 6b connected and fixed at the lower end. The frame base 6b is supported from the bottom 4 on the lower surface side by a plurality of support springs 8B.
Then, instead of the pressure-sensitive conductive rubber 10 in the first and second embodiments, a pressure-sensitive conductive rubber 10B is disposed immediately below the chance ball 7 on the bottom 4. The pressure-sensitive conductive rubber 10 </ b> B has an annular shape with a hole in the substantially center, and light emitted from the LED 18 enters the incident window 31 </ b> A of the chance ball 7 through the hole. The light receiving element 19 is also disposed below the hole provided in the approximate center of the pressure-sensitive conductive rubber 10B.

The difference between the lid 5B in the present embodiment and the first or second embodiment is that the lid 5 in the first or second embodiment holds the cover 9 movably up and down, The part 5B is that the cover 9 is simply fixed and held.
Thus, even if the pressure-sensitive conductive rubber 10B is moved from the lid portion to the bottom portion, the function of the pressure-sensitive conductive rubber as a switch is the same as in the case of the first or second embodiment.
With this configuration, for example, when the player presses the cover 9 when the throttle machine 101 (see FIG. 1) is in a bonus state and the chance ball 7 of the chance button 1B displays a bonus, The chance ball 7 is pressed downward together with the cylinder 3C, and the chance ball 7 presses the pressure-sensitive conductive rubber 10B to turn on the pressure-sensitive conductive rubber 10B.

  In the first to third embodiments, the latitude / longitude coordinate network is formed on the chance ball 7 with a virtual predetermined triangle. However, the present invention is not limited to this. Other methods for recognizing the angle coordinates (α, β, γ) of the chance ball 7 may be used. For example, a character (pen trajectory) is transferred to a computer by writing the character with a pen on a paper with a predetermined dot pattern using a pen (writing metal pen) with a CMOS (Complementary Metal Oxide Semiconductor) camera and a microprocessor. Anoto® pens that can be incorporated are known, but this pen technology can be applied to the present application.

That is, a predetermined dot pattern is attached to the surface of the chance ball 7, the dot pattern and the position of the chance ball 7 are associated and managed, and the dot pattern on the surface of the chance ball 7 is fixed to the assembly case 2. By photographing with the COMOS camera, it is possible to know which position of the chance ball 7 is photographed, and thereby the position of the chance ball 7 can be managed.
The Anoto (registered trademark) pen manages the position of a vast area comparable to the size of the Eurasian continent in millimeters, but with this chance button 1, only the surface of the chance ball 7 is Eurasia. Compared to the size of the continent, it is only necessary to manage the location of an extremely small area, so a small scale in hardware and software is sufficient.
In this case, since the absolute position can be determined on the microprocessor side that processes the Anoto function, the function for learning and correcting the current position becomes unnecessary.

  In the first to third embodiments, the chance buttons 1, 1 </ b> A, and 1 </ b> B have been described using the slot machine 101 as an example, but the present invention can also be applied to gaming machines other than the slot machine.

It is a front view showing the appearance structure of the slot machine to which the chance button according to the first embodiment is applied. FIG. 2 is a view showing the internal structure of the slot machine with the front door of the slot machine shown in FIG. 1 opened. (A) is the cross-sectional schematic diagram which shows the whole structure of a chance button, (b) is the A section enlarged view in (a), (c) is the B section enlarged view in (a). It is a perspective view explaining a holding structure and a driving method of a chance ball constituting a chance button. It is a perspective view explaining the attachment method of the stepping motor which drives a chance ball | bowl. It is a schematic diagram of a circumferential surface movement amount detection unit for detecting the movement amount and movement direction of the outer circumferential surface of the chance ball. It is a functional block diagram of chance button control ECU. It is a flowchart which shows the flow of control of a chance button when there is a winning combination in the chance button control ECU. It is a figure explaining the light emission method for the production | presentation by the chance ball | bowl with respect to the reference zone set to the chance ball | bowl, and the winning combination. It is a figure explaining the example which displays the remaining time of a bonus state with a chance ball | bowl when a bonus is materialized. It is a figure explaining the example which displays to the player by the movement of a chance ball | bowl that the state is continuing when a bonus is formed. It is a flowchart which shows the flow of control of the position correction at the time of starting in a learning correction | amendment part. It is a flowchart which shows the flow of control of the position correction at the time of starting in a learning correction | amendment part. It is a flowchart which shows the flow of control of the position correction at the time of the bonus display in a learning correction | amendment part. It is a perspective view explaining the holding structure and drive method of a chance ball which comprises the chance button which concerns on 2nd Embodiment. It is a perspective view explaining the attachment method of the stepping motor which drives a chance ball | bowl. It is a functional block diagram of chance button control ECU which controls a chance button. It is a cross-sectional schematic diagram which shows the whole structure of the chance button in 3rd Embodiment.

Explanation of symbols

1,1A, 1B Chance button (control for production)
2, 2B assembly case 3 trunk 3B outer cylinder 3C inner cylinder 4 bottom 5, 5B lid (holding structure member)
5a, 6d Holding part 5b, 6e Bottom part 5c Window 6 Frame (holding structure member)
6a Frame body 6b Frame base 6c Support ring 6f Motor base 6g Sensor substrate base 6h Opening 7, 7A, 7B, 7C Chance ball (ball)
8 Spring 8B Support spring 9 Cover (cover member)
9a Edge 10, 10B Pressure sensitive conductive rubber (detection sensor)
11 Ball 12A, 12B Ball bearing (holding means)
15A, 15B, 15C, 15D, 15E Stepping motor (motor)
15a Motor rotating shaft 16 Driving wheel 17 Sensor board 17a Opening 21 LD
22 Light guide member 23 Light receiving circuit 23a Light receiving portion 24 Judgment circuit 31A, 31B, 31C Incident window 32A, 32B, 32C Emission window 35, 35a, 35b, 35c Reference band (reference display means)
36 Reference point (reference display means)
50A, 50B, 50C, 50D, 50E Drive mechanism 51, 51A Spring 52 Fixed member 53 Bearing 54A, 54B, 54C Actuator 55 Peripheral surface movement amount detection unit (peripheral surface movement amount detection means)
70 Chance button control ECU
71 control unit 71a accessory control signal determination unit (drive control means)
71b Current position determination unit 71c LED control unit 71d Drive control unit (drive control means)
71e Learning correction unit 73 LED drive circuit 75A, 75B, 75C, 75D, 75E Motor drive circuit 76A, 76B, 76C Actuator drive circuit 101 Slot machine (game machine)
120 Operation Panel 201 Main Control Board (Game Control Board)
203 Sub-control board (game control board)

Claims (6)

A spherical ball,
A drive mechanism for rotating the ball in a freely rotating direction;
Holding means for rotatably holding the ball;
A holding structure member having a window capable of displaying a part of the outer peripheral surface of the ball to the player, and the drive mechanism and the holding means are fixed;
A transparent cover member that is spaced from the ball and covers the window;
A detection sensor for detecting when the cover member is pressed;
A directing operation element characterized by comprising: The drive mechanism is two motors that are disposed at a predetermined distance along the outer peripheral surface of the ball and that drive the ball in a direction perpendicular to each other on the outer peripheral surface;
2. The production operation element according to claim 1, wherein a target display is displayed to the player from the window by appropriately driving the two motors. The director for the production is installed in the gaming machine,
3. The production operation element according to claim 1, wherein a display pattern or a display color of the ball displayed on the player from the window is changed according to a winning combination in the gaming machine.   4. The production operator according to claim 3, wherein a remaining duration time of a privilege corresponding to the winning combination is displayed to a player from the window. The director for the production is installed in the gaming machine,
Furthermore, a peripheral surface movement amount detection means for detecting a movement amount and a movement direction of the outer peripheral surface of the ball,
Reference display means set on the outer peripheral surface;
Based on a movement amount detection signal from the reference display means and the peripheral surface movement amount detection means, a current position on the outer peripheral surface is determined, and an accessory control signal from the game control board of the gaming machine and the current position are determined. Based on the drive control means for controlling the player to display a target display from the window,
The production operator according to claim 2, further comprising:   6. A gaming machine, wherein the effecting operation element according to any one of claims 1 to 5 is installed in an operation panel unit operated by a player, and the effecting effect is produced by the operation element. .

Images