JP6066962B2 - Revolving machine - Google Patents

Description

  The present invention relates to a gaming operation control process related to a swivel type gaming machine.

  In general, in a spinning-type gaming machine, a player performs a lottery (internal lottery) for a combination in response to the start operation of the start lever, and rotates a plurality of spinning cylinders with various symbols to play a game. Start, and when the stop button is stopped by the player, the spinning cylinder is stopped and the combination of symbols corresponding to the internal lottery is derived and displayed as a game result, and a winning is generated according to the game result. Let the game finish.

  In this type of spinning machine, a freezing lottery is performed based on the lottery result of the internal lottery, and when this is won, in each winning game, for example, each turn of the spinning device due to the start lever operation. An impactful effect (freeze effect) that keeps the trunk in a non-rotating state for a certain period of time is generated, and predetermined game information (for example, internal lottery result information) is notified to the player using the freeze effect. Is known (for example, see Patent Document 1 below).

JP 2010-104402 A

  In the above-mentioned conventional swivel type gaming machine, the mainstream is to generate a freeze until the game result is derived and displayed, and there is a concern about the monotonization of the freeze effect. Therefore, development of a gaming machine capable of generating a new freeze effect is eagerly desired.

  In view of the above, an object of the present invention is to provide a swivel type gaming machine capable of generating a novel freeze effect.

  The above object of the present invention is achieved by the following means. The parentheses indicate corresponding elements in the embodiment, but the present invention is not limited to this.

(1) a game result display means (rotor apparatus 210) having a plurality of spinning cylinders on which a plurality of types of symbols are displayed, and for deriving and displaying a gaming result by a combination of symbols at the time of stopping each spinning cylinder;
Starting means (rotating cylinder rotation starting lever 11 (rotating cylinder rotation starting switch 11a)) for rotating each rotating cylinder under predetermined game start conditions;
In response to the starting operation of the starting means, a lottery for a plurality of types of winning combinations is performed, and a winning lottery means (FIG. 11 (internal lottery processing of S16), a winning lottery table of FIG. 5) for determining a winning combination;
A plurality of stopping means (rotating cylinder rotation stop buttons 12a, 12b, 12c (rotating cylinder rotation stop switches 12a ′, 12b ′, 12c ′)),
In response to the stop operation of the stop means, stop control means for controlling the stop of the spinning cylinder so that the combination of symbols corresponding to the winning combination can be derived and displayed as the game result (rotation stopping process (S19 in FIG. 8, FIG. 11))
Game medium payout means (hopper unit 500 (main body 17)) for executing payout of game media;
A payout amount determining means (winning determination process ((S20 in FIG. 8; FIG. 12))) for determining a payout amount of the game medium based on the game result;
A payout control means (medal payout number monitoring process (S21 in FIG. 8, FIG. 13)) for controlling the payout operation of the game medium payout means based on the determination result by the payout number determining means;
Game medium detection means for detecting the game medium paid out by the game medium payout means (payout detection sensor 520);
In the rotary type gaming machine with
The payout control means includes
A payout counting means (payout sensor check process (FIG. 14), payout medal count process (FIG. 15)) for counting the number of payouts of the game medium based on the detection result by the payout game medium detection means;
Based on the counting result of the payout counting means, the payout number end judging means (medal payout number monitoring process (S409 in FIG. 13), which determines whether or not the payout of the payout number determined by the payout number determining means is finished). S415), the remaining number payout control process (S557, S562 in FIG. 21)),
When it is determined that the payout has been completed by the payout number end determination means, a payout end control means (medal payout number monitoring process (S410 to S413 in FIG. 13) for ending the payout operation of the game medium payout means, remaining number payout Control processing (S558 to S559, S564 in FIG. 21)),
Based on a predetermined execution condition, before ending the payout operation by the game medium payout means, the payout operation is interrupted at least once for a predetermined delay time, and then the payout operation delay control means (payout) is resumed. A pre-freeze payout control process (FIG. 18) and a remaining number payout control process (FIG. 21)),
This is a spinning machine.

(2) When the payout operation is interrupted by the payout operation delay control means, a suspended effect execution control means (process during payout freeze (FIG. 20), effect control unit capable of executing a specific effect during the interruption. 410, FIG. 31A, FIG.
The above described spinning machine according to (1) above.

(3) payout operation monitoring means for monitoring whether or not the payout operation related to the game medium payout means is normal;
A payout error execution means (payout sensor check process (FIG. 15)) for executing a predetermined error process when the payout operation monitoring means determines that the payout operation related to the game medium payout means is not normal;
During error processing by the payout error execution means, error notification means for notifying that the error has occurred in a predetermined error notification mode (payout sensor check processing (S460 in FIG. 15, hopper error processing in S465 (S487 in FIG. 16)) ), The production control unit 410 and the like,
The interruption production execution control means,
As the specific performance, a notification mode that is at least partially in common with the error notification mode is configured to be executable (processing during payout freeze (FIG. 20), production control unit 410, FIG. 31A),
The above described spinning machine according to (1) or (2), wherein

  According to the present invention, the degree of freedom of the freezing effect is increased, and the gaming interest of the player can be improved.

It is a perspective view of the front side which shows the external appearance of the spinning cylinder type game machine which concerns on one Embodiment of this invention. It is the figure which showed the positional relationship of the medal acceptance channel | path, the medal payout apparatus, and the medal return channel | path of the spinning reel type game machine which concerns on one Embodiment of this invention. It is a figure which shows the symbol arrangement | sequence band of the rotary type game machine which concerns on one Embodiment of this invention. It is a control block diagram which shows the outline | summary of the control apparatus of the rotary type game machine which concerns on one Embodiment of this invention. It is a block diagram which shows the outline | summary of the circuit structure of the main control board and effect control board which are shown in FIG. It is a figure with which it uses for description of the structure (Lottery object part, winning combination, dividend) provided in the rotary type game machine which concerns on one Embodiment of this invention. It is a figure which shows the role lottery table of the rotary type game machine which concerns on one Embodiment of this invention. It is a figure which shows an example of the winning line of the rotary type game machine which concerns on one Embodiment of this invention. It is explanatory drawing with which it uses for description of the combination of the symbol established on an effective pay line and a pseudo pay line. It is a flowchart which shows the main control side main process which the main control part side performs according to a game operation control program. It is a flowchart which shows the rotation effect lottery process in FIG. It is a flowchart which shows the rotation rotation start setting process in FIG. It is a flowchart which shows the rotating cylinder stop process in FIG. It is a flowchart which shows the winning determination process in FIG. It is a flowchart which shows the medal payout number monitoring process in FIG. It is a flowchart which shows the payout medal count process in FIG. It is a flowchart which shows the payout sensor check process in FIG. It is a flowchart which shows the hopper error management process in FIG. It is a flowchart which shows the payout freeze control process in FIG. It is a flowchart which shows the payout control process before the payout freeze in FIG. It is a flowchart which shows the payout prepaid medal count process in FIG. It is a flowchart which shows the process during payout freeze in FIG. It is a flowchart which shows the remaining number payout control process in FIG. It is a flowchart which shows the main control side timer interruption process which the main control part side performs according to a game operation control program. It is a flowchart which shows the production control side main process which the production control part side performs according to a game operation control program. It is a flowchart which shows the command reception interruption process which the presentation control part side performs. It is a flowchart which shows the production control side timer interruption process which the production control part side performs. It is a flowchart which shows. It is a flowchart which shows the outline | summary of the effect process corresponding to each effect control part side game state in the received command analysis process in FIG. It is a flowchart which shows the effect process which concerns on a specific effect control command in the received command analysis process in FIG. It is a state transition diagram which shows the outline | summary of the transition state between the game states of the rotary type game machine which concerns on one Embodiment of this invention. It is a figure which shows the freeze production lottery table which concerns on one Embodiment of this invention. It is a figure which shows the AT lottery table which concerns on one Embodiment of this invention. It is explanatory drawing with which it uses for description of the payout freeze production (pseudo-HE production). It is explanatory drawing with which it uses for description of payout freeze production (production during normal payout freeze). It is a figure which shows the freeze generation | occurrence | production opportunity paid-out number lottery table which concerns on one Embodiment of this invention.

  Hereinafter, a preferred embodiment of a gaming machine according to the present invention will be described in detail with reference to the drawings.

<Mechanical configuration: FIGS. 1A to 1B>
As a gaming machine according to an embodiment of the present invention, a rotary gaming machine will be described as an example. FIG. 1A is a perspective view showing an external appearance of a swivel game machine according to the present embodiment, and FIG. 1B shows a medal receiving passage, a medal payout device, and a medal return passage of the swivel game machine according to the present embodiment. It is the figure which showed the positional relationship.

  As shown in FIG. 1A, the spinning cylinder type gaming machine according to the present embodiment includes a gaming machine housing 1 for storing various gaming parts used for gaming, and a front side of the gaming machine housing 1. And a front door 2 attached to be freely opened and closed.

  The front door 2 is provided with a first display window 3 substantially in the center and a second display window 4 on the upper side thereof.

  The first display window 3 on the lower side is a rotator visual recognition unit, and the rotator 5a, 5b, and 5c (hereinafter referred to as “the rotator 5a” is arranged on the side of the rotator device 210 and three in a row. The left cylinder 5a ”, the cylinder 5b are referred to as“ middle cylinder 5b ”, and the cylinder 5c is referred to as“ right cylinder 5c ”). It is provided as follows.

  In the present embodiment, about 3 symbols (about 9 in total) can be visually recognized through the rotating cylinder visual recognition unit 3. In each of the spinning cylinders 5a, 5b, and 5c, there is formed a pattern irradiation backlight LED (backlight means: not shown) that irradiates each symbol displayed on the spinning cylinder visual recognition unit 3 from the inside of the spinning cylinder. . This design illumination backlight LED functions not only to make it easy for the player to visually recognize each symbol displayed on the rotating cylinder visual recognition unit 3, but also as an effect means for producing an effect related to the game. Depending on the type of color and lighting mode (flashing, lighting, extinguishing, etc.), light effects such as decorations of light (for example, winning combination information, gaming state information, combination of symbols as winning results (winning combination information), etc.) (Notify by the light emission mode of the backlight LED).

<Pattern Arrangement Band 200: FIG. 2>
FIG. 2 shows an example of the symbol arrangement band 200 included in each of the drums 5a, 5b, and 5c. The “1ST” symbol arrangement band shown in the figure corresponds to the left rotating cylinder 5a, the “2ND” symbol arrangement band corresponds to the middle rotating cylinder 5b, and the “3RD” symbol arrangement band corresponds to the right rotating cylinder 5c.

  In the symbol arrangement band 200, symbols (component element symbols) for configuring a symbol combination corresponding to a winning combination (winning winning combination) by an internal lottery regarding the winning combination are displayed. In the case of this embodiment, as the symbol type, red 7 (symbol 31), blue 7 (symbol 32), BAR (symbol 33), replay (symbol 34), bell (symbol 35), watermelon 1 (symbol 36), A plurality of kinds of symbols such as watermelon 2 (symbol 37), cherry 1 (symbol 38), cherry 2 (symbol 39), and blank symbol (symbol 40) are provided. These symbols are arranged in a total of 21 frames in the rotation direction of the rotating drum, and symbol numbers 0 to 20 are assigned along the symbol arrangement order.

  Each of the spinning cylinders 5a, 5b, and 5c is rotationally driven by the spinning cylinder drive motors 211a, 211b, and 211c (see FIG. 3), each of which is a pulse motor, whereby each symbol is displayed in a variable display and a stop display. Yes. Each spinning cylinder is not limited to a mechanical spinning cylinder that is rotated and stopped using an electric drive source such as a spinning cylinder drive motor, and is displayed on an image display device such as a liquid crystal display device 6 described later. It may be a dramatic rotator that is rotated or stopped on the image. Further, the number of rotating drums is not limited to three, and the number can be appropriately changed as long as the object of the present invention can be achieved.

  A winning line 3a is provided in the spinning cylinder visual recognition part 3. A single winning line is applied to the rotating cylinder visual recognition part 3 so as to cross this. The number and line form of the winning lines 3a are not particularly limited as long as the object of the present invention can be achieved. The configuration of the winning line 3a is appropriately changed depending on the relationship of the symbol arrangement configuration in the symbol arrangement band 200, the symbol type, the symbol combination corresponding to the winning combination, the rotation stop control mode (retraction control described later), and the like. be able to.

  The above winning line is treated as valid when a predetermined bet number (bet number) for a unit game (one game) is set. On the winning line (hereinafter referred to as “effective winning line”) that has been validated, the combination of the symbols that stop when each of the spinning cylinders 5a, 5b, and 5c is stopped becomes the symbol combination that corresponds to the winning combination. In this case, a game value corresponding to the combination of symbols is given to the player. For example, if a winning combination that allows a game medal to be paid out is won and the corresponding symbol combination stops on the effective winning line (the symbol combination is determined in advance as a combination necessary for acquiring game value). When the game is derived and displayed as a game result), the hopper unit 500 (medal paying device: see FIG. 3) in the gaming machine housing 1 is operated, and a predetermined number of game medals are paid out as a payout. This game medal is necessary when the player starts the game and can be said to have game value. The game value provided to such a player is not limited to the above-mentioned game medals, but refers to a game that has some game value, not limited to a player that acts in an advantageous manner, and acts adversely to a player. Something to do is also included. In addition, when there are a plurality of winning lines, the number of lines treated as valid can be changed according to the number of bets for a unit game (one game).

  Further, the second display window 4 provided on the upper side of the first display window 3 (rotor visual recognition part 3) is a liquid crystal screen visual recognition part, and a liquid crystal display as an image display device mounted on the back side of the front door 2 is provided. Corresponding to the display screen (liquid crystal screen) 6a of the device 6 (LCD unit), for example, it is formed in a rectangular shape that is slightly smaller than the swivel viewing portion 3. The liquid crystal screen 6a is provided so as to be visible from the player side facing the liquid crystal screen visual recognition unit 4. On the liquid crystal display device 6 (liquid crystal screen 6a), an effect related to the game is displayed as an image.

  In addition, on both the left and right sides of the rotating cylinder visual recognition unit 3, there are provided light effect decoration parts (decoration lamps 13) that produce an effect related to the game by light decoration. The decorative lamp 13 incorporates a light emitting means (for example, an LED, an EL lamp, or an electrodeless lamp), and the light by the decoration of the light depends on the light emission mode (type of light emission color, light emission pattern (flashing, lighting, extinguishing), etc.). Demonstrate the production effect. This light effect decoration part is a translucent pattern that displays (prints) a pattern such as a character string or a character on the front side (player side) of the light emitting means by exposing the light emitting means and directly viewing the light emitting mode. It can be set as the decoration form which arrange | positions a sex material and displays the pattern staging.

  In addition, a medal insertion slot 7 for inserting a game medal as a game medium and a storage device (credit means: a game medal inserted into a gaming machine or a prize are obtained at a step below the rotating cylinder visual recognition unit 3. A function unit (main control unit 400 (see FIG. 3) that stores the game medals up to a predetermined upper limit number (maximum number of credits: for example, 50) and stores the number (credits) by an electromagnetic method. ) Bears the functional part))) within the credited range)) an upper limit value (maximum bet number: for example, for example) MAX bet button 8 capable of pseudo-injecting game medals at a time (up to 3 game medals), 1-bet button capable of additionally pseudo-injecting game medals up to the upper limit of the bet number according to the number of presses. 9, such as credit settlement button 10 for performing a credit settlement is provided. A MAX bet LED 84 (see FIG. 3) for notifying that the operation of the MAX bet button 8 is in an allowable state is built in the MAX bet button 8.

  Although not shown in the drawing, a “playing operation means (for example, a production button)” used when the player is configured to be operable and changes the production by the production means before and after the operation is a gaming machine. Is in place. Examples of the production operation means include a button type, a jog dial type, a touch sensor type using a non-contact type sensor, and a touch panel type using a liquid crystal display device. If it can be used to give some kind of change to the effect executed by the effect means (change the effect before and after the operation), there is no particular limitation.

  In addition, an operation panel unit 14 formed in a horizontally long shape is provided below the stepped portion of the rotating cylinder visual recognition unit 3. The operation panel unit 14 includes a return button 15 for returning medals filled in the medal insertion slot 7, a rotation rotation start lever 11 for starting rotation of the rotation cylinders 5a, 5b, and 5c, and each rotation cylinder 5a. Three rotating cylinder rotation stop buttons 12a, 12b, 12c (left rotating cylinder stop button 12a, intermediate rotating cylinder stop button 12b, right rotating cylinder stop button 12c) for individually stopping the rotation of 5b, 5c are provided. It has been. In the present specification, unless specifically required, these spinning cylinder rotation stop buttons 12a, 12b, and 12c are abbreviated as “rotating cylinder rotation stop buttons 12”.

  It should be noted that the MAX bet button 8, the 1 bet button 9, the credit settlement button 10, the spinning cylinder rotation start lever 11, the spinning cylinder rotation stop buttons 12a, 12b, and 12c, and the production operation means (production buttons (not shown). ) Includes a switch (production button switch (not shown), MAX bet switch 8a, 1 bet switch 9a, credit settlement switch 10a, and a switch for generating operation detection information (detection signal) when these are operated. A cylinder rotation start switch 11a and rotating cylinder rotation stop switches 12a ′, 12b ′, and 12c ′ (see FIG. 3) are provided.

  Below the operation panel unit 14 is provided a decorative panel unit 17 that is provided with colors, characters, and patterns for appealing the appeal of the gaming machine and for distinguishing it from other models. A horizontally long medal tray 18 that is mounted integrally with the front door 2 is provided below. On the main body side of the medal tray 18, the medal payment for discharging the game medals paid out from the hopper unit 500 (game medium payout means: see FIG. 3) and the returned game medals to the medal tray 18 side. The outlet 19 is open.

  Further, as shown in FIG. 1B, at the position corresponding to the medal insertion slot 7 on the back side of the front door 2, it is determined whether or not the medal inserted into the medal insertion slot 7 is regular, and the regular game medal is selected. A medal selector 43 that leads to the hopper tank 14 is disposed. The medal selector 43 is provided with a medal detection sensor 7a (see FIG. 3) for detecting the inserted game medal.

  When the game medals selected by the medal selector 43 are legitimate, the game medals pass through the main medal outlet 55 of the internal passage 52 of the medal selector 43 and pass through the medal receiving passage 61 formed of the slope rod 48 to the hopper tank 14. If it is a game medal other than that, it is guided to the medal payout exit 19 through the medal return passage 71 including the cancel shooter 44 and the medal return bar 45. That is, the medal selector 43 includes a medal receiving passage 61 side and a medal return passage 71 side for receiving the guide route (internal passage 52) of medals inserted from the medal insertion port 7 into the gaming machine (side of the hopper unit 500). A passage switching mechanism is provided by a blocker solenoid 7c (see FIG. 3) for switching to. Further, the lower part of the medal return basket 45 (common passage portion 73) also has a function of guiding the game medals paid out from the medal discharge port 57 of the hopper unit 500 to the medal tray 18. Here, an electromagnetic drive means using an electromagnetic solenoid is used as a drive source of the passage switching mechanism, but other electric drive means such as a piezoelectric element may be used.

  The hopper unit 500 includes a hopper tank (medal hopper) 14 for storing game medals inserted from the medal insertion slot 7 and game medals inserted from the outside by opening the front door 2, and a main body 17. In the main body 17, the hopper motor 510 shown in FIG. 3 and, although not shown, are rotationally driven by the hopper motor 510 and the game medals stored in the hopper tank 14 are rotated by a predetermined rotational operation. A medal discharge mechanism that captures and discharges (for example, a bullet-type discharge in which a captured game medal that is already installed in many game machines is ejected toward a medal discharge port 57 by using a spring bias) And a game medal discharged from the main body 17 (discharge disk) toward the medal discharge port 57. Medal payout sensor 520 (e.g., such as a photo interrupter) or the like are provided. The hopper unit 500 is provided with a payout control board (payout control means) 450 (see FIG. 3) for driving and controlling a hopper motor 510 formed of a DC motor.

  The hopper unit 500 pays out game medals stored in the hopper tank 14 one by one based on the rotation of the discharge disk. The paid game medals are discharged from the medal discharge port 57 to the medal tray 18 through the medal payout port 19. The paid out game medals are detected by the medal payout sensor 520, and the payout state of the game medals and the number of payouts can be monitored on the main control unit 400 (main control board) side based on the detection state. Yes.

  Speakers 16 are provided on both sides of the front door upper part and the front door lower part of the front door 2 to output music and sound effects and exhibit a sound effect related to the game. The number and formation positions of the speakers 16 are not particularly limited, and can be provided at appropriate positions in the gaming machine.

  In addition, a gaming panel 77 formed in a horizontally long shape is provided on the lower side of the rotating cylinder visual recognition unit 3. Inside the game panel 77, there are provided various display units (see FIG. 3) for notifying the player of the current game progress / game situation.

  Specifically, (A) “credit number display section (credit number display 86)” for displaying the number of credits, (B) “payout number display section for informing the number of game medals to be paid out according to the game result ( “Payout number display 87”, (C) “game start display section (game start) for notifying whether or not the operation of the rotation start lever 11 is valid (game start ready state (rotation start ready state))” (Display LED 81) ”, (D)“ Medal insertion display section (medal insertion display LED 82) ”for notifying whether or not the insertion of a game medal is acceptable, (E) The re-game is in operation (re-game) "Re-game operation display section (re-game operation LED 83)" for notifying whether or not, and (F) "insert number display section (insert number display LED 85) for displaying the number of game medals inserted (current bet number)" ) "Etc. Radical 113 is provided.

  These display units are display-controlled by the main control unit 400. For example, the credit number display unit and the payout number display unit can notify the present credit number information and the payout number information according to the game result by a 7-segment display. The game start display unit, medal insertion display unit, re-game operation display unit, inserted number display unit, and the like are configured according to the light emission mode of the built-in LED (off / lighting (flashing), emission color, etc.). It is configured to be able to notify the current game progress / game situation.

  Here, the production means in the present invention may be any means that can exhibit the production effect by stimulating the human senses such as vision, hearing, touch, etc., such as a decoration lamp 13 or LED, a backlight LED for design irradiation. Typical examples thereof include light generating means such as an effect display device, a sound generating device such as a speaker 16, a vibration generating device that transmits vibration to the player's body, or a wind pressure device that applies a wind pressure to the player's body. The effect display device means a display device that appeals to the eye like the image display device, but differs from the image display device in that it also includes a display device that does not depend on an image (for example, a display device with seven segments). The liquid crystal display device 6 is a typical example of an image display device. In the case of an image display device, the liquid crystal display device 6 refers to a type that expresses an effect mainly by image display, and expresses an effect by a display other than an image like a 7-segment display device. Things are included in the concept of the effect display device.

<Control device: FIGS. 3 to 4>
Next, with reference to FIG. 3, a control device for a spinning machine according to the present embodiment will be described. FIG. 3 is a control block diagram showing an outline of a configuration of a control device for performing game operation control. The same components as those in FIGS. 1A and 1B are denoted by the same reference numerals.

  The control device for a spinning-reel type gaming machine according to the present embodiment receives a main control board 400 (hereinafter referred to as “main control unit 400”) that controls overall game operation control, and an effect control command from the main control unit 400. , A production control unit 410 (production control unit) that controls the production operation control (production appearance control with respect to the production unit) and an external power source (not shown) to generate and supply power necessary for the gaming machine (not shown) It is mainly composed of a power supply board (power supply control means). The effect control unit 410 includes an effect control board 420 and a liquid crystal control board 460, and the liquid crystal display device 6 is connected to the liquid crystal control board 460. In FIG. 3, the power supply route is omitted.

  The main control unit 400 includes a medal detection sensor 7 a for detecting a game medal from the medal slot 7, a MAX bet switch 8 a for detecting an operation of the MAX bet button 8, and a 1 bet button via the game relay board 370. 1 bet switch 9a for detecting the operation of 9, a credit settlement switch 10a for detecting the operation of the credit settlement button 10, a rotating cylinder rotation starting switch 11a for detecting the operation of the rotating cylinder rotation starting lever 11, and the rotation of the rotating cylinder A stop switch board 360 on which the switches 12a ′, 12b ′, and 12c ′ are mounted is connected, and the main control unit 400 can receive detection signals from these. Further, a blocker solenoid 7c is connected to the main controller 400 via a game relay board 370, and an excitation signal for solenoid control can be transmitted to the blocker solenoid 7c.

  A game display board 390 is connected to the main controller 400 via a game relay board 370. On this game display board 390, a game start display LED 81, a medal insertion display LED 82, a re-game operation LED 83, a MAX bet LED 84 (a MAX bet button 8 built-in LED), and an inserted number display LED 85 are mounted. The unit 400 can transmit a light emission control signal for controlling these display units. Further, the game display board 390 is equipped with a credit number display 86 and a payout number display 87, and the main control unit 400 can transmit a light emission control signal for controlling these 7-segment displays.

  Although not shown in the drawings, the rotating cylinder rotation start lever 11, the rotating cylinder rotation stop buttons 12a, 12b, 12c, the 1-bet button 9, and / or the credit check button 10 are provided with LEDs therein. The player can be notified of the validity or invalidity of the lever operation or button operation by the light emission mode (for example, light emission color) of the LED.

  Further, the main control unit 400 is connected with the rotation drive motors 211a, 211b, and 211c for rotating the rotation cylinders 5a, 5b, and 5c of the rotation apparatus 210 via the rotation relay board 330. Reference numeral 400 can transmit a control signal for driving these rotating drum drive motors.

  In addition, the main control unit 400 includes a spinning cylinder position detection sensor (a sensor provided on each spinning cylinder for detecting the current rotation position of the spinning cylinder (current position from the base point) and rotation of the spinning cylinder) 212a, 212b, 212c is connected, and the main control unit 400 can receive detection signals from these rotation position detection sensors.

  Further, the hopper unit 500 and the full detection metal fitting 600 are connected to the main control unit 400 via a payout relay board 350. The full detection metal fitting 600 is a sensor for monitoring a full state of an auxiliary tank (not shown) for storing surplus game medals overflowing from the hopper unit 500, and the main control unit 400 uses the full detection metal fitting 600. Based on the detection signal from, it is monitored whether or not the gaming medals stored inside the gaming machine are full.

  Further, as described above, the hopper unit 500 is provided with the hopper motor 510, the medal payout sensor 520, the payout control board (payout control means) 450 for driving and controlling the hopper motor 510, and the like.

  The main control unit 400 can transmit a “payout control command” for designating the number of payouts to the payout control board (payout control unit) 450 when it is necessary to pay out game medals. Upon receiving this payout control command, the payout control board 450 drives the hopper motor 510 to pay out a specified number of game medals. The game medals that have been paid out are detected by a medal payout sensor 520, and the detection signal is input to the main control unit 400. Based on the detection signal from the medal payout sensor 520, the main control unit 400 manages the number of payouts and the game medal payout state.

  Further, an external concentrated terminal board 310 is connected to the main control unit 400, and predetermined game information is transmitted to the hall computer HC (computer that comprehensively manages pachinko hall gaming machines) via the external concentrated terminal board 310. (For example, the number of game medals inserted (IN number), the number of game medals paid out (OUT number), the occurrence of winnings, the occurrence of bonus games, etc.) can be transmitted.

  Further, the main controller 400 is connected to a rotating drum setting board 430 so that a detection signal from the rotating drum setting board 430 can be received.

  Although not shown in the drawing, the rotating setting board 430 is provided with a reset switch, a setting key switch, a setting switch, and the like, and a detection signal obtained by operating these can be transmitted to the main control unit 400. Yes.

  The reset switch is an error release switch for canceling a predetermined game operation error (for example, a full error due to a full game medal or an error related to payout of a game medal (such as a hopper error or a payout sensor error described later)).

  The setting key switch is a key switch for switching to a setting change mode (at the time of ON operation) by inserting a setting key possessed by a hall-related person at power-on and performing an ON / OFF operation. The setting switch is a setting value change switch for changing a “setting value” that causes a change in the payout rate (so-called machine discount, PAYOUT rate, or base value) step by step. The “set value” mainly refers to a lottery probability of a role by internal lottery (winning probability of a role: see FIG. 5) and / or an AT lottery probability described later (see an AT lottery table in FIG. 30) in stages (for example, 6 levels (settings 1-6), the higher the setting value, the higher the machine discount (the setting value 1 is the lowest machine setting, the setting value 6 is the highest machine ratio), and it works for the player It is supposed to be. This set value is changed based on the sales strategy of the hall (amusement store) exclusively by the hall clerk operating the setting switch.

  In order to change the setting value, when the setting key switch is turned ON (setting change mode transition side) in the power OFF state of the gaming machine and then the gaming machine is turned ON, the current setting value is changed to the appropriate position of the gaming machine. Is displayed on a “set value display (not shown)”, and the mode shifts to a setting change mode in which the set value (1 to 6 steps) can be changed. The process related to the setting change mode (setting mode change process) is executed during an initial setting process (step S11 in FIG. 8) described later. When the above setting switch is operated in the setting change mode, the current display value of the set value display is changed from 1 to 2 such as “1 → 2 → 3 → 4 → 5 → 6 → 1 → 2 →. It is switched to circulate in the range of 6. When the target rotation setting lever 11 is turned on when the target setting value is reached, the setting value is confirmed. This set value information is stored in a predetermined area (set value area) of the main RAM 401b (see FIG. 4) and managed by the main control unit 400. When the setting key switch is operated to the OFF state, the setting change mode is ended, and the state is shifted to a state where the game can be progressed.

  The main control unit 400 is connected to an effect control board 420 constituting the effect control unit 410 via the effect I / F board 340. The main role of the effect control board 420 is to control the appearance of effects to the effect means. Specifically, a command reception process related to the reception of the effect control command from the main control unit 400, an effect determination process related to the effect determination based on the received effect control command, and a liquid crystal control command related to the determined effect are given to the liquid crystal control board 460. For example, transmission processing to be transmitted to the speaker, sound control of the speaker 16, light emission control of the decorative lamps 13 and LEDs, and control processing related to operation control of a movable body accessory (not shown) provided at an appropriate position of the game machine. .

  A liquid crystal control board 460 is connected to the above-described effect control board 420 via an effect I / F board 340. The main role of the liquid crystal control board 460 is command reception processing related to reception of liquid crystal control commands from the effect control board 420, display control processing related to appearance control of image display effects of the liquid crystal display device 6 based on the liquid crystal control commands, and the like. is there.

  Next, with reference to FIG. 4, the circuit configuration and functions related to the main control unit (main control board) 400 and the effect control unit 410 will be specifically described. Here, description will be made while paying attention to the effect control board 420 connected to the main control unit 400 as the effect control unit 410.

  FIG. 4 is a block diagram schematically showing the circuit configuration of main control unit 400 and effect control board 420 shown in FIG. First, the circuit configuration of the main control unit 400 will be described.

<Main control unit (main control board) 400>
The main control unit 400 includes a microprocessor with a built-in main CPU 401c, and is mainly configured by a microcomputer 401 (in this embodiment, a Z80 system equivalent) having a main ROM 401a and a main RAM 401b. I / O port circuit 402 that inputs and outputs signals between peripheral boards, counter circuit 403, interface (I / F) circuits 404 to 406 that mediate exchange of signals with external peripheral boards connected to main control board 400, A motor drive circuit 407 and a switch input circuit 408 are included.

  The main CPU 401c is, for example, a CPU of Z80 (manufactured by Zylog or equivalent), and includes a plurality of types of registers for reading and writing data necessary for executing processing.

  The main ROM 401a functions as storage means (main control side storage means) for storing game data relating to game operation control, and describes stop data for stop control of the revolving cylinder in addition to a control program describing a game operation control procedure. “Stop table (not shown)”, “role lottery table (FIG. 5)” describing lottery data for internal lottery (role lottery), internal lottery result information (winning role information, internal winning flag (winning flag)) ) Is necessary for game operation control, such as a “winning flag setting table (not shown)” that describes data for setting), and a “freeze effect lottery table (FIG. 29)” that describes lottery data for freeze effect lottery described later. Various kinds of data are stored.

  The main RAM 401b functions as a work area and a buffer memory, and data generated when the main CPU 401c executes the gaming operation control program, for example, internal lottery random values used for internal lottery, internal lottery result information (winning results) Flag type, winning role type), game status information, freeze effect type information, game result information (stop symbol information), various game operation timers related to game operation control, bet number setting information (game medal inserted number), credits Data necessary for the progress of the game, such as number information and payout number information, is stored and used according to the processing state. The main RAM 401b functions as a random number counter used for a specific lottery, and can function as a random number generation unit that generates random numbers in software.

  In addition to the main ROM 401a, the main RAM 401b, and the main CPU 401c, the microcomputer 401 includes a CTC (Counter Timer Circuit) 401d, an interrupt function (a timer interrupt function that gives an interrupt signal to the main CPU 401c, and an interrupt prohibition). An interrupt controller circuit 401e that exhibits a function) is included.

  The CTC 401d is a circuit in which an 8-bit counter and a timer are integrated, and adds a periodic interrupt, a pulse output generation function (bit rate generator) having a constant period, and a time measurement function. Therefore, in this embodiment, a timer interrupt is applied to the main CPU 401c at a time interval of about 1.5 ms using the CTC 401d.

  The counter circuit 403 includes a random number generation circuit that generates a random number within a certain range in hardware, and a sampling circuit that samples a random number value at a predetermined timing from the random number generation circuit, and as a 16-bit counter as a whole. work. The main CPU 401c sends an instruction to the sampling circuit according to the processing state, thereby acquiring the numerical value indicated by the random number generation circuit as an internal lottery random value (random number size: 65536), and the random value is obtained. Used for internal lottery. The microcomputer 401 (main CPU 401c), when the turning rotation start lever 11 is operated under a predetermined game start condition (when the bet number as the game start condition is set), Based on the role lottery table (Fig. 5), which will be described later, it is determined by lottery (internal lottery) which role has been won or is not “losing”, and the lottery result information is terminated for a predetermined process. Until it is stored (set) in a predetermined area of the main RAM 401b. In principle, the lottery result information is cleared for each game.

(Role drawing table: Fig. 5)
FIG. 5 shows an outline of the role lottery table according to the present embodiment. In the present embodiment, a lottery table corresponding to a plurality of types of gaming states (RT0 game (initial mode), RT1 (normal game), bonus game, etc., which will be described later) is provided. These role lottery tables are provided with a role lottery table corresponding to each set value. Here, for example, a role lottery table corresponding to the setting value 6 is shown as a representative example, and other setting values are omitted to avoid duplication.

  As shown in the drawing, the above lottery table includes a lottery area (book value) having a winning area (determination value) corresponding to a role that is an object of the internal lottery (see the lottery target role: “winning role type” in the figure). The size of the lottery area in the embodiment is 65536), and the winning probability (determination value / lottery area (65536)) of each combination is defined thereby. In the figure, there are 15 types of internal lottery target roles (each role will be described later) including unfair winning (losing) as the target for the internal lottery. Is not particularly limited as long as the object of the present invention can be achieved. The main control unit 400 (main CPU 401c) refers to the above-described lottery table, and determines which of the winning combination is lost based on whether or not the internal lottery random number value belongs to which determination value. In the figure, the winning combination type corresponding to the winning number is written in the winning combination type. Further, the lottery probability related to the lottery target combination is determined so as to be more advantageous for the player as the set value increases.

  In the present embodiment, the winning probability of a specific lottery target type and a specific lottery target role varies depending on the gaming state. For example, in the lottery table used during the bonus game (see the “Bonus Game” column in the figure), the winning probability of AT1 to AT 4 described later is set higher than that of the normal game, and during the bonus game, The game state (special game state) is different from other game states in which any one of AT1 to AT4 wins the game almost every time. Also, the RT0 game and the normal game (RT1 game) described below have different replay role types (for example, winning numbers 13 to 15), and the RT1 game is more likely to have a replay role type than the RT0 game. The winning probability is high. Further, during the RT0 game, replays 2 to 3 (winning numbers 14 to 15) which are the lottery target roles in the RT1 game are excluded.

  Although details will be described later, the RT1 game is a game state in which the special role type CBB is in the internal winning state (hereinafter referred to as “BB internal winning game”), and the RT0 game is a game in which the CBB is not in the internal winning state. It is in a state (hereinafter referred to as “non-BB internal winning game”).

  Returning to the description of FIG. 4, the main control unit 400 outputs an “effect control command” as control information (command information) capable of specifying the processing state to be provided in the I / F circuit 404 with the effect control board 420. It is output via the circuit 404a. The effect control command is input to the effect control board 420 through the effect I / F board 340 and the input buffer circuit 340a for the main control board 400 provided therein. Such an effect control command from the main control unit 400 is transmitted to the effect control board 420 by one-way communication. That is, the production control unit 410 side functions only as an input in one-way communication. This is to prevent an illegal signal from an external goto action from being input to the main control unit 400 via the effect control unit 410.

  As the I / F circuit, an I / F circuit 404 with the effect control board 420, an I / F circuit 405 with the game relay board 370, and an I / F circuit 406 with other boards are provided. Signals from various switches and sensors arranged in the gaming machine main body are input to the switch input circuit 408 of the I / F circuit 405.

  The motor drive circuit 407 supplies drive pulse signals for controlling the rotating drum drive motors 211a, 211b, and 211c under the control of the microcomputer 401 (main CPU 401c), and controls the rotation of the rotating drums 5a, 5b, and 5c. Perform stop control.

  The rotation control of the spinning cylinder is performed on the condition that the operation of the spinning cylinder rotation start lever 11 is confirmed under the game start condition. Specifically, the microcomputer 401 has inserted a predetermined number of game medals (the number of games that can be started) based on detection signals from the medal detection sensor 7a, the MAX bet switch 8a, or the 1 bet switch 9a. Is confirmed, the acceptance of the operation detection signal input from the spinning cylinder rotation start switch 11a is validated (game startable state). Then, when the operation detection signal input from the rotating cylinder rotation start switch 11a is confirmed in the state where the game can be started, the rotating cylinder driving motors 211a, 211b, and 211c are driven and controlled via the motor driving circuit 407. The cylinders 5a, 5b, and 5c are started to rotate, and then each cylinder is rotated at a substantially constant speed. Thereby, the rotation operation | movement which rotates each rotation cylinder is implement | achieved.

  In the present embodiment, three game medals are the maximum bet number (MAX bet) for one game, and the prescribed number as the game start condition is also three game medals. However, the maximum bet number can be changed according to the gaming state. For example, the maximum bet can be 3 game medals during a normal game, and the maximum bet can be 2 game medals during a bonus game. The prescribed number may be one or two and is not particularly limited.

  The rotation stop control is performed on the condition that the operation of the rotation rotation stop button 12 has been confirmed while the rotation is rotating. Specifically, when the microcomputer 401 confirms the input of the operation detection signal from the spinning cylinder rotation stop switches 12a ′, 12b ′, and 12c ′, the microcomputer 401 detects the specific position (for example, the horizontal direction at the bottom of the spinning cylinder visualizing unit 3). The symbol number existing on the line (the position corresponding to the lower part in the frame) is obtained and is designated as a “stop operation symbol number”, and from the stop operation symbol number based on a predetermined stop table (not shown) Determine how many frames (the number of sliding frames) to move and stop the spinning cylinder, and stop the spinning cylinder at the target position. The microcomputer 401 monitors the amount of movement of the rotating drum from the current position based on the detection signals from the rotating drum position detection sensors 212a, 212b, and 212c, and monitors the specific position. I know the symbol number that exists. As a result, it is possible to grasp for each stop of the rotating cylinder which symbol number of the symbol has stopped on the effective pay line of each of the rotating cylinders 5a, 5b, 5c. Further, even before the turning cylinder actually stops, the stop symbol on the effective winning line can be grasped in advance based on the number of sliding symbols and the stop operation symbol number.

  In the above-mentioned “stop table”, stop data is determined in which the number of sliding frames corresponding to the stop operation symbol number is determined within the maximum number of drawn frames (for example, 4 frames). This stop table mainly includes a plurality of types of stop tables selected according to the internal lottery result. For example, a stop table for all cylinders that determines the number of sliding frames for all cylinders, or a stop table that determines the number of sliding frames for each cylinder (for example, a stop table for left cylinders, a stop for medium cylinder) Table, right turn cylinder stop table), and stop operation order stop table selected according to the stop operation procedure (at least one of the stop operation timing and the stop operation order (push order) of the rotary cylinder). For example, a stop table for stopping a combination of symbols corresponding to the lost or winning combination on the effective winning line is included. With such a stop table, a specific symbol (for example, a symbol that can constitute a combination of symbols corresponding to the winning combination (a component symbol of the winning combination)) is stopped on the effective winning line within the maximum number of winning frames. In other words, so-called “retraction control” is realized in which a specific symbol is not stopped on the effective winning line.

  This “pull-in control” is, as is conventionally known, when the winning combination is determined by internal lottery, the winning combination existing on the effective winning line at the timing when the rotation rotation stop button 12 is operated. Except for the component symbols (designs that can constitute a combination of symbols corresponding to the winning combination), within the range of the predetermined number of sliding frames (maximum number of draws (maximum 4 frames in this embodiment)) on the effective winning line This is a stop control mode in which the stop position of the rotating cylinder is controlled in such a manner that when the component symbol of the winning combination that can be stopped is present, the symbol is drawn on the effective winning line. Therefore, even if the component symbol of the winning combination does not exist on the effective winning line, the component symbol of the winning combination can be stopped on the effective winning line by drawing the maximum number of draws from the stop operation symbol number. Then, basically, the symbol is drawn on the effective winning line, and the stop position of the spinning cylinder is controlled so that the symbol corresponding to the winning combination is established on the effective winning line.

  Utilizing such pull-in control characteristics, the symbol combination corresponding to the winning combination can be configured by determining the symbol arrangement configuration in the symbol arrangement band of each cylinder and the number of sliding symbols according to the stop operation symbol number. Even if the symbol can be stopped on the effective winning line regardless of the stop operation procedure (at least one of the stop operation timing and the pressing order) (100% can be pulled in (100% pull-in rate)) Depending on the stop operation procedure, even if the maximum number of sliding frames is drawn, it is possible to make the stop impossible on the effective pay line (so-called “missing” can be generated). Thereby, for example, when a specific winning combination is missed, a specific stop symbol display mode (so-called missed eyes, reach eyes, chance eyes, etc.) can be derived as a game result.

  However, in the case of “unfairly elected”, that is, “losing”, which is not won for any combination due to internal lottery, the stop position of the spinning cylinder that does not stop the combination of symbols corresponding to any combination on the effective winning line Is to be decided. Therefore, in a game that is “losing”, the combination of symbols corresponding to any combination will not stop on the effective winning line regardless of the timing of stopping the spinning cylinder, and the game result will always be “losing”. Become.

  In the symbol arrangement band 200 (see FIG. 2) of this embodiment, one or more types of specific symbol types (for example, the replay symbol 34 and the bell symbol 35) in each cylinder are placed on a predetermined effective pay line. They are arranged so that the pull-in rate is 100%, and the pull-in rate is not necessarily 100% for other symbols. In addition, the pulling rate for a specific design differs between one spinning cylinder and another. As a result, with respect to a specific winning combination, it is possible to draw the corresponding symbol combination 100% regardless of the stop operation procedure, or to cause “missing” depending on the stop operation procedure. With respect to the symbol arrangement band 200, what symbol type should be determined and what pull-in rate should be changed as appropriate according to the combination of symbols corresponding to the winning combination, the symbol arrangement configuration in each round, the effective winning line, etc. Can do.

<Production control unit 410 (production control board 420)>
Next, the effect control board 420 of the effect control unit 410 will be described.

  The effect control board 420 includes a microprocessor with a built-in sub CPU 421c (effect control CPU) and a microcomputer 421 with a sub ROM 421a (effect control ROM) and a sub RAM 421b (effect control RAM). In addition, a CTC 421d having the same function as the CTC 401d, an interrupt controller circuit 421e for giving an interrupt signal to the sub CPU 421c, an I / O port circuit 422 for inputting / outputting signals to / from the effect I / F board 340, a counter circuit 423 etc. are comprised.

  In addition, the effect control board 420 is provided with the liquid crystal control board 460, the speaker 16, the decorative lamp 13, and the effect LED (for example, the design illumination backlight LED) via the effect I / F substrate 340. The board 380 and rendering means such as a movable body accessory (not shown) are connected, and these rendering means can be controlled. Further, the effect button (not shown) is connected to receive the operation detection signal.

  The sub-ROM 421a functions as storage means (effect control side storage means) for storing game data related to effect operation control, and various data necessary for effect operation control in addition to an effect control program in which an effect control procedure is described. Is stored. The sub RAM 421b functions as a work area and a buffer memory, and data generated when the sub CPU 421c executes the effect control program, for example, a random number for effect lottery and game state (effect state) information on the effect control unit side. For example, data necessary for the presentation of effects is stored and used according to the processing state. Further, the sub RAM 421b functions as a random number counter used for a specific lottery, and can function as a random number generating means for generating a random number in software.

  Similarly to the counter circuit 403, the counter circuit 423 includes a random number generation circuit and a sampling circuit. The sub CPU 421c obtains the numerical value indicated by the random number generation circuit as an effect random value by sending an instruction to the sampling circuit in accordance with the effect processing state (for example, the timing at which the effect control command is received). This effect random number value is mainly used for a lottery of a production pattern, a lottery concerning a “pseudo bonus” described later, and the like.

  Although not shown, the effect control board 420 receives an effect control command from the main control unit 400 and performs an effect process for light and sound. An optical display control unit for an optical display device including an LED is provided.

  The liquid crystal control board 460 includes a display control unit that controls display of the liquid crystal display device 6 based on the liquid crystal control command received from the effect control board 420. This display control unit stores a VDP (Video Display Processor) that controls overall video output processing such as image development processing and image drawing, and an image (image image data) in which VDP performs image development processing (effect image data). Character) ROM, VRAM (Video RAM) that temporarily stores image data developed by VDP, liquid crystal control CPU that outputs control data necessary for VDP to perform display control, and display control of liquid crystal control CPU It is mainly composed of a liquid crystal control ROM that stores a program describing an operation procedure and various data necessary for display control thereof, and a liquid crystal control RAM that functions as a work area and a buffer memory.

  As for the effect appearance control, the microcomputer 421 (sub CPU 421c) constructs an effect scenario (effect content) to appear in the current game, based on the effect control command sent from the main control unit 400. Then, based on this production scenario, a dedicated control signal (sound control signal, light control signal) is transmitted to the sound generation device or the optical display device at the timing when the sound effect or the light production is required. A liquid crystal control command is transmitted to the liquid crystal control board 460 at a timing at which an image displayed on the liquid crystal display device 6 needs to be reproduced. The above production scenario is a production in a broad sense that includes one or more types of production patterns. In the case of production scenarios consisting of multiple types of production patterns, each production pattern constitutes that production scenario. It plays a role as one element (part production). Thereby, the reproduction of the sound effect corresponding to the effect pattern, the lighting / flashing driving of the decoration lamp 13 and the LED, or the image display effect by the liquid crystal display device 6 is realized, and various effect patterns are sequentially arranged in time series. Or, a plurality of simultaneous developments will produce the intended performance. Such effects include various effects related to the game. For example, a role notification effect for informing the internal lottery result information (winning role type), a state notification effect for notifying the game state (for example, in the game state) Effect), a notice effect that informs the winning possibility (winning expectation degree) of the role, a privilege grant notification effect that informs that a privilege that favors the player has been granted, a combination of specific symbols, and the game result A representative example is an effect (assist notification effect) for notifying information regarding the stop operation procedure (push order and / or stop operation timing) of the spinning cylinder rotation stop button 12 for derivation display.

  In addition, the microcomputer 421 receives an effect control command including specific information (for example, winning combination information, information indicating that a specific symbol combination is stopped on the effective winning line) sent from the main control unit 400. Based on this, it is possible to control the transition between a plurality of types of effect states (for example, between non-AT games and AT games).

  Although not shown, the interrupt terminal INT of the effect control board 420 is connected to a strobe (INT) signal line that is output when the main control unit 400 transmits a command among the command transmission lines. The sub CPU 421c generates an interrupt based on the input of the strobe signal, executes a control program for command reception interrupt processing, and an effect control command is acquired in this interrupt processing. Unlike the main CPU 401c, the sub CPU 421c executes an interrupt process based on another interrupt (timer interrupt process executed periodically) when an interrupt is generated based on the input of the strobe signal. Even in the middle, the command reception interrupt process is performed by interrupting the process, and the command reception interrupt process is preferentially performed even if another interrupt occurs simultaneously.

  The effect control command defines a function by a 2-byte configuration consisting of a 1-byte length mode (MODE) and an event (EVENT) of 1-byte length. In order to distinguish MODE from EVENT, MODE Bit 7 is Bit 7 of ON and EVENT is set to OFF. When these pieces of information are transmitted as valid, a strobe signal is output corresponding to each of the mode (MODE) and the event (EVENT). That is, when there is a command to be transmitted, the main CPU 401c (main control CPU) sets and outputs mode (MODE) information for transmitting the command to the effect control unit 410 (effect control board 420). The first strobe signal is transmitted after a predetermined time has elapsed. Furthermore, event (EVENT) information is set and output after the elapse of a predetermined time from the transmission of the strobe signal, and the second time of the strobe signal is transmitted after the elapse of the predetermined time from this setting. The strobe signal is controlled to be in an active state by the main CPU 401c for a predetermined period during which the sub CPU 421c (production control CPU) can reliably receive a command. When transmitting the liquid crystal control command, the effect control board 420 generates an interrupt strobe signal, and sends a liquid crystal control command of 2 bytes length composed of a MODE signal and an EVENT signal to the liquid crystal control board 460 before and after. .

<Type of winning combination (winning role type), combination of symbols corresponding to the winning combination (combination of winning symbols: winning type), and dividend: FIG. 6>
Next, with reference to FIG. 6, the relationship between the winning combination type (winning combination type), the combination of symbols corresponding to the winning combination (winning combination type), and the payout (game value) will be described. . FIG. 6 illustrates a combination of symbols corresponding to the winning combination, the name of the combination, a stop operation procedure for establishing the combination of symbols, and a payout.

  Note that the symbols corresponding to the columns of “left turning cylinder”, “middle turning cylinder”, and “right turning cylinder” in FIG. 6 are established lines (effective winning lines or pseudo winning lines described later) in the rotating cylinders 5a, 5b, and 5c. ) Show the stop symbol above. In addition, regarding the notation of “left”, “middle”, and “right” in the “push order” column in the figure, “left” indicates that the stop operation target is the left cylinder 5a, “middle” indicates the middle cylinder 5b, and “right” indicates the right This means the rotating cylinder 5c. In addition, notations such as “forward press” and “middle right / left” in the same column indicate the stop operation order (push order) of the rotating cylinder that establishes a combination of symbols corresponding to the “winning role type” column in FIG. . For example, the expression “middle right left” means that the rotating cylinder is stopped in this order. Specifically, the first stopping operation is the middle rotating cylinder 5b, and the second stopping operation is the right rotating cylinder. 5c, the third stop operation is the meaning of the left cylinder 5a. The notation of “left” means the pushing order in which the first stop operation is the left turning cylinder 5a, and the notation of “middle” is the pushing order in which the first stopping operation is the middle turning cylinder 5b. “Right” means the pressing order in which the first stop operation is the right cylinder 5c. The notation “left / middle” in the same column means the pressing order in which the first stop operation is “left cylinder 5a” or “middle cylinder 5b”. Hereinafter, for convenience of explanation, the X-th stop operation is abbreviated as “X-th stop operation”, and “the X-th stop operation target” is referred to as “X-th stop operation rotor” as necessary. Abbreviated. However, the winning combination types shown in the figure include not only the pressing order but also a condition requiring further stop operation timing as a condition for establishing a combination of symbols corresponding to the winning combination.

  In the present embodiment, as shown in the figure, a plurality of types of lottery object combinations are provided. These lottery roles are broadly classified into those belonging to “special role types” and those belonging to “general role types”. Furthermore, “general role types” and those belonging to “small role type” and “replay ( Replay) It is roughly divided into those belonging to the role type '. The above-mentioned “special role type” is a role type that triggers the transition to “bonus game”, which will be described later, and the “small role type” is a role that involves “payout of game medals (including 0 payouts)” “Replay role type” is a role type with “replay” and is defined as a role having different performances.

  The above-mentioned “re-game” refers to the conditions for starting the next game without inserting game medals (game media) (including using the game medals for games by storage means or by operating other devices). Specifically, the same amount (the same number) as the amount of game media used in this game (the number of game medals inserted for setting the bet amount) is artificially given (automatically) The next game can be started. This re-game can be said to have game value in the same way as a game medal in that the player can play the next game without reducing the game medal. In addition to the above-mentioned re-games and game medals, such game value is given, for example, the right to execute a game state transition or a predetermined lottery related to the transition (for example, an AT lottery (FIG. 30 described later)). However, the game value is not limited to the one that acts on the player in a game, but can also include one that acts against the player.

  In the present embodiment, “CBB (winning number 16)” is provided as belonging to the special role type. Also, as belonging to the above-mentioned minor roles, “weak cherry (winning number 2)”, “strong cherry (winning number 3)”, “weak watermelon (winning number 4)”, “strong watermelon (winning number 5)”, “ CA bells 1-2 (winning numbers 6-7) and "AT1-4 (winning numbers 9-12)" are provided. Further, “CA bell 3 (winning number 3)” and “replays 1 to 3 (winning numbers 13 to 15)” are provided as belonging to the above replay role types.

  When any of the above-described lottery winning combinations is determined as a winning combination by internal lottery, the combination of symbols corresponding to the winning combination is allowed to be stopped and displayed on the effective winning line. More specifically, when a winning combination is determined by an internal lottery, an internal winning flag corresponding to the winning combination is established (the condition device corresponding to the winning combination is activated), and the internal winning flag corresponding to the established internal winning flag is satisfied. The combination of symbols is allowed to be stopped and displayed on the effective pay line. Then, when the combination of symbols corresponding to the winning combination stops on the effective winning line when each of the cylinders stops, it is determined that a combination corresponding to the combination of symbols is established, and the gaming value corresponding to the combination of the symbols is It is given to the player.

  In this specification, when a winning combination is determined by internal lottery, a combination of symbols derived and displayed as a game result (especially a combination of symbols allowed to be stopped on the effective winning line) is indicated as “winning combination. The combination of symbols handled as a winning combination is stopped (established) on the effective winning line may be referred to as “winning (regardless of whether or not game value is given)”. is there. In addition, when a so-called “missing” occurs, a specific stop display mode (missing eye) derived and displayed as a game result is also an aspect of a combination of symbols derived and displayed as a game result. Can also be treated as a winning combination.

<Composition>
Next, the winning combination will be described with reference to FIG.

  Here, first, in order to facilitate understanding of the present invention, a virtual winning line (hereinafter referred to as “pseudo winning line”) will be described.

(Pseudo winning line)
In the present embodiment, as described above, a plurality of types of lottery object combinations are provided. These winning lots are selected according to their winnings, and at least regardless of the order in which they are pushed, the winnings of the corresponding roles are allowed. “Unordered push order (for example, weak cherry, strong cherry, weak watermelon, strong watermelon, CA bell 1 described later) ~ 3, replay 1) "and" winning order regulation combination (for example, AT1-4, replay 2-3 described later) "that allow winnings of different combinations depending on at least the order of pressing are included. By the role, it is possible to enrich the game.

  When a lot of such lottery roles are provided and the range of game play is widened, a lot of effective pay lines are provided. For example, as shown in many conventional revolving game machines, as shown in FIG. As shown by the middle horizontal line and, further, the broken line in FIG. 7B, a total of four transversely and obliquely traversing the rotator visual recognition part 3 (when viewed from the front of the figure, the rotator visual recognition part 3 is on the right. A “right down line” that crosses diagonally in a diagonal direction, a “left down line” that crosses diagonally in a diagonal direction to the left, an upper horizontal line and a lower horizontal line that horizontally traverse the rotating cylinder visual recognition part 3 As in the so-called “5-line machine” with a total of 5 winning lines (for example, pachislot must-win guide editing part, pachislot large picture book “1964-2000”, Japan, Hakuyo Shobo Co., Ltd., (See 2007), with many effective pay lines In other words, due to the relationship between the pull-in control, the component component symbol type of the combination, and the symbol arrangement configuration in the symbol arrangement band 200 relating to the symbol, the combination of the combination in designing the gaming machine becomes complicated. The type of winning combination corresponding to this must be restricted, and the degree of freedom of gameability is hindered.

  Therefore, in the present embodiment, a “one-line machine” is used in which the number of winning lines is smaller than that in the prior art, for example, a single winning line such as an effective winning line shown in FIG. Here, when the number of winning lines is reduced as in the case of the “1 line machine”, in order to increase the number of types of winning combinations, on the effective winning line, at first glance, “disappearing” appears as “disappearing”. It may be necessary to stop and handle this as a winning combination.

  For this reason, in this embodiment, in order to make it easy for the player to recognize that a winning combination has been established, a virtual winning line simulating a conventional 5-line machine (FIG. 7B) apart from the effective winning line. (Hereinafter referred to as a “pseudo winning line”), and on this pseudo winning line, a combination of specific symbols that the player can easily recognize as winning is stopped, so that the winning combination It is possible to let the player know that a corresponding winning has occurred.

  This will be specifically described with reference to FIGS. 7A to 7B. FIG. 7B is a diagram exemplifying a combination of symbols that stops on the effective winning line and the pseudo winning line when AT4 is won. Although details will be described later, according to the order of pushing, AT4 has either “12-sheet AT combination” for obtaining 12 dividends or “1-AT combination” for obtaining one dividend with a lower game value. It belongs to the push order regulation combination such as winning.

  FIG. 7B (A) shows the combination of stop symbols at the time of all cylinder stops when the pressing order is “middle left and right”. FIG. 7B (B) shows all combinations when the other pressing order The combination of stop symbols when the torso is stopped is shown.

  Referring to FIG. 7B, when AT4 is won and the push order is “middle left and right”, “watermelon 1”-“blank”-“replay” is placed on the “middle horizontal line” which is the effective pay line. At first glance, the loose eye like a loss stops (refer to FIG. 7B (A)), and when it is in the other pushing order, it looks like "Replay"-"Bell"-"BAR" Thus, the loose eye like a loss stops (see FIG. 7B (B)). However, from the perspective of the pseudo-winning line, if the push order is “middle left and right”, as a combination of symbols that the player can easily recognize that he has won, the pseudo-winning line “lower horizontal line” "Bell"-"Bell"-"Bell" (bell alignment) is stopped, and this is derived and displayed as a combination of 12 symbols at the time of winning the AT role. If it is, “Bell”-“Bell”-“Cherry 2” (Bell spilled eyes) is stopped on the pseudo-winning line “Right Down Line”, and this is stopped when winning one AT role It is derived and displayed as a combination of symbols (see the column “Established Line” in AT4 in FIG. 6). What should not be confused here is a combination of symbols such as the above-mentioned “separation” that is allowed to stop on the effective winning line by winning AT4, which corresponds to the actual AT4. This is a point that is determined as a combination of symbols (winning combination (true winning combination)). Therefore, the combination of symbols that stops on the pseudo winning line is a virtual winning combination (virtual winning combination) that is derived and displayed as an alternative combination of symbols that stops on the effective winning line. .

  In this way, the combination of symbols such as a broken pattern is stopped on the effective winning line at first glance, but the special symbol combination is stopped on the pseudo winning line (the player can easily recognize the combination). This makes it easy for the player to grasp the occurrence of a prize. Further, even if a combination of symbols having the same performance at first glance is stopped on the pseudo pay line, the winning combination to be stopped on the actual effective pay line can be made different. In this way, by making good use of the roles of the pseudo winning line and the effective winning line, the variation of the role can be varied and the game contents can be enriched.

  Returning to FIG. 6 again, the composition of the winning combination (type of winning combination (winning combination type) and combination of symbols corresponding to the winning combination (winning combination type)) will be described. In the following, for convenience of explanation, the symbol combination column in FIG. 6 is on the active winning line (middle horizontal line) or the pseudo winning line (upper horizontal line, lower horizontal line, right downward line, left downward line). The combination of stop symbols (actual winning combination or virtual winning combination) will be described as a combination of symbols corresponding to the winning combination. Also, in the column of “Established Line” shown in the figure, for the convenience of explanation, a winning line that can stop the combination of symbols is shown.

(Small role: weak cherry, strong cherry, weak watermelon, strong watermelon)
With reference to FIG. 6, first, the weak cherries, strong cherries, weak watermelons, and strong watermelons of the winning numbers 2 to 4 belonging to the small role types will be described.

  As shown in FIG. 6, the combination of symbols allowed to win by winning each of weak cherry, strong cherry, weak watermelon and strong watermelon is “cherry” on the right down line (pseudo winning line) in the case of weak cherry winning. "1"-"Replay"-"Replay" (horn cherry), in the case of strong cherry winning, "Cherry 1"-"Replay"-"Watermelon 1 / Watermelon 2" (Medium Stage Cherry) on the middle horizontal line (effective winning line) ) In the case of weak watermelon winning, “Watermelon 1 / Watermelon 2”-“Watermelon 2”-“Watermelon 1” (equipped with middle watermelon) on the middle horizontal line; “Watermelon 1 / Watermelon 2” − “Watermelon 2” − “Watermelon 1” (an assortment of slanted watermelons) is on the top.

  When the above-mentioned weak cherry, strong cherry, weak watermelon, or a combination of symbols corresponding to strong watermelon wins, a predetermined number of game medals are paid out (see the payout column in FIG. 6). . However, in the present embodiment, a predetermined stop operation timing is required to win a prize because of the symbol arrangement configuration. Specifically, the combination of symbols corresponding to the winning combination is stopped on the corresponding established line only when the stop operation timing of the spinning cylinder is a predetermined operation timing. This is because the drawing ratio of the cherry 1 design in the left turn cylinder 5a and the watermelon 1 design and watermelon 2 design in each turn cylinder is arranged to be less than 100% (see FIG. 2). Of course, depending on the game characteristics, the combination of symbols corresponding to weak cherries, strong cherries, weak watermelons, or strong watermelons (winning combination) is used as the stop operation timing, depending on the symbol type, symbol arrangement, and winning combination. Regardless, the pull-in rate can be set to 100%.

  Note that the weak cherry, strong cherry, weak watermelon, and strong watermelon also act as an “AT transition lottery trigger” that triggers a lottery to transition to the AT game described later (as a trigger) (see FIG. 30).

  In addition, the above-mentioned weak cherry, strong cherry, weak watermelon, or strong watermelon is a role that allows the winning of the corresponding winning combination (at any time in the pressing order) regardless of the pressing order. In this regard, like AT1 to 4 and specific replay roles (replays 2 to 3) to be described later, the “push order regulation role” that can win different winning combinations depending on at least the order of pressing is determined. Make it different. Of course, a weak cherry, a strong cherry, a weak watermelon, or a strong watermelon can also be defined as the “push order regulating role”. For example, when a weak watermelon is won, the stop of the “middle stage watermelon assortment” is allowed only in a predetermined push order, and when the push order is other than the predetermined push order, other symbol combinations (for example, It can be configured to allow the stop of the stop eye (missing eye) to be zero.

  It should be noted that whether or not each of the spinning cylinders 5a, 5b, and 5c corresponds to the first to third stop spinning cylinders, that is, grasping of the pushing order is determined by “stop operation order monitoring means that the main control unit 400 plays a function part thereof Is monitored. This stop operation order monitoring means monitors the rotation state and the stop state of each of the rotating cylinders, and based on the rotating and rotating cylinders, the number of stop operation of the rotating cylinder targeted for the stop operation is Know if it exists (push order).

(Small role: CA Bell 1, CA Bell 2)
Next, “CA bells 1 to 2” of winning numbers 6 to 7 belonging to the small role type will be described.

  The CA bells 1 and 2 are also defined as “unordered pushing order” in the same manner as the above-described weak cherry, strong cherry, weak watermelon, or strong watermelon.

  As shown in FIG. 6, the combinations of symbols that are allowed to win by winning each of the CA bells 1 and 2 are “Bell” − “Bell” − “Bell” (middle bell alignment) on the middle horizontal line, respectively. ing.

  When a combination of symbols corresponding to the above-mentioned CA bell 1 or CA bell 2 wins, a predetermined number of game medals (for example, 12) are paid out as a payout. However, in the present embodiment, due to the symbol arrangement configuration, the stop operation timing is not required for winning, and the “middle bell set” according to the CA bells 1 and 2 is a winning combination with a pull-in rate of 100%. This is because the bell symbols are arranged so that the pull-in rate is 100% in each spinning cylinder (see FIG. 2). CA Bell 1 and CA Bell 2 also function as “AT transition lottery triggers”. CA Bell 1 or CA Bell 2 has a lower probability of winning than other small roles (see the column of judgment value in FIG. 5). As a privilege of “winning a role”, an AT lottery is favored (see FIG. 30).

(Small role: AT1-4)
Next, “AT1 to AT4” with winning numbers 9 to 11 will be described.

  The AT1 to AT4 are defined as “push order defining combinations” in which different combinations of symbols (winning combinations) can be stopped (winning) on the effective winning line according to at least the order of pressing. That is, a predetermined pressing order is assigned to a specific symbol combination to be stopped on the effective pay line. Specifically, the AT1 to AT4 are disadvantageous to the player when the winning combination (advantageous winning combination) that works favorably to the player in a predetermined pushing order is different from the winning combination. It is determined that a winning combination that can act (unfavorable winning combination) can be stopped (winning) on the effective winning line. Since AT1 to AT4 are substantially the same except for the difference in pushing order regarding advantageous winning combination or unfavorable winning combination, “AT1” is represented below in order to avoid duplication. I will explain it.

(About AT1)
As shown in FIG. 6, the combinations of symbols that are allowed to win by winning AT1 are: (1) a combination of symbols “bell”-“bell”-“bell” on the middle horizontal line (effective winning line) ( (2) A combination of symbols of “Bell”-“Bell”-“Watermelon 1” (Bell spilled eyes: 1 AT role) on the right down line. It is a combination. That is, when AT1 is determined as a winning combination, the above-mentioned 12 AT combination and 1 AT combination are placed in a winning-permitted state.

  In detail, AT1 will be able to win a combination that allows a combination of winning bells and a combination that allows winning of a bell spill, that is, a combination of multiple types in one internal lottery. It can be said that it has the property of “duplicate role” that can be won simultaneously. In this embodiment, like this “duplicate role”, there is provided a lottery target role in which a winning combination and a stop symbol pattern (winning combination) allowed by the winning combination are associated with 1 to N, and one winning combination is provided. On the other hand, the game contents are enriched by providing a plurality of types of stop symbols to make this effective. In addition to AT1-4, there are specific replay role types (for example, replays 2 to 3), which will be described later, as those having such a duplicate role.

  The “bell set” is a winning combination with a relatively higher game value than the “bell spill”. Specifically, for example, when the bell set wins, 12 game medals (first predetermined number (first game value)) are paid out, and when the bell spilled wins, more than that A small number of game medals (second predetermined number (second game value)) is paid out. This is because the winning combination (advantageous winning combination) that acts favorably on the player or the winning combination (unfavorable winning combination) that acts adversely on the player is derived and displayed as a game result, according to AT1 in accordance with at least the pressing order. It means to go.

  Note that, for AT2 to AT4, the same event pull-in control as AT1 is performed. With respect to AT2 to AT4, winning combinations corresponding to the above “bell alignment” are as follows: AT2 has a bell alignment on the upper line, AT3 has a bell alignment on the middle horizontal line (effective winning line), and AT4 has a bell alignment on the lower line. The winning combination corresponding to the above “bell spill” is AT2 for the bell spill on the lower right line, AT3 for the bell spill on the upper right line, and AT4 for the bell spill on the lower right line. It has become.

  Next, a combination of symbols allowed to win a prize by winning AT1 will be specifically described from the viewpoint of stop control.

(For forward press)
As shown in FIG. 6, in the case of forward pressing (stop operation procedure for stopping in the order of left turning cylinder 5a → middle turning cylinder 5b → right turning cylinder 5c), the bell alignment is stopped on the middle horizontal line. Spindle stop control (retraction control) is performed.

(In cases other than forward pressing)
On the other hand, when the pressing order is other than the normal pressing, the stop control of the rotating drum is performed so that the bell spilled eyes stop on the right downward line.

(About Bell 1 missing from AT1)
In the present embodiment, when AT1 is determined as a winning combination, if the pressing order is other than the above-described forward pressing, a bell-alignment (12 payouts) is missed, and instead, 1 payout) can be derived and displayed as a game result.

  In the present embodiment, as long as the “bell alignment” matches the pressing order, the combination of symbols stops on the corresponding established line regardless of the stop operation timing of the rotating drum. On the other hand, the “bell spilled eyes” do not stop on the corresponding established line unless the stop operation timing of the rotating cylinder is a predetermined stop operation timing. This is arranged so that the pulling rate of the bell pattern of the left turning cylinder 5a and the middle turning cylinder 5b is 100%, but the drawing ratio of the watermelon 1 pattern in the right turning cylinder 5c is less than 100%. (See FIG. 2). Similarly, in AT2-4, the bell spilled eyes are not stopped on the corresponding established line unless the stop operation timing of the rotating cylinder is a predetermined stop operation timing (the watermelon in the right rotating cylinder 5c). 1 symbol, cherry symbol 1 or cherry symbol 2 are arranged so that the pull-in rate is less than 100%). However, the present invention is not limited to this, and may be a symbol arrangement configuration in which “bell bell spilled eyes” can be won regardless of the stop operation timing as long as the pressing order matches.

  Further, in the present embodiment, for each AT (AT1 to AT4), the advantageous winning combination and the disadvantageous winning combination may be a combination of the same symbols for each AT, or may be a combination of different symbols for each AT. A combination of the same symbols may be used for a part of each AT. A winning line for winning can also be determined as appropriate.

(Replay role: CA Bell 3, Replay 1-3)
Next, the CA numbers 3 and replays 1 to 3 of the winning numbers 8 and 13 to 15 belonging to the replay role type will be described. In this embodiment, as a winning combination with replay, a replay role type (CA Bell 3, Replay 1) that allows winning of a combination of one type of symbol and a replay role type that allows winning of a combination of multiple types of symbols. A plurality of types of replay roles including (for example, replays 2 to 3) are provided. For convenience of explanation, the replays 1 to 3 with the winning numbers 13 to 15 will be described first.

(Replay 1)
First, the replay 1 with the winning number 13 will be described.

  As shown in FIG. 6, the symbol combinations that are allowed to win by winning Replay 1 are “replay”-“replay”-“replay” symbol combinations (normal replay) on the right-down line. . This replay 1 belongs to the “unordered push order” and does not require a stop operation timing for stopping a combination of symbols (normal replay) corresponding to this. That is, when Replay 1 is won, regardless of the stop operation procedure, a normal replay winning occurs and “replay” is awarded as a payout.

(Replay 2-3)
Next, replays 2 to 3 with winning numbers 14 to 15 will be described.

  The replays 2 to 3 are defined as the “push order regulation combination”. As shown in FIG. 6, the symbol combinations that are allowed to win by winning Replay 2 are (1) “Replay”-“Replay”-“Replay” symbol combinations (middle stage replay) and (2) “ There are a total of two types of symbol combinations of “blue 7”-“blue 7”-“blue 7” (special replay 1: middle blue 7 replay :). In addition, the symbol combinations that are allowed to win by winning Replay 3 are: (1) “Replay”-“Replay”-“Replay” symbol combination (middle stage replay) and (2) “Red 7”-“ There are a total of two types of symbol combinations of “Red 7”-“Red 7” (special replay 2: middle red 7 replay). The establishment lines for the middle replay or special replay are all “middle horizontal lines”. When the middle replay or special replay wins, “replay” is awarded as a payout.

  As for the above replays 2 to 3, as in the case of AT1 to AT3 described above, which combination of symbols stops on the effective pay line is determined by the pressing order. Specifically, when the first stop operation cylinder is the left rotation cylinder 5a or the middle rotation cylinder 5b, the middle replay stops on the middle horizontal line regardless of the stop operation timing, and the first stop operation is performed. When the rotating cylinder is the right rotating cylinder 5c, the special replay is stopped on the middle horizontal line regardless of the stop operation timing.

  The special replay shown here is an example. With regard to the special replay, a predetermined stop operation timing is required for the special replay shown in the figure to win because of the symbol arrangement configuration of the red 7 symbol and the blue 7 symbol (component symbols of the special replay). When the rotating cylinder is stopped at a stop operation timing that cannot draw the red 7 or blue 7 symbols on the effective winning line, a special replay failure occurs. The combination (specific replay (not shown)) always stops on the “middle horizontal line”, and in this case as well, a game value equivalent to the special replay (replay + AT transition) is given. However, the AT transition is performed under predetermined conditions (conditions for AT lottery winning described later). The replay 2 or the replay 3 serves as an “AT game transition trigger” which is a trigger for transition to an AT game, which will be described later, due to the winning (in this embodiment, due to a special replay winning).

(Replay role: CA Bell 3)
Next, the CA bell 3 with the winning number 3 will be described.

  As shown in FIG. 6, the combination of symbols allowed to win by winning the CA bell 3 is a combination of symbols “bell”-“bell”-“replay” (bell replay). The CA bell 3 belongs to the “unordered push order” and does not require a stop operation timing for stopping the corresponding symbol combination (bell replay). This is the same as Replay 1 described above.

  When a symbol combination (bell replay) corresponding to the CA bell 3 is won, a re-game is awarded as a payout. CA Bell 3 also works as an “AT transition lottery opportunity” and, like CA Bell 1 or CA Bell 2, the winning probability is set to be lower than other small roles ( The AT lottery is preferentially given as a privilege of “winning a low-probability internal lottery target role” (see FIG. 30).

(Special role: CBB)
Next, the CBB with the winning number 16 will be described. This CBB belongs to “special role type” and is defined as “unordered push order”. This special role is triggered by the winning of the corresponding symbol combination (bonus role), the gaming state in which the lottery probability of the general role type fluctuates, or the gaming state that becomes a special pull-in control (for example, the drawing symbol of a specific symbol) This is a role that triggers the transition to a special game state (so-called “bonus game”) such as a game state in which the number fluctuates (so-called “challenge bonus (CB),“ challenge time (CT) ”). It is different in nature from the “general role type” that does not trigger the transition to a unique gaming state.

  Referring to FIG. 6, when CBB is won, winning of a combination of symbols of “blue 7”-“cherry 2”-“blank” (CBB 1) is allowed. Although this BB is “no pushing order”, the combination of symbols can be stopped on the effective winning line only when the stop operation timing is a predetermined timing because of the pull-in control. For this reason, when the rotating cylinder is stopped at a stop operation timing at which the bonus component elements (blue 7, cherry 2, and blank) cannot be drawn onto the effective winning line, the CBB is lost. ing.

  In the present embodiment, when the CBB1 (bonus) is won, the winning probability of a specific small role type (for example, AT1 to 4) varies with a high probability as a special game state (bonus game) from the next game. “Bonus game” is generated. However, in this embodiment, during the bonus game, the prescribed number of games as a game start condition is three game medals, and the assist notification described later is not given, so the average number of game medals per game (net increase) is approximately It becomes zero or minus (details will be described later). This bonus game is terminated on condition that a predetermined number (for example, 22) or more game medals are paid out. Note that the bonus game may be advantageous for the player. For example, the winning probability of AT1 can be set to 65535/65536, the loss can be set to 1/65536, and a large number of payouts can be set as an end condition (for example, it ends with 335 payouts). It may be one that can adversely affect the player (the net increase in number can be negative).

(About carry-over of CBB)
The above-mentioned special combination CBB has its internal winning flag set as a “carry-over combination” that can be carried over to the next and subsequent games. For this reason, when the CBB is won, the game period until the combination of symbols corresponding to the CBB (CBB1) wins, the established state of the winning flag (bonus winning flag) related to the CBB is maintained, The CBB is excluded from the lottery target (see the CBB column in FIG. 5). In other words, the carryover combination is excluded from the internal lottery target when the internal winning flag of the carryover combination such as the special combination is established. Therefore, during the bonus winning flag carryover, the bonus winning flag is not newly established or duplicated. The state where the bonus winning flag is established (including the winning game) is referred to as “BB internal winning game”, and the game where the bonus winning flag is not established (including the non-winning game) is referred to as “non-BB internal winning game”. This is called “game”.

  In the present embodiment, when a CBB is won during an RT0 game (non-BB internal winning game), the winning is used as an opportunity to shift to an RT1 game (BB internal winning game), and the lottery value of the CBB excluded from the lottery target. Since the (judgment value) portion is assigned to various replay roles, the percentage that the CBB is established (BB internal winning game) wins the replay role type is higher than the CBB is not established (non-BB internal winning game). (Refer to the column of determination values for each replay role type and CBB in the RT0 game and the RT1 game in FIG. 6).

  On the other hand, a role other than CBB (special role type) is set as a “carry-over impossible role” in which the winning flag cannot be carried over to the next game. In the BB internal winning game, for the general role type (general small role type, replay role type), an internal lottery is performed as usual (see the RT1 game column in FIG. 6). For this reason, a duplicate winning state in which a bonus winning flag and a winning flag of another combination are simultaneously established may occur. In such a case, whether to win a combination of symbols corresponding to any winning combination is determined based on a predetermined pull-in priority. In the present embodiment, the pull-in control is performed in the order of “special role type (CBB) <small role type <replay role type” (replay role type has the highest priority) (small role priority control). As a result, in a game in which CBB and other general role types are simultaneously selected, the stop control of the spinning cylinder is performed under this pull-in priority.

  It should be noted that the above-described lottery winning combination, corresponding winning combination, payout, and combination of the types thereof are not particularly limited as long as the object of the present invention can be achieved. For example, the special role type may be a single type, a plurality of types, or a configuration without the special role type itself. As for the general role type, the type and the number of types are not particularly limited as long as the object of the present invention can be achieved.

  In addition, as a lottery target role, one or a plurality of “duplicate BB roles” in which a special role type and a specific general role type can be won in duplicate can be provided. For example, when a duplicate BB combination in which CBB and strong cherry (winning number 3) are won is determined as a winning combination, as combinations of symbols corresponding to the winning combination, CBB1 (CBB compatible combination) and middle cherry (A combination of symbols corresponding to strong cherries) is placed in a winning-permitted state. In this case, in the game in which the duplicate BB combination is won, it is determined which winning combination is preferentially drawn on the effective winning line based on the above drawing priority order. In the present embodiment, since the small role priority control is performed, in the game, first, the pull-in control that allows the middle cherries to win preferentially is performed. In this case, if a strong cherry that wins overlapping with the CBB is derived as a game result, it is possible to give the player a sense of expectation of winning the CBB.

  In addition, for a lottery subject belonging to the “push order prescribed role”, an allocation of a stop operation procedure for winning a specific winning combination (for example, a combination of specific symbols such as an advantageous winning combination and an unfavorable winning combination) And the winning rate of the winning combination based on the assignment is not particularly limited as long as the object of the present invention can be achieved.

<Game form>
Next, an outline of the game form (game characteristics) of the spinning-reel type gaming machine according to the present embodiment will be described while paying attention to each game state and transition control between these game states.

  In the rotary type gaming machine according to the present embodiment, in addition to the basic gaming state controlled on the main control unit (main control board) 400 side, additional control controlled on the sub control unit (production control unit 410) side is performed. Gaming state is provided. The game state (main control unit side game state) controlled on the main control unit side mainly includes RT games (in this embodiment, RT0 game and RT1 game) and bonus games, and the production control unit 410 side The gaming state controlled by (the production control unit side gaming state (production state)) includes AT (assist time) games.

(About RT (replay time) games)
RT game refers to a re-game probability fluctuation state in which the winning probability of a replay role involving re-game is changed from a predetermined probability of the base game state. In the present embodiment, a plurality of types of RT games, such as RT0 games and RT1 games, are provided, and by implementing these types of RT games, the degree of freedom in gaming is improved.

  Each of the above RT games is roughly classified according to whether it is an RT game related to a BB internal winning game (BB internal winning state) or an RT game related to a non-BB internal winning game. In the present embodiment, the base gaming state is based on the “non-BB internal winning game (RT0 game)” in which the winning probability (replay probability) of the replay role type is low, and therefore has a higher probability than this. The fluctuating “BB internal winning game (RT1 game)” corresponds to the re-game probability fluctuation state. This BB internal winning game has a replay probability higher than that of a non-BB internal winning game, and can be said to be a “replay high probability lottery state”. Note that the BB internal winning game is an aspect of the general gaming state, similar to the non-BB internal winning game. This general gaming state is defined as a gaming state in which the probability of the general small role type cannot be increased like a bonus game (see FIG. 6).

(About AT games)
The AT game notifies the player of information related to the lottery result of the role using image display effects, sound effects, light effects, and the like using effecting means such as the liquid crystal display device 6, the decorative lamp 13, and the speaker 16. Reward gaming state. This AT game is different from a game state (main control unit side game state) controlled on the main control unit 400 side, and is mainly a game state (production effect) controlled on the effect control unit 410 (effect control board 420) side. It is a control part side game state (effect state)).

  The occurrence and end of the AT game are managed and controlled by the “production state management means” that the production control unit 410 takes on as its function unit. This effect state management means is configured to be capable of comprehensively managing a plurality of kinds of effect states including a normal effect state (non-AT game) and an AT game. As the notification state for notifying information related to the winning combination, the effect state management means includes a normal notification state (non-AT game) and an advantageous notification state (AT game) that can act more advantageously on the player than the normal notification state. It functions as “notification state management control means” for managing and controlling a plurality of types of notification states including

(Assist notification)
In this embodiment, as already described, a plurality of types of push order defining combinations are provided. For example, in the AT combination (AT1 to 4) of the winning numbers 9 to 12, a combination of symbols (advantageous winning combination) that can work advantageously can win according to the pressing order. However, during non-AT games (normal performance state), even if these roles are won, information for guiding the winning of the winning combination (information on stop operation procedure information (information on at least one of pushing order and stop operation timing) ) Is not notified to the player, or even if it is notified, the probability of notification is low, so during non-AT games, there is no clue for winning an advantageous winning combination. Therefore, during non-AT gaming, it is considered that the game development is more disadvantageous to the player than during AT gaming during non-AT gaming.

  On the other hand, during AT games, the information for guiding the winning of the advantageous winning combination is notified with a high probability, so that winning becomes extremely easy. For example, when the AT4 with the winning number 9 is won, the player is notified of push order information (push order of “left and right”) that guides the winning of the “bell-aligned” winning side. Thereby, if a player carries out the stop operation of the spinning cylinder according to the notification content, it is possible to easily win the bell alignment. As a result, during AT gaming, a gaming state in which the average profit (base value) that a player can obtain per game is improved as compared to during non-AT gaming. Therefore, the game development is more advantageous to the player during the AT game than during the non-AT game.

  In this way, as information related to the winning combination, it is possible to report push order information (stop operation procedure information information) for winning a combination of specific symbols (including advantageous winning combinations, disadvantageous winning combinations, and other specific symbol combinations). Such an effect mode is referred to as “assist notification (support effect)”.

(About assist notification mode)
In addition, even if the same winning combination is determined, the content of the notification may be different. In other words, it is not always the notification content that makes the player surely win a specific symbol combination (for example, an advantageous winning combination side). For example, if a push order registrant is elected, what is the push order (true assist notification: this notice) that makes part of the push order for winning an advantageous winning combination unknown (hidden state) or makes an advantageous winning combination win? Different push orders can be notified (false assist notification (false assist notification): false notification), or multiple types of push orders can be notified (for example, a push order and a disadvantageous prize winning the advantageous winning side) Notification of the pressing order for winning the winning side is made redundant).

(Confidential notification (selective assist notification))
For example, in the case where AT1 is elected, the pressing order in which “bells” are awarded is “left middle right (forward pressing)”. In this case, as a notification content concealing a part of “left middle right (forward press)”, the first stop operation cylinder is notified that the left rotation cylinder 5a is selected and selected after the second stop operation. An example of the notification content is that no notification is made about the rotating drum. When such an assist notification occurs, the player can select either “left middle right (forward)” or “left middle right” (2 choices) as a push order for winning the bell alignment (arbitrary). This makes it possible to reduce the winning rate of bell-alignment by assist notification to a probability of 1/2 (winning rate 50%). In addition, when an assist notification is given to the first stop operation cylinder to select and select any one of the rotating cylinders other than the intermediate rotating cylinder 5b (for example, “First, press any other than the intermediate rotating cylinder!”). The player can select the pressing order for winning the bell alignment from among the four pressing orders: left middle right (forward pressing), “left middle right”, “right middle left”, and “right left middle”. In this way, it is possible to reduce the winning rate for the bells to a probability of 1/4 (winning rate 25%). As described above, if a part of the pressing order is made unknown, the pressing order for winning a specific symbol combination becomes an alternative, and as a result, the winning rate of the specific symbol combination is less than 100%. can do.

  Also, when the notification and the false notification are notified in duplicate, the winning rate is halved if the number of false notifications is one, and if it is more, the winning rate can be further reduced. . For example, in the case where AT1 is elected, one of the two pushing orders of “left middle right (this announcement: correct answer pushing order)” and “left and right left (false notice: wrong answer pushing order)” is selected. If it is the content of notification that causes the player to select “2 choice navigation”, it is possible to reduce the winning rate of the bell-match to 50%. In addition, if the notification content that causes the player to select a total of three push orders of “left middle right (this notification)”, “right and left middle (false notification)”, “right middle left (false notification)” The pushing order for winning the bell uniform becomes 3 choices (3 choice navigation), and the winning percentage of the bell uniform can be reduced to 1/3 (about 33%). Even in such alternative assist notification, the winning rate of a specific symbol combination can be less than 100%.

  In “concealment notification” or “alternative assist notification” in which a part of the pushing order is kept secret, the winning rate of a combination of specific symbols related to the pushing order defining combination can be changed. Such an assist notification mode is referred to as “selective assist notification”. This selective assist notification can also be handled as one aspect of the “false assist notification (false notification)”.

  If the selective assist notification as described above occurs, the player's own arbitrary stop operation can cause the game development to be advantageous / disadvantageous. It can give a sense of tension and improve the fun of the game. In addition, by configuring so that a plurality of types of AT games having different occurrence (appearance) probabilities of assist notification as described above can be generated, gaming states having different properties (for example, gaming states having different appearance rates and base values) Can produce. For example, in the first AT game, an AT game with an occurrence rate of 100% for this announcement, in the second AT game, with an occurrence rate of 50% for this announcement and an occurrence rate of selective assist notification of 50%, etc. A plurality of types of AT games can be generated. Thereby, game nature (game nature) can be diversified and the interest of a game can be improved. Note that the selective assist notification and false notification are used when it is desired to change the base value according to the assist notification mode. In particular, the “false notification” can be used to avoid inconvenience in the progress of the game due to execution of a specific pressing order.

  Further, in principle, the assist notification only presents information regarding the pressing order to the player, and does not present information regarding the winning combination type to the player. This is because, if the winning combination type is clearly indicated, depending on the composition of the combination, the player who knows the allocation of the pressing order will know the pressing order of the advantageous winning combination or the unfavorable winning combination. This is because the significance of generating assist notification is lost. For example, since AT1-4 are assigned so that the order of pushing the bell alignments is different, if the winning combination type is clearly indicated, the player side (especially the advanced game player) who knows the assignment will be notified. This is because the order of pushing in the middle bell 1 win becomes clear and the significance of generating assist notification is lost.

(Assist notification of unquestionable push order)
Further, as described above, the assist notification basically guides the winning of a combination of specific symbols related to the pressing order defining combination, but it can also be generated for an unordered pressing order. For example, when a missing operation can occur due to the stop operation timing, the player can be notified of the stop operation timing at which the missing operation does not occur.

  In the case where a part or all of the winning combinations relating to the winning combination are lottery target combinations having the same symbol combination, for example, the CA Bell 1 which is an unquestionable pressing order has a relatively high probability of winning AT1 and AT3. As with winning, “bell alignment” stops on the middle line. In this case, in order to conceal the winning of “CA Bell 1”, there is a case where a specific push order is informed of assist, and AT1 or AT3 (push order regulating role) is pretending to be won (impersonation assist notification). Such a camouflaged assist notification, when a push order unquestioned role is won, reveals a substantially same notification mode (same or very similar notification mode) as the assist notification mode when the push order specified role is won. Used to conceal the winning role type.

  In the present embodiment, when a rare combination such as CA Bell 1 is won, a specific freeze effect (for example, freeze 5: payout freeze) can occur with a high probability among the freeze effect types (freezes 1 to 5) described later. Therefore (see FIG. 29), the fake assist notification is used when, for example, the player is not expected to generate a specific freeze effect but wants to generate the specific freeze effect in a way that strikes his intention. . Thereby, when a freezing effect occurs, the player's intention can be struck, and the freezing effect can be enhanced by amazing or uplifting the player. In addition, the said camouflage assist alerting | reporting reveals the alerting | reporting aspect (similar or very similar alerting | reporting aspect) substantially the same as the assist alerting | reporting mode when other lottery object roles are elected, and makes it possible to conceal the actual winning combination. Refers to the assist notification mode, and is not limited to the notification mode pretending to be as if the push order defining role was won, with respect to the above-mentioned push order unquestioned role. It is possible to include a notification mode that pretends to be won.

  In the present embodiment, the assist notification described above is controlled to appear by “assist notification control means”, which is the function unit of the effect control unit 410. The assist notification control means determines the assist notification to appear based on at least the winning combination information.

(About each game state)
Next, with reference to FIG. 28, the contents of each gaming state and the transition control between each gaming state will be described. FIG. 28 is a state transition diagram showing an outline of transition between gaming states.

  First, for convenience of explanation, the transition between RT games will be described by focusing on the RT0 game and the RT game 1 which are the main control unit gaming states.

  The main control unit side gaming state includes an RT0 game and an RT1 game, and in this embodiment, the initial gaming state is started from “RT0 game (initial mode)”. This “initial game state” is a game state that is shifted (started) on condition that the main RAM is cleared or the bonus game is finished.

  This RT0 game has a low probability of winning a replay role and is set to a non-AT game, and has a gaming state that acts more adversely on the player than other gaming states (a gaming state in which the profit given to the player is low) ). In addition, during the above-mentioned RT0 game, an AT lottery (special replay notification lottery: FIG. 30) related to the AT game transition described later is also performed, but the lottery also acts relatively disadvantageously than other game states (RT1 game). . Note that, during the RT0 game, among the replay role types, the replay 1 is in a game state that can be won, and the replays 2 to 3 are excluded from the internal lottery targets.

  If the CBB is won during the RT0 game and the symbol combination (CBB1) corresponding to the CBB cannot be won in the winning game, the replay probability is higher than the RT0 game from the next game. The changed "RT1 game (normal mode)" is entered. In other words, the RT1 game is a gaming state that is shifted when the CBB is won, and becomes the “BB internal winning game” in which the CBB bonus winning flag is carried over. When CBB1 (bonus combination) wins during the RT1 game, after the bonus game is ended, the game is shifted to the RT0 game again based on a predetermined transition condition. As a transition condition from RT1 game to RT0 game, for example, a predetermined number of games (which may be 0 games (from the next game after the bonus game is finished)) in RT1 game after the bonus game is finished is used. In addition, a combination of specific symbols (for example, a case where a disadvantageous winning combination regarding AT2 to 4 (bell spilled eyes (one AT role)) has been won) may be used as a condition.

  Here, referring to FIG. 6, the replay probability (summed probability) fluctuates with a higher probability during RT1 game than during RT0 game (replay probability is about 1 / 7.29 during RT0 game, RT1 On the other hand, the probability of losing (unsuccessful) changes to a very low probability (about losing probability about 1 / 532.8, RT1 during RT0 game). 1/65536 during the game). Note that the winning probability (summing probability) of the small role type does not vary in both the RT1 game and the RT0 game, and has a relatively high probability of winning (about 1 / 1.52). The CBB winning probability is relatively high (approximately 1 / 5.04), and CBB is won in a relatively short period of time from the start of RT0 game (approximately 99% of the probability within approximately 22 games). ).

  Here, if the CBB is won during the RT0 game and the symbol combination (CBB1) corresponding to the CBB cannot be won in the winning game, the game is shifted to the RT1 game from the next game. Under the game, the small role priority control prevents the CBB 1 from being won unless a very low probability “losing” is drawn. In particular, in the present embodiment, even if the CBB is won, an effect notifying this is not displayed, and an effect notifying this is not displayed even if a win is won.

  For this reason, even if the CBB is won internally, the player has no way of knowing that, and the component symbols of the CBB 1 corresponding to the CBB in each of the drums are lost due to the symbol arrangement configuration of the symbol array band 200. The stop operation range is relatively wide (see FIG. 2), and it is extremely difficult to actually win CBB1, and the winning rate of CBB1 during RT1 game is even if the player plays in pachinko halls all day long. It can be said that the winning rate is virtually impossible. Therefore, once the game is transferred to the RT1 game, the event related to the CBB is re-transferred to the RT0 game very rarely unless the RAM is cleared. That is, it is equivalent to a game that does not substantially re-transfer from RT1 game to RT0 game.

  The reason why the CBB winning rate is determined in this way is set up in pachinko parlors for No. 7 sales in accordance with laws concerning customs sales and business optimisation, etc., due to other roles and AT games. Passing the “type test” test based on the rules regarding the recognition of the game machine and the type test, etc., prescribed for such game machines, and ensuring the desired game design in the game design Because.

  As described above, in the present embodiment, “RT0 game” and “RT1 game” having greatly different replay probabilities are provided. However, after the transition to the RT1 game, the transition to the RT0 game is performed again. Is extremely rare in terms of probability. As a result, the CBB behaves as if it is in a normal gaming state despite the fact that the CBB is being won internally. That is, the RT1 game is configured to have a gaming state with the longest stay period. Therefore, in the following description, the main control unit side gaming state will be described while omitting the details related to the RT0 game and the bonus game as appropriate, and paying attention to the RT1 game.

(Freeze production)
Here, for convenience of explanation, the freeze effect according to the present embodiment will be described first.

  The present embodiment is configured to be controllable to a freeze state (delayed state) in which the game progress is delayed from the normal game progress based on a predetermined condition. This freeze state is generated mainly by controlling the progress of the game in a delay state more than usual so that the predetermined game operation process does not proceed for a predetermined time. In general, the effect mode using the freeze state is referred to as “freeze effect”. This freeze effect is controlled on the side of the effect control unit 410 and the “main effect during rotation (rotation effect)” using the operation modes of the respective spinning cylinders 5a, 5b, 5c controlled on the main control unit 400 side, for example. Effecting means (effecting means such as the decorative lamp 13, speaker 16 and liquid crystal display device 6) and the sub-side effect during the freeze (effects by the effecting means) are used in cooperation with each other or independently (independently). It is a production aspect that appears. What kind of freeze production type is to appear at what timing is determined on the sub-side separately from the internal lottery result (winning role), as well as being determined based on the internal lottery result (winning role) It may be determined by a freezing lottery for each gaming unit within the period. In addition, when a specific number of games is reached, alternatively or selectively determined (for example, determined by lottery), or when a specific freeze effect is always generated when a specific number of games is reached There is also. The above-mentioned “when the specific game number is reached” means, for example, a case where a predetermined game number is executed after the specific game state is started, or a predetermined game number is executed in the specific game state. Can be included.

  The “rotation effect” of the main side effect during the freeze means an effect (rotation effect) by dynamic or static movement of the rotation during the freeze (delay) or a combination thereof. The “dynamic movement of the spinning cylinder” is “anomalous rotation” that moves differently from normal rotation (rotating at a normal speed in the forward direction). Typical examples of irregular rotation include reverse rotation of the rotating cylinder, inching in the opposite direction, trembling from side to side or up and down, folding movement that rotates from the reverse direction to the forward direction and returns to the reverse direction, and each rotating cylinder is temporal. An irregular start that starts rotating in the reverse direction one after another, a temporary stop state with a specific pattern aligned, then a pseudo rotation that the rotating cylinder re-rotates, a low-speed forward rotation, and these irregular rotating types that are different for each rotating cylinder Such as rotation to perform in the direction. “Static movement of the spinning cylinder” means that all the spinning cylinders are stationary, that is, they are stationary during freeze (delay). The stationary state includes not only a stationary state in which all the cylinders are completely stationary, but also a state in which the player can recognize that it is apparently stationary. As described above, there are two types of revolving effects: one in which the revolving cylinder is “rotated” and the other in which the revolving cylinder remains “non-rotating”. Note that one spinning cylinder moves dynamically and the other spinning cylinder moves statically (for example, the left and right spinning cylinders rotate irregularly and the middle spinning cylinder does not rotate). It may be configured such that a spinning effect that combines a simple movement and a static movement can be executed.

  The freeze state of the present embodiment is a time during which a freeze can occur in one game (for example, when the rotation of the rotating cylinder start lever 11 is operated, when each of the rotating cylinder rotation stop buttons 12 (12a, 12b, 12c) is operated, the entire rotation of the cylinder is stopped. The freeze state is configured to occur at one or more possible occurrence times due to time or the like. When freezes occur at these freeze occurrence possible times, these times can be trigger points (basic trigger points) for starting the freeze effect. The above-mentioned spinning effect and the effect during sub-freeze occur when the basic trigger point arrives. Basically, the occurrence of the freeze is notified by the effect at the start of the freeze.

(Direction during operation during freeze)
In addition, the above “freeze state” means that the progress of the game is delayed for a predetermined period (freeze time), so that the operation of the operating means for proceeding with the game progress (normal game progress) until the freeze time elapses. The operation of the operation means for the operation is “invalid handling (operation invalidation state)”. Specifically, for example, if a freeze occurs before stopping the full rotation, even if the rotary rotation stop button 12 is operated, the stop control of the rotary that is the stop target is not executed, and the It stays spinning. That is, the player is placed in a gaming situation in which the operation of the spinning cylinder rotation stop button 12 does not work. Thereafter, when the freeze state is released, the original stop operation of the spinning cylinder is placed in an allowable state, and if the player operates the spinning cylinder rotation stop button 12, the spinning cylinder targeted for the stop is stopped. Will be able to.

  However, in the present embodiment, even in the freeze state, the detection signal (operation detection signal) itself from the operation means that can be operated by the player is accepted, and the freeze is performed using the detection signal emitted by the operation means. It is comprised so that a change can be brought about in production. Specifically, a specific effect can be displayed based on the operation means being operated during the freeze (freeze effect). The effect that appears due to the operation of the operation means is referred to as “effect during operation during freezing (effect during operation)”. Therefore, the effect during operation during freeze can occur as part of the freeze effect. In other words, the freeze effect (freeze effect scenario) includes a “freeze start effect” that can be triggered by the arrival of the basic trigger point, and the arrival of one or more different trigger points (operation of the operation means (trigger “Operation during freezing” that can appear on the occasion of operation)) is included. The effect during operation during freeze may be either the effect during main freeze (rotation effect) or the effect during sub-freeze, and these can be generated in duplicate or independently.

(Operation command)
By the way, when operating means such as the spinning cylinder rotation start lever 11, the spinning cylinder rotation stop button 12, the MAX bet button 8, and the 1 bet button 9 are operated once (one reciprocation), an operation detection signal is issued. For example, when the rotating cylinder rotation start lever 11 is operated once (one reciprocation), the switch acts and an operation detection signal is output. The main control unit 400 side can take out a trigger pulse that can be used for an operation command twice in total from the rise and fall of the operation detection signal. The first one is, for example, the leading edge (front edge) of the operation detection signal pulse when the rotating cylinder rotation start lever 11 or the rotating cylinder rotation stop button 12 is moved from the original position to another position (when pressed). (Hereinafter referred to as “ON signal”). The second is the trailing edge (rear) of the operation detection signal pulse when the rotating cylinder rotation start lever 11 or the rotating cylinder rotation stop button 12 is moved from the other position to the original position (when pushed back (released)). A signal (hereinafter referred to as an “OFF signal”) created at the end edge). The main control unit 400 side uses either the ON signal or the OFF signal to transmit an operation command corresponding to the operation means as an effect control command.

  Here, regarding the generation of an operation command, a case where not only an ON signal (ON operation signal) but also an OFF signal (OFF operation signal) will be described. For example, when the player holds the state where the rotating cylinder rotation start lever 11 is pressed down for a while and then releases the rotation cylinder rotation start lever 11, a time difference is generated between the ON signal and the OFF signal. Also in the case of other operation means such as the spinning cylinder rotation stop button 12 and the MAX bet button 8, a time difference is produced between the ON signal when pressed and the OFF signal when released. Accordingly, there is a time difference between the ON operation command and the OFF operation command for the operation command. In the present embodiment, it is possible to generate different types of effects during an operation during freeze using the ON operation and the OFF operation, or the time difference between them. In other words, during the freeze period, when the operating means is pressed (ON operation) and / or released (OFF operation), it is possible to execute an operation effect during freeze corresponding to this.

  In addition, it is preferable to generate the freeze with the OFF signal instead of the ON signal. The reason for this is that the occurrence of the freeze itself is controlled by the main control unit 400 side, so in the rare case, if the occurrence of the freeze is triggered by the ON signal of the left-turn cylinder stop button 12a ( For example, in the case of Freeze 2, which will be described later, if the button pressed state (ON operation state) is maintained, the effect during the subsequent freeze operation is generated unless the left cylinder stop button 12a is released (OFF state). (The operation signal used for the spinning effect and the generation of the operation command during freezing are hindered), and only the freezing time has passed and the freezing has ended. is there. For this reason, depending on the type of the freezing effect, it is possible to make the occurrence of the freeze an ON signal or an OFF signal. For example, an ON signal can be used as an opportunity to generate a freeze when the operation type is a freeze type that does not execute the operation effect during the freeze operation, and an OFF signal can be used as an opportunity to generate the freeze effect. In the case of the present embodiment, for the sake of convenience of explanation, the occurrence of the freeze will be described as being generated by an ON signal that occurs when a predetermined operation means is operated.

(Regarding the appearance control of production during operation during freeze)
Next, the appearance control of the effect during operation during freezing will be described in detail.

  In the case of the present embodiment, the operating means (for example, the rotating cylinder rotation start lever 11, the rotating cylinder rotation stop button 12 (12a to 12c), the 1 bet button 9, or the MAX bet button 8) even in the frozen state. The main control unit 400 that can receive the detection signals from these is configured to be grasped, and the main control unit 400 confirms that the operation means is operated during the freeze. As the operation command, a “frozen operation command” corresponding to the operation means is generated. For example, if the rotation rotation stop button 12 is operated during the freeze, the rotation stop control for deriving and displaying the game result is not performed, but an “in-frozen operation command” corresponding to the detection signal is generated. This can be transmitted from the main control unit 400 side to the effect control unit 410 side. In this case, an “in-frozen operation command” corresponding to the operation of the spinning cylinder rotation stop button 12 is generated.

  On the production control unit 410 side, the “production during freeze” can be displayed using the “operation command during freeze”. In the present embodiment, it is possible to change the contents of the freeze effect using the fact that such an operation command during freeze is generated, depending on whether or not the operation means is operated. Thereby, during the freeze, for example, using the operating means, it is possible to realize a “player participation type game effect (player participation type effect)” in which a player can participate.

  The “player participation type production” as described above is excellent in production effect in that the player can participate in the game production and enjoy the contents of the game. Specifically, when a player participates in the game production, the game production result gives a feeling that the game result itself has an influence, or the game production result Information related to the current gaming state (for example, information on the winning combination, information on whether or not the AT lottery (FIG. 30) is successful, whether or not a pre-AT game described later) is informed can be notified.

  The “player-participation-type production” during such a freeze is simply more effective than the “player-no-participation-type” freeze production in which the freeze production proceeds automatically. Since the content of can be changed, the degree of freedom of freezing production is widened, and the variation can be abundant.

  It should be noted that the change in performance by the operation means can be caused when the operation means (the operation means related to the performance appearance target) is operated within a predetermined operation reception valid period during the freeze effect. This operation reception valid period can be appropriately determined according to the freeze effect type. This is because the freeze time differs depending on the freeze effect type, and it is necessary to secure an effective effect time width. In short, when a predetermined operation means is operated during a freeze (during a freezing effect), it means that the effect during the freezing operation can appear under a predetermined condition. For example, when a specific operation means (for example, the middle cylinder stop button 12b) is operated within a predetermined operation reception valid period and an OFF operation command is received, “the execution condition of the effect during operation during freezing is satisfied. ”Is displayed as a“ production during operation during freezing (here, sub-stage production during freezing) ”. In other words, even when the mid-cylinder stop button 12b is operated within the operation acceptance valid period, the effect during the freeze operation does not appear by the ON operation command, and the OFF operation command is effect-controlled within the operation acceptance valid period. On the condition that the part 410 side has received (establishment of the execution condition of the effect during operation during freeze), the effect during operation during freeze can appear.

  In addition, the “player participation type effect” includes not only an effect mode in which the player intentionally participates in the game effect, but also an effect mode in which the player participates unconsciously as follows. It can be. This will be described by taking a representative example of a case where a freeze occurs after the first stop operation, such as Freeze 2 described later.

  For example, in a gaming situation in which freeze 2 occurs, the player may stop the spinning cylinder as usual (usually the first stop operation → the second stop operation → the third A series of operations such as stop operations can be performed at a good tempo), and due to the freeze (here, freeze occurs after the first stop operation), the second stop operation becomes ineffective (the original stop control of the spinning cylinder by the stop operation is invalidated) Therefore, the next round drum cannot be stopped. For this reason, the player cannot operate the second stop operation, “Is the reaction at the time of the stop operation bad due to the abnormality of the rotation of the rotation of the rotating cylinder 12?” It is expected that the rotating cylinder rotation stop button 12 will be operated again. Using such a player's psychology, while triggering that the rotation rotation stop button 12 (other operation means may be used) is operated during the freeze while giving a sense of incongruity that the stop operation does not work (accompanying trigger) ) As a timing, an effect at the time of operation with freeze having an impact (for example, an effect mode different from a normal notice effect mode: an impact effect) is made to appear.

  In this case, when a freeze occurs, the effect related to the start of the freeze is not displayed, but the occurrence of the freeze is concealed so that the player can unintentionally participate in the game effect. By directing the operating means so that the person unconsciously presents the effect at the time of the freeze operation, it is possible to give a sense that the effect at the time of the operation during the freeze is suddenly generated. Such an effect during operation during freezing appears in a form that strikes the player's intention, so if an effect mode with impact is adopted, it is considered that the degree of impact received by the player is considerably high. In this case, it is more preferable to conceal the occurrence of the freeze from the player in the stage before the occurrence of the freeze effect (in this example, from the start of the game to the stage before the first stop operation). . For example, it is preferable to make an effect appearing as if it was lost or to win another lottery target role and keep the occurrence of freezing in a concealed state.

  As described above, the freeze effect according to the present embodiment has some effect on the content of the effect developed during the freeze before and after the operation using one or a plurality of operation means (changes to the effect before and after the operation). Can be brought). In particular, as described above, the effect during operation during freezing that appears in a way that strikes the player's intentions is considered to have a high impact level and increase the number of players who want to experience it again. It can be said that it is a freeze production excellent in production effect in improving the repeat rate (operating rate).

  In addition, when an effect during operation during freezing (effect during operation) appears, the effect during operation during freezing can be displayed based on the time width (ON state duration) during which the operation means is turned on and off. can do. For example, during the operation acceptance valid period, if the ON state continuation time in which the OFF operation is performed from the ON operation of the operation means is less than a predetermined time (for example, 3 seconds), the effect during the freeze operation does not appear, In the case of the predetermined time or longer (in the case of so-called “long press”), the effect during operation during freezing can be displayed. In addition, when the ON state duration is less than the predetermined time, the first operation effect during the freeze is displayed, and when it is longer than the predetermined time, the other operation effect during the freeze is displayed. Depending on the duration, it is possible to produce different effects during operation during freezing.

  On the main control unit 400 side, the ON state duration can be grasped by counting the time from the ON signal reception to the OFF signal reception corresponding to the operation means. On the side of the production control unit 410, it can be grasped by counting the time from reception of the ON operation command corresponding to the operation means to reception of the OFF operation command. Therefore, both the main effect during freezing and the sub effect during freezing can appear based on the ON state duration time.

  In addition, based on the fact that the operation means is turned ON or OFF a predetermined number of times (number of times of operation), it is possible to produce an effect during operation during freeze. For example, if the ON operation (or OFF operation) of the mid-cylinder stop button 12b is confirmed five times within a predetermined time (count valid time), the effect during the operation during freezing can be displayed. With respect to the number of operations of the operation means, the main control unit 400 side can grasp the number of times by counting the number of receptions of the ON signal or OFF reception corresponding to the operation means. On the side of the production control unit 410, the number of times of receiving the ON operation command or the OFF operation command corresponding to the operating means can be counted to grasp the number of times.

  Further, depending on the number of operations described above, it is possible to make a different effect during operation during freeze. For example, when the specific operation information during freezing that can notify the predetermined game information is displayed when the number of OFF operations is the fifth, when the fourth operation is performed, “at the moment when the next stop button is released In the next (fifth) operation, such as during the freeze, the effect during the freeze will be announced to notify that the effect during the freeze will be announced. In this case, the player can actively operate the operation means and enjoy a sense of expectation and tension as to what information is provided at the moment when the fifth operation means is released.

  In addition, when an effect during operation during freezing appears, a configuration may be used in which one of a plurality of effects during operation during freezing is selected by lottery. For example, it is determined by lottery based on the winning combination type and / or the result of the AT lottery (see FIG. 30), and the effect during operation during the freeze can be displayed. In this case, by changing the selection rate of the during-freeze operation effects according to the above winning role type and the AT lottery result, the information and expectation regarding them can be obtained using the during-freeze operation effects. Can be notified. For example, a plurality of types of effects during freeze operation corresponding to light effects of blue, yellow, and red are provided for the decoration lamps, respectively, so that the winning expectation degree of the AT lottery increases in this order of blue, yellow, and red. In this case, by changing the selection rate according to the degree of expectation, it is possible to make the effect during operation during freeze related to the degree of expectation appear. Thus, the player can actively operate the operation means and enjoy a sense of expectation and tension as to what information is provided by the effect during operation during freeze.

  The effect at the time of the freeze operation can cause the effect at the time of one freeze operation and the effect at the time of another freeze operation to be generated in duplicate. Specifically, during the appearance of the freeze operation effect related to the ON operation, the freeze operation effect related to the OFF operation is duplicated, or the freeze operation effect related to the operation of the current operation means is displayed. During the outage, the effect at the time of the freeze operation related to the operation of the next operation means can be made to appear redundantly. For example, when the turning effect appears at the ON operation and is turned OFF during the turning effect, the sound effect (for example, lightning sound) or the light effect (for example, lightning sound) overlaps with the rotating effect being performed. Sub-froze effects such as flash effect) can be displayed. In addition, the turning effect was revealed at the first ON operation (may be at the OFF operation), and the second ON operation (may be at the OFF operation) was performed during the turning effect. In this case, it is possible to make an effect during an operation during freeze using a sound effect, a light effect, a movable body accessory, etc., overlapping with the first spinning effect. In this case, various freeze operation effects are developed one after another in duplicate, so that an effect mode with impact can be realized.

  What kind of operation means are used for the above-mentioned “execution condition during operation during freeze”, what kind of operation signal (ON / OFF signal) and operation command during freeze are used, and ON / How to determine the number of times of OFF operation, what time width the ON state duration is to be set, where to set the operation reception valid period during freezing, how many time periods the operation reception valid period is Various execution conditions, such as whether or not, can be determined as appropriate according to the freeze effect type. In addition, it is possible to appropriately determine how many trigger timings at which the effect during operation during freeze is executed. This is because the freeze time and the effect scenario differ depending on the freeze effect type, and it is necessary to secure an effective effect time width. Therefore, according to the freeze effect scenario (effect content), game characteristics, etc., it is free to associate what execution condition with what freeze effect type.

  Further, when a plurality of types of effects during the freeze operation are made to appear during the freeze, it is preferable that the effects during each freeze operation have a certain relevance. A typical example of such an effect mode is a story tailoring effect (for example, a narrative effect, a battle effect, a step-up effect, etc.). In particular, as a result of a series of effects during freeze operation (for example, as the contents of the effect during the last freeze operation), if the player is notified of game information that the player wants to know, While enjoying the production of tailoring, you can have a sense of expectation and tension about the result, so you can further enhance the fun of the freeze production.

  It should be noted that “the effect during operation related to the spinning effect” can be executed by the operating means connected to the main control unit 400 side for controlling the spinning effect, and the effect connected only to the effect control unit 410 side. It cannot be executed by operating a button (not shown). The reason is as follows.

  The operation information related to whether or not the effect button has been operated cannot be transmitted from the effect control unit 410 side to the main control unit 400 side, whereby the effect control button is operated on the main control unit 400 side. It is not possible to grasp whether or not. As already described, in order to prevent an external go-to action, the production control unit 410 side functions only as an input in one-way communication, and some information is mainly received from the production control unit 410 side. This is because the control unit 400 cannot transmit. Therefore, due to the operation of the effect buttons, the spinning effect controlled on the main control unit 400 side cannot be changed. Therefore, the rotation effect can be changed by specific operation means (for example, the rotation rotation start lever 11 and the rotation rotation stop button 12 that can be directly detected by the main control unit 400 side). (12a-12c) It is limited to the 1 bet button 9 or the MAX bet button 8 or the like (see FIG. 4).

(Freeze production type: Fig. 29)
Next, various freeze effects according to this embodiment will be described.

  The type of freeze effect in the present embodiment includes a freeze 1 of “freeze effect at the start of rotation of the spinning cylinder (freeze effect at the time of lever operation)” depending on where the timing (basic trigger point) at which the freeze occurs is. , "Freeze production before derivation of game results (freeze production before stopping all cylinders)", "Freeze production after derivation of game results (freeze production after all cylinders stopped)", and "payout operation" "Freeze 5" of medium freeze production (payout freeze production). These freeze effects can be generated independently in a unit game (one game) or in a form linked to each other. For example, it is possible to generate a plurality of types of freeze effects, such as the above-described freeze 1 (freeze effect during lever operation) and freeze 4 (freeze effect after all cylinder stops) during one game. The number of basic trigger points that cause a freeze in one game can be determined as appropriate. It should be noted that the “freeze state” related to the freeze effect occurs at a freeze occurrence possible time (basic trigger point) determined corresponding to the freeze effect type. Hereinafter, freeze effects (freezes 1 to 5) according to the present embodiment will be described.

(Freeze 1 (freeze when lever is operated))
Freeze 1 (freeze during lever operation) is triggered by the detection of the original intended operation of the rotating cylinder rotation start lever 11, that is, the operation performed for the purpose of rotating the rotating cylinder during normal operation. The operation or process (start of normal rotation of the cylinder), which is the stage of, is delayed, and the timing to activate it is delayed by a predetermined freeze time, and as a result, the progress of the game is temporarily interrupted (freeze) Freeze control. Therefore, the end of the freeze time is the end of the freeze 1.

  However, even during the freeze period, when the operation means is operated, an operation command during freeze indicating that the operation has been performed can be generated (the same applies to other freeze effect types). Therefore, the production control unit 410 can receive the operation command during the freeze operation by receiving this operation command. For example, if Freeze 1 occurs, the opening effect at the start of the freeze is, for example, blacking out the liquid crystal screen, the background is a different color, and if necessary, the movable object is actuated to further impact A certain image effect, sound (sound / voice) effect, and light effect appear. Then, according to the set production scenario, an image display production, a sound (sound / voice) production, a light production, and a production during operation during freezing are displayed.

  In addition, in order to change the spinning effect that is the main side effect during freezing, the operation of the operation means other than the progress of the game is enabled (the ON signal and / or the OFF signal of the operation signal is enabled). The operation means such as the spinning cylinder rotation start lever 11, the spinning cylinder rotation stop button 12, the MAX bet button 8, the 1 bet button 9, and the like are operated. It is free to associate as an execution opportunity of the trunk effect (for example, irregular rotation). For example, as described above, there are two types of spinning effects, one that causes the spinning cylinder to “rotate” and the other that leaves the spinning cylinder “no rotation”. It is possible to execute the during-freeze operation effect related to the spinning effect, such as holding the “no rotation” state and starting “anomalous rotation” when the operating means is operated.

  It should be noted that the freeze 1 of the present embodiment is a spinning effect (non-rotating spinning effect) in which the spinning cylinder is non-rotated only for the freezing time after the operation of the spinning cylinder rotation start lever 11. In addition, although not shown, the freeze at the time of lever operation includes a freeze effect type (anomalous rotation freeze effect) for executing the rotation effect by “anomalous rotation” during the freeze period after the operation of the rotation start lever 11. be able to.

(Freeze 2 and Freeze 3 (Before suspending all the trunks (Before deriving game results) Freeze production))
Freeze 2 and Freeze 3 are freeze effects that are generated after all the torso normally rotates in the forward direction and before the all torso stops and a game result is derived. It should be noted that the same contents as the contents of Freeze 1 will be omitted as appropriate in order to avoid duplicate description.

  Freeze 2 and Freeze 3 are triggered by the detection of the original operation of the spinning cylinder rotation stop button 12, that is, the operation performed for the purpose of stopping the spinning cylinder during normal rotation. The result of delaying the timing for enabling the operation of stopping the rotating drum (the original operation of the stop button) is a predetermined freeze time (freeze time corresponding to each of freeze 2 and freeze 3). The freeze control temporarily interrupts the progress of the game. Therefore, the end of the predetermined freeze time here is the end of the freeze 2 or freeze 3. Freeze 2 is a freeze effect type in which freeze occurs when triggered by the first stop operation (basic trigger), and Freeze 3 is a freeze effect type in which freeze occurs when triggered by the second stop operation.

  In addition, during the freeze period of freeze 2 and freeze 3, as in freeze 1, the operation command during freeze can be generated, and the effect during operation during freeze is incorporated in the freeze effect scenario related to freeze 2 and freeze 3. If it is, the effect during operation based on this can be displayed.

(Freeze 4 (Freeze after stopping the whole body))
Freeze 4 is started by detecting the original target operation of a stop button (for example, right-turn cylinder rotation stop button 12c) related to the third stop operation, and is a payout process (winning determination process: the next stage in the game progress). The timing for enabling (see step S20 in FIG. 8) is delayed, and the process ends when the freeze time that is the delay time has elapsed.

  In the freeze 4 according to the present embodiment, the freeze occurs after all the rotations of the cylinder are stopped. However, the freeze can be generated when the rotation of the rotation of the rotation of the rotation button 12 is performed. In this case, since the freeze occurs before stopping all of the turning cylinders, instead of the original pull-in control due to the third stopping operation, the turning control for the turning effect (for example, control for irregular rotation). Can be executed. For example, it is possible to generate a turning effect that irregularly rotates the turning cylinder that is the third stopping target or another rotating cylinder that is stopped, with the ON operation at the time of the third stopping operation as a trigger.

  In addition, during the freeze period of freeze 4, similarly to freezes 1 to 3, the operation command during freeze can be generated, and when the effect during operation during freeze is incorporated in the freeze effect scenario related to freeze 4 Based on this, it is possible to produce an effect during operation during freeze.

(Freeze 5 (Direction of payout freeze))
Freeze 5 generates a delay state during execution of processing related to paying out game medals (medal payout number monitoring process: see step S21 in FIG. 8) when a winning combination that gives out payout of game medals wins. It ends when the freeze time, which is the time, has elapsed. Specifically, during the freeze period of freeze 5, the hopper motor 510 of the hopper unit 500 is controlled to stop until the freeze time elapses, or the payout operation is delayed by executing an operation different from the normal payout operation. The freeze effect is such that the game medal payout operation is delayed more than usual.

  For example, if a “bell set” with 12 payouts is won, a freeze is generated in the middle of paying out 12 game medals (for example, after 6 payouts are finished), and the game medal payout operation is performed. After the freeze time has elapsed, the payout operation process for the remaining 6 game medals is resumed.

  Even during the freeze period of Freeze 5, in the same way as Freeze 1 to 4, it is configured so that an operation command during freeze can be generated, and the effect during operation during freeze is incorporated in the freeze effect scenario related to Freeze 5. Based on this, it is possible to produce an effect during operation during freeze. Details of the effect mode of the freeze 5 will be described later (FIGS. 31A and 31B described later).

  In the present embodiment, freezes 1 to 5 are exemplified as the freeze effect types, but the present invention is not limited to this. With regard to the “freeze state”, for example, (a) a game medal bet number setting operation (game medal insertion processing operation) by operating the 1 bet button 9 or the MAX bet button 8; The rotation of the cylinder by the rotation start operation (processing related to the rotation start operation of the cylinder), (c) the rotation of the rotation of the cylinder by the rotation stop button 12 (at least one of the rotation of the cylinder rotation stop buttons 12a, 12b, and 12c). Rotation stop operation (processing operation related to rotation stop control), (d) game medal payout operation (process operation related to game medal payout operation), (e) re-game operation (replay for giving replay) A state in which at least a part of the game progress (game operation process) such as a process operation related to the operation is delayed (a state that is delayed from the normal game (game) progress) It can be controlled as Leeds. "

  The occurrence of the freeze state as described above, or some effect form (execution) that appears (executes) using the freeze state (the main side effect during freeze (rotating effect) and / or the sub side effect during freeze (effect means) Production) is referred to as “freeze production”. That is, the occurrence of the freeze state does not necessarily cause the rotation effect or the effect by the effect means, but the occurrence of the freeze state itself may also make a “freeze effect”.

(Freeze production lottery)
The occurrence of each of the above-described freeze effects (freezes 1 to 5) is determined based on the freeze effect lottery. This freeze effect lottery is executed on the main control unit 400 side based on the “freeze effect lottery table” shown in FIG.

(Freeze production lottery table: Fig. 29)
In the freezing effect lottery table, the freezing effect lottery trigger role type (see the winning role type column in FIG. 29) and the freeze for each current game state (RT0 game in the main control unit side game state and RT1 game). Production types (freezes 1 to 5) are defined in association with each other, and freezes 1 to 5 are selected with a predetermined probability. In addition, the numerical value (determination value) shown in the cell in the figure is the number of occupied areas of the determination value (winning area) with respect to the size 128 of the lottery area. For example, if the current gaming state is RT1 game and the winning combination is weak cherry (winning number 2), Freeze 1 is selected with a lottery probability “8/128” and Freeze 2 or Freeze 3 is a lottery probability “2 / 128 ”and freeze 4 is selected with a lottery probability“ 1/128 ”. Note that the determination value for freeze 5 is zero (none), and in the case of a weak cherry, freeze 5 is not selected.

  In the freeze effect lottery, basically, when a freeze effect occurs, a special game value is given preferential treatment. For example, an AT lottery (see FIG. 30) described later is preferentially treated. This is to increase the transition expectation to the “AT mode (pseudo bonus)” described later, which is shifted due to the AT lottery winning when the freeze effect is generated. In addition, it can be freely determined as to which AT effect will be preferentially given when a freeze effect occurs. In the present embodiment, it is determined that the winning expectation degree of the AT lottery is the highest when freeze 5 occurs during the RT1 game. In addition, regarding the freeze effect lottery, there is no particular limitation on the lottery target combination (freeze effect lottery trigger role) that is the execution opportunity, and the lottery probability, and it can be appropriately changed according to game play.

(About the contents of each gaming state and the transition form between each gaming state)
Returning to the description of FIG. 28 again, the contents of each game mode (game state) and the transition form between the game modes will be described.

(About RT1 game)
In the present embodiment, as described above, after the main RAM is cleared, the game state is started from “RT0 game (initial mode)” as an initial game state, and thereafter, in principle, stays in the RT1 game (normal mode). . In this RT1 game, an AT lottery (FIG. 30), which will be described later, is performed when a specific winning combination is won. A game that is recognized as an entire gaming machine when the “Special Replay Notification Condition” that allows the generation of an assist notification for winning a special replay is established, and is transferred to the “predictive AT game” when this AT lottery is won. The state is “RT1 game + predictive AT game (predictive AT mode: pseudo bonus preparation mode)”.

  Under this special replay notification condition, if one of the replays 2 to 3 is won, the push order for winning the special replay will be assisted, and an AT game will be triggered by the special replay winning, which will be regarded as the entire gaming machine. The gaming state is “RT1 gaming + AT gaming (AT mode: pseudo bonus)”.

  This AT mode (details will be described later) is, in principle, continued for a predetermined game period (for example, 40 games). In the AT mode, when winning AT1-4, winning the bell alignment (advantageous winning combination) When the assist notification is generated and the replays 1 to 3 are won, the assist notification related to the normal replay is generated. In addition, if a predetermined additional condition is satisfied during the AT mode, an additional game number lottery that adds the number of continuing games in the AT mode may be executed. When the AT mode ends, the game is shifted to the “normal mode” RT1 game.

  Therefore, in this embodiment, the game starts from “RT0 game (initial mode)”, but thereafter, in principle, the RT1 game (normal mode) and AT mode (pseudo bonus) are circulated due to the CBB winning rate. It follows the game transition state. Further, the benefit given to the player is relatively high because of the relationship of “RT0 game (initial mode) <RT1 game (normal mode) <AT mode (pseudo bonus)”.

(AT lottery (special replay notification lottery))
In the AT lottery, AT lottery (special replay notification lottery) is executed on the effect control unit 410 side based on the “AT lottery table” shown in FIG. The AT lottery table is provided with an AT lottery table corresponding to each set value. Here, for example, an AT lottery table corresponding to the set value 6 is shown as a representative example, and other set values are omitted to avoid duplication.

(AT lottery table: Fig. 30)
In the “AT lottery table”, an AT lottery (special replay notification lottery: AT transition lottery) according to the AT lottery trigger role type (see the winning role type column in FIG. 30) and the freeze effect type (freeze 1 to 5). ) Probability (determination value / size of lottery area (128)) is determined. In the case of this embodiment, weak cherry (winning number 2), strong cherry (winning number 3), weak watermelon (winning number 4), strong watermelon (winning number 5), CA bells 1-3 (winning numbers 6-8) Etc. are provided. For example, in the case where a weak cherry is won in this game, if the freeze effect has not occurred, the probability is “2/128”, and in the case of freeze 1 to 3, the freeze is “8/128”. In the case of 4, the AT lottery is won by “10/128”, and the special replay notification condition is established. These AT lottery probabilities are determined such that the higher the set value, the more advantageous it is for the player.

  Under this special replay notification condition, the assist notification related to the special replay (special replay assist notification) is performed when the replays 2 to 3 are won. Whether or not the special replay assist notification is generated determines whether or not the mode can be shifted to the AT mode, and the player's profit is greatly influenced.

  However, in the present embodiment, the following conditions are attached to the occurrence of “AT game”. The AT game is generated when a special replay notification is generated and a special replay is won in RT0 game or RT game 1 (AT game is generated by the “regular route”), and the special replay assist notification is not performed. If a promotion replay wins when it occurs, it will not occur. For this reason, even if the player intentionally or accidentally wins a special replay, AT games will not be generated, and this will cause unexpected profits to the player due to the specifications and design of the gaming machine. It is prevented from being granted.

  If Replay 2 or Replay 3 is won, as described above, as long as the pressing order matches, a special replay or a specific replay wins and the player can obtain the right to generate an AT game. It has become. In other words, as in the case of the above special replay and specific replay, when the game is shifted to the AT game by a winning combination with a pull-in rate of 100%, the AT game transfer is confirmed in the game that the Replay 2 or Replay 3 is internally won (a predetermined number of games (After passing through the precursor period, an AT game may be generated). Therefore, on the side of the production control unit 410, the AT game transition setting process may be performed in response to the winning of the replay 2 or the replay 3, or the AT game transition setting process is performed in response to the winning of the special replay or the specific replay. Also good. As a result, when the special replay assist notification is generated, there is a disadvantage that even if the player fails to hold up and misses the special replay, the AT game transfer right acquired at the corner cannot be obtained. In addition, regardless of the skill of the game technique, it is possible to enjoy the profit (AT game transition right) when the special replay assist notification is generated, so that a game beginner can enjoy the game with peace of mind.

(About other special replay notification conditions)
In the above, the case where the special replay notification condition is satisfied when the AT lottery is won has been described. However, the present invention is not limited to this, and one or more types of conditions described below may be determined as special replay notification conditions, or may be determined in combination with the AT lottery.

  For example, as a special replay notification condition, (A) a special replay notification condition can be established when a predetermined number of games are consumed during a specific gaming state (when the so-called “ceiling game number” is reached). For example, the special replay notification condition can be established after the 1941 game is exhausted after the transition to the RT1 game. A plurality of ceiling games may be provided. For example, a predetermined ceiling game number lottery is executed on the condition that RT1 game transition is performed, and a plurality of types of ceiling games (for example, 815 games, 1941 games, and 1208 games) are executed. The number of ceiling games can be selected from either of them.

  Further, (B) when the number of wins for a specific lottery target or the number of wins for a specific winning combination reaches a predetermined number (cumulative number), a special replay notification condition can be established. For example, the number of times a specific replay role (for example, Replay 1) has been won, or the number of winning times for a specific winning role (for example, a set of bells (12 AT roles) or a bell spilled eye (1 AT role)) is a predetermined number of times. When reaching (for example, 50 times), the special replay notification condition can be established. The type of the above-mentioned specific lottery object, the number of winning times, or the number of winnings can be set as appropriate. In addition to the number of wins and the number of wins, the number of consecutive wins (for example, five consecutive wins) and the number of consecutive wins (for example, three consecutive wins) over a plurality of games may be used.

  In addition, (C) when a specific winning combination is won, a predetermined number of notification points corresponding to the winning combination (for example, 50P for weak cherries and 200P for strong cherries) is accumulated, and the accumulated points When the number reaches a predetermined number of points (for example, 1000P), a special replay notification condition can be established. The number of notification points may be determined by lottery from a plurality of types of points (for example, 50P, 100P, 200P, 500P) according to the winning combination. In this case, for example, it is possible to draw a relatively high number of points as the lottery target role having a relatively low internal winning probability.

  As described above, in the present embodiment, the AT lottery related to the right to generate the special replay assist notification is performed, and when the AT lottery is won, the special replay notification condition is established on the assumption that the right to generate the special replay assist notification is obtained. . And, when the notification condition is established, the special replay assist notification is generated when the replays 2 to 3 are won, thereby shifting to the AT mode.

(About AT mode)
When a special replay is won and an AT game is generated, the gaming state captured as the entire gaming machine is “AT mode (RT1 gaming + AT gaming)”.

  When an AT game is generated, if one of the replays 2 to 3 is won, the push order for winning the “normal replay” will be assisted, and if AT1 to 4 are won, the bell alignment will be won. Push order information for assist is notified. For this reason, the AT mode is a so-called “pseudo bonus” in which the net increase per game can be obtained more than in the normal mode or the initial mode. However, if CA Bell 1 or CA Bell 2 is won, as described above, it is possible to conceal the occurrence of Freeze 5 and prevent the player from predicting the occurrence of the Freeze effect, and to perform the Freeze effect in a way that strikes the intention. In order to generate the information, “impersonation assist notification” is made in a production mode substantially the same (same or very similar) as the assist notification of AT1 to AT4.

  For the number of continuous games in the AT mode, for example, “40 games” is set as the number of continuous games in the AT mode in response to a special replay winning. These 40 games are the initial value of the number of AT mode continuing games, that is, the number of continuing games of AT games. The number of AT mode continuing games is managed on the effect control unit 410 side.

(Regarding the extra number of AT mode continuing games)
In the present embodiment, an “additional lottery” is performed in which the number of games can be added to the number of AT mode continuing games (in the present embodiment, 40 games of the prescribed number of continued games).

  In this extra lottery, any number of games is determined by lottery from among a plurality of types of games (for example, 10 games, 20 games, 30 games, etc.) under a predetermined lottery condition. The number of games is added to the current number of AT continuing games. As a result, the game period of the AT game is extended and further benefits are provided to the player. This extra lottery is executed on the side of the effect control unit 410 based on an “extra lottery table (not shown)”.

  It should be noted that the “extra lottery opportunity” that is the trigger for the extra lottery is not particularly limited. For example, the same freezing effect lottery opportunity (see FIG. 29) may be employed, or a loss or replay role may be employed. Further, one or more types of extra lottery triggers can be provided. In addition, it is possible to freely associate the number of additional games to be selected and the probability of the additional games corresponding to the freeze effect lottery opportunity type.

  In addition, when an additional lottery opportunity is included as a freezing effect lottery opportunity, a freezing effect may occur when the additional lottery opportunity role is won. By paying attention to this, the number of additional games corresponding to the winning combination and the type of freeze effect generated by the winning combination (which may not occur) may be determined. For example, when CA bell 1 (winning number 6) is won, freeze 1 or freeze 5 may be generated. In this case, in the case of freeze 1, the first additional game number can be determined, and in the case of freeze 5, the second additional game number can be determined. Further, when freezing occurs, it may be added 100%, or the addition may be determined with a predetermined lottery probability.

(When the number of AT mode continuation games is over)
In this embodiment, when the number of AT mode continuous games is over, a predetermined continuous lottery (for example, continued at 50%) is performed, and when this continuous lottery is won, one set of 40 games is set again, The AT game can be continued. In other words, as long as the continuous lottery continues to be won, the AT mode is continued. If the continuation lottery is lost, the AT mode is terminated. Specifically, the AT game is ended and the pseudo bonus “RT1 game + AT game” is changed to the “RT1 game” in the normal mode.

  The timing for performing the continuous lottery is not particularly limited as long as it is before the end of the number of AT mode continuous games. For example, it may be performed at the start or end of the last game where the number of AT mode continuing games ends, or at the start or end of the number of games (any number of remaining games) in the middle of the AT mode continuing game. You can go. The continuation rate by the continuation lottery may be a single continuation rate (for example, continuation at 50%), or one of continuation rates may be determined by lottery from a plurality of types of continuation rates. For example, any continuation rate can be determined from 50%, 65%, 75%, and 85%. When there are a plurality of types of continuation rates, the continuation rate of the current AT mode is determined at a predetermined timing before the start of the AT mode. The AT mode continuation rate may be determined based on AT lottery winning, or may be determined based on a special replay winning.

(Penalty due to irregular procedures)
In the present embodiment, a lot of lottery targets, their composition, and a plurality of types of gaming states are improved to improve gameplay, while taking into account machine discounts and gambling required for gaming machines. As a penalty for the progress of the game, when the player does not execute the regular game procedure, a predetermined penalty is given. The reasons for penalizing are as follows.

  For gaming machines that are subject to No. 7 sales under the Law on Customs Sales, etc. established in pachinko parlors, and the Act on the Optimization of Business, etc. According to Attached Table No. 5 technical standards related to the torso-type game machines (related to Article 6) (1) Standards concerning performance), machine discounts and gambling are severely restricted. Therefore, the player is satisfied with the game method being protected, and the player is satisfied while suppressing unexpected balls (for example, a state where a player can intentionally obtain many balls). In order to create game playability, a predetermined penalty related to game progress is imposed.

  In the present embodiment, a plurality of types of push order defining roles are provided as roles that influence the profits of the player. Of these push order determining combinations, attention is particularly paid to AT1 to AT4.

  In the case of this embodiment, the winning probability of AT2 to AT4 is set to be slightly less than seven times the winning probability of AT1 (the winning probability of AT1 is “1950/65536”, and AT2 to AT4 are respectively “13200/65536” (see FIG. 5)) When an AT game occurs, an assist notification related to the “bell alignment” on the side of the advantageous winning combination is performed, and this can be won with a high probability. In view of such game characteristics, if the player is allowed to stop freely, the payout rate and the base value may change beyond the range assumed by the designer. Therefore, if it is allowed to allow the player to perform a free stop operation, forward pressing (when the left turn cylinder 5a is set as the first stop operation target) and irregular press (except for the left turn cylinder 5a as the first stop operation target). In that case, the player who executes the irregular push can wait for the winning of the BB or AT lottery transition opportunity without reducing the game medal than when pushing the game medal forward, and the game balance is lost. End up.

  Therefore, when a turning operation that is not a regular game procedure is performed, a “penalty” that adversely affects the player is generated. In the present embodiment, attention is paid to the order in which the bell alignments of AT2 to AT4 win, and when the “notifying order other than the forward pressing (anomalous pressing)” is performed when the assist notification is not generated or when the AT game is not generated. A predetermined penalty is generated on the assumption that an “unauthorized procedure” that is not a regular procedure is executed. For example, the penalty content may be invalidated for a predetermined number of games, or a game value lower than the original game value may be given. Can do. Specifically, even if the AT lottery opportunity is won, the AT lottery is invalidated (the AT lottery itself is not executed, or the AT lottery is executed but if it is won, it is treated as “losing”), penalty Even if you have won the AT lottery before and are transitioning to the precursor AT game, the special replay assist notification will not be executed until you win any of the replays 2 to 3 until the penalty state is canceled. Penalty. If the irregular procedure is operated again during the penalty period (if the irregular procedure is executed multiple times during the penalty period), a heavier penalty will be imposed or the penalty period will be extended. You may do it.

(About penalty exemptions)
The penalties described above impose a disadvantageous game development on the player, although it is related to game play. Therefore, if the penalty is uniformly imposed when it is not a regular procedure, the player's willingness to play may be reduced, or distrust may be given to the gaming machine. Therefore, in this embodiment, it is possible to define a “penalty exclusion target” that does not penalize exceptionally. Hereinafter, the penalty exclusion target will be described.

  In this embodiment, when a winning combination such as “CA Bell 1” having a low winning probability (46/65536 in RT0 game) is won, a game value relatively higher than that of other winning combinations is given. For example, AT lottery is preferential (see FIGS. 29 and 30). It can be said that winning of such a role with a high game value (high game value-giving lottery target role) is one of the important concerns when the player progresses the game. Therefore, if CA Bell 1 wins during the penalty period and the gaming value acquisition right by the winning is invalidated, the CA Bell 1 winning will be lost. Too bad for the person. In addition, such a situation may reduce a player's willingness to play and may cause distrust of the gaming machine.

  In view of the above-mentioned problems, as a relief function related to a penalty, a high game value added lottery subject such as CA Bell 1 is excluded as a penalty subject, and even if it is during the penalty period, an AT lottery by CA Bell 1 winning This can be treated as valid without invalidating the rights.

  In the above description, the high game value-added lottery target role has been described as not being subject to a penalty, but the present invention is not limited to this. In relation to the above problem, not the lottery target combination but the freeze effect type can be determined as a penalty exclusion target. The reason is as follows.

  The freeze effect is a unique effect mode with a delay period such as temporarily interrupting the game progress, unlike the effect related to the game progress at the normal time. For example, it is used as a notice effect (an aspect of a high expectation effect) that informs, suggests, or implies to the player that the game will be a transition to an AT game. Therefore, when freezing occurs, the player has a great expectation for gaining some kind of profit. Therefore, when the occurrence of the freeze is determined, it is preferable to exclude this from the penalty target.

  However, not all of the freeze effect types are excluded from the penalty, but a specific freeze effect type, for example, a specific freeze effect type with a relatively high winning expectation by the AT lottery (for example, freeze 4 or freeze 5) ) May be excluded from the penalty. In this case, a lottery target combination that may cause Freeze 4 or Freeze 5 may not be a penalty target.

  In the present embodiment, by taking the above-described penalty, the player is allowed to follow the regular procedure, and the player's arbitrary stopping operation prevents the payout rate from being out of the expected range. The execution control of this penalty is controlled by the “penalty management means” in which the effect control unit 410 has the function unit. The penalty management means has a function to set / release the penalty state. Specifically, the penalty management means monitors the stopping operation of the stopping means for stopping the rotating drum, and if it is an irregular procedure, a predetermined releasing condition It works as a “penalty setting means” that sets a penalty state that adversely affects the player until is established. In addition, the effect control unit 410 functions as a “penalty granting unit” that grants a predetermined penalty when the penalty is in effect. In addition, when the above-described penalty exclusion target is determined, the penalty granting unit determines whether or not the penalty is excluded (penalty exclusion target determination unit) if the penalty is in effect, and whether or not to grant the penalty Can be determined.

<Game operation control processing>
Next, the processing content related to the gaming operation control of the spinning-reel type gaming machine according to the present embodiment will be described in detail.

<Processing on the main control unit side: FIGS. 8 to 19>
With reference to FIGS. 8-19, the processing content by the side of the main control part 400 which manages game operation in an integrated manner is demonstrated.

(1. Main process on the main control side: FIG. 8)
FIG. 8 is a flowchart showing main processing (main control side main processing) on the main control unit (main control board) 400 side in accordance with the game operation control program. This process is executed by the main CPU 401c. For convenience of explanation, the main body that executes the process will be referred to as the main control unit 400.

  When the gaming machine is turned on, a power-on signal indicating that the power is turned on is sent from a power supply board (not shown). In response to this power-on signal, the main control unit 400 starts the main process on the main control side shown in FIG.

  In the main process on the main control side, the initial setting process in step S11 is executed as the first process when the power is turned on, and in other cases, the processes in steps S12 to S26 are executed as processes in normal operation.

  In FIG. 8, as the first process after the power is turned on, the main control unit 400 first executes a necessary initial setting process before starting the game operation (step S11). In this initial setting process, for example, the CPU first sets itself to the interrupt disabled state, sets to a predetermined interrupt mode, initializes the register values in the CPU including each part of the microcomputer, Any abnormal operation (for example, whether the random number generation circuit is normal or whether the front door is open) is confirmed. When an abnormality is confirmed, predetermined error processing is executed.

  Further, it determines the state (ON, OFF) of a RAM clear signal that is an output signal of a RAM clear switch input via an input port (not shown). Here, the RAM clear signal is a signal for determining whether or not to initialize the entire area of the RAM, and usually has a value corresponding to the ON / OFF state of the initialization switch operated by the store clerk of the pachinko parlor. doing. Here, assuming that the RAM clear signal is in the ON state, the entire area of the main RAM is cleared to zero. Therefore, the value of the backup flag set when the power is turned off becomes zero together with other checksum values and the like, and the gaming state is started from the initial state (in this embodiment, when the RAM is cleared, the gaming state is RT0. Starting from a game). This initial setting process functions as an initial game mode transition control means for controlling the transition to an initial game mode (game state) based on a predetermined transition condition.

  In the initial setting process, when the setting key switch is operated to the ON side, the already described setting change mode process related to the setting change mode is executed. In this setting change mode process, the process enters a state of waiting for detection of an ON operation of any one of the rotation rotation start lever 11 (rotation rotation start switch 11a) that is a setting value confirmation operation and the setting switch that is a setting value change operation. .

  In the setting change mode process, when it is detected that the setting switch is operated, the setting value is updated by adding 1 to the current setting value, and the setting value is displayed on the setting display. When the desired setting value is reached, the setting value is confirmed when the turning cylinder rotation start lever 11 (rotation rotation start switch 11a) is turned on, and the changed setting value is stored in the setting value area of the RAM 401b. After confirming display on the display, the system waits until the setting key switch is operated to the OFF side. When it is detected that the setting key switch has been operated to the OFF side, the setting change mode process ends, and the setting value display on the setting display is cleared. Thereby, the setting change mode process is terminated. Thereafter, the process proceeds to the RAM initialization process in step S12. The set value information is transmitted to the effect control unit 410 side by a specific effect control command (set value information command), and the AT lottery table (FIG. 30) corresponding to the set value is selected. During the setting change mode, for example, an image of “setting change” is displayed on the display screen of the liquid crystal display device 6, and when the setting change mode ends, the display of “setting change” is ended.

  The above-described setting change mode process is an advantage related to the game by selecting one of a plurality of types of setting values based on an operation of a predetermined setting operation means (setting key switch, setting switch). It functions as a “set value selection means” for setting (the degree of advantage in game progress for the player). Here, the set value is a value specified by the payout rate, a value specifying the probability of determining that a winning is allowed by internal lottery (an internal lottery probability of at least one of a plurality of types of roles) Or a value relating to a class related to the likelihood of occurrence of a specific event such as a profit state acting on a player, such as a lottery probability of an internal lottery subject or an AT lottery. In this embodiment, The setting value is provided with a plurality of types of setting values of setting values 1 to 6 in a plurality of stages, and the advantage related to the game is defined according to each setting value.

  After the above initial setting process is completed normally, a RAM initialization process (step S12) is performed. In this RAM initialization process, predetermined data used at the end of the previous game is cleared, and a work area necessary for the current game is secured.

  Next, a game state flag generation process is performed (step S13). In this game state flag generation process, the game state (main control unit side game state) of the current game is confirmed based on the mode data of the main RAM 401b, and the corresponding game state flag (RT game type, bonus game, etc.) A flag for identifying the main control unit side gaming state is set. The game state (game mode) of the current game is designated by the game state flag.

  Next, a game medal insertion process is performed (step S14). In this game medal insertion process, mainly the detection of game medals inserted into the main body of the gaming machine, the management of credits, the automatic insertion process of game medals when there is a request for re-game, etc., and the game can be started It is monitored whether or not a predetermined number of game medals have been inserted. When it is confirmed that the prescribed number of game medals have been inserted, a game start condition is established, and an operation detection signal is sent from the rotation rotation start switch 11a while this condition is established. wait.

  When receiving the operation detection signal from the rotating cylinder rotation start switch 11a, the main control unit 400 acquires an internal lottery random value (numerical value range: 0 to 65535) based on the counter value of the counter circuit 403 (step S15). .

  Next, an internal lottery process based on the acquired random number for internal lottery is performed (step S16). In this internal lottery process, an internal lottery based on the acquired random number for internal lottery and the lottery table (FIGS. 6A to 6B) corresponding to the current game mode is performed, and winning combination information ( Set the winning flag). Here, a “game start information command” is set as an effect control command. This game start information command includes at least winning combination information (winning flag information), and in the present embodiment, includes gaming state information and winning combination information. Information included in the game start information command is used on the side of the effect control unit 410 to determine an effect appearing during the current game, an AT lottery, or the like. The production control command is transmitted from the main control unit 400 to the production control unit 410 in a command output process (step S45) during the main control unit side timer interruption process of FIG. .

  Next, a spinning effect lottery process is performed (step S17). In this spinning effect lottery process, a lottery process related to the freeze effect type (freezes 1 to 5) and its operation setting process are performed. Details of the spinning effect lottery process will be described later with reference to FIG.

  Next, a setting process at the time of rotation rotation start (rotation rotation start setting process) is performed (step S18). In this rotation rotation start setting process, data necessary for starting rotation of the rotation cylinders 5a, 5b, and 5c, for example, rotation rotation operation related to rotation rotation production and normal rotation operation are necessary. Data (control data for rotating operation of the spinning cylinder (control data for the spinning cylinder driving motors 211a, 211b, 211c)) is set, or a game start wait timer (4.1 seconds) is set. In addition, when it is confirmed that the game start wait timer set in the previous game has elapsed, a “rotation start command” indicating rotation start is set as an effect control command. Then, the rotating cylinder is started to rotate (normal rotating operation), whereby each of the rotating cylinders 5a, 5b, and 5c enters a rotating state. The details of the rotation rotation start setting process will be described later with reference to FIG.

  Thereafter, when the rotating cylinder is started to rotate and all the rotating cylinders reach a substantially constant speed, a stop operation permission state is made in which the stop operation of the rotating cylinder rotation stop buttons 12a, 12b, and 12c is made effective. In this stop operation permissible state, when the rotating cylinder rotation stop button 12a, 12b, or 12c is operated, a rotating cylinder stop process is performed to stop and control the rotating cylinder that is the target of the stop operation (step S19). In this turning cylinder stop process, in addition to the process related to the turning cylinder stop control, the pushing order of the rotating cylinder is monitored to produce a freeze effect before stopping all the cylinders (in this case, freezes 2 to 3) and after all cylinders are stopped. Management and control of occurrence of freeze (freeze 4). The details of the rotating cylinder stop process will be described later with reference to FIG.

  When it is confirmed that all the cylinders are stopped (if freeze 4 occurs, after the freeze is completed), a winning determination process is performed (step S20). In this winning determination process, based on the winning line data (symbol stop information), it is confirmed whether the combination of symbols corresponding to the winning combination has stopped on the effective winning line, that is, whether or not a winning has occurred. Is confirmed, the number of game medals to be paid out (payout number data designating payout number information) is set based on the combination of symbols stopped. Details of the winning determination process will be described later with reference to FIG.

  Next, a medal payout number monitoring process is performed (step S21). In this medal payout number monitoring process, based on the payout number information set in the winning determination process in step S19, the hopper unit 500 is driven to perform a payout process for a target number of game medals and a credit addition process. Further, here, processing necessary to generate freeze 5 (payout freeze effect) is performed. The medal payout number monitoring process will be described later with reference to FIG.

  Next, re-game RT setting processing is performed (step S22). In this re-game RT setting process, when the replay is stopped on the valid pay line, a setting process necessary for the re-game operation is performed. When the re-game operation is designated by this process, in the game medal insertion process (step S14) at the next game start, the same number of game medals as the game medals required this time are automatically inserted, and the next game is played as a game medal. It is possible to start without input.

  Further, here, a transition control process from one RT game to another RT game is also performed based on a predetermined transition condition. Specifically, if the current gaming state is RT0 game (initial mode), a transition setting process to RT1 game is performed on condition that CBB is won, and if the current gaming state is RT1 game, bonus game by CBB is performed. A transition control process between RT games is performed such that a transition setting process to an RT0 game is performed on condition that a predetermined number of games (for example, two games) are consumed after completion.

  Next, it is determined whether or not a bonus game is in progress (step S23). If the bonus game is being performed (step S23: YES), a bonus game operating process is performed (step S25). In the bonus game operating process, the number of payouts during the bonus game is monitored, and the process required for the continuation and termination of the bonus game is performed. The payout number during the bonus game is managed by a counter (a bonus game payout number counter) for managing the payout number during the bonus game. When the bonus game operating process is completed, the process proceeds to a RAM initialization process in step S12.

  On the other hand, if the bonus game is not being played (step S23: NO), it is next determined whether or not the bonus combination has stopped on the effective pay line (step S24). If the bonus combination has not stopped (step S24: NO), the process proceeds to the RAM initialization process of step S12, and the processes after step S13 are sequentially performed.

  On the other hand, when the bonus combination stops on the effective pay line (step S24: YES), bonus game operation start processing is performed (step S26). In the bonus game operation start process, a setting process necessary for starting the bonus game from the next game is performed. Specifically, a predetermined waiting time before the start of bonus game is set, an effect time setting process for displaying the effect at the time of winning the bonus combination, a clearing process of the bonus game payout counter, and a bonus winning For example, a flag clear process. When the bonus game operation start process is completed, the process proceeds to a RAM initialization process in step S12, and the processes in and after step S13 are sequentially performed.

(1-2. Spinning effect lottery process (step S17): FIG. 9)
With reference to FIG. 9, the details of the spinning effect lottery process in step S17 of FIG. 8 will be described. FIG. 9 is a flowchart showing details of the spinning effect lottery process of FIG.

  In FIG. 9, the main control board 400 first acquires the winning combination information lottery in the random number acquisition process of step S15 (step S101).

  Next, the current game state is confirmed, and it is determined whether or not it is a freezing effect lottery target for the game state (step S102).

  If it is a freeze effect lottery target (step S102: YES), freeze effect lottery processing is performed (step S103). Here, referring to the freeze effect lottery table of FIG. 29, one of freezes 1 to 5 is determined by lottery based on the current game state (game state flag) and the winning combination type. If it is not the freeze effect lottery target (step S102: NO), the process proceeds to step S104 without performing the freeze effect lottery process in step S103.

  When the freeze effect lottery process (step S103) is finished, a freeze effect flag corresponding to the freeze effect lottery result is set (step S104). The freeze effect flag is a flag for identifying (designating) the freeze effect type generated in the current game, and is different for each freeze effect type (for example, “01H” to “05H” corresponding to freezes 1 to 5). ) Is set. The freeze effect flag is cleared for each game. When the freeze effect lottery result is “losing”, “00H” is set as the freeze effect flag corresponding to the loss.

  In the process of step S104, if it is determined in step S102 that it is not the “freeze effect lottery trigger” (step S102: NO), the lottery result of the freeze effect lottery is treated as “lost” and is set as the freeze effect flag. Set “00H”. Therefore, here, the freeze effect flag corresponding to the lottery result of the freeze effect lottery process (step S103) (freeze 1-5 = “01H” to “05H”), or the freeze effect corresponding to the occurrence of no freeze (lost) A flag (not generated (lost) = 00H) is set.

  Next, a “freeze type command” based on the freeze effect flag set in step S104 is set (step S105). This freeze type command includes freeze effect type information (including 'freeze non-occurrence information' that is treated as a loss). By transmitting this freeze type command to the effect control unit 410 side, Whether the freeze type is generated or whether the freeze effect has not occurred is grasped on the effect control unit 410 side. On the effect control unit 410 side, based on the information included in the game start information command and the freeze type command in the internal lottery process (step S16 in FIG. 8), the current gaming state (main control unit side gaming state), The winning combination information, the freeze effect type (including no freeze occurrence), etc. are grasped, and the effect control process related to the current game is performed (for example, setting of the effect scenario related to the current game, AT lottery (FIG. 30)) Execution, assist notification control, etc.).

  Next, the freeze effect flag is confirmed, and it is determined whether the rotation effect during the lever operation relates to a non-rotating spinning effect (non-rotating spinning effect) that does not involve irregular rotation (step S106). ). In this embodiment, “Freeze 1” corresponds to the non-rotating spinning effect, so whether or not it is Freeze 1 is determined here.

  If the freeze effect type is not freeze 1 (step S106: NO), the reel effect lottery process is exited without doing anything.

  However, if the freeze effect type is freeze 1 (step S106: YES), a freeze start command (for freeze D1) is set (step S107), assuming that the condition for generating freeze 1 is satisfied. This “freeze start command” is a command for specifying the start of the freeze effect. When the freeze start command is transmitted from the main control unit 400 side to the effect control unit 410 side, the effect control unit 410 side will An effect control process is performed to reveal a freeze effect (effect during sub-freeze) based on the effect scenario. Therefore, the freeze start command serves as a trigger timing (basic trigger) for generating a sub-side freeze effect.

  Next, the freeze time required for freeze 1 (delay time: freeze time corresponding to freeze 1 here: for example, 30000 ms (30 seconds)) is set in the freeze timer (step S108). The “freeze timer” is a timer for managing the freeze time, and is one of the timer management areas of the RAM 203. In the present embodiment, there is one kind of non-rotating rotator effect. However, when a plurality of non-rotating rotator effects are provided, a freeze time corresponding to each non-rotating rotator effect is set. .

  Then, a “specified number interrupt waiting process” is performed to wait for the freeze timer time to elapse (step 108). Since the freeze 1 is a freeze at the time of lever operation without rotating the rotating drum, it waits until the freeze timer elapses here.

  When the freeze timer has elapsed, a “freeze end command” is transmitted. The freeze end command is a command for designating the end of the freeze state. When the freeze end command is transmitted from the main control unit 400 side to the effect control unit 410 side, the effect control unit 410 side ends the freeze effect. It is understood that it has done, and the freeze production that is appearing is ended. As a result, the spinning effect lottery process is exited, and the process proceeds to the spinning rotation start process (step S18) in FIG. In the case of a freeze effect type with a rotation effect other than the non-rotating rotation effect, the control is performed in the rotation rotation start setting process (step S18) and the rotation stop process (step S19).

(1-3. Cylinder rotation start setting process: FIG. 10)
Next, referring to FIG. 10, the spinning cylinder rotation start setting process (step S <b> 18) in FIG. 8 will be described. FIG. 10 is a flowchart showing details of the spinning cylinder rotation start setting process of FIG.

  In FIG. 10, the main control unit 400 first acquires the freeze effect flag set in step S104 (step S171), and the freeze effect flag is a freeze effect with irregular rotation among the freeze effects at the time of lever operation. (For example, 1/4 frame reverse rotation) is determined (step S172), and if it is related to a freeze effect with an irregular rotation (step S172: YES), an irregular rotation setting process ( Steps S173 to S174) are performed. On the other hand, when it does not relate to the freeze effect with irregular rotation (step S172: NO), the process proceeds to step S175 described later.

(Anomalous rotation setting process (at the start of rotation): S173 to S174)
In the case of a freeze effect with an irregular rotation among the freeze effects at the time of lever operation, first the process proceeds to the irregular rotation start setting process in step S173, and motor control data for the irregular rotation operation according to the type of the freeze effect (rotary drive) Data for controlling the motors 211a, 211b, 211c) is set (step S173). For example, the motor control of the rotating cylinder that reversely rotates 1/4 frame as the rotating cylinder effect is based on the motor control data set here, and the rotating rotation control process (described later) in the main control timer interruption control process. This is performed in step S43) of FIG. Also, here, a freeze start command corresponding to the freeze effect flag type is set, and the freeze time corresponding to the freeze effect flag type is set in the freeze timer.

  Next, a “specified number interrupt waiting process” for waiting for the elapse of the freeze timer time is performed (step 174). When the freeze timer has elapsed, a “freeze end command” is transmitted. Here, for example, it waits for the freeze time for irregular rotation to elapse. During this freeze time, an irregular rotation operation of the rotating cylinder is executed.

  Thus, in the case of a freeze effect accompanied by irregular rotation among the freeze effects during lever operation, the process proceeds to the process of step S175 after the processes of steps S173 to S174. However, in the case of a freeze effect without irregular rotation, the process proceeds to step S175 without passing through the processes in steps S173 to S174.

(Normal rotation setting process: S175 to S179)
In step S175, a game start wait timer is acquired as a preparation for normal rotation of the spinning cylinder (step S175), and it is confirmed whether or not the timer value is 0 (zero) (step S176). If the value of the game start wait timer is not zero, the process waits until the timer value becomes zero (step S176: NO). This game start wait timer is a timer for restricting “game time of one game” in the normal operation, and 4.1 seconds is set in the process of the next step S177. As a result, the time required for one game is 4.1 seconds at the shortest.

  When the game start wait timer is zero (step S176: YES), first, 4.1 seconds is set as the minimum time required for one game in the game start wait timer (step S177). Then, as the normal rotation start setting process, “control data for normal rotation operation” is set, and “01H (during full rotation)” is set in the rotation state flag (step S178: normal rotation start setting process). . Here, control data for normal rotation is set, and after the freeze time related to the lever operation freeze, all the cylinders start normal rotation by this process, and the first rotation of the rotation rotation stop button 12 is stopped. The operation is allowed (the built-in LED of the rotating cylinder rotation stop button changes from red to blue). As a result, the rotation rotation start setting process with and without the freeze operation at the time of lever operation is substantially ended.

  Finally, as the production control command, a “rotation start command” for designating that the spinning cylinder has been started is set, thereby exiting the spinning cylinder rotation start setting process (step S211). Here, the rotation start command can be used instead of transmitting a freeze end command to the effect control unit 410 side. When informing the effect control unit 410 of the end of the freezing effect at the start of rotation of the spinning cylinder, the above “freeze end command” may be prepared and transmitted. Since the start command is set and transmitted to the production control unit 410, it is possible to substitute the freeze end command with this rotation start command without preparing and transmitting the freeze end command.

  As described above, the process exits from the rotation rotation start process and proceeds to the rotation stop process (step S19) in FIG. Each spinning cylinder 5a, 5b, 5c enters a rotation state (normal rotation operation).

(1-4. Cylinder stop processing: FIG. 11)
Next, referring to FIG. 11, the spinning cylinder stop process (step S19) of FIG. 8 will be described. FIG. 11 is a flowchart showing details of the spinning cylinder stop process of FIG.

  In FIG. 19, first, the main control unit 400 determines whether or not the rotating cylinder rotation stop button 12 has been operated while the rotating cylinder can be stopped (step S201). In the present embodiment, in the main control unit 400, when the rotating cylinder rotation start lever 11 is operated and each rotating cylinder starts normal rotation, and the rotation of the rotating cylinder rises to a substantially constant rotational speed, the corresponding rotation of each rotating cylinder is started. The stop operation function of the trunk rotation stop button 12 is effectively activated (stoppable state). At this time, the stop button lamp built in the stop button is changed from red to blue under the control of the main control unit 400, and the stop is stopped. The player is informed that it can be operated.

  When there is a stop operation for the rotation rotation stop button 12 in a state where the rotation stop is possible (step S201: YES), stop preparation data is set (step S202). The stop preparation data includes “stop operation order data” that can specify the pressing order, and “stop rotation number data” that can specify the number of rotations that have already stopped (number of stop rotations) (for example, first data In the case of a stop operation, since there is no stop spinning cylinder, it becomes the data specifying 'stop winding number = 0'). In addition, a stop interval timer (for example, 213 ms) including a margin time required for the rotor to completely stop under the pull-in control is included, and these are set as stop preparation data. Note that the current pressing order and the first stop operation can be grasped from the stop operation order data and the current rotation stop number data.

  Next, a “stop input information acceptance command” is set as an effect control command when the stop button is operated (step S203). The stop information reception command includes information that can specify the stop operation order data, the stop turn number data, and the stop target turn data.

  Next, a symbol stop control process is performed (step S204). In this symbol stop control process, a target stop table (not shown) is selected based on the winning information (internal winning flag) and the stop operation procedure (push order and stop operation timing), and the number of sliding frames is selected from the stop table. , And stop rotation control (retraction control) based on this is performed. In addition, when the spinning cylinder stops, based on the stop position, it is possible to specify on which winning line the symbol number of which symbol is stopped on each spinning cylinder. ) ”Is created and set in a predetermined area of the main RAM. Since this symbol stop information is created for each stop of each cylinder, it is possible to grasp the symbol stop point (for example, the listening state of a specific winning combination). This symbol stop information is cleared for each game. In addition, although the stop position of the rotating cylinder can be grasped even when the rotating cylinder actually stops, based on the stop operation symbol number and the number of sliding frames, at the stage before the rotating cylinder stops completely, It is also possible to grasp the stop position of the rotating drum.

  Next, a “stop result information command” is set as an effect control command at the time of rotation stop (step S205). The “stop result information command” includes the symbol stop information created when the rotating drum stops. On the production control unit 410 side, in accordance with the “stop result information command” and “stop input information reception command”, the order of pushing, the current rotation / stop state of the spinning cylinder, the winning line (the effective winning line and / or the pseudo The stop symbols on the winning line) can be grasped. As a result, on the side of the production control unit 410, a penalty setting process for generating a penalty, or an effect (for example, a stop sound at the time of the stop operation or a specific stop eye) at the time of the stop operation of the rotating cylinder (at the time of stop control). An effect control process is performed to produce an effect that reports (listening state).

  Next, the timer time (213 ms) set in the stop interval timer is monitored (step S206), and when the stop interval timer is not zero, it waits until the timer becomes zero (step S206: NO). If the stop interval timer becomes zero (step S206: YES), a freeze effect process before stopping the full-time trunk is performed (step S207).

  In the freezing effect process before stopping the full turn, the setting process necessary to generate 'freeze 2' or 'freeze 3' belonging to "freeze before full turn stop" triggered by the first stop operation or the second stop operation. I do. This process is similar to S171 to S174 in the rotating drum rotation start setting process of FIG. Here, first, a freeze effect flag is acquired, and whether or not the freeze effect flag is related to the freeze effect flag type before the all-stops cylinder stop, in this embodiment, freeze 2 (02H) or freeze 3 (03H). Determine whether. If the acquired freeze effect flag is not “Freeze 2 (02H)” or “Freeze 3 (03H)”, the process proceeds to Step S208 without doing anything.

  If the acquired freeze effect flag is “Freeze 2 (02H)” or “Freeze 3 (03H)”, it is determined whether or not a stop operation has been performed. For example, if the acquired freeze effect flag is “Freeze 2 (02H)” and the current stop operation is the first stop operation, the setting process required for occurrence of Freeze 2 is performed assuming that the Freeze 2 occurrence condition is satisfied. Do. Specifically, a freeze start command (for freeze 2) is set, and the freeze time required for freeze 2 is set in the freeze timer. Then, the “designated number interrupt waiting process” for waiting for the elapse of the freeze timer time is performed, and when the freeze timer elapses, the “freeze end command” is transmitted, and thereby, the freeze effect process before all cylinder stops The process related to the occurrence of Freeze 2 is finished. Note that the above-described series of processing contents are the same processing contents for freeze 3, and are therefore omitted to avoid duplication.

  Next, it is determined whether or not all the cylinders are stopped (step S208). After the first stop operation or after the second stop operation, since there is still a rotating cylinder, the determination is NO, and the process returns to step S201 to wait for the entire cylinder stop by the third stop operation. .

  If all the cylinders are stopped through these first to third stop operations (step S208: YES), “freeze effect processing after all cylinders is stopped” is performed (step S209).

  In the freezing effect processing after all-rounding stop, setting processing necessary for the occurrence of 'freeze 4' belonging to "freezing after all-rounding stop" triggered by the third stop operation is performed. This process has a process content similar to the above-described freeze effect process before stopping all cylinders (step S207). Here, first, a freeze effect flag is acquired, and it is determined whether or not the freeze effect flag is related to the freeze effect type after all-round torso stop, that is, freeze 4 (04H) in this embodiment. If the acquired freeze effect flag is not “Freeze 4 (04H)”, the freeze effect process is exited without stopping anything after stopping the full-length trunk. As a result, the process exits from the turning cylinder stop process and proceeds to the winning determination process (step S20) in FIG.

  If the acquired freeze effect flag is “Freeze 4 (04H)”, the setting process required for occurrence of Freeze 4 is performed assuming that the Freeze 4 occurrence condition is satisfied. Specifically, a freeze start command (for freeze 4) is set, and the freeze time required for freeze 4 is set in the freeze timer. Then, a “specified number interrupt waiting process” for waiting for the elapse of the freeze timer time is performed. When the freeze timer elapses, a “freeze end command” is transmitted, whereby the process related to the occurrence of freeze 4 is completed. . As a result, the process exits from the turning cylinder stop process and proceeds to the winning determination process (step S20) in FIG.

(1-5. Winning determination process: FIG. 12)
Next, with reference to FIG. 12, the details of the winning determination process in step S20 of FIG. 8 will be described. FIG. 12 is a flowchart showing the winning determination process of FIG.

  In FIG. 12, the main control unit 400 first sets the number of effective pay lines (step S301). Since the effective winning line of this embodiment is a single line of the middle horizontal line, “1” is set as the number of effective winning lines.

  Next, a winning symbol flag is created and set based on the stopped symbol information (winning line data) (step S302). This winning symbol flag is data that manages the combination of symbols that finally stopped on the effective winning line (the combination of symbols after all cylinder stops (game result information)), and when there are multiple effective winning lines Is a winning symbol flag corresponding to each valid pay line. This data is cleared for each game.

  Next, the payout number of game medals is calculated based on the winning symbol flag (step S303: payout number calculation process). Here, it is determined whether or not the winning symbol flag is a winning combination that requires a game medal to be paid out. If it is a winning combination that requires a game medal to be paid out, the number of payouts is calculated.

  Next, it is determined whether or not the payout number calculation process (step S303) related to the winning symbol flag has been completed for all winning lines (all valid winning lines) (step S304). In the present embodiment, the effective pay line is a single middle horizontal line. However, when there are a plurality of effective pay lines, the payout number calculation process for all the effective pay lines is repeated (step S304: NO).

  Next, when all the winning lines have been completed (step S304: YES), the calculated payout number is set (step S305: payout number data ← payout number). Here, the payout number information is set in a predetermined area of the main RAM 401b.

  Next, an erroneous winning determination process is performed (step S306). In this erroneous winning determination process, before stopping the full-time trunk, information on the combination of symbols corresponding to the winning combination won in the game this time (data for illegal judgment) and the actual winning line at the time of all-round stop By comparing and referring to the winning symbol flag that is a combination of symbols that have been stopped, it is determined whether the winning symbol is a regular winning or an incorrect winning.

  Specifically, if the illegal determination data and the winning symbol flag do not match, it is determined that the winning symbol is a winning prize, the winning symbol flag and the payout number data are cleared, and a predetermined error process (incorrect winning error process: For example, if the illegal determination data and the winning symbol flag match, it is determined that the winning is a regular winning, and the process of step S307 is performed. move on.

  When the erroneous winning determination process in step S306 is completed, a “winning information command” is set as an effect control command related to the stop of all the cylinders (step S307). This winning information command includes at least “game result information” that can identify a combination of symbols stopped on the active winning line, and further includes stopped symbol information on the pseudo winning line, current game state information, and the like. be able to. With such a prize information command, the production control unit 410 can grasp the current game result. Note that the top entry prize information command of the present embodiment includes information that can specify what combination of symbols is stopped (stopped symbol type) on the active winning line and the pseudo winning line as the game result information.

  When the “winning information command” is transmitted from the main control unit 400 side, the production control unit 410 grasps the current game result, and triggers the production at the time of all-round trunk stop, for example, derivation display of the game result. "Awarding effects (directions that appear according to the winning role type: replay winning sound, replay winning light effect, small role winning sound, small role winning light effect, etc.)" Perform control processing.

  Next, it is determined whether or not a bonus game is in progress (step S308). If the bonus game is not being played (step S308: NO), the winning determination process is exited without doing anything. On the other hand, if the bonus game is being played (step S308: YES), the number of game medals for the current payout number is added to the bonus game payout number counter, and a bonus number information command is set (step S309: Bonus). (In-game acquisition number addition process). The bonus earned number information command includes the current payout number information and the current bonus game payout number counter information. When the “bonus earned number information command” is transmitted from the main control unit 400 side, the effect control unit 410 grasps the number of acquired bonuses (payout number) during the current bonus game, for example, on the liquid crystal screen. An effect control process is performed for causing an image display effect to notify information on the current payout number during the bonus game.

  As described above, when the winning determination process is terminated, the process proceeds to the medal payout number monitoring process in step S21 of FIG.

(1-6. Medal Payout Number Monitoring Process: FIGS. 13 to 21)
Next, the details of the medal payout number monitoring process in step S21 of FIG. 8 will be described with reference to FIG. FIG. 13 is a flowchart showing the medal payout number monitoring process.

  In FIG. 13, the main control unit 400 first acquires a freeze effect flag, and the freeze effect flag relates to a “payout freeze effect type” triggered by the payout of a game medal, in this embodiment, “freeze 5”. (05H) ′ is determined. When the freeze effect flag is “Freeze 5 (05H)” (step S401: YES), the process proceeds to a payout freeze control process (step S402) described later. In the payout freeze control process, a setting process necessary for occurrence of freeze 5 is performed. The details of the payout freeze control process will be described later with reference to FIG.

  If the freeze effect flag is not Freeze 5 (05H) (step S401: NO), the payout number data is acquired and it is determined whether or not the payout number is zero (step S403). When the payout number data is zero (step S403: = 0), that is, when the winning combination that gives out game medals is not won in the current game, or the payout of game medals by winning is completed. If there is no need to pay out game medals, the process proceeds to step S411 described later.

  On the other hand, if the payout number data is not zero (step S403: ≠ 0), that is, if the payout of game medals has not ended, then the credit number is the maximum credit number (50 in this embodiment). It is determined whether or not (step S404).

(If the maximum number of credits is not reached: processing route following steps S404 to S409)
First, the processing route when the number of credits is not the maximum (step S404: ≠ MAX) will be described. This processing route is a processing route for performing “winning credit addition processing (steps S405 to S408)” for crediting the storage device (credit means) the number of game medals to be paid out when the number of credits is not the maximum. is there.

  If it is not the maximum number of credits (step S404: ≠ MAX), 1 is added to the credit (step S405: credit + 1).

  Next, the credit display data is updated (step S406). Here, the credit display data is updated to the added credit value. The updated credit display data is used in the display output process (step S47 in FIG. 21), and is thereby updated to a display number that is “+1” to the current display number of credits by the credit number display 86. It will be.

  Next, standby processing for waiting for elapse of a predetermined standby time is performed (step S407). Here, for example, 60 ms is set as a standby time for paying out game medals in a predetermined timer management area of the RAM 401b. This waiting time is displayed as a form of “paid appearance” that appears in response to paying out game medals, for example, every time credit is added (credit +1), and an increase in credit is notified. This is used as a production time width for making a “payment effect at the time of payout (for example, credit added sound)” appear.

  Next, a payout medal count process is performed (step S408). For convenience of explanation, the payout medal counting process will be described first.

(1-6-1. Payout medal count processing: FIG. 14)
Details of the payout medal counting process in step S408 of FIG. 13 will be described with reference to FIG. FIG. 14 is a flowchart showing the payout medal counting process.

  In FIG. 14, the main control unit 400 first adds 1 to the PAYOUT data (step S431: PAYOUT data + 1).

  Next, the PAYOUT display data is updated (step S432). Here, the PAYOUT display data is updated to the PAYOUT data value after the addition. The updated PAYOUT display data is used in the display output process (step S47 in FIG. 22), and is thereby updated to a display number that is “+1” to the current payout display number by the payout number display unit 87. become.

  In this game, when entering the process of step S432 for the first time, the payout number display 87 is “zero” display. Therefore, when the process of step S432 is performed for the first time, the current payout number display on the payout number display 87 is updated to a display indicating that a total of 1 payout has been made (here, “0”). Thereafter, the payout medal count process is repeatedly executed until the number of payouts becomes zero (the process in the case where the determination result in step S409 in FIG. 13 is “≠ 0”). Route), every time a game medal is paid out, the display on the payout number display 87 is incremented by “+1”.

  Next, 1 is subtracted from the payout number data (step S433: payout number data-1), and then a “payout command” is set (step S434), thereby completing the payout medal counting process. The “payout command” is an effect control command for designating that a game medal has been paid out, and is transmitted every time 1 is subtracted from the payout number data. That is, every time a game medal is paid out, a payout command is transmitted to the effect control unit 410 side.

  When the payout command is transmitted from the main control unit 400 side, the production control unit 410 causes a “medal payout sound” to appear as an aspect of “payout appearance”. Therefore, in this embodiment, every time there is “pay out of one game medal” as the number of payout units, a medal payout sound appears once, and it can be confirmed that a game medal is paid out. .

  However, since the case where the credit is “less than the maximum number of credits” is described here, the “credit added sound” appears as the medal payout sound every time the credit is added (+1) (speaker 16). Output). The credit addition sound may be the same or different in the medal payout sound when the game medal (actual) is paid out and the sound effect (for example, tone color or melody). good.

  On the side of the production control unit 410, the game result (the winning combination type (stop symbol type on the winning line)) is grasped by receiving the winning information command (see step S307 of the winning determination process in FIG. 12). In accordance with the winning combination information included therein, a winning effect corresponding to the winning combination, for example, a sound effect (winning sound), a light effect (a winning combination notification light effect, a winning combination on the line established by the symbol irradiation means (virtual) At least one of the production modes can be displayed: a design irradiation effect of irradiating a stop symbol corresponding to a winning combination) in a predetermined light emission mode, and an image display production (image display production at the time of winning a prize). In addition, it is determined according to a winning combination which production mode appears.

  In particular, in the case of a winning combination with payout of game medals, the “paid appearance appearance” that appears in response to payout of game medals is the above-mentioned “winning effect (first based on winning information command). The payout appearance) ”and“ medal payout sound (second payout appearance based on payout command) ”based on the payout command are a series of effects. Note that the payout appearance may be an effect mode that appears based on at least one of the winning information command and the payout command.

  More specifically, for example, when the bell alignment (12-piece AT role) related to AT1 is established (winning), and the winning information command including the information is received by the effect control unit 410 side, As a sound production, a “winning sound (a sound production different from the medal payout sound)” for notifying that the bell set has been won is generated. In addition, as a light effect, the 'Bell Alignment' ("Bell"-"Bell"-"Bell") symbol on the middle horizontal line is flashed or lit by the pattern illumination backlight LED to notify the winning of the "Bell Alignment". Then, by using a light emitting means such as the decorative lamp 13, a light effect exhibiting a light emission color (for example, yellow) corresponding thereto is displayed. Further, as an image display effect, the liquid crystal display device 6 displays an image display (for example, a specific character image or a specific item image) indicating a winning of “bell alignment”. Each time the payout command is received, a medal payout sound is made to appear in a form that accompanies an effect mode based on such a prize information command. That is, the winning effect and the medal payout sound appear independently and redundantly. As a result, “paid-out appearance” by sound effect, light effect, image display effect, etc. is realized in correspondence with payout of game medals.

  Note that the winning effect (first payout appearance) based on the winning information command is displayed until a “payout end command” to be described later, which specifies that the payout has ended, is received in principle. However, a specific winning effect, for example, a symbol irradiation effect, can be ended when the bet number in the next game is set without being ended even if a payout end command is received.

  Further, in the present embodiment, the production control unit 410 has been described as causing the medal payout sound due to the sound production to appear upon receipt of the payout command. However, the present invention is not limited to this, and upon receipt of the payout command. If necessary, at least one of a specific light effect (medal payout light effect) and a specific image display effect (medal payout display effect) may be displayed.

  Returning to the description of the medal payout number monitoring process in FIG.

  When the “payout medal counting process” in step S408 is completed, it is next determined whether or not the payout number data is zero (step S409). If the payout number data is not zero (step S409: ≠ 0), it is determined that there is a remaining payout number, and the process returns to step S404. In this way, when the processes in steps S404 to S409 are repeated, the credit reaches the maximum number of credits (50) or the payout number data becomes zero. Therefore, when the number of payouts becomes zero (step S409: = 0), processing of steps S410 to S412 described later is performed. The paying-in flag is set to the ON state (working state “01H”) in the process of step S451 in the “payout sensor check process” of FIG. 15 executed when the real game medal is paid out.

  On the other hand, when the number of credits is the maximum number of credits (step S404: = MAX), the processes of steps S413 to S416 are performed.

(If it is the maximum number of credits: processing route to follow steps S413 to S416)
The processing route of steps S413 to S416 is “the game medium payout process at winning (steps S413 to S416)” for paying out a real game medal from the inside of the gaming machine when the number of credits reaches the maximum number of credits. Is a processing route to be executed.

  The game medal payout operation using the hopper unit 500 includes a “payout sensor check process (step S413, FIG. 15 showing details)” described later, and a “payout medal count process (step S414, FIG. 14)” described above. These processes are repeated until the payout number data becomes zero, that is, until the payout of the required number of game medals is completed (step S415: ≠ 0) (steps S413 to S415). When the production control unit 410 receives the “payout command” in the payout medal counting process (step S414) here, a “medal payout sound” appears every time a game medal is paid out from the hopper unit 500. Will be.

  When the game medals are paid out (step S415: = 0), the medal payout control signal is turned off (step S416), and the hopper motor 510 is stopped. The medal payout control signal is a control signal (energization signal) for rotating the hopper motor 510, and is set to the “ON state” in the process of step S452 during the payout sensor check process.

  Next, the paying-out flag is returned to the initial state (00H) (step S410), and a payout end command is set (step S411). This “payout end command” is an effect control command for designating that the payout of the game medal has ended. When this payout end command is transmitted from the main control unit 400 side to the effect control unit 410 side, On the control unit 410 side, it is grasped that the payout of game medals has ended, and a part or all of the payout appearances that are currently appearing are ended.

  Then, a full error determination process based on the detection state of the full detection metal fitting 600 is performed (step S412). In this full error determination process, the detection state (ON / OFF state) of the full detection metal fitting 600 is confirmed, and if the detection state is ON, it is determined that the auxiliary tank is full and full error processing is performed. If it is in the OFF state, the full error determination process is terminated without doing anything.

  When the medal payout number monitoring process is completed as described above, the process proceeds to the re-game setting process in step S22 of FIG.

(1-6-2. Payout sensor check process: FIG. 15)
Details of the payout medal counting process in step S413 in FIG. 13 will be described with reference to FIG. FIG. 15 is a flowchart showing the payout sensor check process.

  In FIG. 15, the main control unit 400 first sets the paying flag to the working state (01H) (step S451), and sets the medal payout control signal to the ON state (step S452). As described above, this medal payout control signal is a signal for controlling energization to the hopper motor 510. When the medal payout control signal is turned on, the hopper motor 510 rotates, and in response to this, the discharge is performed. A game medal captured by a use disk (not shown) starts moving toward the medal discharge port 57.

  Next, initial values (for example, 2500 ms and 100 ms) are respectively set in the “medalless error timer” and the “payout sensor error timer” (step S453). The “medal-free error timer” is a timer for determining that a game medal stored in the hopper tank 14 is in an empty state (empty). In this example, 2500 ms is set as the duration for continuing the operation.

  This medal-free error timer is monitored every interrupt cycle (1.5 ms) of the main control unit timer interrupt processing described later, and specifically, the integer value INT (2500 / 1.5) is set as the initial value. Is done. The larger the initial value, the higher the accuracy of the no-medal error (hopper error). However, if the initial value is increased to a dark cloud, the sky state is prolonged accordingly, which is not preferable from the viewpoint of the operating rate of the gaming machine. For this reason, 2500 ms is set here as an appropriate initial value.

  The “payout sensor error timer” is a timer for managing the duration time of the ON state (detection state) of the medal detection sensor 520. Here, the initial value is an integer value corresponding to 100 ms (monitoring time). Set INT (100 / 1.5). In particular, the payout sensor error timer is a timer that plays an important role in monitoring fraud against the hopper unit 500, and this initial value (100 ms) relates to the prevention of fraud and the detection performance of the medal detection sensor 520. An appropriate value is set according to design specifications. In this embodiment, the ON duration of the medal detection sensor 520 is defined by the rotational speed of the hopper motor 510, the size of the game medal, the form of the medal discharge mechanism, the specific configuration of the medal detection sensor 520, and the like. In general, the shorter the ON duration, the better the game medal payout speed. However, if the extra payout speed is too high, there is a risk of erroneous determination. Therefore, in consideration of these points, the ON duration for design is set to about 80 ms, and the specification that the ON duration does not exceed 100 ms in any case as long as the payout state is normal (ON duration) Time is less than 100 ms).

  After the initial values are set in the timers, the transition of the ON / OFF state of the medal detection sensor 520 is determined every predetermined time (one interrupt) (step S454). It is determined whether or not it is in an ON state continuously (step S456). When the medal detection sensor 520 detects a game medal, it rises from the OFF state to the ON state, and when the game medal passes the sensor, it falls from the ON state to the OFF state. Here, the ON / OFF state is determined every 1.5 ms. Is done.

  Since the ON state continues for a while after the medal detection sensor 520 rises to the ON state, the payout sensor error timer is decremented every time ON → ON is determined (steps S454 to S457). Here, since the processing of steps S455 to S457 is determined every 1.5 ms (step S454), when the payout sensor error timer becomes zero, the medal detection sensor 520 is continuously turned on for 100 ms. This is when the state is maintained.

  As described above, in the present embodiment, the medal detection sensor 520 is designed so that the ON duration time is less than 100 ms in any case. Therefore, when the payout sensor error timer becomes zero, the medal detection is performed. In consideration of a hopper jam caused by a failure of the sensor 520 or clogging of medals or a possibility of fraud, the medal payout control signal is turned off and the hopper motor 510 is stopped (step S459).

  Then, error processing for notifying that an abnormality has occurred in the medal detection sensor 520 (payout sensor error) is performed (step S460: payout sensor error processing). In this payout sensor error process, display control (light emission control signal data setting) of the payout number display 87 is performed and an error code (for example, “CH”) is displayed (see the display output process in step S47 in FIG. 22). In addition, as an error notification process, an error command including error type information (here, payout sensor error) is set. The production control unit 410 functions as an error notification unit. When the “error command” is transmitted from the main control unit 400 side, the production control unit 410 performs an error notification control process corresponding to the error type on the production unit. Here, by the error notification control process by the effect control unit 410, a predetermined error notification mode related to the payout sensor error appears (executed) by the effect means.

  After that, if the error is released by the hall clerk operating the error release switch (not shown) provided on the cylinder setting board 430, etc. (step S461: ON), the process proceeds to step S451. Then, again, the medal payout control signal is turned on, the hopper motor 510 is rotated, and the game medal payout operation is executed.

  Although the payout sensor error state has been described above, normally, the ON duration of the medal detection sensor 520 is less than 100 ms, and the OFF state is repeated before the medal detection sensor 520 rises to the ON state.

  Accordingly, when the medal detection sensor 520 repeats the OFF state (OFF-OFF state), the moment when the medal detection sensor 520 rises from the OFF state to the ON state (OFF-ON state), and the moment when the medal detection sensor 520 falls from the ON state to the OFF state (ON -OFF state), the determination result in step 456 is "NO", and the process proceeds to the determination process in step S462.

  In the process of step S462, it is determined whether or not the payout sensor error timer is an initial value (step S462).

  Here, when the medal detection sensor 520 repeats the OFF state, or at the moment when the medal detection sensor 520 rises from the OFF state to the ON state, the value of the payout sensor error timer has not been executed since the decrement processing in step S457 has not been executed. Remains the initial value (100 ms) (step S462: = initial value). In this case, 1 is subtracted from the value of the no-medal error timer (step S463), and if the subtraction result is zero (step S464: ≠ 0), the process proceeds to step S454, and the subsequent processes are performed again. The process is sequentially performed until the payout sensor error timer becomes a value different from the initial value.

  On the other hand, at the moment when the medal detection sensor 520 falls from the ON state to the OFF state, the decrement process of step S457 is always executed before that. In this case, assuming that the normal game medal payout operation is completed (step S462: ≠ initial value), the payout sensor check process is exited, and the process proceeds to the payout medal count process of step S414 in FIG.

  Here, when the hopper tank 14 is in an empty state, no medal is discharged even if the hopper motor 510 is rotated, so that the medal detection sensor 520 is not turned on and is repeatedly turned off. . In this case, the payout sensor error timer remains at the initial value, the determination result in step S456 is always “NO”, and the determination result in step S462 is always “= initial value”, and “steps S454 → S455 → S456 → The processing route of “S462 → S463 → S464 → S454” is repeated, and the medal-free error timer becomes zero after about 2500 ms by the processing of step S463.

  When the medal-free error timer becomes zero (step S464: = 0), a hopper error management process is performed (step S465). In this hopper error management process, a process related to a “hopper error” for notifying that the hopper tank 14 is in an empty state and the game medal in the gaming machine is in an empty state is performed. The hopper error management process will be described below.

(1-6-3. Hopper error management processing: FIG. 16)
Details of the hopper error management process in step S465 of FIG. 15 will be described with reference to FIG. FIG. 16 is a flowchart showing a hopper error management process.

  In the process of step S464, when the medal-free error timer becomes zero (step S464: = 0, FIG. 15), the main control unit 400 sets the medal payout control signal to the OFF state at this timing, and the hopper motor 510 Is stopped (step S481).

  Normally, at the timing of this step S481, it is considered that the game medal inside the gaming machine is in an empty state, and a hopper error notification process of step S487 described later may be executed, but when such a processing method is adopted The following problems arise.

  In rare cases, (α) the hopper tank 14 is not completely empty, and the remaining number of game medals is small (for example, 1 to 2). There may be an undischarged state in which the game medals cannot be captured and the discharging disk is repeatedly rotated in the uncaptured state. In addition, (β) as a result of repeated rotation of the ejecting disk, the remaining game medals are not completely ejected and stopped at a halfway position. For example, the medal detection sensor 520 is turned on. There may also be an undischarged state in which the medal detection sensor 520 has not yet fallen into the OFF state although it is in the near state or is in the ON state.

  Here, in principle, the hopper motor 510 stops rotating at the timing of step S481, but even if the medal payout control signal is in the OFF state, the L property (inductance value) of the DC motor drive winding, Corresponding to the braking characteristics of the DC motor, in particular, the rotation stop timing of the motor is delayed from step S481. Therefore, with emphasis on this point, it is possible to provide a high-performance braking mechanism in the drive circuit of the payout motor M. However, a time delay of about 1/10 second to 1/2 second is inevitable due to inertial force or the like. Yes, even after the medal payout control signal is turned off, the rotation of the hopper motor 510 is continued for a short time.

  Of the non-discharged states (α) and (β), in the former case (α), there is no problem even if it is determined that the hopper tank 14 is empty, but the medal payout control signal is turned OFF. Considering that the hopper motor 510 does not stop immediately, in the latter case (β), there is a possibility that a game medal is paid out by the hopper motor 510 that continues to rotate somewhat thereafter. In this case, if the error processing is executed immediately after the medal payout control signal is turned off, that is, immediately after step S481, the game medal to be paid out is missed. Such a situation is not preferable for the hall side where a large number of gaming machines are installed even if it is overlooked by about one, because disadvantages may increase.

  Therefore, in the present embodiment, considering the possibility of the latter (β), the medal payout control signal is turned OFF by the processing in step S481, and then the medal-free error timer is reset to the initial value corresponding to 100 ms. It is set (step S482).

  Then, the medal detection sensor 520 is determined every predetermined time (every 1.5 ms) (steps S483 to S484). If the medal detection sensor 520 is in the OFF state, the process of decrementing the no-medal error timer is repeated (steps). S485, step S486: ≠ 0), it is confirmed that no game medals remain. Also, here, even when the game medal medal detection sensor 520 is in the ON state, or when the medal detection sensor 520 is changed to the ON state due to the inertial force of the hopper motor 510, as long as this ON state continues, The decrement process of the no-medal error timer is repeated.

  Then, when the no-medal error timer becomes zero (step S486: ≠ 0), an error process (step S487: notifying that the game medal inside the gaming machine has become empty (hopper error) is performed by the rendering means. Hopper error notification process). In this hopper error notification process, display control of the payout number display 87 is performed, and an error code (for example, “HE”) is displayed. As an error notification process, an error command including error type information (here, a hopper error) is set. Here, by the error notification control process by the effect control unit 410, a predetermined error notification mode related to the hopper error (error notification when a true hopper error occurs (true hopper error notification)) appears by the effect means ( Execution).

  Thereafter, the process exits the hopper error management process, proceeds to the process of step S461 in FIG. 15, and waits for error cancellation by the hall clerk (step S461: OFF).

  Further, when the medal detection sensor 520 shifts from the ON state to the OFF state due to the inertial force of the hopper motor 510, that is, when the medal detection sensor 520 confirms the discharge of the game medal (step S484: ON → After the OFF medal count process of FIG. 14 is performed (step S488), the hopper error notification process (step S487) is performed. As already described, when the medal detection sensor 520 in the ON state does not return to the OFF state, that is, when the game medal is in an undischarged state, the payout medal counting process (step S488) is executed. Since there is no (step S484: ON / OFF continuation), neither the hall side nor the player is disadvantaged. Although the hopper tank 14 is not completely empty and there is a possibility that about one medal still remains, there is no change in the lack of game medals in the hopper tank 14, so the hopper The error notification process (step S487) should be executed.

  As described above, in this embodiment, it is possible to determine the payout of medals up to the last one. Therefore, it is possible to accurately determine whether or not a game medal has been paid out, so that an accurate game medal payout operation is realized.

(1-7. Discharge Freeze Control Process: FIGS. 17 to 20)
Next, details of the “payout freeze control process (step S402)” during the medal payout number monitoring process of FIG. 13 will be described with reference to FIGS.

  This payout freeze control process is a control process related to a freeze effect type (freeze 5 in the present embodiment) belonging to “payout freeze” that is controlled in a freeze state during the payout of game medals. Here, in the case where a plurality of game medals are paid out by winning, the payout number of game medals that will cause a freeze is defined as “freeze occurrence opportunity payout number (first half payout number)”. Executes the freeze state when triggered by the payout, and after the freeze time ends, the payout freeze effect is realized by executing the payout operation of the “remaining payout number (second half payout number)” which is the remaining payout number doing. The payout freeze control operation will be described in detail below.

(1-7. Discharge Freeze Control Process: FIG. 17)
When entering the payout / freeze control process of FIG. 17, first, “freeze prepaid payout control process (step S501) and remaining remaining payout number (second half payout number)” relating to the payout operation for the number of payout occurrences (first half payout number). The “remaining number payout control process (step S502)” related to the payout operation for the minute is executed.

(1-8. Pre-freeze payout control process: FIG. 18)
The details of the pre-freeze payout control process in step S501 of FIG. 17 will be described with reference to FIG. FIG. 18 is a flowchart showing the pre-freeze payout control process. Note that, regarding the pre-freeze payout control process, the processing contents substantially the same as the medal payout number monitoring process in FIG.

  In FIG. 18, the main control unit 400 first obtains the payout number data (step S511), and designates the number of payouts (freeze occurrence trigger payout number) in the stage before the occurrence of the freeze based on the payout number data. “Occurrence trigger payout number data” is created and set in a predetermined area (freeze occurrence trigger payout data area) of the main RAM 401b (step S512: payout number classification process). For example, a predetermined number corresponding to the winning combination is set as the number of the freeze occurrence opportunity payout number. This “payout number classification process” in step S512 functions as a delay occurrence trigger number setting means for setting a predetermined delay occurrence trigger number (freeze occurrence trigger payout number).

  In the case of the present embodiment, the lottery subject roles (payout freeze occurrence triggers) that are the triggers of occurrence of freeze 5 (payout freeze) are CA bell 1 (winning number 6) and CA bell 2 (winning number 7). The dividend is 12 game medals each. Depending on the winning role type (the trigger type for the occurrence of the freezing freeze), the number of the payout occurrence payouts, that is, the number of game medals to be paid out, It is possible to set different numbers or the same number (in the case of an even number of payouts). For example, the number of CA bells 1 may be set different from six and the number of CA bells 2 may be seven, or the same number (for example, six) of CA bell 1 and CA bell 2 may be used. Accordingly, one or more types of freeze occurrence opportunity payouts can be provided.

  In the following description, for convenience of explanation, it is assumed that the first-half payout number “freeze occurrence opportunity payout number” is six, which is half of the dividend, and the second half payout number “remaining payout number” is six.

  Next, it is determined whether or not the freeze occurrence opportunity payout number data is zero (step S513). Here, it is determined whether or not the payout of game medals for the freeze occurrence trigger payout number (6 pieces) has been completed.

  When the freeze occurrence opportunity payout number data is zero (step S513: ≠ 0), the payout freeze game effect payout number of game medals has been paid out, and the “payout freeze” described later in step S520 relating to the occurrence of the payout freeze effect is given. Proceed to "Medium processing". This “processing during payout freeze” functions as a delay control means after paying out the delay occurrence trigger number, which interrupts the payout operation for a predetermined delay time after the payout of the delay occurrence trigger number (freeze occurrence trigger payout number) is completed. To do.

  If the freeze occurrence opportunity payout number data is not zero (step S513: ≠ 0), it is then determined whether or not the credit number is the maximum credit number (50 in this embodiment) (step S514). Depending on whether or not the number of credits is the maximum number of credits (step S514: ≠ MAX), the processing route of “Steps S514 to S519” or the maximum number of credits (step S514: = MAX) “ The processing route of steps S521 to S524 "is performed.

  The processing route of “Steps S515 to S519” in the case of not being the above-mentioned maximum credit number corresponds to the processing of Steps S404 to S408 during the medal payout number monitoring process of FIG. Step S515 to S518) ”. Further, when the number of credits is the maximum (step S514: = MAX), the processing route of “steps S521 to S524” corresponds to the processing of steps S413 to S416 in FIG. , Steps S521 to S524) ”.

  However, in this payout pre-freeze control process, the freeze occurrence trigger payout number data is the monitoring target, and therefore “freeze prepaid payout medal count process (S518, S522) corresponding to the processes in steps S408 and S414 in FIG. Since the processing contents of "are different, this point will be described, and the other processing contents are the same processing contents, and therefore will be omitted to avoid duplication.

(1-8-1. Prepaid medal counting process before freeze: FIG. 19)
Referring to FIG. 19, the details of the pre-freeze payout medal counting process (steps S518 and S522) in FIG. 18 will be described. FIG. 19 is a flowchart showing the pre-freeze payout medal counting process.

  In FIG. 19, the main control unit 400 first calls out the payout medal counting process of FIG. 14 and executes it (step S591). As a result, as with the normal payout process (process when no payout freeze has occurred (steps S404 to S408 in FIG. 13)), the display by the payout number display 87 is incremented by +1.

  Next, 1 is subtracted from the freeze occurrence trigger payout number data (step S592), and the pre-freeze payout medal counting process is exited. Note that the subroutine of step S591 is a processing routine that is common to the “payout medal count process (steps S408 and S414)” in FIG. 14, and in this embodiment, the payout medal count process is shared for a freeze effect. The processing burden is reduced.

  In this pre-freeze payout medal counting process, the freeze occurrence trigger payout number data is decremented together with the payout number data (see step S433 in the payout medal count process in FIG. 14). When the value becomes zero (in this case, when the payout of 6 game medals is completed), the above-mentioned “remaining payout number (second half payout number: payout 12—6 = 6)” is designated. To do. Therefore, the payout number data at this time is data (remaining number data) for designating the number of game medals to be paid out after freezing, and this data is used in the remaining number payout control process (step S511) in FIG. The

  Returning again to the explanation of the payout pre-freeze control process in FIG.

  When the “pre-freeze payout medal counting process” in step S518 is completed, it is next determined whether or not the data is the number of times the freeze has been issued (step S519). If the freeze occurrence trigger payout number data is not zero (step S519: ≠ 0), the process returns to step S514, assuming that the number of payouts causing freezing has not been reached. In this way, when the processes of steps S514 to S519 are repeated, the number of credits reaches the maximum number of credits (50) or the number of payouts causing freezing becomes zero. Therefore, when the number of payouts resulting in a freeze is zero (step S519: = 0), it is determined that the conditions for generating a payout freeze are satisfied, and “processing during payout freeze” in step S520 described later is performed.

  On the other hand, when the number of credits is the maximum number of credits (step S514: = MAX), the above-mentioned “game medium payout process at winning (medal payout number monitoring process in FIG. 13) for paying out real game medals from inside the gaming machine. Steps S521 to S524 corresponding to “Steps S413 to S416)” are performed.

  Here, the game medal payout operation using the hopper unit 500 includes the “payout sensor check process” in step S413 and the “payout payout medal count process” in step S518, which are already described in FIG. These processes are repeated until the freeze occurrence opportunity payout number data becomes zero (step S523: ≠ 0) (steps S521 to S523).

  However, the “payout sensor check process” in step S521 differs from the “payout sensor check process” in FIG. Specifically, in the hopper error management process (step S465) during the payout sensor check process in FIG. 15, the processing contents of the hopper error notification process (see FIG. 16) in step S487 are different.

  In the “payout sensor check process” in step S521, when the hopper tank 14 becomes empty, the first half payout error occurrence flag is set to the ON state (5AH) in the hopper error notification process (see step S487 in FIG. 16). Is done. This first-half payout error occurrence flag is a flag that designates that the hopper tank 14 is in an empty state before the payout occurrence opportunity payout amount is paid out, that is, before the payout freeze occurs. The first half payout error occurrence flag is used in “payout freeze processing” in step S520 described later.

  Then, when the payout for the freeze occurrence trigger payout number (6 sheets) is finished (step S523: = 0), the medal payout control signal is set to the OFF state (step S524), assuming that the payout freeze generation condition is satisfied, and step S520. “Processing during payout freeze”.

(1-8-2. Processing during payout freeze: FIG. 20)
With reference to FIG. 20, the details of the process during payout / freeze (step S520) in FIG. 18 will be described. FIG. 20 is a flowchart showing processing during payout / freeze.

  In this embodiment, when a payout freeze (freeze 5) is generated, a “hopper error” as shown in FIG. 31A has occurred using a freeze state in which the progress of the game medal payout operation is interrupted. “Pseudo hopper error production (production during the first payout freeze: hereinafter referred to as“ pseudo HE production ”)” appears and invites the player to misunderstand that a “hopper error” has occurred. The effect of freezing production is enhanced by making a freezing production with impact in the form of poke.

  In the case of the present embodiment, a plurality of types of payout / freeze effects can be displayed according to predetermined conditions. Specifically, different freeze effects can be made to appear at least according to the number of credits. Here, the number of credits at the time of starting the freeze and the ON / OFF state of the first half payout freeze occurrence flag, that is, Prior to the occurrence of a freeze (more precisely, during the period before the payout freeze after the start of the payout operation of game medals for the number of occurrences of freeze), the freeze production mode is varied depending on whether or not a hopper error has occurred. As described above, the reason for making the freeze effect different depending on the number of credits and whether or not a hopper error has occurred before the occurrence of the freeze is as follows.

  In this embodiment, a special freeze effect called the “pseudo HE effect” disguised as a hopper error is provided. However, if a payout freeze is generated regardless of the number of credits, the following problem occurs.

  The situation that a `` hopper error '' that the gaming medal in the gaming machine has become empty despite the fact that the number of credits has not reached the maximum number of credits at the stage of paying out the number of payouts when the freeze occurs is Excluding extremely rare cases such as bugs is usually not possible. Therefore, if the above-mentioned “pseudo-HE effect” is displayed when the number of credits is less than the maximum number of credits, the more advanced gamers who are used to the game will immediately be in a contradictory state that “a hopper error has occurred even though it is not empty” As a result, it is revealed that the payout freeze has occurred.

  The greatest purpose of making the “pseudo HE effect” appear is to invite the player to misunderstand that a “hopper error” has occurred, and to produce a freeze effect with impact in a form that strikes the intention. In an ideal case, the player who saw the “pseudo-HE production” misunderstood that a “hopper error” occurred and tried to call the hall clerk to clear the error. Freezing effects such as explosive sounds and flash effects are displayed at the tip of the “call button (sales clerk call button)” equipped with a simple data counter device (not shown). It is a case to be surprised. Therefore, there is a significance that the “pseudo HE effect” appears in the point that the player does not realize that it is a fake hopper error notification and misunderstands that it is a true hopper error notification.

  Therefore, in this embodiment, when the number of credits is the maximum credit, the pseudo HE effect is displayed.

  Further, in the present embodiment, whether or not a hopper error has occurred before the occurrence of freeze is a condition for causing the pseudo HE effect to appear. The reason is as follows.

  When a true hopper error occurs during the payout of game medals for the number of times of freezing occurrence (payout sensor check process (step S521 in FIG. 18, step S413 in FIG. 13, step S465 in FIG. 13, FIG. 15, FIG. 16) and the like, but an error release switch (not shown) provided inside the gaming machine (rotor setting board 430) is operated by the hall clerk to release it (see step S461 in FIG. 15). The hopper error is released by the error release procedure as follows.

  When a hopper error occurs, the front door 2 is opened by the hall clerk, and the hopper tank 14 is replenished with game medals. Next, when the error release switch is operated, the payout operation is re-executed (the determination result “ON” processing route in step S461 in FIG. 15), and the remaining game medals are paid out from the medal discharge port 57. The game medals to be paid out are usually collected by the hall clerk and placed in the medal tray 18. Then, the front door 2 is closed, thereby releasing the hopper error. Note that the gaming machine is detected by door opening detecting means (door opening sensor) for detecting the open / closed state of the front door 2 to prevent fraud, and the front door 2 remains open. During this time, predetermined error processing (door opening error) occurs based on detection information from the door opening detection means. Therefore, in reality, when a hopper error occurs, the hopper error is released and the door opening error is released, and the error occurring in the entire gaming machine is released. The fact is that the hall clerk confirms that it has been lifted.

  After the hopper error is canceled by the hall clerk as described above, the situation where the hopper error immediately occurs again is usually considered to be insignificant if extremely rare cases such as bugs are excluded. If the above "pseudo-HE production" is made to appear immediately after canceling the true hopper error, the more advanced players who are used to the game will notice that they are in a contradictory state. It will be revealed that the payout freeze has occurred. Also, although it is a pseudo error notification, if you immediately notify that a hopper error has occurred, the hall clerk who has released the true hopper error will misunderstand that it is an abnormal situation that hopper errors have occurred continuously. Thus, it may be possible to reopen the front door 2 and inspect the inside of the gaming machine. Such wasteful work / time consumption is undesirable for both the pachinko hall and the player. Therefore, in the present embodiment, the pseudo HE effect is displayed when a true hopper error does not occur in the stage before the occurrence of the payout freeze.

  On the other hand, if the number of credits is not the maximum number of credits, or if a hopper error occurs before the payout freeze occurs, it is not necessary to present the pseudo HE effect, so this is replaced with the pseudo HE effect. Is different from the “normal payout effect (second payout effect)” (details will be described later). The effect during the normal payout freeze does not have to be the effect of pretending that a hopper error has occurred unlike the pseudo HE effect, so that the player can know that the payout freeze has occurred ( An effect mode capable of notifying that a payout freeze has occurred, and the effect mode is, for example, “player participation type effect”.

  For the above reason, in the present embodiment, the appearance condition of the pseudo HE effect is not the maximum number of credits but a condition that a hopper error has not occurred before the occurrence of the freeze.

  Therefore, in this embodiment, in FIG. 20, the main control unit 400 first determines whether or not the number of credits is the maximum number of credits (step S531), and if it is the maximum number of credits (step S531: = MAX). Then, it is determined whether the number of credits is in the ON state (5AH) of the first half payout freeze flag (step S532). If the first half payout freeze flag is not in the ON state (step S532: ≠ 5AH), the pseudo Assuming that the appearance condition of the HE effect is satisfied, a “pseudo HE freeze start command” for designating the start of the pseudo HE effect is set (step S533), and the freeze time corresponding to the pseudo HE effect is set in the freeze timer ( Step S534). Then, the “special designated number interrupt waiting process” for waiting for the freeze time is performed (step S535). In this special designated number interruption standby process, a designated number interruption standby process for waiting for the freeze time, or a display control process (specific display unit) for displaying a predetermined error code on the payout number display device 87 after a predetermined time elapses. Control process). The specific display unit control process will be described later.

  The pseudo HE freeze start command has the same function as the “freeze start command”, and when this command is transmitted from the main control unit 400 side to the effect control unit 410 side, the effect control unit 410 side performs pseudo operation. An effect control process for displaying an HE effect (effect during sub-freeze) is performed. For example, as shown in FIG. 27 (a), based on the reception of the pseudo HE freeze start command, an effect scenario for a pseudo HE effect is set, and the appearance is controlled based on the scenario. Thereby, with execution of the freeze state by the main control unit 400 side, a “pseudo HE effect” appears as an effect during the sub-side freeze by the effect control unit 410 side.

(Pseudo HE effect: Fig. 31A)
With reference to FIG. 31A, the “pseudo HE effect” will be described. FIG. 31A illustrates a case where a pseudo HE effect appears when, for example, CA Bell 1 is won.

  Referring to FIG. 31A, when all the cylinders are stopped ((A) in FIG. 31A), the “middle bell alignment (payout: 12 game medals)” related to the CA bell is won on the main control unit 400 side. Based on the above, the number of times of freezing out based on the current number of payouts (12 dividends) is determined (in the figure, the first half number is abbreviated as, for example, 6), and the payout for paying out game medals for that number is determined. The operation is started ((B) in the figure). At this time, the effect control unit 410 causes a winning effect (for example, a winning sound or a light effect) corresponding to the winning due to the winning of the middle bell set (based on the winning information command). Further, during the payout of game medals, a medal payout sound appears every time the payout effect related to the bell alignment and the game medals are paid out. That is, the winning effect and the medal payout sound can occur in duplicate.

  As already described, in order to produce a freeze effect that strikes the player's intention, it is preferable not to cause the player to predict the occurrence of freeze 5. Therefore, for the notice effect and the winning effect, a special effect corresponding to CA Bell (here, CA Bell 1) is not displayed, but, for example, the same winning effect as when AT1 is won is displayed. Is preferred. In this embodiment, since the bell order (middle stage bell alignment) of CA bells 1-2 and AT1 is the same (forward pressing), if the CA bell winning is concealed from the production, the bell alignment appears. Even at that time, it can be unclear whether the player has won the CA bell or AT1. In particular, during normal times, a penalty is provided to allow the player to execute the regular procedure. Therefore, if the CA bell winning is concealed from the standpoint of production, the determination of the CA bell becomes virtually impossible.

  Next, on the main control unit 400 side, when the payout operation for six game medals, which is the number of freeze-out chances (first half number), is finished, the game medal payout operation is interrupted and the freeze state (start execution of freeze 5) is completed. Control is performed (step (S) of FIG. 18, step S520 of FIG. 18, steps S533 to S534 of FIG. 20).

  As the freeze is started, the production control unit 410 starts to execute the “pseudo HE production” ((D) in the figure). In this pseudo HE production, in order to pretend to be a pseudo hopper error, as shown in FIG. (D-1), first, as shown in FIG. The award effect is displayed for a predetermined time, and after the predetermined time has elapsed, a true hopper error (see step S487 in FIG. 16) as shown in FIG. At least partially in common with a notification (effect) aspect (hereinafter referred to as “true HE notification effect”: see FIG. 31B (D)) related to “true hopper error notification” that appears when In the production mode, this embodiment, a “fake hopper error notification production (pseudo HE production)” that is the same or substantially the same (similarly) production mode as the true HE notification production appears. In addition, although an example of the image display effect is shown in the drawing, the sound effect / light effect related to the hopper error notification can be duplicated.

(About fake pre-HE production)
Here, in the present embodiment, the “fake pre-HE start effect” is set as the following effect mode.

  When a true hopper error occurs, the time for which the hopper tank 14 is determined to be empty is approximately 2500 ms to 2600 ms (hereinafter referred to as “HE determination time”) (steps S452 and S465 in FIG. 15). Hopper error management process), see FIG. 16 showing details of S465). Here, after the completion of the game medal payout for the freeze occurrence opportunity payout number (first half number), immediately after the HE determination time has elapsed, a “false HE notification effect” as shown in FIG. Also good. However, in order to effectively deceive the player, it is preferable to make it appear that a more true hopper error has occurred when the pseudo-HE effect appears.

  Therefore, in the present embodiment, the winning effect that appears after the stop of the entire body is continuously displayed for a predetermined time without giving a sense of incongruity even after the freeze starts, while the fake that appears when the freeze starts The effect before the start of HE is an effect scenario in which a “fake medal payout sound” is made to appear at least once (for example, about 1 to 2 times) at a predetermined timing in both of the ongoing winning effects. In this case, after the fake medal payout sound appears, after the HE determination time has elapsed (if multiple occurrences, after the last fake medal payout sound appears, after the HE determination time has elapsed), FIG. -2), a “false HE notification effect” is displayed. This will be described in detail below based on the case where a true hopper error occurs and a hopper error notification occurs.

  If game medals remain in the hopper tank 14 to some extent, the prize production related to the prize production during the game medals are paid out (here, for the convenience of explanation, a prize such as “Tiro Tiro Tiro ...”). And a medal payout sound (here, a payout sound such as “Dul”) is generated in duplicate. When the hopper tank 14 is in an empty state, no medal payout sound is generated until it is determined that a hopper error has occurred (until the HE determination time elapses). "Rotiro ..." appears continuously.

  Here, when the hopper tank 14 approaches an empty state and the number of remaining game medals becomes about several, the game medals are actually paid out in view of capturing the game medals while the discharge disk of the hopper unit 500 rotates. The interval becomes longer than usual, and the phenomenon that the medal payout sound “dul” is delayed by about 1 to 2 seconds from the usual occurs frequently.

  Paying attention to such an event related to paying out game medals, in the “fake pre-HE start effect”, a “fake medal payout sound” is delayed about 1 to 2 times at a predetermined timing together with a winning effect. The production scenario is such that it looks like a hopper error has occurred. Even if such a fake medal payout sound appears, unless the player carefully observes that a game medal has been paid out to the medal tray 18, it will be recognized as a fake medal payout sound. Because there is no problem, it is considered that there will be no problem. However, since the more the number of appearances of the fake medal payout sound is, the more easily it is recognized as a fake medal payout sound, it is preferably about once or twice.

(About HE notification effect)
Returning to the description of FIG. 31A again, after the “fake HE start effect” shown in FIG. 31 (D-1) appears for a predetermined time, the “fake HE notification effect shown in FIG. To appear. This “false HE notification effect” is substantially the same as the “true HE notification effect” that appears when a true hopper error occurs, preferably the same notification mode (effect mode). "Pseudo hopper error notification effect". In the present embodiment, a series of effect scenarios of the fake pre-HE start effect and the fake HE notification effect can make the player think that a true hopper error has occurred.

(Pseudo error code display (specific display control process: step S535 in FIG. 20))
In particular, in the present embodiment, a specific error code can be displayed on the payout number display 87 together with the “false HE notification effect” as described above so as to make it appear that a more true hopper error has occurred. Yes. The “specific error code” here is substantially the same as that when a true hopper error has occurred, preferably the same error code (indicated as “HE” in this embodiment). The error code corresponding to the error (false error code). Accordingly, it is possible to pretend that a true hopper error has occurred more effectively than expressing a false hopper error only in the production by the production means.

  Here, the processing content of the “specific display unit control processing” in the processing of step S535 in FIG. 20 will be described in detail.

  The main controller 400 monitors the freeze timer, and displays the specific error code 'HE' on the payout number display 87 after a predetermined time has elapsed since the payout freeze started. Here, the “predetermined time” is a time width from the start of the payout freeze until the fake HE notification effect is started, that is, a time width corresponding to the effect time of the “fake HE start effect”. It has become. As a result, the specific error code 'HE' is displayed on the payout number display device 87, and a false HE notification effect is started, so that it can be assumed that a true hopper error has occurred.

  In the specific display unit control process, the main control unit 400 side and the effect control unit 410 side each independently execute an error code 'HE' display process and a fake HE notification effect effect process. The control unit 400 and the production control unit 410 are configured to measure the elapsed time from the start of the payout freeze independently, and the main control unit 400 side receives an error after a predetermined time has elapsed since the start of the payout freeze. The display process for displaying the code “HE” is performed, and the appearance control unit 410 side can perform the appearance control process of the fake HE notification effect. However, as a simpler control method, the elapsed time from the start of the payout freeze is counted on the main control unit 400 side, and when a predetermined time elapses, a specific effect control command (false HE start command) is effected. If the effect control unit 410 receives this and transmits it to the part 410 side, the “false pre-HE start effect” that is being executed is terminated and the “false HE notification effect” appears. good.

  It is preferable that the false HE notification effect has the same purpose and meaning as the true hopper error, but it is preferably the same effect mode as the true HE notification effect. Instead, substantially the same production mode can be adopted according to the game characteristics. Here, the fake HE notification effect and the true HE notification effect are not the same as the “substantially the same effect mode”, but when the two are compared, it is difficult to distinguish between them. (Similarly, the appearance mode), for example, the image display effect shown in (D-2) is slightly different from all or part of the text color of “Please call the clerk” "Green yellow and dark blue", etc.), or a typeface (for example, the thickness or shape of the character) that is slightly different from the whole or part of the character. In the case of a sound effect, the sound volume level is different or the tone color is different. In the case of a light effect, the light emission color or the light emission pattern (for example, the blinking speed) is different.

  In the case of a form in which the fake HE notification effect and the true HE notification effect are substantially the same effect mode, the following effects can be achieved.

  Many game beginners and intermediate intermediate gamers who are unfamiliar with games have a fake HE notification effect when a payout freeze occurs, or a fake HE notification effect and a true HE notification effect. There are many cases that do not have the difference as knowledge, and if a fake HE notification effect appears, it is highly likely that a true hopper error has occurred, and for these players It is considered that the original purpose of the “pseudo HE effect” (which is mistaken for true hopper error notification) is achieved. However, in the case of advanced game players who are skilled in gaming, most of them are more likely to know that a fake HE notification effect will appear when a payout freeze occurs. In many cases, knowledge has a difference from a true HE notification effect. For this reason, when the HE notification effect appears, the advanced game player has a high possibility of observing the effect mode carefully and finding that it is a fake HE notification effect.

  In other words, it is highly likely that the original purpose of “pseudo-HE production” (freeze production that strikes the player's intention) will be achieved for game beginners to intermediate game players, while for game advanced players, When it is determined that it is a HE effect (it is a fake HE notification effect) and when it is determined that it is a fake HE notification effect, a privilege is given or a privilege is given. (For example, winning an AT lottery (pseudo bonus winning), gaining an extra number of games in an extra lottery, or winning an AT lottery) You can know in advance that there is a high possibility that the number of games is high by the extra lottery and the number of games added is high). In this way, different fun and fun can be given depending on the skill level and experience of the player. Thereby, the game interest of a wide player layer can be heightened from game beginners to game advanced players.

  Also, the error code displayed on the payout number display 87 (7-segment display) is not necessarily the same display form as the error code of the true hopper error ("HE" in this embodiment), but as a false error code. Different display modes can be adopted. In this case, it is preferable that the error code display is substantially the same as the error code of the true hopper error (this is not the same as the “substantially identical error code display” here, but the two are compared. The indication mode (similar or very similar production mode) is difficult to distinguish in some cases. For example, for the true error code “HE”, a false error code is added with “HE.” Or “H. In this case, the same effect can be expected as in the case where the above-described fake HE notification effect is substantially the same as the true HE notification effect. The fake HE notification effect can be the same as the true HE notification effect, the fake error code can be the same or substantially the same as the error code of the true hopper error, and the fake HE notification effect can be changed. And HE notification effect substantially identical, false error code Error code true hopper error may be the same or substantially the same. Whether to adopt any, can be determined as appropriate.

  By the way, when the fake HE notification effect appears, a player who misunderstands that a true hopper error has occurred may press the call button (store clerk call button) to request the hall clerk to cancel the error. is expected. At this time, if the player actually presses the call button, the hall clerk will be called, which is not preferable. Therefore, in consideration of a general operation time from when the player confirms the hopper error notification until the player presses the call button, it is preferable to set the effect time width of the fake HE notification effect to several seconds to about 5 seconds.

  After the appearance time (notification time) of the false HE notification effect, a “privilege notification notification effect” as shown in FIG. 3D (D-3) appears as part of the pseudo HE effect. In this privilege grant notification effect, for example, a fake HE notification image that is currently appearing is blacked out, and a screen display that informs that the privilege has been granted appears, and if necessary, at a suitable place on the gaming machine. The provided movable body accessory (not shown) is actuated to produce an impact sound (sound / voice) effect and light effect.

  This privilege grant notification effect is an effect that can report predetermined game information. In addition, here, an effect mode (in the figure, an image display effect of “BONUS GET !!” that reports the AT lottery win (pseudo bonus win)) is shown as an example to notify that a privilege is granted. (For example, when the AT lottery or the extra lottery is not won), it may be an effect mode informing that the privilege has not been granted. However, from the standpoint of a special freeze effect called payout freeze, it is preferable that the effect be a notification that some kind of privilege will be granted. Therefore, when the AT lottery or the extra lottery is not won, it is possible to cause the below-described normal payout freeze effect to appear instead of the pseudo-HE effect.

  The bonus grant notification effect ends with the end of the freeze time, thereby completing the pseudo HE effect for freeze 5 ((E) in the figure), and the remaining payout number (abbreviated as the latter half number in the figure: here: , The payout operation for the remaining 6 sheets) is started.

  Returning to the explanation of FIG. 20 again, when the maximum number of credits is not reached (step S531: ≠ MAX) or when the first half payout freeze occurrence flag is ON (step S532: = 5AH), the appearance condition of the pseudo HE effect is Assuming that it has not been established, a “normal payout freeze start command” for specifying the start of the effect during the normal payout freeze is set (step S536), and the freeze time corresponding to the effect during the normal payout freeze is set in the “freeze timer” ( In step S537, the first half payout error occurrence flag clear process (first half payout error occurrence flag ← 00H) is performed (step S538), and the “specified number interrupt waiting process” for waiting for the freeze time is performed (step S539). Note that the freeze time corresponding to the effect during normal payout freeze may be the same as the freeze time corresponding to the pseudo HE effect, and the type of freeze time to be used depends on the effect time width of each freeze effect. It can be changed accordingly.

  The normal payout freeze start command has the same function as the “freeze start command”. When this command is transmitted from the main control unit 400 side to the production control unit 410 side, the production control unit 410 side normally An effect control process is performed to produce an effect during payout freeze (effect during sub-freeze). For example, as shown in FIG. 27 (b), based on the reception of the normal payout freeze start command, the effect scenario for the effect during normal payout freeze is set, and the appearance is controlled based on the scenario. Thereby, with the execution of the freeze state by the main control unit 400 side, the “normal payout freezing effect” appears as the sub-side freezing effect by the effect control unit 410 side.

(Direction during normal payout freeze: Fig. 31B)
With reference to FIG. 31B, the “normal payout effect during freezing” will be described. FIG. 31B exemplifies a case in which a normal payout / freezing effect appears when, for example, CA Bell 1 is won. Note that substantially the same contents as those described in FIG. 31A will be omitted as appropriate in order to avoid duplication.

  Referring to FIG. 31B, when all the cylinders are stopped ((A) in FIG. 31), the main control unit 400 side pays out game medals for the number of freeze occurrence triggers (for the first half 6). The payout operation is started ((B) in the figure). At this time, the effect control unit 410 causes a medal payout sound to appear every time a payout effect corresponding to a middle-bell win and a game medal are paid out.

  Here, when the hopper tank 14 is empty and a hopper error occurs before paying out the number of sheets for the occurrence of freezing (six sheets in the first half), as part of the hopper error notification process, FIG. A hopper error notification effect as shown is displayed to notify that the game medal in the gaming machine has become empty (step (S) in FIG. 15, step S465 in FIG. 15, step S487 in FIG. 16). The hopper error notification effect here is a “true hopper error notification (true HE notification effect)” that notifies that the vehicle is actually in an empty state.

  Then, after the hopper error is canceled by the hall clerk (step S461: OFF in FIG. 15E), the payout operation is resumed, and after the game medals are paid out for the number of times of freezing occurrence, The payout operation is interrupted and controlled to the freeze state (freeze 5 execution start: (F), (D), steps S524 and S520 in FIG. 18).

  Further, with the start of the freeze, the production control unit 410 side starts to execute the “ordinary payout production during production” ((G) in the figure). In the present embodiment, as already described, when the number of credits is less than the maximum credit or a hopper error occurs at the stage before the occurrence of the payout freeze, the effect during the normal payout freeze is displayed instead of the pseudo HE effect. It is supposed to let you.

  In the above normal payout effect, for example, as shown in FIGS. (G-1) and (G-2), there is an “expected effect” indicating that there is a possibility of granting a privilege. As a part, the effect during operation during freezing is displayed ((G-2) in the figure), and by this, whether or not a privilege is granted (for example, whether or not an AT lottery or an extra lottery is successful) It is an effect mode that can report the contents / type of privilege (for example, the number of extra games at the time of extra lottery win). The effect during the normal payout / freeze can be a rotation effect (main effect during freeze) and / or an effect by the effect means (sub-effect during freeze).

  Here, first, as shown in (G-1) in the figure, an image display effect of “BONUS?” Indicating that there is a possibility of AT shift by AT lottery winning (pseudo bonus winning) appears. When a predetermined operation means (for example, the MAX bet button 8 or the spinning cylinder rotation stop button 12) is operated within a predetermined operation reception valid period during the display effect, as shown in FIG. In addition to displaying the “GET !!” image display effect as an effect during operation during the freeze, it is reported that the right to transition to AT has been acquired through an effect with a flashy sound effect and light effect. To do. In addition, although an example of an image display effect is shown in the drawing, naturally, a sound effect and a light effect can also appear.

(Control of effect during operation during freeze: operation command transmission process during freeze (step S539 in FIG. 20))
It should be noted that the effect during operation during freezing as in (G-2) above is manifested by the “in-frozen operation command transmission process” described below during the designated interrupt number waiting process (step S539).

  When the operation means (operation means acting as a trigger means) that triggers the generation of the operation effect during the freeze is a specific operation means that is managed on the main control section 400 side, the main control section 400 first starts within the freeze time. It is determined whether or not an operation that is a target of generation of “production during operation during freeze” is performed. Note that the specific operation means described above includes at least one of the rotation rotation start lever 11, the rotation rotation stop button 12 (12a, 12b, 12c), the MAX bet button 8, and the 1 bet button 9. Can be adopted.

  Here, apart from determining whether or not the operation means intended for the game progress has been operated, whether or not the specific operation means (manual operation switches) has been operated during the freeze is determined. judge. For example, if it is during the freezing effect before the full-body stop (freeze 2, freeze 3), if the freeze is generated by the first and second stop operations, the stop operation that triggers the freeze About the operation of the operation means (manual operation switches) during the freeze, apart from making a determination as to whether or not there was a next stop operation for the purpose of game progression, for a rotation cylinder other than that related to the stopped rotation cylinder, It is determined whether or not the operation has been performed.

  Whether or not an operation signal from the operation means has been input is monitored by a “port input process of the main control unit side timer interrupt process (step S42 in FIG. 22 described later)” in the main control unit 400. The signal input monitoring function works effectively even during freeze. Therefore, during the freeze production (during the freeze state), even if there is an operation for the purpose of progressing the game, this is invalidated, but an “in-frozen operation command” corresponding to the operation is sent to the production control unit 410 side. Sent.

  Therefore, as to whether or not there is a target operation related to the occurrence trigger of the during-freeze operation, on the other hand, depending on whether or not an operation signal from a specific operation means is input on the main control unit 400 side, Then, it can be known by receiving an “in-frozen operation command” corresponding to the operation signal. Thereby, when the scenario of the effect during operation during freezing is incorporated in the freeze effect, the effect control unit 410 causes the effect during operation during freeze based on the operation command during freeze. Further, if necessary, the main control unit 400 side presents the effect during operation during freeze related to the spinning effect based on the operation signal.

  When the value of the freeze timer becomes zero and the freeze time ends, a “freeze end command” is transmitted from the main control unit 400 side, and the effect control unit 410 receives the freeze end command. The production during the normal payout freeze is terminated.

  As a result, the freeze 5 is completed (FIG. (E)), and the payout operation for the remaining payout number (remaining number 6) is started (see FIG. 21 described later).

  For other freezes 1 to 4 as well, by performing the above-described processing related to the effect during operation during freeze (the effect processing during operation during freeze), the effect during operation during freeze can appear. In this case, if it is a freeze type at the time of lever operation such as freeze 1, during the specified number interruption process in step S109 of FIG. 9 or step S175 of FIG. 10, and if it is freeze 2, all of step S207 of FIG. In the freeze effect process before stopping rotation, if it is freeze 3, the above-described effect process during operation during freezing may be executed during the freeze effect process after stopping all rotations in step S209 in FIG.

(1-9. Residual number payout control process: FIG. 21)
Next, with reference to FIG. 21, the details of the remaining number payout control processing in step S502 of FIG. 17 will be described. FIG. 21 is a flowchart showing the remaining number payout control process. This remaining number payout control process will be described while omitting the processing contents substantially the same as those in the medal payout number monitoring process of FIG.

  In FIG. 21, the main control unit 400 first acquires the payout number data and determines whether or not the payout number is zero (step S551). The payout number data acquired here is payout number data (hereinafter referred to as “remaining number payout data”) for designating the remaining number (second half number) (in the pre-freeze payout medal counting process of FIG. 19). (See S591). Accordingly, in the remaining number payout control process, the remaining number payout data is monitored, and the processes in steps S553 to S557 or the processes in steps S560 to S563 are performed until the remaining number payout data becomes zero. I do.

(Winning credit addition process: steps S553 to S557)
If the number of credits is less than the number of credits (step S552: ≠ MAX), the processing of “steps S553 to S557” is performed. The processing route following steps S553 to S557 corresponds to the processing of steps S404 to S409 during the medal payout number monitoring processing of FIG. 13 (winning credit addition processing) already described. Detailed description thereof is omitted.

(Game media payout process at winning: steps S560 to S563)
If the number of credits is the maximum number of credits (step S552: ≠ MAX), the processing of “steps S560 to S563” is performed. The processing route that follows steps S560 to S563 corresponds to the processing of steps S413 to S416 (game game payout process at winning) in the medal payout number monitoring process of FIG. Detailed description thereof will be omitted.

  After the winning credit addition process or the winning game medium payout process is completed, a process for returning the paying flag in step S558 to the initial state (00H), a process for setting a payout end command in step S559, a process in step S564 Full error determination processing is performed sequentially. Since these are the same processing contents as the processing contents of S411 to S413 during the medal payout number monitoring process of FIG. 13, detailed description thereof is omitted to avoid duplicate description.

  When the remaining number payout control process is completed as described above, the process proceeds to the re-game setting process in step S22 of FIG.

(2. Main control timer interrupt processing: Fig. 22)
Next, a timer interrupt process on the main control side will be described with reference to FIG. FIG. 22 is a flowchart showing the main control timer interruption process. The main control timer interruption process is started by interruption every predetermined time (about 1.5 ms) from the CTC, and is executed by interruption during execution of the main control main process.

  In FIG. 22, first, when a timer interrupt occurs, the main control unit 400 performs a saving process for saving the register to a predetermined stack area (step S41).

  Next, port input processing is performed (step S42). In this port input process, detection information from switches and sensors provided in the gaming machine is managed.

  Next, a rotation rotation control process is performed (step S43). In the rotation rotation control process, a pulse signal to be output to the rotation drive motor is generated at the time of rotation start when confirming the rotation state flag or at the time of rotation stop when confirming the stop command flag during stop operation. Management control is used to control the rotation operation, and the current rotation position and speed of the rotating drum are monitored.

  Next, a periodic update process is performed (step S44). In this periodic update process, the timer used for the game operation is updated, and the watchdog timer is periodically cleared. When the periodic update process is not executed, for example, when an abnormality occurs in gaming operation control and the program goes into a runaway state, when the watchdog timer expires, the main CPU 401c is automatically reset to return from the runaway state. To do.

  Next, command output processing is performed (step S45). In this command output process, an effect control command that is set according to the processing state accompanying the progress of the game is transmitted to the effect control unit 410 side (effect control board 420 side). The main control unit 400 outputs an effect control command for one byte for each interruption. Since one effect control command is 2 bytes long, one effect control command is transmitted by two successive timer interruptions.

  Next, medal information output processing is performed (step S46). In this medal information output process, a medal payout signal when a game medal is inserted or a game medal is paid out is output. Each of the above signals is transmitted to the hall computer HC via the external concentration terminal board 310.

  Next, display output processing is performed (step S47). In this display output process, a light emission control signal for controlling the light emission of LEDs and 7 segments provided in the gaming machine is output according to the game progress status. The light emission modes of various display units formed on the game panel 77 are managed and controlled here.

  Specifically, based on the light emission control signal data created according to the processing state, the game start display LED 81, the medal insertion display LED 82, the re-game operation LED 83, the MAX bet LED 84, the inserted number display LED 85, and the stop button LED (not shown) A light emission control signal for controlling the light emission mode of the credit number display device 86, the payout number display device 87, etc. is output.

  The payout number display unit 87 controls the display of the 7-segment light emission mode of the payout number display unit 87 when a small role accompanied by a payout is won, and the payout number display unit 87 displays the current payout number (number of payouts). In addition to this, it functions as a game medium payout number notification means for displaying an error, but in addition, when an abnormality (error) occurs in the operation of the gaming machine, an error notification means (error type notification) for notifying that there is an error state. As a means). Specifically, when an error occurs, an “error code (error type information)” that can identify the error type is displayed. For example, when the game medal stored in the hopper tank 14 is a “hopper error” that is empty, “HE”, and when the “medal detection sensor 520” has an abnormality, “CH”. “FE” is displayed in the case of “medal full error” when the auxiliary tank (not shown) is full, and “CE” is displayed in the case of “selector error” in which an abnormality has occurred in the medal selector 43.

  The information displayed by some or all of the display units can be displayed by displaying the image on the liquid crystal display device 6. In this case, it can be realized by configuring an effect control command that can specify information related to each display unit to the effect control unit 410 side according to the progress of the game. When this command is transmitted from the main control unit 400 side to the production control unit 410 side, the production control unit 410 side displays and controls the liquid crystal display device 6 based on the information included in the command. Display by image.

  Next, an abnormality monitoring process is performed (step S48). In this abnormality monitoring process, the game operation state is monitored based on the information of the input management process, and an abnormality of the gaming machine (game operation error) is monitored.

  After the processing of steps S41 to S48 is completed, the contents of the saved register are restored (step S49 (register restoration processing)), and the interrupt enabled state is set. Thus, the timer interrupt process is terminated, the process returns to the main control side main process before the interruption, and the main control side main process is performed until the next timer interruption occurs.

  As described above, in the present embodiment, the use of the freeze state in which the progress of the game medal payout operation is interrupted makes the freeze effect unprecedented. Further, it is possible to make a “pseudo HE effect” using the fact that a freeze occurs in the middle of paying out, thereby making it possible to strike the player's intention. For this reason, it is possible to realize a freeze effect with a very high impact.

(Modification 1)
In the embodiment described above, the CA bells 1 and 2 are adopted as “payout freeze occurrence triggers”. However, the CA bells 1 and 2 are particularly small types that can give out a predetermined number of game medals (game media). Not limited. In addition, it is possible to set an appropriate value for the number of “freeze occurrence trigger payout number (first half number)” that is a trigger for occurrence of freeze.

  However, in order to take advantage of the effect of payout freeze that “freeze occurs in the middle of payout”, it is preferable that the player recognizes that a certain amount of game medals have been paid out. It is preferable to employ a lot of lottery object combinations. Taking the lottery target role of this embodiment as an example, for example, instead of adopting a weak cherry or strong cherry with a payout of about two game medals, a relatively high payout of seven weak and strong watermelons. And 12 CA payouts of 1-2 payouts. In this case, if the freeze occurrence opportunity payout number is set to about 1, it is difficult for the player to recognize that there has been a payout, and a freeze (for example, freeze 4) occurred after all cylinder stops. It may be misunderstood that the effect of the payout freeze cannot be utilized. From this point of view, the number of payouts when the freeze occurs is about 1/3 to 1/2 or more of the dividend (for example, 3 to 4 or more for weak watermelons or strong watermelons, CA Bell 1 to 2). (6 or more) is preferable.

(Modification 2)
Further, in the embodiment described above, the mode in which the freeze 5 is always generated when the occurrence of the freeze 5 is determined by the freeze effect lottery process (step S103 in FIG. 9, FIG. 29) has been described. However, the present invention is not limited to this, and it can be configured such that whether or not to execute freeze 5 is determined based on the payout number data. This will be described in detail below.

  In the case of the above embodiment, the CA bells 1 and 2 are used as the triggers for generating the payout freeze. However, the CA bells 1 and 2 belong to the “Push order unquestioned role” and the “middle bell set” with a pull-in rate of 100% Is determined as a lottery target. In this case, a win corresponding to the winning role type is generated because “middle bell alignment” is always won regardless of the stopping operation procedure (at least one of the pressing order and the stopping operation timing) of the rotating cylinder stop operation button 12. Set an opportunity payout number (for example, 5 for CA Bell 1, 6 for CA Bell 2, etc.) or set a fixed freeze occurrence opportunity payout (for example, 6). A payout freeze can be generated.

  However, as a trigger for payout freezes, even if they are unquestionable in order, the payout varies depending on the lottery target (for example, weak watermelon or strong watermelon) that has a winning rate of less than 100%, or the stopping operation procedure of the spinning cylinder In the case of adopting a push order prescribed combination that can be won by a combination, there may be a case where it is not always possible to set a freezing occurrence opportunity payout number sufficient to generate a payout freeze. For example, depending on the stopping operation procedure of the spinning cylinder, a case in which a loss occurs and a payout itself cannot be obtained (a payout is zero) or a relatively small payout (for example, one) is obtained. Can occur. In the former case, game medals are not paid out (because the payout number data is zero), and freeze 5 occurs. Since the number is small, it is difficult for the player to recognize whether or not there has been a payout. Of course, even in such a case, a payout freeze (freeze 5) may be generated, but if the payout operation is not performed or the payout freeze is generated without being recognized by the player, the original payout freeze There is a possibility that the attractiveness of the production effect cannot be fully utilized.

  In view of the above problems, in the second modification, it is configured to determine whether or not the freeze 5 can be executed based on the payout number data, so that this problem can be avoided. The second modification is different from the above-described embodiment in the payout pre-freeze payout control process in FIG. Details will be described below.

  In the second modification, in order to determine whether or not to execute freeze 5 based on the payout number data, the payout number data is first acquired in the payout pre-freeze payout control process of FIG. 18 (step S511), and then the payout number data is obtained. Is equal to or greater than a predetermined number (the number of payout-freeze executable sheets) (payout-freeze executable number determination process). This determination process may be provided after the process of step S511 in FIG. 18 and before the process of step S512.

  If the acquired payout number data is not equal to or greater than the “payout freeze executable number”, it is determined that the payout 5 is a non-executable payout number, and the payout pre-payout payout control process is skipped and the rest of FIG. Proceed to the sheet payout control process.

  When the remaining number payout control process of FIG. 21 is entered, a game medal payout operation based on the payout number data is executed. When the payout operation is completed, the process proceeds to the re-game RT setting process (step S22) of FIG. As a result, when the payout is less than the payout-freeze executable number, the occurrence of freeze 5 itself is canceled.

  On the other hand, if the payout number is equal to or greater than the payout freeze execution number, it is determined that freeze 5 can be executed, and the process proceeds to step S512 to set a freeze occurrence trigger payout number (step S512). The processing of S513 to S519 or steps S521 to S524 is executed.

  Then, when the payout at the occurrence of freeze is finished (step S519: = 0, or step S523: = 0 → S524), the “processing during payout freeze” in step S520 is executed, whereby freeze 5 (payout 5) Freeze) occurs.

  The payout-freeze executable number can be set to an appropriate value in accordance with game characteristics, the number of payouts by winning combination, and the like. For example, it is possible to set based on the number of payouts when there is no omission. Specifically, if a weak watermelon or a strong watermelon is used as an opportunity to generate a payout freeze, if the payout freeze execution number is set to “7”, the freeze 5 is generated only when the watermelon match is won. Can do. In this case, the freeze occurrence trigger payout number can be determined to an appropriate value based on the payout number data. For example, as described above, the number can be determined to be about 1/3 to 1/2 or more of the payout.

  Also, the winning combination type and the payout number data are determined. In the case of a weak watermelon or a strong watermelon, the freeze 5 is executed when the payout freeze execution number is 7 or more. It is also possible to determine the number of payout-freeze executions according to the winning combination type, such as executing freeze 5 when the payout-freeze execution number is 12 or more. In this way, different performances related to the payout freeze, such as “first payout freeze occurrence trigger” that does not necessarily cause a payout freeze and “second payout freeze occurrence trigger” that always generates a payout freeze. A lottery subject combination having Thereby, the variation of payout freeze production can be made abundant. The first payout freeze occurrence trigger or the second payout freeze occurrence trigger may be provided at least one kind. Alternatively, only the first payout freeze occurrence trigger may be provided, and the second payout freeze occurrence trigger may not be provided.

  As described above, in the second modification, even if the freeze 5 is lottery, the freeze 5 can be canceled or the freeze 5 can be executed according to the number of payouts due to winning.

(When freeze 5 is canceled)
If freeze 5 is canceled, the player should be informed if freeze 5 occurs. For example, “predetermined game information (for example, winning an AT lottery (pseudo bonus winning) or adding an extra lottery If there is information such as the number of added games at the time of winning) ”, there is a problem that the game information is not notified in the game because the freeze 5 is canceled.

  Therefore, when freeze 5 is canceled, for example, when setting the number of bets for the next game (for example, when the 1-bet button 8 and the MAX bet button 9 are operated, or when a real game medal is inserted), If the “privilege giving notification effect” as shown in (D-3) of FIG. 31A is made to appear, even if the freeze 5 is canceled, the game information that should have been notified before the start of the next game is displayed. Can be notified. In this way, the notification timing of the game information is postponed, but since the information is notified at the next game start, it is considered that there is no particular problem. Further, in this case, when the next game is started, information such as the pseudo bonus winning and the number of added games is suddenly notified, so that there is an advantage that the player can be surprised. Therefore, when freeze 5 is canceled, it is possible to expect a production effect corresponding to this.

(Modification 3)
In the embodiment described above, the pseudo HE effect is provided on the condition that the number of credits is the maximum number of credits and whether or not a hopper error has occurred before the occurrence of the freeze (see the processing during payout freeze in FIG. 20). Or, the form in which the effect during the normal payout freeze is made to appear. However, the present invention is not limited to this, and paying attention to the fact that the payout freeze itself can be adopted as a novel freeze effect, providing either a pseudo HE effect or an effect during normal payout freeze, and the maximum number of credits It is good also as a structure which makes this appear, without determining whether it is, and whether the hopper error has arisen before freeze generation | occurrence | production. Specifically, in the payout freezing process of FIG. 20, the process of steps S531 and S532 is not provided, but the process of steps S533 to S535 (when a pseudo HE effect is provided) or the process of steps S536 to S539 ( Any of the normal payout / freezing effects) may be executed. It should be noted that it is free to provide either the pseudo HE effect or the normal payout freeze effect.

(Modification 4)
In the embodiment described above, the number of game medals to be paid out this time is divided into the first half payout number as the freeze occurrence opportunity payout number and the second half payout number as the remaining number, and 1 after the payout for the first half payout number is completed. Configured to generate a payout freeze of 1 time. However, the present invention is not limited to this, and can be generated multiple times. Hereinafter, the fourth modification will be described in detail.

  Here, paying attention is given to the 12 payouts of the CA bells 1 and 2, and for example, the number of payouts in a series of payout operations is 4 as the first half payout number (first freeze occurrence opportunity payout number) A representative example will be described in which the payout number (second freeze generation opportunity payout number) is divided into three payout numbers (here, equal divisions) of four and the latter half payout number.

  As described above, if dividends are divided into three or more categories, such as the first half payout number (4), the intermediate payout number (4), and the second half payout number (4), at least two payout freezes Can be generated.

  Specifically, after the payout for the first half payout number is completed, the first payout freeze is generated, and after the first payout freeze is finished, the execution of the payout for the intermediate payout number 4 is started. Then, after the payout of the intermediate payout number of 4 minutes is finished, the “second payout freeze” is generated. That is, in the case, a plurality of payout freeze effects such as the first payout freeze and the second payout freeze can be generated during one game.

  Then, after the second payout freeze is completed, the payout of the second half payout number corresponding to the remaining payout number is started, and the payout of the latter half payout number 4 is finished. Is completed.

  As described above, in the fourth modification, a payout / freeze effect can be executed a plurality of times during one game. Therefore, it is preferable to pay attention to the fact that a plurality of payout freeze effects can be executed, and for each freeze effect mode, it is preferable that the freeze effects have some relationship. Specifically, it is preferable to adopt a story tailoring effect scenario, for example, a narrative effect, a battle effect, a step-up effect, or the like.

  As the “story tailoring scenario”, for example, the first freeze production scenario (the production scenario related to the first payout freeze) is a production content that expresses “the hero character places a bomb on the bridge”. The second freeze production scenario (the production scenario related to the second payout freeze) is a production that expresses "the hero character sets up the bomb". In the second freeze production scenario, the "hero character blows the bomb. It is possible to realize an effect scenario of tailoring a story using a plurality of payout freezes, such as a production content expressing “Let ’s do it”. It can be said that this effect form is a “continuous effect” executed in a plurality of payout freezes.

  In particular, as long as it is configured to be able to notify predetermined game information (AT lottery result information, extra lottery result information, etc.) that the player wants to know as a result of a series of freeze effects (results of continuous effects) While enjoying the production of the story tailoring, the person can have a sense of expectation and tension about the production result (continuous production result). In the above example, as the production scenario related to the second payout freeze, “the bridge to be blown up collapses (blasting success production)” or “the bridge to be blown up does not collapse (corresponding to the result of the AT lottery ( It is possible to prepare production contents that express “explosive failure production)” and to control one of the productions to appear based on the result of the AT lottery. Specifically, if the AT is won, a “blasting successful production” is displayed, and if the AT lottery is not selected, a “blasting failure production” is displayed. Thereby, the result of AT lottery can be notified in a series of payout freezes (as an effect of continuous production). In addition, when the above-mentioned “blasting successful production” or “blasting failure production” appears, the above-mentioned “blasting successful production” is triggered when a freeze operation effect is incorporated into the production scenario and a predetermined operation means is operated. Alternatively, a “blast failure production” may be displayed.

(Modification 5)
In the embodiment described above, an example in which the fixed freeze occurrence trigger payout number is determined according to the CA bell 1 and the CA bell 2 has been described (see step S512 in FIG. 18). However, the present invention is not limited to this. For example, in the payout number sorting process in step S512, the following freeze occurrence opportunity payout number can be determined and set.

  For example, with respect to one payout freeze occurrence trigger, a predetermined lottery (freeze occurrence opportunity payout number lottery), and a plurality of types of freeze occurrence trigger payout numbers (for example, “3”, “5”, “7”) It is possible to determine any of the numbers and set the determined number. Thereby, even if the same CA bell 1 is won, the number of freeze occurrence triggers can be different. In this way, in the configuration in which the freeze occurrence trigger payout number is determined by lottery, the freeze occurrence trigger payout number is not fixed but variable. This makes it more difficult for the player to predict the occurrence of freeze 5 than when the freeze occurrence opportunity payout number is fixed, which is effective in generating the pseudo hopper error effect (pseudo HE effect). You can say that. Note that the lottery probability of each freeze occurrence opportunity payout number can be freely determined. In this configuration, the “payout number classification process” in step S512 is a delay occurrence opportunity number lottery means for drawing one of a plurality of types of delay occurrence opportunity numbers that trigger an interruption of the payout operation with respect to the number of game media payouts. It functions as a delay occurrence trigger number setting means for setting the lottery delay occurrence trigger number.

(Modification 6 (Modification of Modification 5))
Moreover, the following effect can be show | played by comprising so that several types of freeze generation | occurrence | production occasion payout number can be selected alternatively. In this modified example 6, the payout / freeze effect mode can be varied according to the freeze occurrence opportunity payout number. Specifically, (a) the effect mode during pay-out freeze can be varied according to the number of payouts triggered by the occurrence of freeze, so that a plurality of types of pseudo-HE effect and / or effect during normal pay-out freeze can be provided. (B) It is also possible to notify the player of predetermined game information based on the freeze occurrence trigger payout number and the occurrence of the freeze.

  Regarding the configuration of the modified example 6, here, the configuration focusing particularly on the latter (b) will be described. Also, here, considering the CA Bell 1 or CA Bell 2 dividends (12), there are multiple types of freezing opportunity payout numbers such as “3”, “5”, “7”, and “9”. A typical example will be described in which the number of freeze occurrence triggers is adopted. In addition, in order to avoid duplication description, the content different from embodiment mentioned above is demonstrated.

  In this modified example 6, first, in the payout number sorting process (step S512 in FIG. 18), any one of “3 sheets”, “5 sheets”, “7 sheets”, and “9 sheets” is issued when the freeze occurs. Is determined by lottery (frozen occurrence opportunity payout number lottery) and is set (stored) in the freeze occurrence opportunity payout number data area. Then, an effect control command (freeze occurrence trigger payout number information command) that can specify the determined freeze occurrence trigger payout number information is set. When the freeze occurrence trigger payout number information command is transmitted from the main control unit 400 side to the effect control unit 410 side, the freeze occurrence trigger payout number related to the current payout freeze is grasped.

(Freeze occurrence opportunity payout lottery table: Fig. 32)
Specifically, the freeze occurrence opportunity payout number lottery is executed on the main control unit 400 side based on the “freeze occurrence opportunity payout number lottery table” shown in FIG.

  In the freeze occurrence opportunity payout number lottery table, the current setting value and the freeze occurrence opportunity payout number are defined in association with each other, and any freeze occurrence opportunity payout number is determined with a predetermined probability. Yes. In addition, the numerical value (determination value) shown in the cell in the figure is the number of occupied areas of the determination value (winning area) with respect to the size 128 of the lottery area. Referring to FIG. 32, for example, in the case of setting value 1, “3” is selected with a lottery probability “60/128”, and “5” is selected with a lottery probability “68/128”. The determination values of “7 sheets” and “9 sheets” are zero, and when the setting value is 1, “7 sheets” and “9 sheets” are not selected.

  As can be seen from FIG. 32, as the set value increases, the lottery probability of a specific freeze occurrence trigger payout number (here, 3) is relatively higher. However, in the case of the present embodiment, in the case of the setting value 3 that is an intermediate setting value, the “3” lottery probability is higher than the setting values 4 to 6. This is because in the case of the settings 4 to 6, determination values “7” and “9” that are not selected with the setting values 1 to 3 are assigned. In other words, it can be understood from FIG. 32 that when the occurrence rate of the freeze occurrence trigger payout number “3” is high, it is estimated that the setting value is “low setting (setting values 1 to 3)” and “9” If this occurs, at that time, it is notified that the set value is a high setting (set values 4 to 6). In particular, when “7 sheets” is generated, at that time, it is notified that the set value is the “set value 6” of the highest setting. In this regard, the “7” freezing opportunity payout number is a premium.

  In this way, depending on the number of freezing occurrences and the amount of payout that has occurred, the player can predict and infer the internal setting value of the gaming machine that he / she is playing, or deterministically It is possible to give an opportunity to know. The set value is a major factor that affects the player's profit, and can be said to be one of the greatest interests of the player. In the sixth modification, the game information that the player wants to know can be notified according to the freeze generation opportunity payout number type, so that the variation of the payout freeze effect can be varied. As a result, it is possible to greatly improve the degree of freedom of game play and the game interest of the player.

  In the above description, the case (b) in which predetermined game information is notified according to the timing at which a freeze occurs, that is, the type of the number of times the freeze is generated, has been described without depending on the production by the production means. ) Can be changed in accordance with the number of payouts at the occurrence of freeze. This will be described.

  The effect control unit 410 side can grasp the freeze occurrence trigger payout number information by the “freeze occurrence trigger payout number information command” described above. By using this, it is possible to make an effect during paying-freeze corresponding to the number of payouts when the freeze occurs.

  For example, when the freeze occurrence trigger payout number is “7”, “pseudo HE effect” and / or “normal payout freeze effect” different from other freeze occurrence trigger payouts can be made. Specifically, when the freeze occurrence opportunity payout number is “7”, at least one of the effect modes according to (D-1) to (D-3) in FIG. 31A is changed to ((D− At least one of the production modes according to 1) to (D-3) can be set to a production mode different from the number of other freeze occurrence opportunity payouts (D-3) in FIG. In addition to the image display effect of “BONUS GET !!”, an effect image (character or specific character) that suggests or clearly indicates “setting value 6” appears repeatedly, or a special background image appears. In the case of another freeze occurrence opportunity payout number, an effect mode that does not appear can be displayed, and thereby predetermined game information (here, set value information) can be notified to the player. , In the above, when the freeze occurs Although the case where the number is “7” has been described, of course, it is also possible to configure the presentation mode corresponding to the number of times of occurrence of freezing to be able to appear. Thus, it is possible to greatly improve the degree of freedom of game play and the game interest of the player.

(Modification 7)
When determining a plurality of types of freeze occurrence opportunity payout numbers by lottery, the following configuration may be employed.

  The lottery probabilities of AT lottery and extra lottery executed on the production control unit 410 side differ depending on the types of the number of freeze occurrence triggers (for example, “3”, “5”, “7”) Can be. For example, referring to the column of CA bell 1 or CA bell 2 in FIG. 35, when freeze 5 occurs, a single AT lottery probability is determined. However, in this modified example 7, for example, “3”, “5”, and “7” are set to different AT lottery probabilities, for example, “3”, “5”, and “7”. In order, the AT lottery probability can be determined to be relatively high. As described above, the effect control unit 410 side can grasp the freeze occurrence trigger payout number by the “freeze occurrence trigger payout number information command”, so that it can be used according to the freeze occurrence trigger payout type. The AT lottery probability can be determined.

  In this way, controlling the player's profits according to the type of the number of times of occurrence of freezing increases the degree of freedom of the game, and the number of times of freezing when the number of times of freezing that has occurred As a result, the variation of payout freeze production can be varied.

  Modifications 2 to 6 described above can be combined with these modifications as long as the object of the present invention can be achieved.

<Processing on production control side: FIGS. 23 to 27>
Next, with reference to FIGS. 23 to 27, an effect control process on the effect control unit 410 side of the present embodiment will be described. The processing on the side of the production control unit 410 mainly includes a predetermined main processing (production control side main processing: FIG. 23) and a timer interruption process (production control side timer interruption processing: FIG. 24) activated by a scheduled interrupt. It is comprised including. The control subject of the effect control unit 410 includes the sub CPU 421c of the effect control board 420 and the CPU of the liquid crystal control board 25, but the effect control board that receives the effect control command from the main control part 410. Since the 420 (sub CPU 421C) side transmits a liquid crystal control command related to this to the liquid crystal control board 460, the processing procedure performed by the effect control board 420 will be mainly described below. The main body that executes the processing will be described as the effect control unit 410 without distinguishing the function of the control board 460 unless particularly required. The CPU, RAM, and ROM are represented by the sub CPU 421c, the sub RAM 421b, the sub ROM 421a, and the like of the effect control board 420.

(3. Production control side main process: FIG. 23)
FIG. 23 is a flowchart showing main processing on the production control unit side (production control side main processing). The effect control unit 410 starts main processing on the effect control side shown in FIG. 34 when the gaming machine main body is turned on from the outside.

  In the main process on the effect control side, the effect control unit 410 (sub CPU) first performs a necessary initial setting process before starting the game operation (step S071). Here, as the initial setting processing, for example, command reception interrupt setting, movable body accessory (not shown) starting point return processing, CTC initial setting, timer interrupt permission, and microcomputer internal parts are included. Perform initial setting of values.

  When the initial setting process in step S071 is completed, the main loop process in steps S073 to S078 is performed at predetermined time intervals as the process during normal operation, and otherwise the effect soft random number update process in step S079 is repeated.

  In the process of step S072, the effect control unit 410 refers to the main loop update period counter value to determine whether or not the main loop update period that triggers the execution of the main loop process has arrived (step S072). The main loop update cycle counter is a counter that is updated in a main loop update process (step S096 in FIG. 25) during an effect control side timer interrupt process described later. In the present embodiment, the main loop process is performed every 16 ms. Until this main loop update period arrives (step S072: NO), various effect lottery random numbers are updated (step S079: various effect soft random number update processing). The random number for the effect lottery is used when a predetermined lottery by the effect control unit 410 side or an effect to be displayed is determined by lottery, such as AT lottery, notice effect, expectation effect, assist notification, extra lottery, etc. A plurality of types of random numbers for effect lottery are included.

  When the main loop update period has arrived (step S072: YES), the effect control unit 410 performs a received command analysis process (step S073). In this received command analysis process, it is monitored whether or not an effect control command is stored in the command reception buffer. If an effect control command is stored, this command is read, and an effect control process corresponding to the read effect control command is read. I do.

  For example, when a game start information command is received and stored in the reception buffer, information included in this command (for example, internal lottery result information (internal winning flag information)) and the current presentation are included in the command analysis process. One or more types of effect patterns are determined based on the control unit gaming state (effect state). The effect pattern determined here works as a “part effect” as an effect element for composing an effect scenario. Next, in order to determine the time schedule for how and at what timing the production pattern (parts production) determined above will appear, and to appear in the current game The effect scenario data is stored, and the effect scenario data is stored in the scenario setting area of the RAM. Various production patterns (part production) incorporated in this production scenario are developed one after another or simultaneously, thereby realizing an “production scenario” in a broad sense. In the case of a player participation type effect, the corresponding part effect is changed according to the operation of the operation means, and the configuration of the effect scenario is changed and reconstructed as appropriate.

  When the received command analysis process in step S073 is completed, a scenario update process is performed (step S074). In this scenario update process, the contents of the timer necessary for execution of the production pattern are updated. A typical example of the timer is an effect scenario timer that manages a time schedule related to the occurrence timing of the effect. The effect scenario timer is also used in LED data update processing (step S075) and effect actor control data update processing (step S077) described later. Here, the production scenario timer is monitored, and for example, when the time of occurrence of the parts production incorporated in the production scenario comes, the sound data for the speaker 16 and the liquid crystal command for image display control are created. Store in the designated area of the sub-RAM. The LED data for the light display device is created by an LED data update process (step S075) described later, and the motor control data for the movable body accessory is created by an after-mentioned effect actor control data update process (step 077). The

  Next, LED data update processing is performed (step S075). In this LED data update process, LED data for an optical display device such as a decorative lamp 13 or an LED is created based on the effect scenario data and the effect scenario timer, and stored in a designated area of the sub RAM. The data created here is used in an effect LED management process (step S095 in FIG. 25) during a timer interrupt process described later.

  Next, sound output processing is performed (step S076). In this sound output process, the sound data created in the scenario update process in step S074 is acquired, and if there is sound data to be reproduced, a sound effect is output from the speaker 16 through the sound control unit (sound source LSI). Thereby, the sound production according to the production scenario is realized.

  Next, a production accessory control data update process is performed (step S077). In the effect accessory control data update process, control data for a driving source (motor) for operating a movable object accessory (not shown) is created based on the effect scenario data and the effect scenario timer. The data created here is used in a director action operation management process (step S094 in FIG. 25) during a timer interrupt process described later.

  Next, noise countermeasure management processing for monitoring malfunction of the sound source LSI or the like is performed (step S078). If the program goes into a runaway state due to a malfunction, the watchdog timer expires and the CPU is automatically reset to recover from the runaway state. Thereby, the main loop process is ended, and the effect soft random number update process of step 079 is performed until the next main loop update period comes.

(4. Command reception interrupt processing: FIG. 24)
Next, command reception interrupt processing will be described with reference to FIG. FIG. 25 is a flowchart showing command reception interrupt processing on the effect control side. This command reception interruption process is executed preferentially over an effect control side timer interrupt process (FIG. 25) to be described later when an effect control command is received from the main control unit 400.

  First, when an interrupt based on the strobe signal from the main control unit 400 occurs during execution of the main processing in FIG. 23, the effect control unit 410 (sub CPU) saves the contents of the register in the stack area (step S081). The received effect control command is stored in the command reception buffer of the sub-RAM (step S082), and the saved register contents are restored (step S083). Thereby, the command reception interrupt process is ended, the process returns to the effect control unit side main process before the interruption, and the effect control side main process is performed until an interrupt based on the next strobe signal is generated. As described above, when various effect control commands sent from the main control unit 400 are received, the command reception interrupt process is executed, and when the effect control command is received, the command is stored in the command reception buffer. Is done.

(5. Production control side timer interrupt processing: FIG. 25)
Next, with reference to FIG. 24, the timer interrupt process on the production control side will be described. FIG. 24 is a flowchart showing the effect control-side timer interrupt process. This production control side timer interruption process is started by interruption every predetermined time (about 1 ms) from the CTC, and is executed by interruption during execution of the production control side main process.

  In FIG. 24, when a timer interrupt occurs, the effect control unit 410 (sub CPU) saves the contents of the register in the stack area (step S091), and then performs effect button input management processing (step S092). In this effect button input management process, whether or not an operation (ON operation) detection signal is input from an effect button (not shown) is monitored, and if it is confirmed that the operation detection signal has been received, the detection information is Store in a predetermined area of RAM.

  Next, a liquid crystal command transmission process is performed (step S093). In this liquid crystal command transmission process, if there is a liquid crystal command created in the scenario update process (step S074) in the effect control side main process of FIG. 23, the liquid crystal command is transmitted to the display control unit (liquid crystal control CPU). Thus, image display control for the liquid crystal display device 6 is executed. Thereby, the image production along the production scenario is realized.

  Next, directing action operation management is performed (step S094). In this stage actor operation management, based on the motor control data for the movable body accessory created in the stage actor control data update process (step S077), the movable body accessory motor (not shown) is passed through the drive control unit. Output a control signal. Thereby, the visual production | presentation by the movable body accessory along a production | presentation scenario is implement | achieved.

  Next, effect LED management is performed (step S095). In this effect LED management, based on the LED data created in the LED data update process (step S075), the decorative lamp unit 45 and the LED are turned on and blinked through the light display control unit. Thereby, the light effect according to the effect scenario is realized.

  Next, a main loop update process for managing the main loop update period is performed (step S096). In this main loop update process, the main loop update cycle counter is updated for each interrupt (main loop update cycle counter + 1). The main loop update cycle counter is a counter that circulates in a range of multiples of 16 (for example, 0 to 31) by increment processing, for example.

  After the processing of steps S091 to S096 is completed, the saved register contents are restored (step S097). As a result, the timer interruption process is terminated, the process returns to the effect control side main process before the interruption, and the effect control side main process is performed until the next timer interrupt occurs.

<6. Contents of received command analysis processing: FIGS. 26 to 27>
FIG. 26 to FIG. 27 show the processes executed in the received command analysis process (step S073 in FIG. 23) that are closely related to the present invention.

  The game start effect management process shown in FIG. 26 is mainly performed when a game information start command or an effect control command related to freeze (freeze type command, freeze start command, freeze end command, operation command during freeze, etc.) is received. FIG. 27 is a process executed when a pseudo HE freeze start command and a normal payout freeze start command are received among the freeze start commands. Note that the game start effect management process shown in FIG. 26 is a summary of the processing contents when each command is received in order to avoid duplication, and processing at the time of receiving an individual command corresponding to each command The details about are omitted. Since the pseudo HE freeze start command reception process and the normal payout freeze start command reception process shown in FIG. 27 have already been described, description thereof is omitted here.

(6-1. Effect management process at game start: FIG. 26)
In FIG. 26, the effect control unit 410 first analyzes a game information start command and a command related to freeze received at the start of the game, and acquires information included in the command (step S611). Specifically, the “game information start command” includes internal lottery result information (internal winning flag information, winning combination information (winning number information)) and main control unit side gaming state information (RT type information, bonus game in progress). In addition, the “freeze type command” includes freeze effect type information, the “freeze start command” includes freeze effect start information, and the freeze end command includes freeze effect end information. The operation command during freeze includes information on the operated operation means (including information on whether the operation is ON or OFF). When the effect control unit 410 receives these commands, the effect control unit 410 analyzes information included in the commands and uses the information according to the progress state of the effect process. If necessary, the information is stored in the sub RAM 421b, and then read out and used according to the progress state of the effect process.

  In addition, in order to present an effect according to the effect state, information regarding the current effect state (effect control unit side game state) is also acquired and used according to the processing state (step S612). This effect state information is based on a specific effect control command (for example, a game information start command, a winning information command, etc.) from the main control unit 400 side, and an effect processing state (AT game transition or AT mode continuation by AT lottery) It is changed (transfer control) according to the AT game end depending on the number of games. The performance state is basically managed in a manner that is consistent with the game state on the main control unit side, and is managed so as not to cause a problem in the displayed performance.

  The effect states include various effect states for specifying the current game state, such as non-AT games, precursor AT games, AT games, bonus games, and RT game types. In the case of the present embodiment, information related to the “RT game” type, which is the main control unit side gaming state, can be managed as the production state, and the production control unit 410 side can grasp the gaming state of the entire gaming machine. It has a configuration.

  Next, whether the current performance state is a bonus game, an AT game (AT mode), a normal game (non-AT game, a precursor AT game), or other production state In response, the corresponding production control process is performed.

  If the current effect state is a bonus game (step S613: YES), an effect setting process for displaying an effect during the bonus game is performed (step S617). For the effect mode to appear, the “effect scenario (effect pattern)” is determined, and the data of the effect scenario is stored in the scenario setting area of the RAM. Thereby, an effect related to the bonus game appears.

  If the current effect state is the AT mode (step S614: YES), an AT game effect setting process is performed (step S618). In this AT game effect setting process, various effect processes necessary to produce an effect under the AT mode are mainly performed. The effect process here includes, for example, an effect process (freeze effect process during AT) for producing an effect related to freeze (sub-freeze effect), and an effect process (in AT) for showing assist notification. Assist notification process), and an extra lottery effect process (an extra lottery effect process) related to the extra lottery. In addition, the number of AT mode continuation game number setting process by the extra lottery win, the AT game continuation game number management process for monitoring (counting) the number of AT mode continuation games and managing the continuation / termination of the AT mode, etc. Various types of effect processing for presenting related effects during AT games are included. For the effect mode to appear, the “effect scenario (effect pattern)” is determined, and the data of the effect scenario is stored in the scenario setting area of the RAM. As a result, an effect related to the AT mode appears.

  If the current effect state is normal (during normal mode (including a precursor AT game)) (step S615: YES), a normal effect setting process is performed (step S619). In the normal effect setting process, various effect processes necessary for producing an effect in the normal mode are mainly performed. The effect process here includes, for example, an effect process for producing an effect related to freeze (effect during sub-freeze) (normal freeze effect process), and an effect process for AT lottery (FIG. 30) AT lottery processing), effect processing for displaying special replay assist notification during a precursor AT game (normal assist notification processing), setting processing required for AT mode transition by special replay winning (for example, transition to AT game) In addition, various kinds of effect processing for producing effects related to the normal effect state are included, such as processing related to setting of the number of games at the start of the AT mode (40 games): AT transition setting processing). With respect to the production mode that should appear in these processes, the “production scenario (production pattern)” is determined, and the data of the production scenario is stored in the scenario setting area of the RAM. As a result, an effect related to the normal game appears.

  In addition, here, a penalty effect processing relating to the penalty is also performed. In the effect processing during penalty, it is determined whether the penalty setting process by the establishment of the penalty condition for giving a penalty, the penalty release process by the establishment of the release condition for releasing the penalty, whether it is in the penalty state, and if it is in the penalty state Then, a penalty giving process for giving a predetermined penalty is performed. As a penalty, for example, when the above AT lottery is executed, the lottery result is treated as invalid (or processed as a loss even if it is won), or invalidation processing is performed to invalidate the lottery itself. Limit the occurrence (migration) of

  It should be noted that the effect mode during the penalty includes a warning effect, and as this warning effect, for example, “the number of penalty games (displayed until the penalty release condition is satisfied)” for informing the penalty period is displayed on the liquid crystal screen. Or a sound effect or light effect that is different from that during non-penalty (normal time) is produced from the speaker 16 due to the operation of the rotating cylinder rotation start lever 11 and / or the operation of the rotating cylinder rotation stop button 12. be able to. For example, as a warning effect when receiving a “stop information reception command” transmitted at the time of stopping the rotation of the rotating cylinder, a warning sound or a warning light different from the normal time when the rotating rotation stop button 12 is operated, etc. Can appear.

  If the bonus game, the AT mode, or the normal state is not set (step S616), an effect setting process in another effect state is performed (step S616).

  In the embodiment described above, the game media using the game medals have been described. However, the game media is not particularly limited to medals. For example, it may be a game ball used in a ball game machine, or an electromagnetic recording (an electronic method, a magnetic method, or a recording made by a method that cannot be recognized by human perception. In other words, it may be a game medium using a computer provided for information processing by an electronic computer).

  In the embodiment described above, a plurality of types of RT games having different replay probabilities are provided as the main control unit side gaming state. However, a revolving game machine in which the replay probability does not vary may be used.

  The present invention is useful for a rotary type game machine that controls freeze.

1 gaming machine housing,
2 Front door,
3 Display window (rotor viewing part),
3a winning line,
4 Display window (LCD screen viewing area),
5a, 5b, 5c
6 Liquid crystal display device,
6a Display screen (LCD screen),
7 medal slot,
8 MAX bet buttons,
9 1 bet button,
10 Credit checkout button,
11 rotation start lever,
12a, 12b, 12c Revolving rotation stop button,
13 Decorative lamp,
14 Operation panel section
15 Return button,
16 Speaker 17 Decorative panel section,
18 Medal tray
19 Medal payout exit,
210 Cylinder device,
310 External concentration terminal board,
330 lap trunk relay board,
340 Production I / F board,
340a input buffer circuit,
350 payout relay board,
360 stop switch board,
370 game relay board,
380 LED board,
400 main control board (main control unit),
401 microcomputer (main control board side),
401a main ROM,
401b main RAM,
401c main CPU,
401d CTC,
401e interrupt controller circuit;
402 I / O port circuit,
403 counter circuit,
404 I / F circuit,
404a output buffer circuit;
405 I / F circuit,
406 I / F circuit,
407 motor drive circuit,
408 switch input circuit,
410 production control unit,
420 production control board,
421 microcomputer (production control board side),
421a sub-ROM,
421b sub-RAM,
421c sub CPU,
421d CTC,
421e interrupt controller circuit,
422 I / O port circuit,
423 counter circuit,
430 Cylinder setting board,
440 power supply board,
450 payout control board,
460 LCD control board,
500 hopper units,
510 hopper motor,
520 Medal payout sensor.

Claims (1)

A game result display means for deriving and displaying a game result by a combination of symbols at the time of stopping each of the cirrus, having a plurality of circadians on which a plurality of types of symbols are displayed;
Starting means for rotating each cylinder under predetermined game start conditions;
In response to the starting operation of the starting means, a lottery for a plurality of types of roles is performed, and a winning lottery means for determining a winning combination;
A plurality of stop means provided corresponding to each of the spinning cylinders for individually stopping the rotation of the spinning cylinders;
With the stop operation of the stop means, stop control means for controlling the stop of the spinning cylinder so that a combination of symbols corresponding to the winning combination can be derived and displayed as the game result;
Game medium payout means for executing payout of game media;
A payout amount determining means for determining a payout number of game media based on the game result;
Based on the I that determination result to the payout amount determination unit, and a dispensing control means for controlling the dispensing operation of the game medium payout means,
Game medium detection means for detecting the game medium paid out by the game medium payout means;
In the rotary type gaming machine with
The payout control means includes
Payout counting means for counting the number of payouts of the game medium based on the detection result by the payout game medium detection means;
Based on the counting result of the payout counting means, a payout number end determining means for determining whether or not the payout number determined by the payout number determining means has ended,
A payout end control means for ending the payout operation of the game medium payout means when it is determined by the payout number end judging means that payout has been completed;
A payout operation that executes payout operation delay control for resuming the payout operation a plurality of times after the payout operation is interrupted for a predetermined delay time before the payout operation by the game medium payout means is terminated based on a predetermined execution condition. A delay control means,
This is a spinning machine.

Images