JP2008253540A - Game machine - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a game machine which is controlled so as to issue a logical notification when the player is notified of the frequency of variation in order to grant a condition advantageous to the player until the set frequency of variation is performed. <P>SOLUTION: The game machine is composed of: a setting means for setting the condition advantageous to the player a predetermined frequency of variation; a first variation frequency measuring means for measuring a first variation frequency by updating the frequency of reception of variation pattern commands by a sub-control circuit, with respect to a predetermined variation frequency; a variation frequency table in which a variation frequency in a single variation mode corresponding to the variation pattern command is stored; a second variation frequency measuring means for measuring a second variation frequency by updating the variation frequency corresponding to the variation pattern command determined by the variation frequency table, with respect to a predetermined variation frequency; a variation frequency display means for displaying the second variation frequency and notifying the player of the same; a variation frequency extension display means for displaying extension of the condition advantageous to the player and notifying the player of the same; and a variation frequency display terminating means for terminating display of the second variation frequency by the variation frequency display means. <P>COPYRIGHT: (C)2009,JPO&INPIT

Description

  The present invention relates to a gaming machine that performs control so that a proper notification is made when notifying the number of times of change when giving an advantageous situation to the player until the number of times the change is made.

Hereinafter, a conventional gaming machine will be described.
In Patent Document 1, when a game ball wins a start opening, a special symbol game is displayed in which a special symbol is sequentially displayed in a variation state and a variation stop state, and a game in which a plurality of symbols fluctuates by one variation of this special symbol game. The machine is listed.

  On the other hand, Patent Document 2 describes a gaming machine that gives an advantageous situation to a player until a special symbol game is changed a set number of times.

JP-A-9-122314 JP-A-9-38319

  Therefore, when giving a favorable situation to the player until the variation of the special symbol game described in Patent Document 2 is performed a set number of times, the number of times of actual variation is measured and the number of variations is notified, I thought to report the number of remaining fluctuations.

  However, simply measuring the number of fluctuations has the following problems. If the number of fluctuations is measured multiple times, even if the number of fluctuations is measured multiple times, the change is reported once as if it has not reached the set number of times. In other words, there is a problem that the information is inconsistent at this point. In addition, if the number of changes is measured as one even if multiple symbols fluctuate, the player will not update the number of changes while starting to fluctuate during a single change. There is a problem that it becomes visible and information is not consistent at this point.

  The present invention has been made in consideration of the above-described circumstances, and its purpose is consistent when notifying the player of the number of times of change when giving an advantageous situation to the player until the change is made a set number of times. An object of the present invention is to provide a gaming machine that is controlled so as to be notified.

  In order to solve the above-described problems, a gaming machine according to the present invention determines a specific jackpot by means of a winning determination means, and transmits a specific jackpot command to a sub-control circuit, and the specific control from the main control circuit. When the sub-control circuit receives the jackpot command, the setting means for setting the number of fluctuations that is advantageous to the player, and the number of times the sub-control circuit has received the fluctuation pattern command from the main control circuit A first variation number measuring means for measuring the first variation number by updating the variation number; a first variation number storing means for storing the first variation number measured by the first variation number measuring means; A variation count table in which the number of variations in one variation corresponding to the variation pattern command is stored, and the variation determined by the variation count table. A second variation number measuring unit that measures a second variation number by updating a variation number corresponding to a pattern command with respect to the predetermined variation number, and the second variation number measured by the second variation number measuring unit. The second variation count storage means for storing and the second variation count stored by the second variation count storage means until the second variation count stored by the second variation count storage means reaches the predetermined variation count. The variation number display means for displaying and notifying, and the second variation number stored by the second variation number storage means before the first variation number stored by the first variation number storage means becomes the predetermined variation number. When the predetermined number of fluctuations is reached, the fluctuation number extension display means for displaying and notifying that the state advantageous to the player is extended, and the first fluctuation number storage When the first variation count stored by the stage becomes the predetermined variation count, the variation count display ending means for ending the display of the second variation count by the variation count display means and the variation count extension display means When the first variation count stored by the first variation count storage means becomes the predetermined variation count after informing that the extension is to be extended, the extension notification notified by the variation count extension display section is displayed. And an extended display ending means for ending.

  According to the above gaming machine, when giving an advantageous situation to the player until the change is performed a set number of times, when notifying the number of changes, it is possible to control so as to make a proper notification.

Embodiments of the present invention will be described below with reference to the drawings.
[1] Description of Mechanical Configuration and Electrical Configuration As shown in FIG. 1, an outer frame 1 is installed on the Taijima island of the pachinko hall. The outer frame 1 has a rectangular tube shape whose front and rear surfaces are open. A front frame 2 is mounted on the front end surface of the outer frame 1 so as to be rotatable about a vertical axis on the left side. A horizontally long rectangular bottom plate 3 and a horizontally long rectangular bottom plate 4 are fixed to the front surface of the front frame 2 in two upper and lower stages, and an upper surface is opened on the front surface of the upper plate 3. A dish 5 is fixed, and a lower dish 6 whose upper surface is open is fixed to the front surface of the lower dish plate 4.

  A handle base 7 is fixed to the front surface of the lower plate 4 at the right end, and a firing handle 8 is mounted on the handle base 7 so as to be rotatable about an axis extending in the front-rear direction. A firing solenoid 9 is fixed to the rear of the handle base 7, and a ball striking rod 10 is connected to the firing solenoid 9. The firing solenoid 9 corresponds to a driving source of the hitting ball 10, and when the shooting handle 8 is rotated, a driving power is applied to the firing solenoid 9, and the upper plate is driven based on the driving of the hitting ball 10. Play the game balls in 5 out of the upper plate 5.

  A window frame 11 is mounted on the front surface of the front frame 2. This window frame 11 has a circular hole-shaped window portion 12, and a transparent glass window 13 is fixed to the inner peripheral surface of the window portion 12. Speakers 14 are fixed to the rear surface of the window frame 11 at the upper left corner and the upper right corner, respectively, and a net-like speaker cover 15 is disposed in front of each speaker 14. Each speaker cover 15 is fixed to the window frame 11, and the sound effect reproduced by each speaker 14 is emitted through the front speaker cover 15. Two lamp covers 16 are fixed to the window frame 11 below the speaker covers 15, and a plurality of illumination LEDs 17 (see FIG. 3) are arranged behind the lamp covers 16. . Each of these illumination LEDs 17 is fixed to the window frame 11, and each lamp cover 16 is illuminated based on the fact that the illumination LEDs 17 on the rear side emit light.

  As shown in FIG. 2, a game board 18 is attached to the front frame 2, and the game board 18 is covered from the front by the glass window 13 of the window frame 11. An outer rail 19 and an inner rail 20 are fixed to the front surface of the game board 18. An arc-shaped launch passage 21 is formed between the outer rail 19 and the inner rail 20, and the game ball bounced by the hitting ball 10 is discharged into the game area 22 through the launch passage 21. A plurality of obstacle nails 23 are fixed in the game area 22, and the game balls released into the game area 22 fall in the game area 22 while hitting the obstacle nails 23. This game area 22 refers to a circular area excluding the launch passage 21 among areas surrounded by the outer rail 19 and the inner rail 20, and corresponds to a rolling area that is the maximum range in which the game ball can roll. To do.

  A special symbol start port 24 is fixed in the game area 22. The special symbol starting port 24 has a pocket shape whose upper surface is opened, and a game ball rolling in the game area 22 can be awarded in the special symbol starting port 24 from the upper surface. A start opening sensor 25 (see FIG. 3) is fixed in the special symbol start opening 24, and the start opening sensor 25 detects that a game ball has won the special symbol start opening 24 and outputs a start signal. To do.

  Two slats are rotatably mounted on the special symbol start port 24. When both slats are rotating vertically, the distance between the slats is about the diameter of the game ball. Thus, only the game balls falling from directly above toward the special symbol start opening 24 win the special symbol start opening 24 through the gap between the two blades. In addition, when both slats are rotated in an inclined state, a game ball that falls on both the left and right sides of the special symbol starter 24 is won in the special symbol starter 24 based on being captured by the slats. That is, both the blades substantially expand and contract the opening of the special symbol starting port 24.

  Both vanes are mechanically connected to the plunger of the vane solenoid, and the vane solenoid expands / contracts the special symbol start port 24 based on rotating both vanes in an inclined state and a vertical state. . In addition, a normal symbol start gate 33 is fixed to the front surface of the game board 18 at the left side of the special symbol start port 24. The normal symbol start gate 33 has a U-shaped frame shape whose upper and lower surfaces are open, and a normal symbol start sensor is fixed in the normal symbol start gate 33. This normal symbol start sensor is composed of a proximity switch, detects a game ball passing through the normal symbol start gate 33, and outputs a normal symbol start signal.

  As shown in FIG. 2, a prize opening base plate 26 is fixed in the game area 22, and a square cylindrical special winning opening whose front surface is open is fixed to the prize opening base plate 26. A count sensor 27 (see FIG. 3) is fixed in the special winning opening, and the count sensor 27 detects that the game ball has won the special winning opening and outputs a count signal.

  As shown in FIG. 2, a door 28 is attached to the winning prize base plate 26 so as to be rotatable about a horizontal axis at the lower end. The door 28 is connected to a special prize opening solenoid 29 (see FIG. 3). The special prize opening solenoid 29 is operated by rotating the door 28 in a vertical state so that a game ball wins the front of the special prize opening. The game ball is opened in such a way that the front of the special winning opening can be won based on the closing of the door 28 and turning the door 28 in a horizontal state where the door 28 is tilted forward. In other words, the special prize opening is switched to a closed state where the game balls cannot be won and an open state where the game balls can be won, and corresponds to a variable prize opening.

As shown in FIG. 2, a special symbol display 30 is fixed to the winning prize base plate 26. The special symbol indicator 30 is composed of an LED indicator, and the special symbol indicator 30 displays a special symbol. A display frame 31 is fixed in the game area 22, and a decorative symbol display 32 corresponding to a symbol display is fixed to the display frame 31. The decorative symbol display 32 is composed of a color liquid crystal display having a display area larger than that of the special symbol display 30, and the decorative symbol display 32 displays the decorative symbol. This decorative symbol is composed of a combination symbol of three columns, that is, a symbol element in the left column, a symbol element in the middle column, and a symbol element in the right column, and corresponds to an identification symbol for identifying the big hit and miss.
The symbol display is usually provided with a symbol variation region. Normal symbols are displayed in two horizontal rows in the normal symbol variation area. The normal symbols in these columns correspond to identification symbols for identifying hits and misses, and are composed of numeric symbols.

  The main control circuit 50 in FIG. 3 is the highest-level control means for controlling game contents, and includes a CPU 51, ROM 52, and RAM 53. A control program and control data are recorded in the ROM 52 of the main control circuit 50, and the CPU 51 executes a control operation based on the control program and control data in the ROM 52 using the RAM 53 as a work area. The output circuit 54 forms a waveform of each of the start signal from the start port sensor 25 and the count signal from the count sensor 27 and outputs it to the main control circuit 50. The main control circuit 50 outputs the start signal from the output circuit 54. And a prize ball command is set based on detecting either of the count signals. The timer circuit 55 outputs a pulse signal to the main control circuit 50 at a constant time interval (4 msec), and the main control circuit 50 executes a processing operation every time the pulse signal from the timer circuit 55 is detected.

  The solenoid circuit 56 cuts off the special prize opening solenoid 29, and the main control circuit 50 opens and closes the special prize opening door 28 based on driving control of the solenoid circuit 56. The LED circuit 57 displays a special symbol on the special symbol display 30, and the main control circuit 50 controls the display content of the special symbol display 30 based on driving control of the LED circuit 57. The main control circuit 50 corresponds to a winning determination unit.

  The payout control circuit 60 controls the payout operation of the prize balls, and has a CPU 61, a ROM 62, and a RAM 63. A control program and control data are recorded in the ROM 62 of the payout control circuit 60, and the CPU 61 executes a prize ball payout operation based on the control program and control data in the ROM 62 using the RAM 63 as a work area. The payout control circuit 60 receives a prize ball command from the main control circuit 50, and sets a drive signal based on detecting the prize ball command. The motor circuit 64 is provided with a drive signal setting result from the payout control circuit 60 and drives the payout motor 65 based on the drive signal from the payout control circuit 60. The payout motor 65 corresponds to a drive source of a prize ball payout device for paying out game balls as prize balls into the upper plate 5, and prize balls are driven into the upper plate 5 based on driving of the payout motor 65. The number of prize balls according to the command is paid out.

  The effect control circuit 70 comprehensively controls the effect contents of the decorative symbol game, and includes a CPU 71, a ROM 72, and a RAM 73. A control program and control data are recorded in the ROM 72 of the effect control circuit 70, and the CPU 71 executes processing operations based on the control program and control data in the ROM 72 using the RAM 73 as a work area. The effect control circuit 70 receives a command from the main control circuit 50 and sets a command based on detecting the command from the main control circuit 50. The timer circuit 74 outputs a pulse signal to the effect control circuit 70 at a constant time interval (4 msec). The effect control circuit 70 executes a processing operation every time a pulse signal from the timer circuit 74 is detected. Yes, the production control circuit 70 executes a processing operation each time a pulse signal from the timer circuit 74 is detected. The exercise control circuit 70 corresponds to symbol setting means, mode setting means, and notice determination means.

  The symbol control circuit 80 includes a CPU 81, a ROM 82, a RAM 83, a VDP 84, a VROM 85, and a VRAM 86. The CPU 81 of the symbol control circuit 80 sets the control data based on the command from the effect control circuit 70, and instructs the VDP 84 to reproduce the video data in accordance with the control data setting result. The corresponding video data is detected from the VROM 85, and a display signal is generated based on the detection result of the video data. The VDP 84 outputs a display signal setting result to the LCD circuit 87, and the LCD circuit 87 displays an image corresponding to the display signal from the VDP 84 on the decorative design display 32. These series of operations are executed by the CPU 81 based on the control program and control data recorded in the ROM 82, and the ROM 83 is set as the work memory of the CPU 81 yesterday. The symbol control circuit 80 corresponds to background display means, identification symbol display means, and notice symbol display means.

  The sound control circuit 90 includes a CPU 91, a ROM 92 and a RAM 93. The CPU 91 of the sound control circuit 90 detects sound data corresponding to the command from the effect control circuit 70 from the ROM 92, generates a sound signal based on the detection result of the sound data, and outputs it to the speaker circuit 94. The speaker circuit 94 outputs sound corresponding to the sound signal from both speakers 14. The series of operations of the CPU 91 is performed based on the control program and control data recorded in the ROM 92, and the RAM 93 functions as a work memory for the CPU 91.

  The illumination control circuit 100 includes a CPU 101, a ROM 102, and a RAM 103. The CPU 101 of the illumination control circuit 100 detects the illumination data corresponding to the command from the effect control circuit 70 from the ROM 102, generates an illumination signal based on the detection result of the illumination data, and outputs it to the LED circuit 104. The LED circuit 104 causes the plurality of illumination LEDs 17 to emit light with contents corresponding to the illumination signal. A series of operations of the CPU 101 are performed based on a control program and control data recorded in the ROM 102, and the RAM 103 functions as a work memory of the CPU 101.

[2] Explanation of Game Function [2-1] Normal Symbol Game Function When a player inserts a game ball into the upper plate 5 and rotates the firing handle 8 in the clockwise direction, the game area 22 of the game board 18 A game ball is launched inside and falls while hitting the obstacle nail 23. When this game ball passes through the normal symbol start gate 33 effectively, a normal symbol game is performed. This normal symbol game is performed based on displaying a normal symbol in the normal symbol variation area, and the outline of the normal symbol game is as follows.

  In the normal symbol variation area, any number symbol of “3, 7” is displayed in a stationary state as a normal symbol in the left column and the right column, and when the game ball passes through the normal symbol start gate 33 effectively. The normal symbols in each row start to fluctuate simultaneously. This variation means that the normal symbols in each column change in a stationary state, and the change order of the normal symbols in each column is “3” → “7” → “3” → alternate.

  When a predetermined time elapses from the start of normal symbol fluctuation, the left normal symbol and right normal symbol stop simultaneously, and the determination result of hit and miss is notified according to the combination of the left normal symbol and right normal symbol in the stopped state. . The winning symbol is for notifying the occurrence of winning, and two types of “3 3” and “77” are set for the winning symbol. The off symbol notifies the occurrence of the off symbol, and two types of “3 7” and “7 3” are set in the off symbol.

[2-2] Winning game function When the winning symbol is stopped and displayed in the normal symbol variation area, the winning game is started. This winning game is a game in which the special symbol start port 24 is enlarged based on the rotating operation of both blades of the special symbol start port 24 in an inclined state, and the probability that the game ball wins in the special symbol start port 24 is increased. The blades are held in an inclined state until the time condition for the enlargement time to reach the upper limit is satisfied.

[2-3] Special Symbol Game Function When a player inserts a game ball into the upper plate 5 and rotates the launch handle 8, the game ball is launched into the game area 22 of the game board 18 and the obstacle nail 23 Fall while hitting. When this game ball wins in the special symbol start port 24, a predetermined number of game balls are paid out as prize balls in the upper plate 5 from the prize ball payout device, and the special symbol game is started. In this special symbol game, special symbols are displayed in order on the special symbol display 30 in a variable state and a variable stop state, and the special symbol mode at the time of variable stop is, as shown in FIG. There are four types, namely, a probable big hit mode, a short time big hit mode, and a disengaged mode.

[2-4] jackpot game function When the special symbol is stopped and displayed on the special symbol display 30 in one of the normal jackpot mode, the probability variation jackpot mode, and the short-time jackpot mode, the jackpot game is started. This jackpot game is to open a special winning opening and generate an advantageous state for a player to allow a game ball to win in the special winning opening. The special winning opening has an upper limit (for example, 10) game balls. Is held in an open state until the number condition for winning or the time condition for reaching the upper limit value (for example, 30 sec) is satisfied. The opening / closing operation based on the number condition and the time condition of the special prize opening is called a big hit round, and the big hit round is repeated a fixed number of times (for example, 15 times). The repetition of the big hit round is equivalent to the big hit game. During each big hit round, the big hit round display for visualizing the big hit game on the decorative symbol display 32 is performed. Sound effects that produce sound are output, and the plurality of illumination LEDs 17 emit light according to the display content of the big hit round display.

[2-5] Special Symbol Game Holding Function When a game ball wins in the special symbol start port 24 during a special symbol game in which a special symbol game cannot be started immediately or during a big hit game, the special symbol game is held. An upper limit value (for example, 4 times) is set for the number of times this special symbol game is held, and the special symbol game is held when the game ball wins in the special symbol start port 24 while the number of times the hold has reached the upper limit value. Not. A winning of a game ball in which the special symbol game is not held is referred to as an invalid winning, and a winning in which the special symbol game is held is referred to as an effective winning.

[2-6] Decorative design game function (design game function)
When the game ball wins in the special symbol start opening 24, the decorative symbol game is started in conjunction with the special symbol game. In this decorative symbol game, an image is displayed on the decorative symbol display 32, sound effects corresponding to the image on the decorative symbol display 32 are output from both speakers 14, and a plurality of illumination LEDs 17 are displayed on the decorative symbol display 32. It is composed by emitting light accordingly. The video of the decorative symbol game displays the decorative symbol in order in a variation state and a variation stop state, and informs the player of the determination result of losing and jackpot based on the mode when the variation of the decorative symbol is stopped. The decorative symbol variation start is performed in time synchronization with the special symbol variation start, and the decorative symbol variation stop is performed in synchronization with the special symbol variation stop in time. When the variation stops, the decorative symbol stops variably in one of the combination of complete detachment and the combination of detachment reach, and when the special symbol stops variably in the normal big hit mode, the decorative symbol stops changing in the normal big hit combination. When the special symbol is variably stopped in the mode of the probability variation big hit, the decorative symbol is variably stopped in the combination of the probability variation big hit, and when the special symbol is variably stopped in the mode of the short and long time big hit, the decorative symbol is fluctuated and stopped in the combination of the time variation big hit.

[2-7] Stochastic Fluctuation Function The stochastic fluctuation mode is a high probability mode in which the big hit is determined with a high constant probability compared to the invalid state of the probability fluctuation mode. This probability variation mode is activated on the basis that the decorative symbol is stopped and displayed with one of the probability variation jackpot combinations “111” and “333”, and the decorative symbol is a combination of “555” It is invalidated on the basis of “777”, which normally stops fluctuating at any one of the combinations “222”, “444”, “666”, and “888”.

[2-8] Fluctuation time reduction function The fluctuation time reduction mode is a mode in which the fluctuation display time of the normal symbol is set shorter than the invalid state of the time reduction mode, and the expansion time of the special symbol start port 24 is set longer. . This variation time shortening mode corresponds to a specific state, and is activated based on the occurrence of a specific jackpot and gives a player an advantageous state a predetermined number of times. In detail, it is activated based on the decorative symbol being stopped and displayed with one of the combinations “555” and “777” per hour and big jackpot, applied from the first special symbol game immediately after the jackpot game ends, and changed This is continued until the number of times (that is, the number of short times) reaches 100 times.
Further, while the time reduction mode is activated, the remaining number of short times is displayed on the decorative symbol display. A control method for displaying the remaining number of short times will be described later.

“3” Internal Process of Main Control Circuit 50 [3-1] Main Process When the power of the CPU 51 of the main control circuit 50 is turned on, all data in the RAM 53 is initialized by the power-on process of step S1 in FIG. In S2, the setting state of the timer interrupt flag is determined. The timer interrupt flag is turned on by timer interrupt processing based on the CPU 51 receiving a pulse signal from the timer circuit 55. When the CPU 51 detects the timer interrupt flag being turned on in step S2, the CPU 51 proceeds to step S3. Transitions and turns off the timer interrupt flag.

  Next, when the CPU 51 turns off the timer interrupt flag in step S3, the CPU 51 sequentially executes the data acquisition process of step S6 from the input process of step S4. When the data acquisition process of step S6 is completed, the big hit game process of step S12 is alternatively executed based on the set state of the main control flag from the big hit determination process of step S7, and then the normal symbol game process step S13 is executed. After execution, the process returns to step S2. The main control flag is initially set to the jackpot determination process in the power-on process in step S1, and the CPU 51 proceeds to step S3 based on newly detecting the timer interrupt flag being turned on when returning to step S2. Transition.

[3-2-1] Input processing (normal symbol)
FIG. 5 shows the details of the input processing in step S4. The CPU 51 determines the output state of the normal symbol start signal from the output circuit 54 in step S21 in FIG. Here, when it is determined that there is no normal symbol start signal, the normal symbol start signal flag is turned off at step S22, and when it is determined that there is a normal symbol start signal, the normal symbol start signal flag is turned on at step S23. That is, when the game ball passes through the normal symbol start gate 33, a normal symbol start signal is output from the output circuit 54, and the normal symbol start signal flag is turned on.

[3-2-2] Input processing (special symbol)
FIG. 6 shows the details of the input process in step S4, and the CPU 51 determines the output state of the special symbol start signal from the output circuit 54 in step S21 in FIG. When it is determined that there is no special symbol start signal, the special symbol start signal flag is turned off in step S22. When it is determined that there is a special symbol start signal, the special symbol start signal flag is turned on in step S23. That is, when the game ball wins in the special symbol start port 24, a special symbol start signal is output from the output circuit 54, and the special symbol start signal flag is turned on.

[3-3] Counter Update Processing When the CPU 51 proceeds to the counter update processing in step S5 in FIG. 4, it adds “1” to each of the measured values of the random counters R1 to R4, R6, and R7. The addition contents of these random counters R1 to R4, R6, and R7 are as follows.
(1) The random counter R1 corresponds to a random value for selecting a variation pattern. As shown in FIG. 7, the random counter R1 is added to the initial value “0” after being added from the initial value “0” to the upper limit value “100”. Return and add cyclically.
(2) The random counter R2 corresponds to a random value that assigns the determination result to complete detachment and detachment reach at the time of determination of detachment, and is added to the upper limit value “49” from the initial value “0” and then the initial value “ It returns to 0 and is added cyclically.
(3) Random counter R3 corresponds to a random value for drawing whether or not a big hit has occurred, and is added to initial value “0” from initial value “0” and then returned to initial value “0” to circulate Is added to
(4) The random counter R4 corresponds to a random value for drawing a special symbol type when determining the jackpot, and is added from the initial value “0” to the upper limit value “19” and then returned to the initial value “0”. Is added cyclically.
(5) The random counter R6 is equivalent to a random value for drawing the presence / absence of winning, and is added to the upper limit value “32” from the initial value “0” and then returned to the initial value “0” to be cyclic Is added to
(6) As shown in FIG. 8, the random counter R7 selects a normal symbol for winning and a normal symbol for losing. This random counter R7 is a counter for winning and losing symbols, and consists of a one-digit counter. After adding from “0” to “1”, it returns to “0” and is added in a ring shape. .

[3-4-1] Data acquisition processing (normal symbol)
FIG. 9 shows details of the data acquisition process (normal symbol) in step S6 of FIG. 4, and the CPU 51 determines the setting state of the normal symbol start signal flag in step S31 of FIG. For example, when the game ball passes through the normal symbol start gate 33, the normal symbol start signal flag is turned on in the input processing of FIG. In this case, the CPU 51 determines that the normal symbol start signal flag is turned on in step S31 of FIG. 9, and acquires the measured values of the random counters R6 and R7 in step S32.

  In the RAM 53 of the main control circuit 50, as shown in FIG. 10, the hold data recording unit 11 to the hold data recording unit 14 are set. Each of the hold data recording unit 11 to the hold data recording unit 14 records the acquisition result of the random counter R6. When the CPU 51 proceeds to step S33 in FIG. 9, the hold data recording unit 11 stores the random counter R6. It is determined whether or not is recorded. If it is determined that the acquisition result of the random counter R6 is not recorded in the hold data recording unit 11, the process proceeds to step S34, and the acquisition result of the random counter R6 is recorded in the hold data recording unit 11. Next, in step S42, a normal symbol holding number command with a holding number of 1 is transmitted to the sub-control circuit (production control circuit) side.

  Further, when the CPU 51 determines that the random counter R6 is recorded in the hold data recording unit 11 in step S33 of FIG. 9, it determines whether or not the random counter R6 is recorded in the hold data recording unit 12 in step S35. To do. Here, when it is determined that the random counter R6 is not recorded in the hold data recording unit 12, the process proceeds to step S36, and the acquisition result of the random counter R6 is recorded in the hold data recording unit 12. Next, in step S43, the normal symbol hold number command with the hold number 2 is transmitted to the sub-control circuit (effect control circuit) side.

  Further, when determining that the random counter R6 is recorded in the hold data recording unit 12 in step S35 of FIG. 9, the CPU 51 determines whether or not the random counter R6 is recorded in the hold data recording unit 13 in step S37. To do. When it is determined that the random counter R6 is not recorded in the hold data recording unit 13, the process proceeds to step S38, and the acquisition result of the random counter R6 is recorded in the hold data recording unit 13. Next, in step S44, a normal symbol hold number command with a hold number of 3 is transmitted to the sub-control circuit (effect control circuit) side.

  When the CPU 51 determines that the random counter R6 is recorded in the hold data recording unit 13 in step S37 of FIG. 9, the CPU 51 determines whether or not the random counter R6 is recorded in the hold data recording unit 14 in step S39. To do. If it is determined that the random counter R6 is not recorded in the hold data recording unit 14, the process proceeds to step S40, and the acquisition result of the random counter R6 is recorded in the hold data recording unit 14. Next, in step S45, a normal symbol hold number command with a hold number of 4 is transmitted to the sub-control circuit (effect control circuit) side.

  If the CPU 51 determines that the random counter R6 is recorded in the hold data recording unit 14 in step S39 of FIG. 9, the acquisition result of the random counter R6 is cleared in step S41. That is, the upper limit “4 sets” is set for the number of records of the random counter R 6, and when the game ball passes through the normal symbol start gate 33 with the upper limit set of random counters R 6 recorded in the RAM 53. In step S41, the acquisition result of the random counter R6 is cleared, and the fact that the game ball has passed through the normal symbol start gate 33 is invalidated.

[3-4-2] Data acquisition process (special symbol)
FIG. 11 shows details of the data acquisition process in step S6 of FIG. 4, and the CPU 51 determines the setting state of the start signal flag in step S31 of FIG. For example, when the game ball wins in the special symbol start port 24, the special symbol start signal flag is turned on in the input processing of FIG. In this case, the CPU 51 determines that the special symbol start signal flag is turned on in step S31 of FIG. 11, and acquires the measured values of the random counters R1 to R4 in step S32.

  In the RAM 53 of the main control circuit 50, the hold data area 1 to the hold data area 4 are set as shown in FIG. The reserved data area 1 to the reserved data area 4 record the acquisition results of the random counters R1 to R4. When the CPU 51 proceeds to step S33 in FIG. It is determined whether or not R4 is recorded. When it is determined that the random counters R1 to R4 are not recorded in the hold data area 1, the process proceeds to step S34, and the acquisition results of the random counters R1 to R4 are recorded in the hold data area 1. Next, in step S42, a hold number command of hold number 1 is transmitted to the sub control circuit (effect control circuit) side.

  If the CPU 51 determines in step S33 in FIG. 11 that the random counters R1 to R4 are recorded in the hold data area 1, it determines whether or not the random counters R1 to R4 are recorded in the hold data area 2 in step S35. Judging. When it is determined that the random counters R1 to R4 are not recorded in the reserved data area 2, the process proceeds to step S36, and the acquisition results of the random counters R1 to R4 are recorded in the reserved data area 2. Next, in step S43, a hold number command of hold number 2 is transmitted to the sub control circuit (effect control circuit) side.

  If the CPU 51 determines in step S35 in FIG. 11 that the random counters R1 to R4 are recorded in the reserved data area 2, it is determined in step S37 whether the random counters R1 to R4 are recorded in the reserved data area 3. Judging. If it is determined that the random counters R1 to R4 are not recorded in the reserved data area 3, the process proceeds to step S38, and the acquisition results of the random counters R1 to R4 are recorded in the reserved data area 3. Next, in step S44, a hold number command of hold number 3 is transmitted to the sub control circuit (effect control circuit) side.

  If the CPU 51 determines that the random counters R1 to R4 are recorded in the reserved data area 3 in step S37 in FIG. 11, it is determined in step S39 whether the random counters R1 to R4 are recorded in the reserved data area 4. Judging. If it is determined that the random counters R1 to R4 are not recorded in the reserved data area 4, the process proceeds to step S40, and the acquisition results of the random counters R1 to R4 are recorded in the reserved data area 4. Next, in step S45, a hold number command of hold number 4 is transmitted to the sub control circuit (effect control circuit) side.

  When the CPU 51 determines that the random counters R1 to R4 are recorded in the reserved data area 4 in step S39 in FIG. 11, the acquisition results of the random counters R1 to R4 are cleared in step S41. That is, the upper limit value “4 sets” is set for the number of records of the random counters R1 to R4, and the game balls are placed in the special symbol start port 24 in a state where the random counters R1 to R4 of the upper limit group are recorded in the RAM 53. When winning a prize, the acquisition results of the random counters R1 to R4 are cleared in step S41, and the winning of the game ball in the special symbol starting port 24 is invalidated.

[3-5] Normal Symbol Game Processing When the game ball effectively passes through the normal symbol start gate 33, the normal symbol game processing in step S13 of FIG. 4 is performed. FIG. 13 shows the details of the normal symbol game process in step S13 of FIG. The normal symbol game process is performed every 4 msec when a timer interrupt occurs, and the CPU 51 of the main control circuit 50 assigns a winning symbol and a miss symbol in the normal symbol game process, and sets a winning symbol and a miss symbol. When the winning determination is made, the special symbol start port 24 is enlarged, and the winning probability of the game ball with respect to the special symbol start port 24 is increased.

  In step S801 in FIG. 13, the CPU 51 determines the setting state of the start port flag. This start port flag indicates the expansion / contraction state of the special symbol start port 24, and the CPU 51 determines that the special symbol start port 24 is in the contracted state when detecting that the start port flag is set during the contraction. The process proceeds to step S802.

  In step S802, the CPU 51 determines the setting state of the normal symbol variation flag. The normal symbol variation flag indicates the variation state of the ordinary symbol. When the CPU 51 detects that the ordinary symbol variation flag is set during stoppage, it determines that the ordinary symbol variation has stopped, and step S803. Migrate to

  In step S803, the CPU 51 determines whether or not the acquisition result of the random symbol R6 for normal symbols is stored in the RAM 53, and the acquisition result of the random counter R6 is stored in the RAM 53, that is, in FIG. When it is determined that the reserved data is recorded in the reserved data recording units E11 to E14 for the normal symbol shown, the process proceeds to step S804.

  In step S804, the CPU 51 detects the acquisition result of the random counter R6 from the reserved data recording unit E11 for normal symbols in the RAM 53 (see FIG. 10), and compares it with 30 hit values “3-32”. Here, when it is detected that the random counter R6 is the same as any one of the 30 hit values, it is determined that it is a hit, and the determination result is stored in the hit area of the RAM 53. Further, when it is detected that the random counter R6 is not the same as any of the 30 winning values, it is determined that the random counter R6 is out of place, and the determination result is stored in the winning area. That is, the winning is determined with a fixed constant probability “30/33”.

  When the CPU 51 stores the hit and miss determination results in the hit area, the CPU 51 detects the determination result from the hit area in step S805 of FIG. When a hit is detected as the determination result, the storage result of the random counter R7 is detected from the normal symbol hit symbol area of the RAM 53. Then, the normal symbol for winning corresponding to the random counter R7 is detected from the normal symbol table (see FIG. 8) in the ROM 52, and set to the left normal symbol and the right normal symbol.

  When the CPU 51 detects that the outage is stored as the determination result in the hit area in step S805 of FIG. 13, the CPU 51 detects the storage result of the random counter R7 from the out symbol area for the normal symbol in the RAM 53. Then, a normal symbol for detachment corresponding to the random counter R7 is detected from the normal symbol table in the ROM 52, and set to the left normal symbol and the right normal symbol.

  When the normal symbol is set, the CPU 51 refers to the time reduction area of the RAM 53 in step S806 in FIG. In this time reduction area, the setting state of the time reduction mode is stored, and when the CPU 51 detects that the time reduction flag is stored in the time reduction area, it determines that the time reduction mode is in effect, and the variable display time. Is set to a short value “T101 (for example, 5 sec)”. This fluctuation display time refers to the time required from normal symbol fluctuation start to final stop, and when the CPU 51 detects that the time reduction flag is stored in an invalid state in the time reduction area, it is not in the time reduction mode. And the variable display time is set to the long value “T102 (for example, 58 sec)”.

  When the CPU 51 sets the variable display time, the timer T3 is reset to “0” in step S807. This timer T3 measures the elapsed time (ordinary symbol variation display time) with the normal symbol variation start time as a reference, and when the CPU 51 resets the timer T3, an INT signal is sent to the sub-control circuit 70 in step S808. In step S809, a normal symbol variation start command and normal symbol variation start data are output.

  The normal symbol variation start data has a normal symbol setting result, and the CPU 71 of the sub control circuit starts the IRQ interrupt program based on detecting the INT signal, and the normal symbol variation start command and the normal symbol variation start data. Is displayed on the basis of the reception of the IRQ interrupt program.

  When the CPU 51 outputs a normal symbol variation start command or the like to the sub-control circuit, it starts a timer T3 in step S810. After the output of the normal symbol variation start command or the like, the sub-control circuit displays the variation of the normal symbol in the normal symbol variation region of the symbol display, and the timer T3 has elapsed time starting from the start of variation of the normal symbol. Will be measured.

  When the CPU 51 starts the timer T3, the counter data area for normal symbols in the RAM 53 is arranged in step S811. This process overwrites the data stored in the holding data recording units E12 to E14 in the holding data recording units E11 to E13. For example, when the random counter R6 is stored only in the holding data recording unit E11, the holding data recording unit E11. Is stored in the hold data recording unit E12, and the random counter R6 of the hold data recording unit E11 is deleted.

  When the acquisition results of the random counter R6 are stored in the holding data recording units E11 to E14, the acquisition results of the random counter R6 of the holding data recording units E12 to E14 are moved to the preceding holding data recording units E11 to E13, and the holding data Default data is recorded in the recording unit E14 (step S812). Accordingly, in the next normal symbol game process, a winning determination process is performed based on the acquisition result of the random counter R6 stored in the hold data recording unit E12, and in the next normal symbol game process, it is stored in the hold data recording unit E13. Based on the obtained result of the random counter R6, a winning determination process is performed.

  When the CPU 51 arranges the counter data area for the normal symbol, it records that the normal symbol is changing based on setting the normal symbol change flag to the normal symbol change flag in step S813 of FIG.

  When the CPU 51 detects that the normal symbol variation flag is set during variation in step S802 of FIG. 13, the CPU 51 compares the measured value of the variation display time timer T3 with the variation display time setting result in step S814. Here, when it is detected that the measured value of the timer T3 has reached the setting result of the variable display time, the timer T3 is stopped in step S815, and the measurement of the variable display time is finished.

  When the CPU 51 stops the timer T3, it outputs an INT signal to the sub-control circuit in step S816, and outputs a normal symbol stop command in step S817. Then, the process proceeds to step S818, and the normal symbol fluctuation stop is recorded based on the fact that the normal symbol fluctuation flag is set to stop. This normal symbol stop command instructs the sub-control circuit to stop changing the normal symbol, and the CPU 71 of the sub-control circuit detects the normal symbol stop command by the IRQ interrupt program based on the reception of the INT signal. The normal symbol and the right normal symbol are switched from the fluctuation state to the stationary stop state.

  When the CPU 51 records the change stop of the normal symbol, the CPU 51 detects the determination result from the hit area of the RAM 53 in step S819. Here, when it is detected that the winning is stored as the determination result, the process proceeds to step S820, and the timer T4 is reset to “0”. The timer T4 measures the expansion time of the special symbol start port 24. When the timer 51 is reset, the CPU 51 resets both the special symbol start ports 24 based on applying drive power to the blade solenoid in step S821. The special symbol starting port 24 is enlarged by rotating the blade plate in an inclined state.

  When the CPU 51 enlarges the special symbol start port 24, the CPU 51 starts measuring the expansion time of the special symbol start port 24 based on starting the timer T4 in step S822. Then, the process proceeds to step S823, and the enlargement of the special symbol start port 24 is recorded based on setting the start port flag being enlarged.

  When the CPU 51 detects that the enlarging state is set in the start port flag in step S801, the CPU 51 determines that the special symbol start port 24 is in the expanded state. Then, the process proceeds to step S824, and the measurement value of the expansion time timer T4 is compared with the setting result of the expansion time. This expansion time is set to a value according to the setting state of the time reduction mode. Specifically, in the invalid state of the time reduction mode, it is set to a short value (0.7 sec), and the effective state of the time reduction mode is set. Then, the long value (3.5 sec) is set.

  When the CPU 51 detects that the measured value of the timer T4 has reached the upper limit value according to the set state of the time reduction mode in step S824, the special symbol start port 24 is based on cutting off the blade solenoid in step S825. Reduce. Then, in step S826, the expansion time measurement is finished based on stopping the expansion time timer T4, and in step S827, the reduction of the special symbol start port 24 is recorded based on the fact that the start port flag is being reduced. .

  That is, when the game ball effectively passes through the normal symbol start gate 33, the normal symbol is variably displayed in the normal symbol variation area of the symbol display. This variable display time is set to a short value when the time reduction mode is enabled, and is set to a long value when the time reduction mode is disabled. When the variable display time elapses, the normal symbol is out of combination ("3 7 ”,“ 7 3 ”) or a winning combination (“ 3 3 ”or“ 7 7 ”).

  When the normal symbol fluctuates and stops in the winning combination, the special symbol start port 24 is expanded. This extended time is set to a long value when the time reduction mode is enabled, and is set to a short value when the time reduction mode is disabled. The number of winnings for the special symbol start port 24 of the game ball is the same as that of the time reduction mode. It is adjusted according to the setting state.

[3-6] Big-hit determination process When the CPU 51 determines that the main control flag is set to the big-hit determination process, the CPU 51 proceeds from the data acquisition process in step S6 in FIG. 4 to the big-hit determination process in step S7. FIG. 14 shows details of the big hit determination process in step S7, and the CPU 51 determines whether or not the random counters R1 to R4 are recorded in the reserved data area 1 in step S51 of FIG. If it is determined that the random counters R1 to R4 are recorded in the reserved data area 1, the process proceeds to step S52 to determine the setting state of the probability variation flag. The probability variation flag indicates the current setting state of the probability variation mode, and the CPU 51 determines that the probability variation flag is turned on in step S52 in the effective state of the probability variation mode, and proceeds to step S53. In the invalid state, it is determined in step S52 that the probability variation flag is off, and the process proceeds to step S54.

  When the CPU 51 proceeds to step S53, the CPU 51 selects ten big hit values “7, 37, 67, 97, 127, 157, 187, 217, 247, 277” from the ROM 52. In step S55, the acquisition result of the random counter R3 is detected from the reserved data area 1, and the detection result of the random counter R3 is compared with ten big hit values “7 to 277”. Here, when it is determined that the detection result of the random counter R3 is the same as any one of the ten big hit values “7 to 277”, the big hit is determined, and the big hit flag is turned on in step S56. Further, when it is determined that the detection result of the random counter R3 is different from any of the ten jackpot values “7 to 277”, it is determined to be off, and the jackpot flag is turned off in step S64. That is, in the effective state of the probability variation mode, the big hit is determined with a high probability of “10/329”.

  When the CPU 51 proceeds to step S54, it selects one big hit value “7” from the ROM 52. In step S55, the acquisition result of the random counter R3 is detected from the reserved data area 1, and the detection result of the random counter R3 is compared with one big hit value “7”. Here, when it is determined that the detection result of the random counter R3 is the same as one big hit value “7”, the big hit is determined, and the big hit flag is turned on in step S56. Further, when it is determined that the detection result of the random counter R3 is different from one big hit value “7”, it is determined that it is out, and the big hit flag is turned off in step S64. That is, in the invalid state of the probability variation mode, the big hit is determined with a low probability of “1/329”.

When the big hit flag is turned on in step S56, the CPU 51 detects the acquisition result of the random counter R4 from the reserved data area 1 in step S57, and sets the detection result of the random counter R4 as five probability variation values “0 to 4”. Compare. These five probability variation values “0-4” are all recorded in the ROM 52, and the CPU 51 determines that the detection result of the random counter R4 is one of the five probability variation values “0-4” in step S57. When it is determined that they are the same, the process proceeds to step S58, and the special symbol is set to the probability variation big hit mode (see FIG. 15). Then, the probability variation mode is enabled based on turning on the probability variation flag in step S59 of FIG. 14, a probability variation big hit command is transmitted to the effect control circuit 70 in step S60, and a variation pattern is set in the main control flag in step S71. Set processing.
On the other hand, when the CPU 51 determines in step S57 that the detection result of the random counter R4 is different from any of the five probability variation values “0 to 4”, the CPU 51 proceeds to step S401 and displays the detection result of the random counter R4. Compared with five variable time reduction values “5-9”. These five variation time shortening values “5-9” are all recorded in the ROM 52, and the CPU 51 determines that the detection result of the random counter R4 is five variation time shortening values “5-9” in step S401. When it is determined that it is the same as either one, the process proceeds to step S402, and the special symbol is set to a time / short hit mode (see FIG. 15). Then, the probability variation mode is invalidated based on turning off the probability variation flag in step S403 in FIG. 14, the variation time reduction mode is validated based on turning on the time reduction flag in step S404, and 100 times in step S405. In step S406, a time-hit bonus command is transmitted to the effect control circuit 70. In step S71, a variation pattern setting process is set in the main control flag.

  If the CPU 51 determines in step S401 that the detection result of the random counter R4 is different from any of the five variable time shortening values “5 to 9”, the special symbol is changed to a normal jackpot (see FIG. 15). Then, the probability variation mode is invalidated based on turning off the probability variation flag in step S62 of FIG. 14, a normal jackpot command is transmitted to the effect control circuit 70 in step S63, and a variation pattern is set in the main control flag in step S71. Set processing. That is, the probability variation mode is validated with a probability of “1/4” on the condition that the big hit is determined, and invalidated with a probability of “3/4”.

  In addition, when the big hit flag is turned off in step S64, the CPU 51 sets the special symbol in an off-state (see FIG. 15) in step S65. In step S66 of FIG. 14, the acquisition result of the random counter R2 is detected from the reserved data area 1 and compared with five outreach reach values “0 to 4”. These five outreach values “0-4” are all recorded in the ROM 52, and the CPU 51 determines that the detection result of the random counter R2 is any one of the five outreach values “0-4” in step S66. When it is determined that they are the same, it is determined that the reach is out of reach, and the out reach reach flag is turned on in step S67. Next, an outreach command is transmitted to the effect control circuit 70 in step S68, and the variation pattern setting process is set in the main control flag in step S71.

  Further, when the CPU 51 determines in step S66 that the detection result of the random counter R2 is different from any of the five outlier reach values “0 to 4”, it determines that it is completely out. In step S69, the release reach flag is turned off. In step S70, a complete release command is transmitted to the effect control circuit 70. In step S71, the variation pattern setting process is set in the main control flag.

[3-7] Fluctuation Pattern Setting Process When the CPU 51 detects that the main control flag is set in the fluctuation pattern setting process, the CPU 51 proceeds from the data acquisition process in step S6 in FIG. 4 to the fluctuation pattern setting process in step S8. FIG. 16 shows the details of the variation pattern setting process in step S8, and the CPU 51 determines the setting state of the big hit flag in step S81 in FIG. For example, when a big hit is determined in the last big hit determination process, it is determined in step S81 that the big hit flag is on, and the process proceeds to step S82.

  In the ROM 52 of the main control circuit 50, a variation pattern table for big hits and a variation pattern table for disconnection are recorded. Each of these fluctuation pattern tables shows the correlation between the random counter R1, the fluctuation pattern, and the fluctuation display time. When the CPU 51 proceeds to step S82, it selects a fluctuation pattern table for big hits from the ROM 52. FIG. 17 shows the contents recorded in the variation pattern table for big hits. Variation patterns P1 to P4 are set in the variation pattern table for big hits, and a random counter R1 and variation display are provided for each of the variation patterns P1 to P4. Each of the time is set.

  When the CPU 51 selects the big hit variation pattern table in step S82 of FIG. 16, the CPU 51 detects the acquisition result of the random counter R1 from the reserved data area 1 in step S84, and the detection result of the random counter R1 from the big hit variation pattern table. Select a variation pattern for jackpot according to the response. Then, the process proceeds to step S85, and the variation display time corresponding to the variation pattern selection result is selected from the variation pattern table for big hits. For example, when the detection result of the random counter R1 is “40”, the variation pattern P1 is selected, and when the variation pattern selection result is P1, the variation display time “30.0 sec” is selected.

  Further, the CPU 51 determines that the big hit flag is turned off in step S81 of FIG. 16 when it is determined that the loss reach or complete loss is determined in the last big hit determination process, and selects the fluctuation pattern table for loss from the ROM 52 in step S83. In step S84, the acquisition result of the random counter R1 is detected from the hold data area 1, and the variation pattern for detachment is selected from the variation pattern table for detachment.

  FIG. 18 shows the recorded contents of the deviation variation pattern table, and variation patterns P5 to P9 different from the big hit variation pattern table are set in the deviation variation pattern table. The variation patterns P5 to P8 are for the reach reach that is selected only when determining the reach reach, and when the CPU 51 determines the miss reach in the previous jackpot determination process, the big hit flag is turned off and the miss reach flag is turned on in order. In step S84, one corresponding to the detection result of the random counter R1 is selected from the variation patterns P5 to P8. Then, the process proceeds to step S85, and the variation display time corresponding to the variation pattern selection result is selected from the variation pattern table for deviation shown in FIG. The variation pattern P9 of FIG. 18 is for complete losing that is a selection target only when determining complete losing. When the CPU 51 determines complete losing in the previous big hit determining process, it turns off the big hit flag and the off reach flag. In step S84, the variation pattern P9 for complete deviation is selected regardless of the detection result of the random counter R1. Then, the process proceeds to step S85, and the variation display time corresponding to the variation pattern selection result is selected from the variation pattern table for deviation shown in FIG.

  Next, when the CPU 51 selects the variable display time in step S85 in FIG. 16, in step S86, the CPU 51 transmits the change pattern selection result to the effect control circuit 70 as a variable pattern command. In step S87, the selection result of the variable display time is set in the timer T1. If it is determined in step S88 that the time reduction flag is on, the time reduction count is subtracted once in step S89. Next, when it is determined in step S90 that the number of time reductions is 0, the time reduction flag is turned off in step S91. Next, the random counters R1 to R4 recorded in the hold data area 1 are cleared in step S92.

  If the CPU 51 determines in step S88 in FIG. 16 that the time reduction flag is OFF, the CPU 51 proceeds to step S92. If the CPU 51 determines in step S90 that the number of time reductions is not 0, the process proceeds to step S92.

  Next, the CPU 51 shifts the record data in the hold data area 2 to the hold data area 1 in step S93, and shifts the record data in the hold data area 3 to the hold data area 2 in step S94. In step S95, the record data in the hold data area 4 is shifted to the hold data area 3. In step S96, a hold number command is transmitted to the sub-side. In step S97, a special symbol variation start process is set in the main control flag. In each of the hold data area 1 to the hold data area 4, default data is recorded in a state where the random counter R1 or the like is not stored, and the random counter R1 or the like is recorded from the hold data area 2 to the hold data area 4. If so, the random counter R1 etc. is shifted from step S93 to step S95.

[3-8] Special symbol variation start process When the CPU 51 detects that the main control flag is set in the special symbol variation start process, the process proceeds from the data acquisition process in step S6 in FIG. 4 to the special symbol variation start process in step S9. Transition. FIG. 19 shows details of the special symbol variation start process in step S9, and the CPU 51 outputs a special symbol variation start signal to the LED circuit 57 in step S101 in FIG. Then, the LED circuit 57 starts the special symbol variation display in synchronization with the detection of the special symbol variation start signal. This variation display of the special symbols is to variably display the special symbols in the order of setting “probable variation big hit”.

  When the CPU 51 outputs a special symbol variation start signal in step S101, the CPU 51 transmits a decorative symbol game start command to the effect control circuit 70 in step S102. And it transfers to step S103 and sets a special symbol fluctuation | variation stop process to a main control flag. This decorative symbol game start command corresponds to a decorative symbol game start command, and the production control circuit 70 starts the visual production of the decorative symbol game based on receiving the decorative symbol game start command. The design control circuit 80 is instructed, the sound control circuit 90 is instructed to start the sound design of the decorative design game, and the design control circuit 100 is instructed to start the electrical design of the design design game. To do.

“3-9” Special Symbol Fluctuation Stop Process When the CPU 51 detects that the main control flag is set in the special symbol fluctuation stop process, the process proceeds from the data acquisition process in step S6 in FIG. 4 to the special symbol fluctuation stop process in step S10. Transition. FIG. 20 shows the details of the special symbol fluctuation stopping process of step S10. The CPU 51 subtracts the set value ΔT (4 msec) from the measured value of the timer T1 in step S111 of FIG. Update remaining time. Then, the process proceeds to step S112, and the subtraction result of the timer T1 is compared with “0”. This special symbol game is performed in time synchronization with the decorative symbol game, and the remaining time of the special symbol game is the same as the remaining time of the decorative symbol game.

  When the CPU 51 detects that the subtraction result of the timer T1 is “0” in step S112, it determines the end of the special symbol game. Then, the process proceeds to step S113, and a special symbol fluctuation stop signal is output to the LED circuit 57. This special symbol fluctuation stop signal instructs that the fluctuation display of the special symbol is stopped by the selection result of the big hit determination process. When the probable big hit is determined in the big hit judgment process, the special symbol is changed to the probable big hit in FIG. The special symbol is stopped and displayed in the normal big hit mode shown in FIG. 15 when the normal big hit is determined in the big hit determination process, and special when the big hit determination process determines either outreach or complete loss. The symbol is stopped and displayed in a manner of being out of FIG.

  Next, when the CPU 51 outputs a special symbol variation stop signal to the LED circuit 57 in step S113 of FIG. 20, a decorative symbol game stop command is transmitted to the effect control circuit 70 in step S114. This decoration symbol game stop command corresponds to a stop command of the decoration symbol game, and the effect control circuit 70 stops the visual effect of the decoration symbol game based on detecting the decoration symbol game stop command. Instruct the symbol control circuit 80 to instruct the sound control circuit 90 to stop the sound effect of the decorative symbol game, and instruct the electrical control circuit 100 to stop the electrical effect of the decorative symbol game. To do. That is, the decorative symbol game starts in synchronization with the start of variation of the special symbol and ends in synchronization with the stop of variation of the special symbol, and the variation display time of the special symbol corresponds to the time required for the decorative symbol game.

  Next, when the CPU 51 transmits a decorative symbol game stop command in step S114, the wait time (2.0 sec) is set in the timer T2 in step S115. Then, the process proceeds to step S116, and wait processing is set in the main control flag.

[3-10] Wait Process When the CPU 51 detects that the main control flag is set in the wait process, the process proceeds from the data acquisition process in step S6 in FIG. 4 to the wait process in step S11. FIG. 21 shows details of the wait process in step S11. The CPU 51 updates the remaining wait time based on subtracting the set value ΔT (4 msec) from the measured value of the timer T2 in step S121 of FIG. Then, the process proceeds to step S122, and the subtraction result of the timer T2 is compared with “0”.

  Next, when the CPU 51 detects that the subtraction result of the timer T2 is “0” in step S122, it determines the set state of the big hit flag in step S123. When it is determined that the big hit flag is off, the process proceeds to step S124, and the big hit determination process is set to the main control flag. In step S125, the big hit flag is turned off, and in step S126, the miss reach flag is turned off. If it is determined in step S123 that the big hit flag is on, the process proceeds to step S127, and the big hit game process is set in the main control flag. In step S128, a big hit game start command is transmitted to the effect control circuit 70, the big hit flag is turned off in step S125, and the outreach flag is turned off in step S126. The jackpot game start command is equivalent to a jackpot game effect start command, and the effect control circuit 70 starts the video effect of the jackpot game based on detecting the jackpot game start command. 80, the sound control circuit 90 is instructed to start the sound effect of the big hit game, and the electric control circuit 100 is instructed to start the electric effect of the big hit game.

[3-11] Jackpot Game Process When the CPU 51 detects that the main control flag is set to the jackpot game process, the CPU 51 proceeds from the data acquisition process in step S6 in FIG. 4 to the jackpot game process in step S12. FIG. 22 shows the details of the jackpot game process in step S12. The CPU 51 opens the special winning opening in step S131, and subtracts the set value ΔT (4 msec) from the measured value of the open time T3 in step S132. Based on this, the remaining open time is updated. Next, the remaining winning count number is updated based on subtracting the winning number ΔC from the measured value of the winning count number C in step S133.

  Next, the CPU 51 proceeds to Step S134, compares the subtraction result of the closing time T3 with “0”, and when detecting that the subtraction result of the closing time T3 is “0”, the CPU 51 proceeds to Step S135 and performs a special prize. Close your mouth.

  On the other hand, when the CPU 51 detects that the subtraction result of the closing time T3 is not “0” in step S134, the CPU 51 proceeds to step S135. In step S135, the subtraction result of the winning count number C is compared with “0”, and when the subtraction result of the winning count number C is detected as “0”, the process proceeds to step S135 and the special winning opening is closed. . If the CPU 51 detects that the subtraction result of the winning count C is not “0” in step S135, the CPU 51 proceeds to step S132.

  When the special winning opening is closed in step S136, the CPU 51 proceeds to step S137 and updates the remaining jackpot round number based on subtracting one round from the measured value of the jackpot round number R. Then, in step S138, the subtraction result of the big hit round number R is compared with “0”, and when the subtraction result of the big hit round number R is “0”, the big hit round ends. That is, the processing of the big hit round generates a player's advantageous state of opening the special winning opening, and an upper limit (for example, 10) game balls are won in the special winning opening, or the special winning opening. Is ended based on reaching an upper limit value (for example, 30 sec). This big hit round is repeated by an upper limit value (for example, 15 times) determined and recorded in the ROM 52 in advance.

  Next, the process proceeds to step S139, and a big hit game stop command is transmitted to the effect control circuit 70. Then, the process proceeds to step S140, and the main control flag is set to the big hit determination process. The jackpot game stop command corresponds to a jackpot game effect stop command, and the effect control circuit 70 stops the video effect of the jackpot game based on detecting the jackpot game stop command. 80, the sound control circuit 90 is instructed to stop the sound effect of the big hit game, and the electric control circuit 100 is instructed to stop the electric effect of the big hit game.

[4] Internal Process of Effect Control Circuit 70 [4-1] Main Process When the power is turned on, the CPU 71 of the effect control circuit 70 initializes all data in the RAM 73 in the power-on process of step S201 in FIG. Then, the process proceeds to step S202, and the setting state of the timer interrupt flag is determined. This timer interrupt flag is turned on by timer interrupt processing based on the CPU 71 receiving a pulse signal from the timer circuit 74. When the CPU 71 detects that the timer interrupt flag is turned off in step S202, step S203 is executed. If the timer interrupt flag is detected to be on in step S202, the process proceeds to step S204.

  Next, in step S204, the timer interrupt flag is turned off, and the counter update process 2 in step S205 and the command process in step S206 are sequentially executed.

[4-2] INT Interrupt Processing When receiving the strobe signal (INT signal) from the main control circuit 50, the CPU 71 of the effect control circuit 70 starts the INT interrupt processing. The strobe signal is transmitted together with the command by the main control circuit 50. When the CPU 71 starts the INT interrupt processing, the CPU 71 receives the command in step S211 in FIG. 24, and records the command reception result in the RAM 73 in step S212. . Then, the process proceeds to step S213, and the command processing flag is set according to the command reception result. This command processing flag is initially set to command waiting processing in the power-on processing in step S201, and FIG. 25 shows the relationship between the type of command transmitted from the main control circuit 50 and the setting contents of the command processing flag. ing.

  The CPU 71 sets the command processing flag to the winning command processing and receives the variation pattern command when receiving the probability variation jackpot command, the short time jackpot command, the normal jackpot command, the miss reach command or the complete miss command from the main control circuit 50. When the command processing flag is set, the command processing flag is set to the variation pattern command processing, and when the decoration symbol game start command is received, the command processing flag is set to the decoration symbol game start command processing. Also, when a decorative symbol game stop command is received, the command processing flag is set to the decorative symbol game stop command processing, and when a big hit game start command is received, the command processing flag is set to the big hit game start command processing, and the big hit game stop command is set. Is received, the command processing flag is set to the big hit game stop command processing.

[4-3] Counter update process 1
FIG. 26 shows details of the counter update process 1 in step S203 of FIG. 23, and the CPU 71 adds “1” to the current measured value of the random counter R11 in step S221 of FIG. This random counter R11 is for setting a symbol element of each column of decorative symbols, and is composed of a three-digit counter. As shown in FIG. 27, the first digit of the random counter R11 is added from “0” to “7”, then returned to “0” and added cyclically, and the second digit is “1”. “1” is added for each carry added from “7” to “0”, and “1” is added for the third digit every time the carry is added from “7” to “0”. The

  When the CPU 71 updates the random counter R11 in step S221 in FIG. 26, the first digit and the third digit of the update result of the random counter R11 are compared in step S222. If it is detected that the two are different from each other, the process proceeds to step S223, and the update result of the random counter R11 is stored in the completely out of symbol area of the RAM 73. That is, as shown in FIG. 27, the complete out symbol area stores basic data of complete out symbols with different left and right columns. The stored data in the complete out symbol area is stored in the next step S223. Updated.

  If the CPU 71 detects that the first digit and the third digit of the random counter R11 are the same in step S222 in FIG. 26, the CPU 71 compares the first digit and the second digit of the random counter R11 in step S224. If it is detected that the two are different, the process proceeds to step S225, and the update result of the random counter R11 is stored in the outlier reach symbol area of the RAM 73. That is, in the outreach symbol area, as shown in FIG. 27, basic data of outreach symbols having the same left column and right column and different middle columns is stored. It is updated in the next step S225.

[4-4] Counter update process 2
When the CPU 71 proceeds to the counter update process 2 in step S205 of FIG. 23, the CPU 71 adds “1” to each of the measurement value of the random counter R12, the measurement value of the random counter R13, and the measurement value of the random counter R14. The random counter R12 corresponds to a random value for drawing a probability variation jackpot symbol and a normal jackpot symbol, and is added to the upper limit value “7” from the initial value “0” and then returned to the initial value “0” to circulate cyclically. Is added.

[4-5] Command Processing FIG. 28 shows details of the command processing in step S206 in FIG. 23. In the command processing in step S206, the CPU 71 stops the big hit game in step S237 from the command waiting processing in step S230 in FIG. Command processing is alternatively executed based on the setting state of the command processing flag.

[4-5-1] Command Waiting Processing When the CPU 71 detects that the command processing flag is set in the command waiting processing, the CPU 71 returns to step S202 in FIG. 23 through the command waiting processing in step S231 in FIG. This command waiting process is a process of waiting for a command from the main control circuit 50, and no substantial processing operation is performed.

[4-5-2] Normal Symbol Game Processing The normal symbol game processing of step S231 in FIG. 28 displays normal symbols in a variable state and a stopped state in order within the normal symbol variation area of the symbol display, and the normal symbol is stopped. The player is notified of the determination result of hitting and losing according to the combination, and when the normal symbol stops in the winning combination, the main control circuit 50 expands the special symbol starting port 24, and the special symbol starting port Increase the winning probability of the game ball to 24.

  When the CPU 71 of the sub-control circuit 70 proceeds to step S831 in FIG. 29, it determines whether or not the normal symbol variation start command is stored in the command area of the RAM 73. This normal symbol variation start command is output together with the normal symbol setting result based on the fact that the main control circuit 70 detects a valid passing of the game ball with respect to the normal symbol start gate 33, and the CPU 71 displays the normal symbol in the command area. If it is detected that the change start command is stored, the process proceeds to step S832.

  In step S832, the CPU 71 outputs a normal symbol variation start command to the VDP 84. Then, the process proceeds to step S833, and the normal symbol variation start command in the command area is deleted. When the VDP 84 detects a normal symbol variation start command from the CPU 71, the VDP 84 reads necessary display data from the VROM 85 and starts normal symbol variation display. In this variable display, the normal symbols are variably displayed in two horizontal rows in the normal symbol variation area of the symbol display, and the variable order of the normal symbols in each column is alternately “3” and “7”.

  In step S834, the CPU 71 detects whether a normal symbol variation stop command is stored in the command area of the RAM 73. This normal symbol variation stop command is output from the main control circuit 50 based on the passage of the normal symbol variation display time. As described above, in the effective state of the time reduction mode, the normal symbol variation start is started. It is output when a relatively short time has elapsed, and in the invalid state of the time reduction mode, it is output when a relatively long time has elapsed since the start of normal symbol fluctuation.

  When the CPU 71 detects that the normal symbol variation stop command is stored in the command area in step S834, the CPU 71 detects the setting result of the normal symbol from the data area of the RAM 73. In step S835, the normal symbol variation stop command and the normal symbol setting result are output to the VDP 84. In step S836, the normal symbol variation stop command in the command area and the normal symbol setting result in the data area are deleted.

  When the VDP 84 detects the normal symbol variation stop command and the normal symbol setting result from the CPU 71, the VDP 84 reads necessary display data from the VROM 85. Then, the fluctuation display of the normal symbol is stopped at the setting result, and the winning symbol and the off symbol are statically displayed. This static display is equivalent to a normal symbol fixed display, and the player is informed of the determination result of hit and miss according to the combination of two rows of normal symbols in the static state.

[4-5-3] Winning Command Processing The main control circuit 50 performs the big hit determination processing shown in FIG. When transmitted, the CPU 71 of the effect control circuit 70 rewrites the command processing flag from the command waiting processing to the winning command processing. In a state where this command processing flag is set in the winning command processing, the CPU 71 executes the winning command processing in step S232 in the command processing of FIG.

  FIG. 30 shows details of the winning command process in step S232, and the CPU 71 detects the reception result of the command from the RAM 73 in step S241. Then, the process proceeds to step S242, where the command detection result is compared with the probability variation jackpot command. If it is determined that the command detection result is a probability variation jackpot command, the process proceeds to step S243, and the decorative symbol is set to a combination of probability variation jackpot.

FIG. 31A shows a probability variation big hit symbol table recorded in the ROM 72 of the effect control circuit 70. In this probability variation big hit symbol table, the correspondence between the random counter R12 and the symbol elements is recorded, and the CPU 71 acquires the measured value of the random counter R12 in step S243 in FIG. 30, and the probability variation big hit in FIG. 31 (a). A symbol element corresponding to the acquisition result of the random counter R12 is selected from the symbol table, and each of the symbol element in the left column, the symbol element in the middle column, and the symbol element in the right column is set as the selection result of the symbol element. For example, when the acquisition result of the random counter R12 is “3”, “1” is selected as the symbol element, and the symbol element in the left column, the symbol element in the middle column, and the symbol element in the right column are all set to “1”. The decorative symbol sequence is set to the jackpot combination “111”. Two types of symbol elements “1” and “3” are set in the probability variation jackpot symbol table, and when the main control circuit 50 determines the probability variation jackpot, the combination of two decorative symbols “111” and “333” Is set to one of the following.
When the CPU 71 determines in step S242 in FIG. 30 that the command detection result is different from the probability variation jackpot command, the CPU 71 compares the command detection result with the short-time jackpot command in step S252. Here, when it is determined that the command detection result is a time and big hit command, the process proceeds to step S253, and the decorative symbol is set to a combination of time and big hit. FIG. 31 (b) shows a time-short-hit symbol table recorded in the ROM 72 of the effect control circuit 70. The correspondence table between the random counter R12 and the symbol elements is recorded in the symbol bonus symbol table at this time, and the CPU 71 acquires the measured value of the random counter R12 in step S253 of FIG. A symbol element corresponding to the acquisition result of the random counter R12 is selected from the jackpot symbol table, and each of the symbol element in the left column, the symbol element in the middle column, and the symbol element in the right column is set as the selection result of the symbol element. For example, when the acquisition result of the random counter R12 is “6”, “7” is selected as the symbol element, and the symbol element in the left column, the symbol element in the middle column, and the symbol element in the right column are all set to “7”. The decorative symbol is set to the jackpot combination “777”. At this time, two types of symbol elements “5” and “7” are set in the short and big hit symbol table, and when the main control circuit 50 determines the short and big hit, the combination of two decorative symbols “555” and “777”. Is set to one of the following.

  When the CPU 71 determines in step S252 in FIG. 30 that the command detection result is different from the short-time big hit command, the CPU 71 compares the command detection result with the normal big hit command in step S244. If it is determined that the command detection result is a normal jackpot command, the process proceeds to step S245, and the decorative symbol is set to a normal jackpot combination. FIG. 31 (c) shows a normal jackpot symbol table recorded in the ROM 72 of the effect control circuit 70. In this normal jackpot symbol table, the correspondence between the random counter R12 and symbol elements is recorded, and the CPU 71 acquires the measured value of the random counter R12 in step S245 of FIG. 30, and the normal counter of FIG. 31 (c). A symbol element corresponding to the acquisition result of the random counter R12 is selected from the jackpot symbol table, and each of the symbol element in the left column, the symbol element in the middle column, and the symbol element in the right column is set as the selection result of the symbol element. For example, when the acquisition result of the random counter R12 is “6”, “8” is selected as the symbol element, and the symbol element in the left column, the symbol element in the middle column, and the symbol element in the right column are all set to “8”. The decorative symbol is set to the jackpot combination “888”. In this normal jackpot symbol table, four types of symbol elements “2”, “4”, “6”, and “8” are set, and when the main control circuit 50 determines a normal jackpot, the decorative symbol is an even number. The combination is set to any one of “222”, “444”, “666”, and “888”.

  If the CPU 71 determines in step S244 in FIG. 30 that the command detection result is different from the normal jackpot command, the CPU 71 compares the command detection result with the reach command in step S246. If it is determined that the command detection result is an outlier reach command, the process proceeds to step S247, and the measurement value of the random counter R11 is acquired from the outlier reach symbol area of the RAM 73. Then, “1” is added to each of the third digit, the second digit, and the first digit of the detection result of the random counter R11, the symbol element of the left column is set as the addition result of the third digit, and the symbol of the middle column is set. The element is set to the addition result of the second digit, and the symbol element in the right column is set to the addition result of the first digit. For example, when the third digit of the random counter R11 is “1”, the symbol element in the left column is set to “2”, and when the second digit of the random counter R11 is “0”, the symbol element in the middle column is “1”. When the first digit of the random counter R11 is “1”, the symbol element in the right column is set to “2”, and the decorative symbol is set to the combination “212” of the outlier.

  If the CPU 71 determines in step S246 in FIG. 30 that the command detection result is different from the outreach command, it determines that the command is a complete out command. In this case, the process proceeds to step S248, and the measurement value of the random counter R11 is acquired from the completely out of symbol area of the RAM 73. Then, “1” is added to each of the third digit, the second digit, and the first digit of the detection result of the random counter R11, the symbol element of the left column is set as the addition result of the third digit, and the symbol of the middle column is set. The element is set to the addition result of the second digit, and the symbol element in the right column is set to the addition result of the first digit. For example, when the third digit of the random counter R11 is “1”, the symbol element of the left column is set to “2”, and when the second digit of the random counter R11 is “7”, the symbol element of the middle column is “8”. When the first digit of the random counter R11 is “3”, the symbol element in the right column is set to “4”, and the decoration symbol is set to the completely out-of-combination combination “284”.

  When the CPU 71 sets the decorative symbol to one of the probable big hit combination, the short-time big hit combination, the normal big hit combination, the detach reach combination, or the complete detach combination, the command recorded in the RAM 73 in step S249 in FIG. Clears the reception results (probability jackpot command, hour and hour jackpot command, normal jackpot command, miss reach command, complete miss command). In step S250, the setting result of the symbol element in the left column, the setting result of the symbol element in the middle column, and the setting result of the symbol element in the right column are transmitted to the symbol control circuit 80, and a command processing flag is sent to the command processing flag in step S251. Set wait processing.

[4-5-4] Variation Pattern Command Processing When the main control circuit 50 transmits a variation pattern command to the effect control circuit 70 in the variation pattern setting process of FIG. 16, the CPU 71 of the effect control circuit 70 sets a command processing flag to a command waiting process. To change pattern command processing. In a state where this command processing flag is set in the variation pattern command processing, the CPU 71 executes the variation pattern command processing in step S233 in the command processing of FIG. FIG. 32 shows details of the variation pattern command processing in step S233. The CPU 71 detects the reception result of the variation pattern command from the RAM 73 in step S261 in FIG. 32, and proceeds to step S264.

  CPU71 will select an effect pattern table from ROM72, if it transfers to step S264. In this effect pattern table, as shown in FIG. 33, CA1 to CA9 are set as effect pattern commands. In other words, the effect pattern table shows the correlation between the variation pattern command and the effect pattern command. In addition, the number of times of changing motion and the timing of updating the number of times of changing motion corresponding to the changing pattern command and the effect pattern command are set. Note that the fluctuating operation refers to a movement that starts and stops fluctuating. FIG. 33 is a diagram showing control data for selecting an effect pattern command and a variation count table.

Here, the case where the number of fluctuation operations is set to 1 corresponds to normal fluctuation, and the case where the number of fluctuation operations is set to a plurality of times corresponds to pseudo fluctuation. There are two types of fluctuations: normal fluctuations and pseudo fluctuations. Normal fluctuations are fluctuation actions performed once during one fluctuation. Pseudo fluctuations are fluctuation movements performed multiple times during one fluctuation. It is.
The variable operation frequency update timing is set when the remaining short time display update timing is set when the remaining short time number is displayed in FIG. For example, the variation pattern command P9 is a pseudo variation in which a variation operation is performed four times during one variation. In this case, the first variation operation is performed for 15 seconds, and then the remaining short time is displayed at the start of the second variation operation. , And after performing the second variation operation for 15 seconds, the remaining short time display is updated at the start of the third variation operation, and after performing the third variation operation for 15 seconds, the fourth variation operation is performed. At the start, the remaining short time display is updated, and the fourth variation operation is performed in 15 seconds.

  Next, when the CPU 71 proceeds to step S269 in FIG. 32, the effect pattern command according to the reception result of the variation pattern command is selected from the selection result of the effect pattern table. And it transfers to step S270 and the selection result of an effect pattern command is transmitted to each of the symbol control circuit 80, the sound control circuit 90, and the illumination control circuit 100. For example, the effect pattern command CA1 is selected based on detecting the variation pattern command P1 in the effect pattern table of FIG.

  In the ROM 92 of the sound control circuit 90, a plurality of sound data for decorative design games are recorded. Any one of the production pattern commands CA1 to CA9 is assigned to each sound data, and when the CPU 91 of the sound control circuit 90 receives the production pattern command from the production control circuit 70, it corresponds to the reception result of the production pattern command. Sound data is detected from the ROM 92, and the detection result of the sound data is decompressed and recorded in the RAM 93.

  In the ROM 102 of the illumination control circuit 100, a plurality of illumination data for decoration symbol games is recorded. Any one of the effect pattern commands CA1 to CA9 is assigned to each of these illumination data, and when the CPU 101 of the illumination control circuit 100 receives the effect pattern command from the effect control circuit 70, the reception result of the effect pattern command is displayed. The corresponding illumination data is detected from the ROM 102 and the detection result of the illumination data is recorded in the RAM 103.

  Next, when the CPU 71 proceeds to step S <b> 282 in FIG. 32, the reception result of the variation pattern command recorded in the RAM 73 is cleared. In step S283, the command processing flag is set to command waiting processing.

[4-5-5] Decoration Symbol Game Start Command Processing When the main control circuit 50 transmits a decoration symbol game start command to the effect control circuit 70 in the special symbol variation start processing of FIG. 19, the CPU 71 of the effect control circuit 70 performs command processing. The flag is rewritten from the command waiting process to the decorative symbol game start command process. In a state where this command processing flag is set in the decorative symbol game start command processing, the CPU 71 executes the decorative symbol game start command processing in step S234 in the command processing of FIG.

  FIG. 34 shows details of the decorative symbol game start command processing in step S234. The CPU 71 starts the decorative symbol game start in each of the symbol control circuit 80, the sound control circuit 90, and the electrical decoration control circuit 100 in step S291 in FIG. Send a command. In step S292, the decorative symbol game start command recorded in the RAM 73 is cleared, and in step S293, command waiting processing is set in the command processing flag.

  The decorative symbol game start command corresponds to a start command for starting a decorative symbol game, and the CPU 81 of the symbol control circuit 80 transmits a start command to the VDP 84 when receiving the decorative symbol game start command. Then, the VDP 84 displays video corresponding to the video data on the decorative symbol display 32 based on reproducing the decompression result of the video data recorded in the VRAM 86, and decorates based on the character data superimposed on the video data. The symbol elements in each column of symbols are displayed in order in the variation state and the variation stop state. This decorative symbol stop display is performed by VDP 84 in the order of (1) symbol elements in the left column, (2) symbol elements in the right column, and (3) symbol elements in the middle column. Are set to stop timings of the symbol elements in the left column from the timings of the symbol elements in the middle column so that the fluctuation stops within the reproduction time of the video data. Each of the stop display of the symbol elements in the left column, the stop display of the symbol elements in the right column, and the stop display of the symbol elements in the middle column is performed by the VDP 84 according to the setting result of the effect control circuit 70. All three columns are stopped and displayed within the variation display time according to the variation pattern selection result after starting the variation display of the game, and whether or not a big hit or miss has occurred to the player It is notified by the combination in.

  When the CPU 101 of the illumination control circuit 100 receives the decoration symbol game start command, the illumination LED 17 is displayed in a pattern according to the illumination data based on reproducing the decompression result of the illumination data recorded in the RAM 103. Blink. When the CPU 91 of the sound control circuit 90 receives the decoration symbol game start command, the sound control circuit 90 outputs sound effects corresponding to the sound data from both speakers 14 based on reproducing the decompression result of the sound data recorded in the RAM 93.

[4-5-6] Decoration Symbol Variation Stop Command Processing When the main control circuit 50 transmits a decoration symbol game stop command to the effect control circuit 70 in the special symbol variation stop processing of FIG. 20, the CPU 71 of the effect control circuit 70 performs command processing. The flag is rewritten from the command waiting process to the decorative symbol game stop command process. In a state where this command processing flag is set in the decorative symbol game stop command processing, the CPU 71 executes the decorative symbol game stop command processing in step S235 in the command processing of FIG.

  FIG. 35 shows details of the decorative symbol game stop command processing in step S235, and the CPU 71 stops the decorative symbol game stop in each of the symbol control circuit 80, the sound control circuit 90, and the electrical decoration control circuit 100 in step S301 in FIG. Send a command. This decoration symbol game stop command corresponds to an end command for instructing stop of the decoration symbol game. When the CPU 81 of the symbol control circuit 80 receives the decoration symbol game stop command from the effect control circuit 70, the VDP 84 is displayed as a decoration symbol. An instruction to stop the reproduction of the video data for gaming is issued, and the VDP 84 stops the reproduction processing of the video data for the decorative symbol game based on the instruction to stop the reproduction. When the CPU 91 of the sound control circuit 90 receives the decoration symbol game stop command from the effect control circuit 70, the CPU 91 stops the reproduction process of the sound data for the decoration symbol game. When the CPU 101 of the illumination control circuit 100 receives the decoration symbol game stop command from the effect control circuit 70, the CPU 101 stops the reproduction process of the illumination data for the decoration symbol game.

  Next, the CPU 71 proceeds to step S307 and clears the decorative symbol game stop command recorded in the RAM 73. Then, the process proceeds to step S308, and the command processing flag is set to command waiting processing.

[4-5-7] Jackpot Game Start Command Processing When the main control circuit 50 transmits a jackpot game start command to the effect control circuit 70 in step S128 of FIG. To jackpot game start command processing. In a state where this command processing flag is set to the jackpot game start command process, the CPU 71 executes the jackpot game start command process of step S236 in the command process of FIG.

  FIG. 36 shows details of the jackpot game start command processing in step S236. The CPU 71 sends a jackpot game start command to each of the symbol control circuit 80, the sound control circuit 90, and the electrical decoration control circuit 100 in step S311 of FIG. Send. In step S312, the big hit game start command recorded in the RAM 73 is cleared, and in step S313, the command processing flag is set to command waiting processing. This jackpot game start command instructs to start an effect that decorates the jackpot game, and when the CPU 81 of the symbol control circuit 80 receives the jackpot game start command, the video data for the jackpot game is reproduced on the VDP 84. The VDP 84 displays a jackpot game effect image on the decorative symbol display 32 based on reproducing the jackpot game video data. When the CPU 91 of the sound control circuit 90 receives the jackpot game start command, it selects the jackpot game sound data from the ROM 92, and plays the jackpot game sound effect from both speakers 14 based on reproducing the jackpot game sound data. Is output. When the CPU 101 of the lighting control circuit 100 receives the jackpot game start command, it selects the jackpot game lighting data from the ROM 102, and plays back the jackpot gaming lighting data to hit the plurality of lighting LEDs 17. Flashes with a game lighting pattern.

[4-5-8] Jackpot Game Stop Command Processing When the main control circuit 50 transmits a jackpot game stop command to the effect control circuit 70 in the jackpot game process of FIG. 22, the CPU 71 of the effect control circuit 70 waits for a command processing flag. Rewrite from processing to jackpot game stop command processing. In a state where this command processing flag is set to the big hit game stop command process, the CPU 71 executes the big hit game stop command process of step S237 in the command process of FIG.

  FIG. 37 shows details of the big hit game stop command processing in step S237, and the CPU 71 sends a big hit game stop command to each of the symbol control circuit 80, the sound control circuit 90, and the electrical decoration control circuit 100 in step S321 of FIG. Send. In step S322, the big hit game stop command from the main control circuit 50 recorded in the RAM 73 is cleared, and in step S323, the command processing flag is set to the command waiting process.

  When the CPU 81 of the symbol control circuit 80 receives the jackpot game stop command, it instructs the VDP 84 to stop playing the video data for jackpot game, and the VDP 84 plays the video data for jackpot game based on the command to stop playing. Stop processing. When the CPU 91 of the sound control circuit 90 receives the jackpot game stop command, the CPU 91 stops the process of reproducing the jackpot game sound data. When the CPU 101 of the lighting control circuit 100 receives the big hit game stop command, the CPU 101 stops the reproduction processing of the big hit game electric data.

[5] Time-short count display FIG. 38 is a diagram conceptually showing a control method for displaying the remaining time-short count on the decorative symbol display. This control method updates the number of times of fluctuation operation and displays the remaining number of short times even when performing pseudo fluctuation in which fluctuation action is performed a plurality of times during one fluctuation. Therefore, when the remaining short time count becomes 0, it can be shown to the player as if the short time count is added by the number of times of the extra change operation at the time of the pseudo variation so far.

  First, when the big hit ends, the time reduction number X (second variation number) is set to 100 by the setting means in step S501 of FIG. 38, and the time reduction number Y (first variation number) is set to 100 by the setting means. To do. Here, the time reduction number X is measured by the second variation number measurement means, and a plurality of fluctuation operations in the pseudo fluctuation are counted as a plurality of times, and the time reduction number Y is measured by the first variation number measurement means. In other words, a plurality of fluctuating operations in pseudo fluctuation are counted as one.

  Next, when the variable operation is performed in step S502, the process proceeds to step S503, where the numerical value of the specified number of times (that is, the variable operation number corresponding to the variation pattern command shown in FIG. 1 is subtracted. For example, when the variation pattern command is P9 in FIG. 33, the specified numerical value is 4. Therefore, 4 is subtracted from the time reduction count X, and 1 is subtracted from the time reduction count Y. Here, the specified number of times determined by the normal variation or the pseudo variation, that is, the number of fluctuation operations is selected by the variation pattern command, but the specified number of times may be selected by the effect pattern command. Further, the time reduction count X is measured by subtracting and updating the specified number of times from the time reduction count X. That is, the time reduction count X is measured by updating the time reduction count from 100 to 0, for example. However, it is also possible to measure the time reduction count X by adding and updating the specified number of times, that is, by updating the time reduction count from 0 to 100, for example. Further, the time reduction count Y is measured by subtracting and updating 1 from the time reduction count Y, that is, the time reduction count Y is measured by updating the time reduction count by decreasing it by one from 100, for example. It is also possible to measure the time reduction number Y by adding 1 to the time reduction number Y and updating it, that is, to measure the time reduction number Y by updating the time reduction number by incrementing by one from 0, for example. . Further, as another method for updating the number of time reductions X and Y, a method may be used in which the number of fluctuations is measured from when the power is turned on and is updated using this measured value.

  Next, when it is determined in step S504 in FIG. 38 that the result of the subtraction is Y = 0, the process proceeds to step S505, and 100 time fluctuations are completed. If it is determined in step S504 that the subtraction result is not Y = 0, the process proceeds to step S506. If it is determined that the subtraction result is 0 <X, the process proceeds to step S507, and the remaining number of times X is displayed by the fluctuation number display means. Details of the remaining short time display at this time will be described with reference to FIG.

  Next, the process proceeds to step S501, where the remaining short time count X after subtracting a specified numerical value is set. For example, if the remaining number of times X is 96 (= 100-4) as a result of subtraction, the number of times X is set to 96 in step S501. Then, the number of time reduction Y after subtracting 1 in step S501 is set. For example, if the remaining time reduction Y is 99 (100-1) as a result of subtraction, the time reduction Y is set to 99 in step S501.

  If it is determined in step S506 that the subtraction result is not 0 <X, the process proceeds to step S508. If it is determined that the subtraction result is X = 0, the process proceeds to step S509 to display the remaining short time count X. Details of the remaining short time display at this time will be described with reference to FIG. Next, in step S510, after the fluctuation of the normal fluctuation or the pseudo fluctuation corresponding to the fluctuation pattern command received in step S502 is completed, the display of the number of time reductions is changed to “loss time”. Details of the loss time display at this time will be described with reference to FIG.

  If it is determined in step S508 that the subtraction result is not X = 0, the process proceeds to step S511, and it is determined whether or not the subtraction result is X = -1. If it is determined in step S511 that the subtraction result is X = -1, the process proceeds to step S512. If it is determined in step S512 that the specified number of times is 4, the process proceeds to step S513. Then, in step S513, a time reduction effect is performed when the subtraction result is X = -1 and the specified number of times is 4, and the time reduction number is displayed at a timing according to this effect, and the remaining time reduction number becomes 0. Change the display of the number of hours and hours to “loss time” at the timing when the variable operation is performed. Details of the loss time display at this time will be described with reference to FIG. Further, the details of the remaining time count display until the remaining time count becomes 0 are the same as those described with reference to FIG.

  If it is determined in step S512 that the specified number is not 4, the process proceeds to step S514, and it is determined whether the specified number is 3. If it is determined in step S514 that the specified number is 3, the process proceeds to step S515. Then, in step S515, a time reduction effect is performed when the subtraction result is X = -1 and the specified number of times is 3, and the time reduction number is displayed at a timing according to this effect, and the remaining time reduction number becomes 0. Change the display of the number of hours and hours to “loss time” at the timing of the variable operation. Details of the loss time display at this time will be described with reference to FIG. Further, the details of the remaining time count display until the remaining time count becomes 0 are the same as those described with reference to FIG.

  If it is determined in step S514 that the specified number of times is not 3, the process proceeds to step S516. Then, in step S516, the time reduction effect is performed when the subtraction result is X = -1 and the specified number of times is 2, and the time reduction number is displayed at a timing according to this effect, and the remaining time reduction number becomes 0. Change the display of the number of hours and hours to “loss time” at the timing of the variable operation. Details of the loss time display at this time will be described with reference to FIG. Further, the details of the remaining time count display until the remaining time count becomes 0 are the same as those described with reference to FIG.

  If it is determined in step S511 that the subtraction result is not X = -1, the process proceeds to step S517, and it is determined whether or not the subtraction result is X = -2. If it is determined in step S517 that the subtraction result is X = −2, the process proceeds to step S518, where it is determined whether or not the specified number of times is 4. If it is determined in step S518 that the specified number of times is 4, the process proceeds to step S519. Then, in step S519, the time reduction effect is performed when the subtraction result is X = -2 and the specified number of times is 4, and the time reduction number is displayed at a timing according to this effect, and the remaining time reduction number becomes 0. Change the display of the number of hours and hours to “loss time” at the timing of the variable operation. Details of the loss time display at this time will be described with reference to FIG. Further, the details of the remaining time count display until the remaining time count becomes 0 are the same as those described with reference to FIG.

  If it is determined in step S518 that the specified number of times is not 4, the process proceeds to step S520. Then, in step S520, the time reduction effect is performed when the subtraction result is X = -2 and the specified number of times is 3, and the time reduction number is displayed at a timing according to this effect, and the remaining time reduction number becomes 0. Change the display of the number of hours and hours to “loss time” at the timing of the variable operation. Details of the loss time display at this time will be described with reference to FIG. Further, the details of the remaining time count display until the remaining time count becomes 0 are the same as those described with reference to FIG.

  If it is determined in step S517 that the subtraction result is not X = −2, the process proceeds to step S521. Then, in step S521, a time reduction effect is performed when the subtraction result is X = -3 and the specified number of times is 4, and the time reduction number is displayed at a timing according to this effect, and the remaining time reduction number becomes 0. Change the display of the number of hours and hours to “loss time” at the timing of the variable operation. Details of the loss time display at this time will be described with reference to FIG. Further, the details of the remaining time count display until the remaining time count becomes 0 are the same as those described with reference to FIG.

FIG. 39 is a diagram showing details of a display method for displaying the remaining short time count X shown in step S507 and step S509 in FIG. 38 on the decorative symbol display.
When receiving the variation pattern command, the CPU 71 proceeds to step S600 in FIG. 39, and determines whether or not this variation pattern command is a pseudo variation. If it is determined in step S600 that the fluctuation is not a pseudo fluctuation, that is, a normal fluctuation, the process proceeds to step S601, and X-1 is displayed as the remaining short time count when the fluctuation movement of the normal fluctuation is disclosed. For example, if the current number of time reductions is 81 and the variation pattern command is P2 in FIG. 33 in the case of step S507 in FIG. 38, the remaining number of time reductions 80 (= 81− 1) is displayed. In the case of step S509 in FIG. 38, assuming that the variation pattern command is P2 in FIG. 33, the remaining short time 0 (= 1-1) is displayed at the start of the variation operation of normal variation.

  If it is determined in step S600 in FIG. 39 that the fluctuation is a pseudo fluctuation, the process proceeds to step S602, where it is determined whether the specified number of times is four. If it is determined in step S602 that the specified number is 4, the process proceeds to step S603, and the remaining short number of times X-1 is displayed at the start of the first variable operation, and then the process proceeds to step S604. The remaining short number of times X-2 is displayed at the start of the variable operation, and then the process proceeds to step S605, and the remaining short number of times X-3 is displayed at the start of the third variable operation, and then the process proceeds to step S606. At the start of the variable operation, the remaining short time count X-4 is displayed. For example, if the current short time count is 81 and the change pattern command is P9 in FIG. 33 in the case of step S507 in FIG. 38, the remaining short time count 80 (= 81−) at the start of the first fluctuation operation. 1) is displayed, and after the first fluctuation operation is performed for 15 seconds, the remaining short time 79 (= 81-2) is displayed at the start of the second fluctuation operation, and after the second fluctuation operation is performed for 15 seconds. The remaining short time count 78 (= 81-3) is displayed at the start of the third variable operation, and the remaining short time count 77 (= 81-4) at the start of the fourth variable operation after performing the third variable operation for 15 seconds. ) Is displayed. In the case of step S509 in FIG. 38, if the variation pattern command is P9 in FIG. 33, the remaining short time count 3 (= 4-1) is displayed at the start of the first variation operation, and the first variation operation is performed. The remaining short time count 2 (= 4-2) is displayed at the start of the second fluctuation operation after 15 seconds, and the remaining short time count 1 at the start of the third fluctuation operation after the second fluctuation operation for 15 seconds. (= 4-3) is displayed, and the remaining short time 0 (= 4-4) is displayed at the start of the fourth variable operation after the third variable operation is performed for 15 seconds.

  If it is determined in step S602 in FIG. 39 that the specified number is not 4, the process proceeds to step S607 and it is determined whether the specified number is 3. If it is determined in step S607 that the specified number is 3, the process proceeds to step S608, and the remaining short number of times X-1 is displayed at the start of the first variable operation, and then the process proceeds to step S609. The remaining short number of times X-2 is displayed at the start of the variation operation, and then the process proceeds to step S610, and the remaining short number of times X-3 is displayed at the start of the third variation operation. For example, if the current short time count is 81 and the change pattern command is P8 in FIG. 33 in the case of step S507 in FIG. 38, the remaining short time count 80 (= 81−) at the start of the first change operation. 1) is displayed, and after the first fluctuation operation is performed for 15 seconds, the remaining short time 79 (= 81-2) is displayed at the start of the second fluctuation operation, and after the second fluctuation operation is performed for 15 seconds. The remaining number of short times 78 (= 81-3) is displayed at the start of the third fluctuation operation. In the case of step S509 in FIG. 38, if the variation pattern command is P8 in FIG. 33, the remaining short time count 2 (= 3-1) is displayed at the start of the first variation operation, and the first variation operation is performed. The remaining number of short times 1 (= 3-2) is displayed at the start of the second variable operation after 15 seconds, and the remaining short number of times 0 at the start of the third variable operation after performing the second variable operation for 15 seconds. (= 3-3) is displayed.

  If it is determined in step S607 in FIG. 39 that the specified number is not 3, the specified number is 2, and the process proceeds to step S611 to display the remaining short number of times X-1 at the start of the first variable operation. The process proceeds to step S612, and the remaining short number of times X-2 is displayed at the start of the second variation operation. For example, if the current short time count is 81 and the change pattern command is P7 in FIG. 33 in the case of step S507 in FIG. 38, the remaining short time count 80 (= 81−) at the start of the first change operation. 1) is displayed, and the remaining number of short times 79 (= 81-2) is displayed at the start of the second variation operation after the first variation operation is performed for 15 seconds. In the case of step S509 in FIG. 38, if the variation pattern command is P7 in FIG. 33, the remaining short time count 1 (= 2-1) is displayed at the start of the first variation operation, and the first variation operation is performed. The remaining number of short times 0 (= 2-2) is displayed at the start of the second fluctuation operation after 15 seconds.

  The timing for displaying the remaining short times is as follows. Using the fluctuation frequency update timing table in which the fluctuation operation frequency update timing time corresponding to the fluctuation pattern command shown in FIG. 33 is set, the time from when the fluctuation pattern command is received is measured by the fluctuation time measuring means, and this measurement is performed. Is determined by the update timing determination means, and the update timing determination means sets the variable operation count update timing time to the variable operation count update timing time. When it is determined that it has been reached, the remaining number of short times (second variation number) is updated by the second variation number updating means, and this updated remaining time number (second variation number) is displayed on the variation number display means. To inform.

  FIG. 40 is a diagram showing details of a display method for displaying the loss times shown in step S510, step S513, step S515, step S516, step S519, step S520 and step S521 of FIG. 38 on the decorative symbol display.

  As shown in FIG. 39, the remaining number of short times is displayed, and after the remaining number of short times is displayed in step S701 in FIG. 40, the process proceeds to step S702, where it is determined whether or not the subtraction result is X = 0. The If it is determined in step S702 that the subtraction result is X = 0, the process proceeds to step S703, and when the fluctuation operation is completed, the "loss time" is displayed by the fluctuation number extension display means, and the remaining fluctuation number calculation means. To calculate Y-1 which is the remaining short time number (remaining fluctuation number), and the calculated remaining short time number Y-1 is displayed by the remaining fluctuation number display means. Then, it repeats from step S501 of FIG. When the subtraction result is X = 0 and the remaining short time count 0 is displayed and the fluctuating motion ends, the player is informed that the short time count 100 has ended. However, since it is determined that Y = 0 is not satisfied in step S504 in FIG. 38, the number of time reductions still remains. Therefore, by displaying the remaining short time count Y-1 as a loss time, the player can be given an expectation by the function of reducing the variation time again, and the player can get a good feeling.

  If it is determined in step S702 in FIG. 40 that the subtraction result is not X = 0, the process proceeds to step S704, and it is determined whether or not the subtraction result is X = -1. If it is determined in step S704 that the subtraction result is X = -1, the process proceeds to step S705, where the "loss time" is displayed by the fluctuation number extension display means when the next fluctuation operation is disclosed, and the remaining fluctuation count is calculated. Then, Y-1 which is the remaining short time count (remaining fluctuation count) is calculated by the means, and the calculated remaining short time count Y-1 is displayed by the remaining fluctuation count display means. Then, it repeats from step S501 of FIG. When the subtraction result is X = -1 and the remaining number of time reductions 0 is displayed and the changing operation ends, the player is informed that 100 time reductions have ended.

  If it is determined in step S704 in FIG. 40 that the subtraction result is not X = -1, the process proceeds to step S706, and it is determined whether the subtraction result is X = -2. If it is determined in step S706 that the subtraction result is X = −2, the process proceeds to step S707, and “loss time” and the remaining short time count Y are displayed when the next variable operation is disclosed. When the subtraction result is X = −2 and the remaining short time 0 is displayed and the changing operation is completed, the player is notified that the short time 100 has been completed. Next, in step S708, the “loss time” is displayed while the next variable operation is disclosed, and the remaining short time is changed to Y−1 and displayed. Then, it repeats from step S501 of FIG. Then, when the remaining short time count of Y becomes 0 by the arrival determination means, the display of “loss time” is ended by the extended display end means, and the display of the remaining short time count is ended by the fluctuation number display end means.

  If it is determined in step S706 in FIG. 40 that the subtraction result is not X = -2, the subtraction result is X = -3, and the process proceeds to step S709. In step S709, “loss time” and the remaining number of short times Y + 1 are displayed when the next variable operation is disclosed. When the subtraction result is X = −3 and the remaining short time 0 is displayed and the changing operation is completed, the player is notified that the short time 100 has been completed. Next, in step S710, the “loss time” is displayed when the next variable operation is disclosed, and the remaining short time is changed to Y and displayed. Next, in step S711, the “loss time” is displayed while the next variable operation is disclosed, and the remaining short time is changed to Y−1 and displayed. Then, it repeats from step S501 of FIG.

  According to the above-described embodiment, when giving an advantageous situation to the player until the variation is performed the set number of times, it is possible to accurately perform control for notifying the remaining number of variations so that it is consistent. Then, the remaining number of fluctuations can be notified to the player so that there is no misunderstanding.

  The present invention is not limited to the above-described embodiment, and various modifications can be made without departing from the spirit of the present invention. For example, in the above embodiment, the probability variation big hit, the short time big hit and the normal big hit are described, but the type of big hit may be composed of the probability varying big hit and the normal big hit, and after the normal big hit, the fluctuation may occur a predetermined number of times. The variation time shortening mode may be used until it is, or after the probable big hit, the fluctuation time shortening mode may be used until the next big hit. Further, in the above embodiment, the time reduction control is performed for the normal symbol, but the time reduction control may also be performed for the special symbol.

The perspective view which shows the whole structure of the pachinko machine by embodiment of this invention. The front view which shows a game board. The block diagram which shows an electrical structure. The flowchart which shows the main process of a main control circuit. The flowchart which shows the input process (normal symbol) of a main control circuit. The flowchart which shows the input process (special symbol) of a main control circuit. The figure for demonstrating the addition content of random counter R1-R4. The figure which shows a normal symbol table. The flowchart which shows the data acquisition process (normal symbol) of a main control circuit. The figure which shows the relationship between the counter N5 and the reserved data recording part for normal symbols. The flowchart which shows the data acquisition process (special symbol) of a main control circuit. The figure which shows the pending | holding data area of a main control circuit. The flowchart which shows the normal symbol game process of a main control circuit. The flowchart which shows the big hit determination processing of the main control circuit. The figure which shows the list of special symbols. The flowchart which shows the fluctuation pattern setting process of a main control circuit. The figure which shows the control data for selecting a fluctuation pattern (for big hits). The figure which shows the control data for selecting a fluctuation pattern (for out of use). The flowchart which shows the special symbol change start process of a main control circuit. The flowchart which shows the special symbol fluctuation | variation stop process of a main control circuit. The flowchart which shows the wait process of a main control circuit. The flowchart which shows the big hit game process of a main control circuit. The flowchart which shows the main process of an effect control circuit. The flowchart which shows the INT interruption process of an effect control circuit. The figure which shows the correlation of the command from a main control circuit, and a command processing flag. The flowchart which shows the counter update process 1 of an effect control circuit. The figure for demonstrating the addition content of random counter R11. The flowchart which shows the command processing of an effect control circuit. The flowchart which shows the normal symbol game process of an effect control circuit. The flowchart which shows the winning command process of an effect control circuit. The figure which shows the control data which sets a probability change, time reduction, and a normal jackpot symbol. The flowchart which shows the fluctuation pattern command process of an effect control circuit. A fluctuation count table and a fluctuation count update timing table. The flowchart which shows the decoration symbol game start command process of an effect control circuit. The flowchart which shows the decoration symbol game stop command process of an effect control circuit. The flowchart which shows the big hit game start command process of an effect control circuit. The flowchart which shows the big hit game stop command process of an effect control circuit. The figure which shows the control method which displays the remaining short time number on a decoration symbol display. The figure which shows the detail of a remaining time short count display. The figure which shows the detail of a loss time display.

Explanation of symbols

  DESCRIPTION OF SYMBOLS 18 ... Game board, 22 ... Game area | region, 24 ... Special symbol start port, 32 ... Decoration symbol display device, 50 ... Main control circuit, 70 ... Production control circuit, 80 ... Symbol control circuit

Claims (4)

A game board having a game area in which a game ball can roll;
A start opening provided in the game area of the game board and capable of winning a game ball;
A variable prize opening provided in the game area of the game board, which can be switched between a closed state in which a game ball cannot be won and an open state in which a game ball can be won;
A symbol display provided in a game area of the game board and displaying an identification symbol comprising a plurality of symbol elements;
A winning determination means for determining a big hit to open the variable winning opening based on the winning of the game ball to the starting opening and a release not to open the variable winning opening;
When the winning determination means determines a big hit, the identification symbol is set to a predetermined jackpot combination, and when the winning determination means determines a failure, the identification symbol is set to a combination that is different from the big winning combination. Design setting means;
A main control circuit for determining a specific jackpot by the winning determination means and transmitting a specific jackpot command to the sub-control circuit;
A setting means for setting a state advantageous to the player a predetermined number of times when the sub control circuit receives the specific jackpot command from the main control circuit;
First variation number measuring means for measuring the first variation number by updating the number of times the sub control circuit receives the variation pattern command from the main control circuit with respect to the predetermined variation number;
First variation count storage means for storing the first variation count measured by the first variation count measurement means;
A variation count table in which the number of variations in one variation corresponding to the variation pattern command is stored;
Second variation number measuring means for measuring a second variation number by updating a variation number corresponding to the variation pattern command determined by the variation number table with respect to the predetermined variation number;
Second variation number storage means for storing the second variation number measured by the second variation number measurement means;
Variation number display means for displaying and notifying the second variation number stored by the second variation number storage means until the second variation number stored by the second variation number storage means reaches the predetermined variation number; ,
When the second variation number stored by the second variation number storage unit becomes the predetermined variation number before the first variation number stored by the first variation number storage unit becomes the predetermined variation number, A variable number of times extension display means for displaying and informing that the state advantageous to the player is extended;
A variation number display ending unit for ending the display of the second variation number by the variation number display unit when the first variation number stored by the first variation number storage unit becomes the predetermined variation number;
When the first variation count stored by the first variation count storage means becomes the predetermined variation count after informing the extension by the variation count extension display means, the variation count extension display means notifies Extended display ending means for ending the display to the effect of extension;
A gaming machine comprising: In the gaming machine according to claim 1,
A variation count update timing table in which the timing of updating the second variation count corresponding to the variation pattern command is stored;
Fluctuation time measuring means for measuring time from when the fluctuation pattern command is received;
Update timing determination means for determining whether or not the time measured by the fluctuation time measurement means has reached the timing set by the fluctuation count update timing table;
A second variation number updating unit that updates the second variation number when it is determined that the timing has been reached by the update timing determination unit;
A gaming machine, wherein the second variation number updated by the second variation number updating unit is displayed on the variation number display unit and notified. In the gaming machine according to claim 1 or 2,
When the second variation number stored by the second variation number storage unit becomes the predetermined variation number before the first variation number stored by the first variation number storage unit becomes the predetermined variation number, A remaining variation number calculating means for calculating a remaining variation number until the first variation number becomes the predetermined variation number from the first variation number and the predetermined variation number stored by the first variation number storage unit;
Remaining fluctuation number display means for displaying the remaining fluctuation number calculated by the remaining fluctuation number calculation means;
When the second fluctuation count measuring means is updated by the remaining fluctuation count calculated by the remaining fluctuation count calculating means, the first fluctuation count stored by the first fluctuation count storage means has reached the predetermined fluctuation count. And arrival determination means for determining whether or not,
When it is determined by the arrival determination means that it has not reached, the remaining fluctuation count until the first fluctuation count reaches the predetermined fluctuation count is calculated again, and the calculated remaining fluctuation count is used as the remaining fluctuation count. Displayed on the display means,
When the arrival determination means determines that the arrival has been reached, the remaining change count display by the remaining change count display means is terminated. In the gaming machine according to claim 1 or 2,
When the second variation number stored by the second variation number storage unit exceeds the predetermined variation number before the first variation number stored by the first variation number storage unit becomes the predetermined variation number, A gaming machine, characterized in that the fact that a state advantageous to the player is extended is displayed on the change number extension display means and is notified.

Images