JP6034414B2 - Game machine - Google Patents

Description

  The present invention relates to a gaming machine that can be controlled to a high probability state in which the winning probability of winning a lottery is higher than that in a low probability state after the winning game ends.

  Conventionally, in a pachinko gaming machine that is a type of gaming machine, a random number for determining a big hit is obtained when a game ball enters a start winning opening arranged on the gaming board, and the value of the random number is calculated at the start of a symbol variation game. By determining whether or not the jackpot determination value determined in advance matches, a jackpot lottery (jackpot determination) is performed to determine whether or not the jackpot. In such a pachinko machine, the probability of winning the jackpot lottery in the jackpot lottery is higher than the normal probability (low probability state) after the jackpot game given in the case of winning the jackpot lottery. Some of them give a probability state (for example, Patent Document 1).

  In the pachinko gaming machine of Patent Document 1, the probability variation state is given with an upper limit until a predetermined number of symbol variation games are executed. And, in the pachinko gaming machine of Patent Document 1, by setting the predetermined number of times to “100 times”, the scene where the next big hit is given even if the probability variation state is given, and the next big hit is not given. To create a scene where the probabilistic state ends.

JP 2000-288219 A (paragraphs [0049] to [0052])

  By the way, as disclosed in Patent Document 1, in a pachinko gaming machine in which a symbol variation game according to a probability variation state is performed for a limited period of “100 times”, a game of a symbol variation game performed in the limited period is used. On the other hand, if the device was not devised, it was not possible to improve the interest of the game for the limited period.

  The present invention has been made paying attention to such problems existing in the prior art, and the object thereof is a gaming machine capable of improving the interests of a game for a limited period in which a high probability state is achieved. Is to provide.

Game machine for solving the above problems is provided with a first starting means, a second starting means having an opening and closing mechanism for game ball the ball entrance port to vary the state easy and ball entrance hard state ball entrance, the , when elected per extraction election is performed per game to open the winning unit after the end of the symbol variation games, per lottery until symbol variation game specific number after completion of per game is executed as the upper limit A unit that is controllable to a high probability state in which the winning probability is higher than the low probability state, and that makes it easy for a game ball to enter after the end of the hit game until the specified number of symbol variation games are executed in controllable gaming machine in a special state in which the time per time increases than non special state, with a variation content determining means for determining the variation contents of symbol variation games, those Ri game after the end based on the type of per The gaming state of Is configured to be your, the game state, and whether or not the high probability state, said of whether a special condition, a combination of the types of pre-Symbol per the per lottery The game information is set based on the game state at the time of winning the game, and the second start is performed with a probability corresponding to the game information and the number of symbol variation games executed after the end of the winning game. The special state is configured such that a reach effect is executed in a symbol variation game executed when a ball enters the means, and the upper limit is from the end of the winning game until the specific number of symbol variation games are executed. The probability that the reach effect is executed in the symbol variation game that is executed upon entering the second starting means is the number of symbol variation games executed after the end of the winning game. Depending on Do Ri, is the changing content deciding means when the controlled special state after completion of per game until symbol variable game of the specific number is performed as an upper limit, after completion of the game information and per game Based on the distribution mode according to the number of symbol variation games executed, the variation contents of the symbol variation game executed upon entering the second starting means is determined and executed after the winning game ends. When the number of symbol variation games reaches the number of times of switching before reaching the specific number of times, the reach effect is executed in the symbol variation game that is executed upon entering the second starting means. While the probability is not switched, the distribution mode is changed when determining the variation content of the symbol variation game executed upon entering the second starting means .

For the gaming machine, information different from the gaming information can be specified according to the gaming information and the number of symbol variation games executed after the end of the winning game, and the information different from the gaming information includes The probability that the reach effect is executed in the symbol variation game that is executed when the player enters the second starting means may be associated .

For the gaming machine, information different from the gaming information can be specified according to the gaming information and the number of symbol variation games executed after the end of the winning game, and the information different from the gaming information includes The distribution mode used when determining the variation content of the symbol variation game executed upon entering the second starting means may be associated .

  According to the present invention, it is possible to improve the interest of a game during a limited period in which a high probability state is established.

The front view which shows the game board of a pachinko machine. Explanatory drawing explaining the kind of hit. Explanatory drawing explaining the transition aspect of effect mode. The block diagram which shows the electrical constitution of a pachinko gaming machine. Explanatory drawing explaining a fluctuation pattern. Explanatory drawing explaining a distribution table. (A), (b) is explanatory drawing explaining a 1st classification flag. Explanatory drawing explaining a 2nd classification flag. Explanatory drawing explaining the fluctuation time of a fluctuation pattern. Explanatory drawing explaining the production | presentation content of a fluctuation pattern. (A)-(i) is explanatory drawing explaining the production content of a fluctuation pattern. (A)-(c) is explanatory drawing explaining the aspect in which a variable game is performed. (A)-(i) is explanatory drawing explaining the aspect in which a variable game is performed.

Hereinafter, an embodiment in which the present invention is embodied in a pachinko gaming machine which is a kind of gaming machine will be described with reference to FIGS.
As shown in FIG. 1, an effect display device 11 having a liquid crystal display type image display unit GH is disposed almost at the center of a game board 10 of a pachinko gaming machine. The effect display device 11 includes a symbol variation game that is displayed by variably displaying a plurality of symbol columns (three columns in the present embodiment), and various display effects executed in association with the symbol variation game are displayed as images. The In the present embodiment, in the symbol variation game of the effect display device 11, a symbol combination including a plurality of columns (three columns in the present embodiment) is derived. Note that the symbol variation game of the effect display device 11 is performed using decorative symbols (effect symbols, hereinafter referred to as “decorative symbols”) for diversifying display effects.

  In addition, a 7-segment type first special symbol display device 12a and a second special symbol display device 12b are arranged side by side at the lower left of the effect display device 11. In the first special symbol display device 12a or the second special symbol display device 12b, a symbol variation game is displayed in which a special symbol (hereinafter referred to as “special symbol”) is varied and displayed. The special figure is a notification pattern showing the result of the internal lottery (big hit lottery) for whether or not the big hit, and the result of the internal lottery (small hit lottery) for whether or not the small hit. Hereinafter, the symbol variation game of the first special symbol display device 12a is referred to as “first variation game” as the first symbol variation game, and the special symbol used in the first variation game is referred to as “special diagram 1” as the first symbol. . Further, the symbol variation game of the second special symbol display device 12b is referred to as “second variation game” as the second symbol variation game, and the special symbol used in the second variation game is referred to as “special symbol 2” as the second symbol. . Further, in the following description, the term “variable game” means both the first variable game and the second variable game. Further, in the following description, when “special drawing” is simply referred to, it means both symbols of special drawing 1 and special drawing 2.

  Each special symbol display device 12a, 12b has a special game selected from a plurality of types (112 types in this embodiment) according to the lottery result of the big hit lottery or the small hit lottery. The fixed stop display is displayed at the end of. The 112 types of special symbols in each of the special symbol display devices 12a and 12b are different from the 100 types of big hit symbols that can recognize big hits and the 11 types of small hit symbols that can recognize small hits. It is classified into one type of off-line symbol that becomes a recognizable symbol. When the big hit symbol is displayed as a fixed stop, the big hit game is given to the player. When the small hit symbol is displayed in a fixed stop state, the player is given a small hit game.

  The effect display device 11 displays nine types of numbers [1] to [9] for each column as a decorative drawing. In addition, the decoration of each column in the effect display device 11 is displayed in a variable manner along a predetermined change direction (vertical scroll direction) when the change game is started. The symbol variation (variable display) indicates a state in which the symbol or symbol string is operating while changing the type of symbol displayed in the effect display device 11 and the special symbol display devices 12a and 12b.

  In the first special symbol display device 12a and the effect display device 11, the first variation game and the display effect related to the first variation game (the symbol variation game by the decorative drawing) are started at the same time and are simultaneously ended (that is, simultaneously). Special figures and decorations are displayed with a fixed stop). Specifically, with the start of the first variation game, the variation of the special drawing 1 starts on the first special symbol display device 12a, while the variation of the decorative drawing of each column starts on the effect display device 11. Similarly, in the second special symbol display device 12b and the effect display device 11, the second variation game and the display effect related to the second variation game (the symbol variation game by the decorative drawing) are started at the same time (that is, finished). At the same time, the special drawing and decorative drawing are displayed in a fixed stop). Specifically, with the start of the second variation game, the variation of the special diagram 2 starts on the second special symbol display device 12b, while the variation of the decorative drawing of each column starts on the effect display device 11.

  In addition, in the present embodiment, the effect display device 11 is configured with a display area that is larger than the special symbol display devices 12a and 12b, and the decorative drawing is displayed much larger than the special drawing. For this reason, the player can recognize a hit (big hit or small hit) or a deviation from the decorative drawing that is confirmed and stopped on the effect display device 11.

  And the display result according to the display result of each special symbol display apparatus 12a, 12b is displayed on the production | presentation display apparatus 11. FIG. Specifically, when a big hit symbol (hit symbol) that can recognize a big hit (hit) is displayed on each special symbol display device 12a, 12b in a definite stop display, the effect display device 11 also has a big hit symbol as a rule. The fixed stop is displayed. Note that the jackpot symbol that is confirmed and stopped displayed on the effect display device 11 is basically composed of symbol combinations in which the decorative symbols in all the rows are the same symbol ([111], [222], etc.).

  Further, when a special symbol display device 12a, 12b displays a stop symbol that can recognize a discrepancy, the off symbol symbol is displayed on the effect display device 11 as a rule. In the present embodiment, the out-of-decoration symbol is a symbol combination ([135], [246], etc.) in which the symbols in all the columns are different, or the symbol in one column is different from the symbols in the other two columns. ([151], [767], etc.).

  In addition, when a small hitting symbol (hit symbol) that can recognize a small hit (hit) is confirmed and stopped on each special symbol display device 12a, 12b, a probability change suggestion symbol is fixedly stopped on the effect display device 11. The Further, even when the big hit symbol is confirmed and stopped on each special symbol display device 12a, 12b, the certainty suggestion symbol may be confirmed and stopped on the effect display device 11. Note that the probability variation suggestion symbol suggests that a probability variation state (hereinafter referred to as “probability variation state”) in which the lottery probability of the jackpot lottery varies from a low probability (normal probability) to a high probability may be given. It is. In this embodiment, the probable change suggestion symbol by the decoration diagram is a symbol combination in which the left and right columns of the three columns are the same symbol, and the middle column is a symbol positioned before and after in the variation order of the symbols of the left and right columns. Configured ([343], [323], etc.).

  Further, in the effect display device 11, the variation of the symbol sequence stops in the order of left column → right column → middle column as viewed from the player side, and two specific columns (two columns on the left and right in this embodiment). ), The reach is formed when the same decorative drawing is temporarily stopped and displayed. Here, the temporary stop display is a state in which the image display unit GH is displayed in a fluctuation state, and is distinguished from a fixed stop display in which the symbol is fixed and stopped in the image display unit GH. In the present embodiment, among the plurality of symbol columns, the left column is the first stop column, the right column is the second stop column, the middle column is the third stop column, and the left and right columns form a reach state. It becomes.

  On the upper left of the first special symbol display device 12a, a first special symbol hold display device 13a having a plurality of (two in this embodiment) first special symbol hold light emitting units is disposed. The first special symbol hold display device 13a informs the player of the stored number of start hold balls for special symbols in the first variation game stored inside the machine. In the following description, the number of special reserved starting balls stored in the first variation game is referred to as “first reserved memory number”. The first reserved memory number is incremented by “1” when a game ball wins a first starting winning opening 15 as a starting means (first starting means) disposed on the game board 10, while the first fluctuation “1” is subtracted at the start of the game. Therefore, when a game ball wins the first start winning opening 15 during the variable game, the first reserved memory number is further added and accumulated up to a predetermined upper limit number (“4” in the present embodiment).

  On the upper left of the second special symbol display device 12b, a second special symbol hold display device 13b having a plurality (two in the present embodiment) of second special symbol hold light emitting units is disposed. The second special symbol hold display device 13b notifies the player of the stored number of start hold balls for special symbols in the second variation game stored inside the machine. In the following description, the number of reserved reserved balls for special drawings in the second variation game is referred to as “second reserved memory number”. The second reserved memory number is incremented by “1” when the game ball wins the second starting winning opening 16 as the starting means (second starting means) disposed on the game board 10, while the second fluctuation “1” is subtracted at the start of the game. Therefore, when a game ball wins the second start winning opening 16 during the variable game, the second reserved memory number is further added and accumulated up to a predetermined upper limit number (“4” in the present embodiment).

  In addition, a normal symbol display device 14 having a plurality of (two in the present embodiment) common symbol light emitting units is disposed on the upper right of the second special symbol hold display device 13b. In the normal symbol display device 14, a normal symbol variation game is displayed in which a plurality of types of normal symbols are displayed in a variable manner. The normal symbol is a notification symbol indicating the result of an internal lottery (normal lottery) for determining whether or not the game is a normal hit. In the following description, the normal symbol is referred to as “general symbol”, and the normal symbol game is referred to as “general symbol game”. Also, in this general game, as in the case of the variable game, when the game ball passes (enters) the normal symbol operation gate 20 disposed on the game board 10, the start holding ball for the general game is stored. . The number of stored start-up balls for normal use is incremented by “1” up to a predetermined upper limit number (“4” in the present embodiment) by passing the game ball to the normal symbol operation gate 20. “1” is subtracted at the start of the usual game.

  The pachinko gaming machine according to the present embodiment is configured so that the first variation game and the second variation game are not executed simultaneously. When the variable game is started, if both the first reserved memory number and the second reserved memory number at the time are “1” or more, the second variable game based on the second reserved memory number is preferentially executed. Is done. On the other hand, when the start condition of the variable game is satisfied, if the first reserved memory number at that time is “1” or more and the second reserved memory number is “0 (zero)”, the first reserved memory A first variation game based on the number is executed. That is, when the starting condition described later is satisfied, the second variable game has its start hold even when the start hold ball of FIG. 1 previously stored as the first hold memory number exists at that time. It is executed prior to the ball (interrupted). In the present embodiment, the variable game and the usual game can be executed simultaneously.

  Also, below the effect display device 11, a first start winning port 15 having a game ball entrance 15a and a second start winning port 16 having a game ball entrance 16a are arranged vertically. Has been. The first start winning opening 15 is configured such that the entrance 15a is always open so as to allow entry of game balls at all times. On the other hand, the second start winning opening 16 is an ordinary electric accessory, and is provided with an opening / closing blade 17 as an opening / closing mechanism that opens and closes by the operation of a normal electric accessory solenoid SOL1 (shown in FIG. 4). Is configured to open the entrance 16a so that the entrance of the game ball can be allowed by opening. In addition, a start port switch SW1 and a start port switch SW2 (shown in FIG. 4) for detecting a game ball that has entered the ball are disposed at the back of each start winning port 15,16. Each of the start winning openings 15 and 16 detects the entered game balls with the start opening switches SW1 and SW2, thereby determining the start conditions for the variable game and the payout conditions for the game balls as a predetermined number of prize balls. Can be granted.

  Also, below the second start winning opening 16, a large winning opening 19 is provided as a winning means including a large winning opening door 18 that opens and closes by the operation of a large winning opening solenoid SOL2 (shown in FIG. 4). Has been. A count switch SW3 (shown in FIG. 4) for detecting a game ball that has entered the ball is disposed in the back of the big winning opening 19. The big winning opening 19 can give a predetermined condition (for example, 15) of paying out game balls as a number of prize balls by detecting the game balls that have entered. The big winning opening 19 is opened by the opening operation of the big winning opening door 18 during the big hit game, thereby allowing a game ball to enter (win). For this reason, during the big hit game, the player can obtain a chance to win a prize ball. Note that the special winning opening 19 in this embodiment is opened by the opening operation of the special winning entry door 18 even during the small hit game.

  Further, a normal symbol operation gate (hereinafter referred to as “gate”) 20 is disposed on the right side of the effect display device 11 in the game board 10. Behind the gate 20, a gate switch SW4 (shown in FIG. 4) for detecting a game ball that has entered and passed is provided. The gate 20 can give only the starting condition of the usual game (lottery opportunity for lottery per usual figure) when the game ball passes.

  In the pachinko gaming machine of the present embodiment, the game display channel 11 is branched into a left channel and a right channel by the effect display device 11. In the left channel, game components such as nails are arranged on the game board 10 so that the game balls go to the first start winning opening 15, the second starting winning opening 16, or the big winning opening 19. Thereby, when the flow path of the game ball is the left flow path, the game ball flows down the left area formed on the left side of the effect display device 11, and the first start winning opening 15 and the second start winning opening. 16 or to the grand prize opening 19. In the right channel, game components such as nails are arranged on the game board 10 so that the game balls go to the second start winning opening 16, the big winning opening 19, or the gate 20. Thereby, when the flow path of the game ball is the right flow path, the game ball passes through the right region formed on the right side of the effect display device 11, as shown by the phantom line Y in FIG. 2 It goes to the start winning opening 16, the big winning opening 19, or the gate 20. Then, after being fired on the game board 10, the game balls flowing down the respective flow paths are located at the lowermost part of the game board 10, and the game balls that have not entered any winning opening or gate are regarded as out balls. It will go to the out ball port 21 for discharging out of the machine.

  Therefore, in the present embodiment, the player plays a game (hereinafter referred to as “left-handed game”) so that the game ball flows down the left flow path, whereby the first start winning opening 15 and the second starting winning opening 16 or a winning ball 19 may be directed to the game ball. Further, according to the present embodiment, the player plays a game (hereinafter referred to as “right-handed game”) so that the game ball flows down the right channel, whereby the second start winning opening 16 and the big winning opening. 19 or the game ball may be directed to the gate 20.

  In the present embodiment, it is configured such that a game ball can be efficiently entered into the big winning opening 19 by playing a right-handed game during a big hit game or a small hit game. That is, in a big hit game or a small hit game state, playing a right-handed game can be more advantageous to the player than a left-handed game.

  Further, in the pachinko gaming machine according to the present embodiment, a probability variation state that is advantageous to the player may be given. When the probability variation state is given, the winning probability (lottery probability) of the jackpot lottery is changed (improved) from a low probability (normal probability) to a high probability. In addition, the probability change state is given until a variable game of “80 times (high probability giving number)”, which is a predetermined upper limit number, is played, or until the next big hit occurs. The probability variation state is advantageous to the player because the winning probability of the big hit lottery varies with a high probability and the big hit is likely to occur.

  In addition, the pachinko gaming machine according to the present embodiment may be given a state in which the variation time is shortened (hereinafter referred to as “variation”). During the variable state, the variation time of the variable game may be shortened (may be shortened) as compared to the non-variable state (when the variable state is not given), There is a case where the variation time of the variation game displayed in the fixed stop state is shortened. Further, during the variable state, the variation time of the normal drawing game is shortened compared to that during the non-variable state, and the winning probability (lottery probability) of the lottery based on the passage through the gate 20 is reduced from a low probability. Fluctuated with high probability. Further, during the variable speed state, the total opening time of the open / close blades 17 based on the fact that one lottery per lottery has been won becomes longer than in the non-variable variable state. In the variable state, the predetermined upper limit number of times “20 times (specified number of grants)”, “77 times (special specified number of grants or shortened number of grants)”, and “80 times” are changed. Or until the next jackpot occurs.

  In this way, during the variable speed state, the opening / closing blade 17 operates favorably for the player, and the rate of entering the second start winning opening 16 per unit time is improved. Become. The variable speed state is a state in which the opening time of the opening / closing blade 17 per unit time is increased, and is also a state in which the entrance rate to the second start winning opening 16 is improved.

  Then, in the variable state where the game ball can be efficiently entered into the second start winning port 16 to which the start condition of the second variable game is given, by making a right-handed game, compared to a left-handed game It can be advantageous for the player. On the other hand, in a non-variable state in which it is difficult to enter a game ball into the second start winning port 16 to which a start condition for the second variable game is given, a left-handed game is compared with a right-handed game. It can be advantageous for the player.

Next, the big hit game and the small hit game specified for the pachinko gaming machine of this embodiment will be described below with reference to FIG.
The big hit game is displayed after the big hit symbol is confirmed and stopped in the variable game (the special symbol and the symbol variable game based on the decoration diagram), and is started after the end of the variable game. When the big hit game is started, an opening effect indicating the start of the big hit game is first performed. After the opening effect ends, the round game in which the special winning opening 19 is opened is performed a plurality of times (“11 times” as 11 rounds in the present embodiment) with a predetermined number of rounds as an upper limit. In one round game, the grand prize opening door 18 of the big prize opening 19 is opened and closed a predetermined number of times (in this embodiment, “once”). Then, during one round game, the big winning opening 19 becomes a specified time (round game time) until a specified number of game balls (9 balls in the present embodiment, which is the upper limit number of winning balls) wins. In this embodiment, it is opened until 25 seconds or 0.032 seconds). In the big hit game, for each round game, the big prize opening 19 is opened once during one round game, and is opened 11 times in total. In round games, round effects are performed. Then, an ending effect indicating the end of the jackpot game is performed, and the jackpot game is ended.

  In the pachinko gaming machine of the present embodiment, when the big hit lottery is won, one big hit is determined (selected) from the multiple types (nine types in this embodiment) shown in FIG. 2 and the determined big hit A big hit game based on (a win game) is awarded. Which of the nine types of big hits is determined is determined according to the type of special figure (big hit symbol) that is determined when the big hit lottery is won. In the present embodiment, the jackpot symbols of 100 types of special figures are classified for each special figure as shown in FIG. In the special jackpot symbol, the type of jackpot is specified, so that in addition to the jackpot game (opening mode of the jackpot 19), whether or not the jackpot game is to be put into a certain change state and whether or not A gaming state based on whether or not to enter the short state is specified. In addition, in the small bonus symbol of the special figure, by specifying the small hit, in addition to the small hit game (opening mode of the big winning opening 19), the game state at the time of winning as the gaming state after the end of the small hit game It is specified to continue (maintain the current status) in the state. For this reason, in this embodiment, the special figure (especially the winning symbol) is hit information for specifying the winning game and the gaming state after the end of the corresponding game.

  And, as a big hit symbol of Special Figure 1, there are 15 types for symbol A, 12 types for symbol B, 18 types for symbol C, 2 types for symbol D, 7 types for symbol E, There are 16 types for symbol F, 10 types for symbol G, 8 types for symbol H, and 12 types for symbol I. In addition, 11 types of symbols J are assigned to the symbol J as the small hit symbol of the special figure 1. In addition, as the big hit symbol of Special Figure 2, there are 70 types for symbol a, 7 types for symbol b, 3 types for symbol c, 8 types for symbol h, and 12 types for symbol i. It is distributed. In addition, 11 types of symbols j are assigned to the symbol j as the small hit symbol of the special figure 2. Note that the special symbol corresponding to the symbols D, E, F, and G among the big bonuses of the special figure 1 is not assigned to the big bonus symbol of the special figure 2.

  In addition, the special figure distribution random number, which will be described later, is used for determining the special figure jackpot symbol, and the special figure is determined based on the extracted value of the special figure distribution random number. In the special figure jackpot symbol, for each special figure, a numerical value that can be taken by the random number for special figure distribution (in this embodiment, all 100 integer values from 0 to 99) are given in a predetermined number (this implementation) (In the form, one by one). For this reason, the jackpot symbol of the special figure is uniquely determined if the value of the random number for special figure distribution is specified. In addition, for determining the small hit symbol of the special figure, a random number for small hit symbol distribution described later is used, and the special figure is determined based on the extracted value of the random number for small hit symbol distribution. For each special figure, each of the special figure small hit symbols has a predetermined number of numerical values that can be taken by the random numbers for small hit symbol distribution (in this embodiment, all 11 kinds of integer values from 0 to 10). Distribution is performed (one by one in this embodiment). For this reason, the special symbol small hit symbol is uniquely determined if the value of the random symbol for small hit symbol distribution is specified.

  And in the jackpot game based on the jackpot symbols of the symbols A (a), B (b), C (c), H (h), I (i), the opening mode (maximum opening) of each round game Time) is set to “25 seconds”. That is, in the big hit game in this case, the operation of opening the big winning opening 19 for “25 seconds” is repeated 11 times. In the jackpot game based on these jackpot symbols, “5 seconds” is set as the opening time, “(closed) 1.5 seconds” is set as the interval time between rounds, and “10 seconds” is set as the ending time.

  Hereinafter, the jackpot based on the symbol A (a) is referred to as “jackpot A”. Further, the big hit based on the design B (b) is referred to as “big hit B”. The jackpot based on the symbol C (c) is referred to as “jackpot C”. The jackpot based on the symbol H (h) is referred to as “jackpot H”. The jackpot based on the symbol I (i) is referred to as “jackpot I”. In the following explanation, when “full open big hit” or “full open big hit game” is used, the symbols A (a), B (b), C (c), H (h), I (i) It means jackpot or jackpot game based on these jackpot symbols.

  Note that each round game may end when a maximum number of game balls are won. For this reason, in the full opening big hit game, “25 (seconds)” is the maximum time as the total opening time of each round game. And in this embodiment, in the full open big hit game, the round game that can win a game ball by substantially winning a game ball to the big prize opening is 11 rounds from the 1st round to the 11th round (all). It becomes a round game ("Real R" is "11R").

  Then, after the big hit game based on the big hit A, B, C, regardless of the hit state, a probability variation state is given to the “80 times” variable game, so that the probability state after the hit Is given as “Highly 80 times”. On the other hand, after the big hit game based on the big hits H and I ends, regardless of the hit state, the non-probability change state is given, so that “low probability” is given as the probability state after the hit. The “hit state” means the game state when the big win is won (at the time of the win), and the “probability state after hit” means the big win lottery (win lottery) after the end of the big win game (win game). It means whether or not the probability lottery state, that is, the probability variation state. In the following description, “low accuracy non-variable” means non-invariant state and non-variable state, and “high accuracy non-variable” means probabilistic state and non-variable state. Means. Further, in the following description, “low accuracy variation / shortness” means a non-probability variation state and a variation state, and “high accuracy variation / shortness” means a probability variation state and a variation state.

  And, after the big hit game based on the big hit A, regardless of the state at the time of hit, the number of “77 times (special provision grant number or shortened grant number)” which is less than “80 times (high probability grant count)” By giving the variable state to the variable game, “77 times” is given as the variable after hit. In addition, after the big hit game based on the big hits B and H, when the hit state is “low probability non-variable short” or “high probability non-variable short”, “77 times (number of special provision grants or shortened grants) “20 times” is given as a change after hitting by giving a change state to a variation game of “20 times (the specified number of times of giving)” less than “)”. In addition, this is the case where the big hits B and H are special figures 1 (symbols B and H) and the big hits B and H are special figures 2 (symbols b and h), they are shown in parentheses in FIG. In this way, by giving the variable state to the “80 times” variation game as a target, “80 times” is given as the after-shortening variable. On the other hand, after the big hit game based on the big hits B and H, if the hit state is “low probability change short” or “high probability change short”, the variable state is given to the “80 times” variable game. As a result, “80 times” is given as a change after hit. In addition, after the big hit game based on the big hits C and I, if the hit state is “low probability non-changeable” or “high probability non-changeable”, no change state is given, “0 times” is given as short. Note that this is the case where the big hits C and I are special figures 1 (designs C and I), and the big hits C and I are special figures 2 (designs c and i), they are shown in parentheses in FIG. In this way, by giving the variable state to the “80 times” variation game as a target, “80 times” is given as the after-shortening variable. On the other hand, after the big hit game based on the big hits C and I is finished, if the hit state is “low probability short” or “high probability short”, a short state is given to the “80 times” variable game. As a result, “80 times” is given as a change after hit. Note that “change after hit” means a changed state after the end of the big hit game.

  In the jackpot game based on the symbols D, E, F, and G, the opening mode (maximum opening time) of the big winning opening 19 of each round game is set to “0.032 seconds”. That is, in the big hit game in this case, the operation of opening the big winning opening 19 for “0.032 seconds” is repeated 11 times. In addition, in the jackpot game based on these jackpot symbols, “0.02 seconds” is set as the opening time, “(closed) 1.5 seconds” is set as the interval time between rounds, and “0.068 seconds” is set as the ending time. Has been.

  Hereinafter, the jackpot based on the symbol D is referred to as “jackpot D”. The jackpot based on the pattern E is referred to as “jackpot E”. Further, the big hit based on the design F is referred to as “big hit F”. The jackpot based on the symbol G is referred to as “big hit G”. In the following description, “short open big hit” and “short open big hit game” mean big hits and big hit games based on these big hit symbols of symbols D, E, F, and G.

  Note that each round game may end when a maximum number of game balls are won. However, in the short open big hit game, “0.032 (seconds)” is set as the open time of each round, and therefore, it is not possible to win the maximum number of game balls in the big winning opening 19. . For this reason, in each round game in the short-open big hit game, each round game is finished before winning the maximum number of game balls to be entered in the big winning opening 19, so the total opening time of each round game is as follows. “0.032 seconds”. Therefore, in the present embodiment, the short open big hit game is constituted by a round game in which it is difficult to make a game ball enter the big winning opening 19 (“substantially R” is “0 (zero) R”).

  After the short-open big hit game is finished, regardless of the hit state, the probability change state is given to the “80 times” variable game, so that the probability state after hit is “high probability 80 times” Is given.

  In addition, after the short open big hit game is finished, if the hit state is “low probability variation short” or “high probability variation short”, the variable variation state is given to the variable game for “77 times”. , “77 times” is given as a variation after hit. On the other hand, after the big hit game based on the big hit D is completed, if the hit state is “low probability non-variable” or “high probability non-variable”, the variable state is targeted for the “20 times” variable game. Is given, “20 times” is given as a change after hit. In addition, after the big hit game based on the big hit E, when the hit state is “low probability non-variable”, the variable state is not given, and “0 times” is given as the post-hit variable. . On the other hand, after the big hit game based on the big hit E, when the hit state is “high probability unchangeable”, the variable state is given to “77 times” variable games, “77 times” is given as a post-change. In addition, after the big hit game based on the big hit F, when the hit state is “low probability non-variable”, the variable state is not given, and “0 times” is given as the post-hit variable. . On the other hand, after the big hit game based on the big hit F, when the hit state is “high probability non-variable”, the variable state is given to the “20 times” variable game, “20 times” is given as a post-change. In addition, after the big hit game based on the big hit G, if the hit state is “low probability non-variable” or “high probability non-variable”, the variable state is not given, “0 times” is given.

  In the following description, the variable state given to the “20 times” variable game that is the specified number of times of grant is referred to as “short state (20 times)”. Further, in the following description, the variable state given to the “77 times” variable game that is the number of special provisions or the number of shortened times is referred to as “variable state (77 times)”. Also, in the following description, the variable state that is given to the “80 times” variable game, which is a highly probable number of grants, is referred to as “short state (80 times)”.

  In addition, the small hit game is started after the end of the variable game after the small hit symbol is confirmed and displayed in the variable game (the symbol variable game based on the special figure and the decoration diagram). In addition, in the small hit game, the upper limit number of entering balls is set to “9 balls”. In addition, in the small hit game, “11 times” is set as the number of times of opening of the big winning opening 19 during the small hit game, and “0.032 seconds” is set as the opening mode (maximum opening time) of the big winning opening 19 in each opening. Has been. In addition, in the small hit game, “0 seconds” is set as the opening time, “(closed) 1.5 seconds” is set as the interval time between opening of the special winning opening 19, and “0.096 seconds” is set as the ending time. ing. Hereinafter, the small hit based on the symbol J is referred to as “small hit J”.

  Note that the small hit game may end when a maximum number of winning balls has been won. However, in the small hit game, “0.032 (seconds)” is set as each opening time, and therefore, it is not possible to win the maximum number of winning balls in the big winning opening 19 throughout the 11 opening times. become. For this reason, in the small hit game, since the small hit game is finished before winning the maximum number of winning balls in the big winning opening 19, the total opening time in the small hit game is "0.352 seconds (0 .032 seconds × 11 times) ”. Therefore, in the present embodiment, the small hit game is substantially configured to make it difficult to win the game ball in the big winning opening 19.

  In the small hit J, the gaming state after the end of the small hit game is continued (maintained) in the gaming state at the time of winning the small hit. In other words, in the small hit J, if the probability variation state is given at the time of winning the small hit J, the probability variation state is continued (maintained) after the small hit game is finished, while if the probability variation state is not imparted, the small variation J is small. Even after the winning game is over, it will continue (maintain the current state) and will not be given a certain change state. In addition, in the small hit J, if the variable state is granted at the time of winning the small hit J, the variable state is continued (maintained) after the small hit game ends, while the variable state is provided. Otherwise, even after the end of the small hit game, the current state is maintained (the current state is maintained) and the variable state is not given.

  Thus, in the full open big hit game in the present embodiment, it is impossible to visually discriminate from the open mode of the big winning opening 19 of any of the big hits A, B, C, H, I. Further, in the short open big hit game and the small hit game in the present embodiment, the big winning opening 19 to be opened, the opening mode of the big winning opening 19 (opening time), the time between opening (opening interval time between rounds and opening time) The interval time is set to be the same. For this reason, in the short open big hit game and the small hit game, the open mode of the big winning opening 19 in these is the same. Therefore, in the short-open big hit game and the small hit game, the difference in appearance cannot be discriminated from the open mode of the big winning opening 19 or the like.

  In addition, regarding the big hit game (small hit game) that cannot be visually discriminated from the opening mode of the big prize opening 19, etc., a symbol variation game with a decoration diagram that triggers the big hit game (small hit game), The production is set so that the difference cannot be discerned visually even from the production during the big hit game (during the small hit game).

  And when a full open big hit game is awarded, after the big hit game is finished, there may be either a probability variation state or a non-probability variation state, while the variation state provision mode is the same between them. There is a case. As a result, when a full-open big hit game is awarded, it is difficult for the player to determine whether or not it is in the probability variation state under the condition that the provision state of the variation state is the same, and the probability variation state is hidden. It creates game characteristics (hereinafter referred to as “latent game characteristics”). That is, in this embodiment, the probability variation state can be latent between the big hit B and the big hit H, and the probability variation state can be latent between the big hit C and the big hit I. In this embodiment, the probability variation state can be hidden between the big hits B and H and the big hits C and I. Then, in the case where the probability variation state is hidden in this way, it becomes a scene where the expectation can be expected that the probability variation state is given.

  In addition, when a short open big hit game or a small hit game is awarded, after the end of these hit games, there may be either a probability change state or a non-probability change state, while the change state granting mode May be the same. As a result, when a short open big hit game or a small hit game is awarded, a latent game characteristic is created. That is, in this embodiment, the probability variation state can be hidden between the big hits D, E, F, G and the small hits J. Then, in the case where the probability variation state is hidden in this way, it becomes a scene where the expectation can be expected that the probability variation state is given.

  Further, in the present embodiment, regarding the provision state of the shortened state, if it is the “77 times” provision mode as the after-shortening variation, it is determined that the probability variation state, and during the shortened state, it will be described later. The probability variation mode ME is accompanied to notify the probability variation state. For this reason, in the scene of the granting mode of “20 times” as the after-shortening change, the giving mode of “80 times” as the after-shortening change, or the “0 times” giving mode as the after-shortening change. The probabilistic state can be hidden.

  In this embodiment, in full-open big hit games and short-open big hit games, there are many scenes (round games) in which a game ball can be won substantially by winning a game ball to the big prize opening in the full open big hit game. ing. That is, in the full open big hit game and the short open big hit game, since the total open time of the big winning opening is set short in the short open big hit game, many prize balls can be obtained in the full open big hit game. In the small hit game in which the opening mode of the big winning opening 19 is set to the same mode as the short open big hit game, there is not much difference from the winning ball that can be obtained in the short open big hit game.

  In this way, in this embodiment, the total opening time of the big winning opening through the big hit game is set longer in the order of short open big hit game (small hit game) <full open big hit game. In the present embodiment, many prize balls can be obtained in the order of short open big hit game (small hit game) <full open big hit game, and the profit for the player is great.

  Further, according to the distribution of the big hit symbol (special figure) of this embodiment, in the second variable game (100/100), the special figure as a full open big hit game is compared with the first variable game (65/100). And many are distributed. Also, in the second variation game (70/100), the upper limit for the variable state is less than “80 times”, but “77 times” is given as a post-change variable that determines that the state is in a probable state. The special figure to be distributed is more distributed than the first variation game (50/100).

  In addition, when the big hit is won in the second variable game, the short / short state is given regardless of the type of big hit or the hit state. On the other hand, if the first variable game is in the variable state, the start condition of the second variable game is easily given, and the second variable game is preferentially executed. It is mainly executed in a non-variable state where it is difficult to give a starting condition for the variable game. For this reason, when winning a big hit in the first variation game, since the opening / closing blade 17 is difficult to open, there is a high possibility that the start condition of the second variation game is difficult to be given. In other words, when a big win is won in the first variation game, there is a high possibility that the shortage state will not be given after the big win game is over.

For this reason, the second variable game is configured to be advantageous to the player as a result of the possibility that the profit for the player is greater than that of the first variable game.
It should be noted that the player's willingness differs between a scene in which the game state is determined to be in a probabilistic state and a game is played, and a scene in which a game is performed without determining whether or not the game state is in a probable state. The player can have a strong willingness to continue the game at least until the probability variation state ends in the game in which the game state is known to be the probability variation state. On the other hand, in a game where the player cannot grasp that the gaming state is in a probabilistic state, the player continues in comparison with a game in which the probable state is known because of anxiety that it may be in a non-probable state. Motivation can be weak. Therefore, when the probability variation state is determined because the variation state is “77 times”, the variation state is “80 times”, compared with the case where the probability variation state can be hidden because the variation state is “80 times”. Considering the difference in the upper limit number of states (for three times), it can be said that it is more advantageous for the player to play a game with the probability variation state determined, compared to the situation where the probability variation state is hidden and the game is played.

  Next, the transition mode of the production mode accompanying the transition transition of the gaming state in the pachinko gaming machine of this embodiment will be described based on FIG. In FIG. 3, “(special 1)” means a big hit based on special figure 1, and “(special 2)” means a big hit based on special figure 2. In FIG. 3, when “(high)” is shown, it means a big hit when the hit state is “highly accurate non-changeable”, and when “(low)” is shown, the hit state is “low-probable non-changeable”. It means a big hit at the time of "shortage".

  The pachinko gaming machine of the present embodiment is provided with a plurality of types of presentation modes (six types in the present embodiment) for producing a symbol variation game using decorative drawings. Specifically, a normal mode MA, a normal latent expectation mode MB, a latent expectation (20) mode MC, a latent expectation (80) mode MD, a probability variation mode ME, and a probability variation (crying) mode MF are prepared. In each effect mode, a corresponding background image is displayed on the effect display device 11. In the present embodiment, the effect display device 11 displays an image of a background image that is displayed in association with the symbol variation game based on the decoration, and displays the decorations in each column so as to overlap the background image. By displaying these decorative drawings in a variable manner, a symbol variation game based on the decorative drawings is executed. And in this embodiment, various effect modes are performed with the background image displayed on the effect display apparatus 11, and a player can grasp | ascertain the kind of effect mode currently staying from the kind of background image. ing. The background image in the present embodiment is an image that can be configured except for the decoration diagram displayed in the symbol variation game by the decoration diagram, and is displayed in association with each decoration diagram that is variably displayed in the symbol variation game by the decoration diagram. It is different from what is done.

  And in this embodiment, the transition to the production mode according to the kind (special drawing or decoration drawing) of a win is defined by the win of a big hit or a small win. In this case, a transition is made from the production mode that was staying just before to the corresponding production mode.

  First, while staying in the normal mode MA, which is set to be easier to stay when in a non-probable change state compared to other production modes, and is less likely to be in a probabilistic state than other production modes (Hereinafter referred to as “in normal mode MA”).

  During the normal mode MA, the gaming state is either “low probability non-variable” or “high probability non-variable”, and in particular, regarding the provision of the variable state, the non-variable state (variation: 0 times) It is said that. The normal mode MA is a non-changeable state except for a specific situation (a specific situation such as a normal latent expectation mode MB or a probability change (cry) mode MF described later), regardless of whether or not it is a probability change state. Is set.

  During the normal mode MA, after winning the winning game based on the winning of the big hit C (special 1), E (low), F (low), G, I (special 1), and small hit J To normal latent expectation mode MB. Also, during the normal mode MA, when the big hit B (special 1), D, F (high), H (special 1) wins, after the big hit game based on these wins, to the latent expectation (20) mode MC The transition is made. In addition, during normal mode MA, with the wins of jackpot B (special 2), C (special 2), H (special 2), and I (special 2), the expectation of latency after the end of the jackpot game based on these ( 80) A transition to mode MD is made. Further, during the normal mode MA, the big hits A and E (high) are elected, and the transition to the probability change mode ME is made after the big hit game based on these wins. In this way, the normal mode MA is continuously set without being ended until either a big hit or a small win is won.

Next, a description will be given of the stay in the normal latent expectation mode MB (hereinafter referred to as “in the normal latent expectation mode MB”), which is set with a high possibility of being in the probability variation state as compared with the normal mode MA.
In the normal latent expectation mode MB, the gaming state is either “low probability unchanging / shortening” or “high probability unchanging / shortening”. And the above-mentioned specific situation where the same gaming state as the normal mode MA is set. The normal latent expectation mode MB is set in the non-variable state in which the specific situation is assumed, regardless of whether or not it is in a probable variation state.

  In the normal latent expectation mode MB, winning games of big hits C (special 1), E (low), F (low), G, I (special 1), and small hits J will be used as a trigger. Even after the end, the normal latent expectation mode MB is continued. In addition, during the normal latent expectation mode MB, the big hit B (special 1), D, F (high), H (special 1) wins, and the latent expectation (20) mode starts after the big hit game based on these wins. Transition to MC is made. In addition, during the normal latent expectation mode MB, the big hit B (special 2), C (special 2), H (special 2), I (special 2) winning, after the jackpot game based on these, after the concealment A transition to the expected (80) mode MD is made. In addition, during the normal latent expectation mode MB, the big hits A and E (high) are won, and the transition to the probability change mode ME is made after the big hit game based on these wins. In addition, during the normal latent expectation mode MB, when the “fall” is won in the falling lottery performed in relation to the fluctuation game, the normal game MA is entered after the end of the fluctuation game subject to the falling lottery (the next fluctuation game). The transition is made. In the present embodiment, during the normal latent expectation mode MB, a falling lottery is performed every time a variable game is started, and a “falling” win is determined with a predetermined probability (for example, a probability of 1/20). A random number lottery in which random numbers are distributed is performed. Further, in the present embodiment, during the normal latent expectation mode MB, the normal latent expectation mode MB is continued when “falling” is not won in the falling lottery.

  As described above, the normal latent expectation mode MB is continuously set without being terminated until “falling” is won in the falling lottery in a situation where the mode continues. In addition, in the normal latent expectation mode MB, when “falling” is won in the falling lottery, if it is “highly accurate unchangeable” so far, the remaining number of fluctuation games in the probability changing state will continue. Therefore, the state is controlled to the probability variation state (“high probability non-variable short”). In the normal latent expectation mode MB, when “falling” is won in the falling lottery, if it is “low probability non-variable” until now, then the non-probable change state (“low probability non-variable”). Will be controlled.

  Next, a description will be given of the stay in the latent expectation (20) mode MC (hereinafter referred to as “in the latent expectation (20) mode MC”), which is set with a high possibility of being in a state of probability change compared to the normal latent expectation mode MB. To do.

  In the latent expectation (20) mode MC, the gaming state is either “low probability variation short” or “high probability variation short”, and particularly regarding the provision of the short variation state, the short variation state (short variation: 20 times) Has been. The latent expectation (20) mode MC is set in the variable state (20 times) regardless of whether or not it is in the probable state.

  During the latent expectation (20) mode MC, when the big hits B, C, H, I are won, the transition to the latent expectation (80) mode MD is made after the big hit game based on these wins. In addition, during the latent expectation (20) mode MC, with the winning of the small hit J, the latent expectation (20) mode MC is continued even after the end of the small hit game based on this. Further, during the latent expectation (20) mode MC, when the big hits A, D, E, F, and G are won, the transition to the probability change mode ME is made after the big hit game based on these wins. In addition, the latent expectation (20) mode MC is triggered by the end of the variable state (20 times), and after the end of the variable game (the next change in the non-variable state). Transition from the game) to the normal performance mode MA is performed.

  Thus, the latent expectation (20) mode MC is continuously set without being ended during the variable speed state (20 times) in a situation where the mode is continued. Also, in the latent expectation (20) mode MC, when the variable state (20 times) ends, if it is “highly accurate short” until now, the probable state ( “Highly accurate non-variable”). In the latent expectation (20) mode MC, when the variable state (20 times) ends, if it has been “low-accuracy variable” until now, the non-probable state (“low-probability non-variable”) continues. ) Will be controlled.

  Next, a description will be given of staying in the latent expectation (80) mode MD (hereinafter referred to as “in the latent expectation (80) mode MD”), which is set with a high possibility of being in a state of probability change compared to the normal latent expectation mode MB. To do.

  During the latent expectation (80) mode MD, the game state is either “low probability variation short” or “high probability variation short”, and particularly regarding the provision of the short variation state, the short variation state (short variation: 80 times) Has been. Then, the latent expectation (80) mode MD is set regardless of whether or not it is the probability variation state in the variation state (80 times).

  In the latent expectation (80) mode MD, the big hit B, C, H, I, and the small hit J are elected as an opportunity, and after the end of the big hit game or the small hit game based on these, the latent expectation (80) mode MD Will continue. Further, during the latent expectation (80) mode MD, when the big hits A, D, E, F, and G are won, the transition to the probability change mode ME is made after the big hit game based on these wins. In addition, the latent expectation (80) mode MD is triggered by the end of the variable state (80 times) after the end of the variable game (the next change in the non-variable state) after the end of the variable state (80 times). Transition from the game) to the normal mode MA is performed.

  In this way, the latent expectation (80) mode MD is continuously set without being terminated during the variable speed state (80 times) in a situation where the mode continues. Further, in the latent expectation (80) mode MD, when the variable state (80 times) ends, regardless of whether it has been “high probability variation” or “low probability variation short”, It will be controlled to the non-probable change state ("low-probability non-change short"). In the present embodiment, the number of variable games (“80 times”) controlled to the probability change state and the number of variable games (“80 times”) controlled to the variable state (80 times) are set to be the same. Thus, after the end of the variable state (80 times), even if it has been the probability variation state, the probability variation state is terminated and controlled to the non-probability variation state.

  Next, since the player is definitely notified of the probability variation state, the probability variation mode ME that is set with a high possibility of being in the probability variation state compared to other production modes is set to stay (hereinafter referred to as “probability variation”). Will be described.

  During the probability variation mode ME, the gaming state is “high probability variation short”, and particularly regarding the provision of the variation state, the variation state (variation: 77 times) is set. The probability variation mode ME is set when the probability variation state (77 times) is the probability variation state.

  During the probability variation mode ME, the big hits B, C, H, I are elected, and after that, the big hit game based on these is shifted to the latent expectation (80) mode MD. Further, during the probability variation mode ME, the probability variation mode ME is continued from the end of the big hit game or the small hit game based on the big hits A, D, E, F, G, and the small hit J. In addition, the probability variation mode ME is triggered by the end of the variable state (77 times) after the end of the variable game (the next variable game in the non-variable state) after the end of the variable state (77 times). (Crying) Transition to mode MF is made.

  Thus, the probability variation mode ME is continuously set without being terminated during the variation state (77 times) in a situation where the mode continues. Further, in the probability variation mode ME, when the variable state (77 times) is completed, the subsequent state is controlled to the probability variable state (“highly accurate non-variable”). In this embodiment, the number of times of the variable game (“80 times”) controlled to the probability change state is set larger than the number of times of the change game (“80 times”) controlled to the variable state (77 times). For this reason, after the variable speed state (77 times) is ended, the game is controlled to the probability variable state during the “three times” variable game, which is the remaining number of times of the probability variable state. In the following explanation, after the end of the variable state (77 times), the probability change state given to the variable game for “three times” in the non-variable state is referred to as “probability state (the remaining number of times is three times)”. That's it.

  Next, since the player is definitely notified of the probability variation state, the probability variation (crying) mode MF that is set to be highly likely to be the probability variation state compared to the other production modes (hereinafter referred to as “the probability variation state”) is maintained. , “In Probability (crying) mode MF”) will be described.

  During the probabilistic (crying) mode MF, the gaming state is “highly probable non-variable”, the remaining number of times is “3” for granting the probable change state, and no change is given for granting the shortage state. Short state (variation: 0 times). The probability variation (crying) mode MF is set when the probability variation state (the remaining number of times is three) is a non-variable state after the end of the variation state (77 times).

  Further, during the probability change (crying) mode MF, the background image and the like are set to be in the same mode as the probability change mode ME. That is, during the probability change mode ME, the display image of the “probability change mode” is displayed on the image display unit GH, but the display image of the “probability change mode” is also displayed during the probability change (crying) mode MF. Yes. As will be described later, during the probability change (crying) mode MF, the effect contents of the symbol variation game by the decorative drawing are set so as to cause the same aspect as in the probability change mode ME. For this reason, during the probability variation (crying) mode MF, the representation is expressed as if the probability variation mode ME continues. In the probability variation (crying) mode MF and the probability variation mode ME, as will be described later, whether or not a left-handed recommended effect for notifying that a left-handed game is recommended is different.

  During the probabilistic (crying) mode MF, the winning of jackpot B (special 2), C (special 2), H (special 2), I (special 2) will be used as a trigger, and the latent hit will start after the end of the jackpot game based on them A transition to the expected (80) mode MD is made. In addition, during the probability change (crying) mode MF, the chance change (crying) mode MF is continued even after the end of the small hitting game based on the winning of the small hitting J. In addition, during the probability change (crying) mode MF, the winning of the jackpots A and E is used as a trigger, and the transition to the probability changing mode ME is made after the end of the jackpot game based on these. Also, during the probabilistic (crying) mode MF, the winning of the big hit B (special 1), D, F, H (special 1) is the opportunity, and after the jackpot game based on these is over, to the latent expectation (20) mode MC The transition is made. Also, during the probabilistic (crying) mode MF, the big hit C (special 1), G, I (special 1) wins, and the transition to the normal latent expectation mode MB is made after the big hit game based on these wins. The In addition, the probability change (crying) mode MF is triggered by the end of the probability change state (the next change game in the non-change state) after the end of the change game (the next change game in the non-change state) after the end of the probability change state (3 remaining times). Transition to MA is made.

  In this way, the probability change (crying) mode MF is continuously set without being ended during the probability change state (the remaining number of times is three times) in a situation where the mode continues. Further, in the probability variation (crying) mode MF, when the probability variation state (the remaining number of times is 3 times) is finished, the subsequent state is controlled to the non-probability variation state (“low probability unchanging short”). In the present embodiment, the number of times of the variable game controlled to the variable state (77 times) (“77 times”) and the number of times of the variable game controlled to the probability variable state (3 times remaining) (“3 times”) Since the total is “80 times”, after the probability variation state (the remaining number of times is three), the probability variation state so far is terminated and controlled to the non-probability variation state.

  Further, the maximum number of times that the variable game is played in the probability change (crying) mode MF (“3 times”), that is, the number of times of the variable game (“3 times”) controlled to the probability change state (the remaining number of times is 3 times) is the second. It is set below the upper limit number ("4 times") of the reserved storage number. Then, during the probability variation mode ME that will stay until just before the probability variation (crying) mode MF, the result is a gaming state in which there is a high possibility that the second reserved memory number has reached the upper limit number because it is in a variable state. Even when shifting to the probability change (crying) mode MF, there is a high possibility that the second reserved memory number has reached the upper limit number (near the upper limit number). In the present embodiment, in consideration of the fact that the second variation game is preferentially performed over the first variation game, if the winning game is a big hit in the probability variation (crying) mode MF, There is a high possibility of being based on the big hit based on that is, that is, on the big hit symbol of FIG.

  Therefore, in the present embodiment, during the probability change (crying) mode MF, a lot of winning the jackpot is based on the second variation game. As a result, if winning the jackpot is controlled to the variable state (80 times). Control is made to the latent expectation (80) mode MD or the variable state (77 times) to shift to either the probability variation mode ME. As for the big hits B, C, H, and I, among the big hits, the applied state of the variable state when the hit state is the non-variable state is different between the special figure 1 and the special figure 2 and the special figure. In the case of 2 big hit symbols, even if the hit state is the non-changing state, it is determined that the changing state (80 times) is given.

  The normal latent expectation mode MB, which has a high probability of being in a probabilistic state as compared to the normal mode MA, is positioned to be more advantageous to the player than the normal mode MA. Further, the latent expectation (20) mode MC set when controlled to the variable state is positioned more advantageous to the player than the normal latent expectation mode MB. In addition, the latent expectation (80) mode MD, in which the number of times the variable state is applied (large) is larger than the latent expectation (20) mode MC, is positioned more advantageous to the player than the latent expectation (20) mode MC. It is done. Further, the probability variation mode ME (probability variation (crying) mode MF) for definite notification of the probability variation state is positioned to be more advantageous to the player than the other effect modes. In this embodiment, the probability variation mode ME when controlled to the variable state (77 times) gives the variable state compared to the latent expectation (80) mode MD controlled to the variable state (80 times). In consideration of the fact that the number of times is small (small) but the probability variation state is definitely reported, the player can be positioned more advantageously than the latent expectation (80) mode MD. In addition, regarding the probability change (crying) mode MF, considering that the mode can be shifted only from the probability variation mode ME and further the point that the probability variation state is definitely reported, the player is positioned as advantageous to the player as the probability variation mode ME. Can do.

  Then, with the winning of big hits B, C, H, and I as a trigger, the control content of the winning / shortening change depends on the hit state and the type of the variable game (whether it is special figure 1 or special figure 2). Because they are different, when the same jackpot of these jackpots is continuously won, the player's degree of advantage in the effect mode may change step by step according to the mode of giving the change state.

  Specifically, when winning big hit B or big hit H continuously, if the first big hit is based on the first variable game, and if the first big hit is based on the first variable game, The provision state of the variable state is promoted step by step from the non-variable state to the variable state (20 times), that is, from “0” to “20”. In accordance with this, if the effect mode is the normal mode MA, it is promoted step by step to the latent expectation (20) mode MC without going through the normal latent expectation mode MB. Further, the big hit is the case of “high probability variation” or “low probability variation” in the variation state (20 times), so that the application state of the variation state is changed from the variation state (20 times) to the variation state (20 times). 80 times), that is, “20 times” → “80 times”. In accordance with this, the production mode is gradually promoted from the latent expectation (20) mode MC to the latent expectation (80) mode MD. When the first jackpot is based on the second variation game, the winning state for the first jackpot is changed from the non-changing state to the changing state (80 times), that is, “0 times”. ”→“ 80 times ”, and will be promoted without going through“ 20 times ”. Accordingly, if the production mode is the normal mode MA, it is promoted to the latent expectation (80) mode MC without passing through the normal latent expectation mode MB or the latent expectation (20) mode MC.

  Also, when winning big hit C or big hit I consecutively, if the first big hit is “low probability unchangeable” and is based on the first variable game, the first big hit win will change The state application mode is maintained in the non-variable state. On the other hand, if the production mode is the normal mode MA, it is promoted step by step to the normal latent expectation mode MB. Further, the big hit is a case of “high probability non-variable” or “low probability non-variable”, so that the mode of giving the variable state is again maintained in the non-variable state. On the other hand, the production mode is gradually promoted to the normal latent expectation mode MB in the normal mode MA, and is maintained in the normal latent expectation mode MB. For this reason, if it is based on the 1st variation game, while the winning / changing state is not promoted even if winning continuously, there are cases where the production mode is promoted and maintained. When the first jackpot is based on the second variation game, the winning state for the first jackpot is changed from the non-changing state to the changing state (80 times), that is, “0 times”. ”→“ 80 times ”, and will be promoted without going through“ 20 times ”. In accordance with this, the production mode is promoted from the normal mode MA or the normal latent expectation mode MB to the latent expectation (80) mode MD without passing through the latent expectation (20) mode MC.

  In addition, when winning big hits D, E, F, and G, the control details of the change after hit differ depending on the hit state. Depending on the mode of giving the short state, the player's degree of advantage in the effect mode may change stepwise.

  Specifically, in the case of winning consecutively for the big hit D, if the first big hit is “low probability non-changeable”, the winning mode for the first big hit will be used as a trigger, From the short state to the variable state (20 times), that is, from “0 times” to “20 times”, it is promoted step by step. On the other hand, if the production mode is the normal mode MA, it is promoted to the latent expectation (20) mode MC without going through the normal latent expectation mode MB. Further, the big hit is a case of “highly accurate change” in the variable state (20 times), so that the application state of the variable state is changed from the variable state (20 times) to the variable state (77 times), that is, “ You will be promoted from “20 times” to “77 times” without going through “80 times”. In accordance with this, the production mode is promoted from the latent expectation (20) mode MC to the probability variation mode ME without going through the latent expectation (80) mode MD.

  In addition, when winning the jackpot E consecutively, if the first jackpot is “low probability unchangeable”, the winning mode for the first jackpot will be used as an opportunity to change the state of change. Will be maintained. On the other hand, if the production mode is the normal mode MA, it is promoted step by step to the normal latent expectation mode MB. Furthermore, since the big hit is the case of “highly accurate non-variable”, the state of giving the variable state is changed from the non-variable state to the variable state (77 times), that is, from “0” to “77”. , Promotion will be done without going through “20 times” or “80 times”. In accordance with this, the production mode is promoted from the normal mode MA or the normal latent expectation mode MB to the probability variation mode ME without passing through the latent expectation (20) mode MC or the latent expectation (80) mode MD.

  In addition, when winning continuously for the big hit F, if the first big hit is “low probability non-variable”, the winning mode of the first big hit is the opportunity to change the state of change. Will be maintained. On the other hand, if the production mode is the normal mode MA, it is promoted step by step to the normal latent expectation mode MB. Further, the big hit is the case of “highly accurate non-changeable”, so that the application state of the changed state is changed from the non-changed state to the changed state (20 times), that is, “0 times” → “20 times”. Will be promoted step by step. In accordance with this, if the production mode is the normal latent expectation mode MB, it is promoted step by step to the latent expectation (20) mode MC. Further, the big hit is the case of “highly accurate change”, so that the change state is changed from the change state (20 times) to the change state (77 times), that is, “20 times” → “77 times”. In addition, they will be promoted without going through “80”. In accordance with this, the production mode is promoted from the latent expectation (20) mode MC to the probability variation mode ME without going through the latent expectation (80) mode MD.

  In addition, when winning the big hit G continuously, if the first big hit is “low probability non-variable”, the winning state of the first big hit is the opportunity to change the state of change to the non-variable state Will be maintained. On the other hand, if the production mode is the normal mode MA, it is promoted step by step to the normal latent expectation mode MB. Further, the big hit is a case of “high probability non-changeable”, so that the application state of the changed state is maintained again in the non-changed state. On the other hand, the production mode is gradually promoted to the normal latent expectation mode MB in the normal mode MA, and is maintained in the normal latent expectation mode MB. For this reason, if it is based on the 1st variation game, while the winning / changing state is not promoted even if winning continuously, there are cases where the production mode is promoted and maintained.

  In addition, when winning big hit A, regardless of the state of hit, regardless of the state of the hit, it is controlled to change to the short state after winning, so when winning big hit A continuously, the transition to the probability change mode ME Will be repeated. In addition, since winning the small hits J will maintain the current state of the hit, the transition to the mode during the stay is usually repeated when winning the small hits J continuously. The transition to the normal latent expectation mode MB is made only during the mode MA.

  In this embodiment, “low probability unchangeable” is the normal game state, “high probability unchangeable” is the first game state, and “high probability change” of the change state (20 times) is the second game state, change. The “high probability variation” in the short state (77 times) is the third gaming state, and the “high probability variation” or “low probability variation” in the variation state (20 times) is the fourth gaming state.

  And in this embodiment, the big hit F from which a game state changes from a 1st gaming state-> 2nd gaming state-> 3rd gaming state by winning continuously a big hit turns into a special winning. In the present embodiment, the big hits B and H, in which the gaming state is changed to the fourth gaming state in the normal gaming state or the first gaming state by winning the big hit, are the normal winnings. Further, in the present embodiment, the normal latent expectation mode MB that is shifted when the big hit F is controlled to the first gaming state is the normal latent expectation state. Further, in the present embodiment, the latent expectation to be transferred when the big hit F is controlled to the second gaming state after the big hit F, or after the big hit B, H is controlled to the fourth gaming state (20) Mode MC is in the variable latency state. In the present embodiment, the probability change mode ME that is shifted when the big hit F is controlled to the third gaming state is in the highly reliable notification state. In this embodiment, after the big hit game is over, the big hit A controlled to the same gaming state regardless of the hit state becomes a special hit, and after the big hit game is over, the short state (80 times) or short The big hit B controlled to the state (20 times) is per special change, and after the big hit game is over, the big hit C controlled to the variable state (80 times) or the non-variable state becomes per short change. Further, in this embodiment, after the big hit game ends, the big hits D and F controlled to the variable speed state (20 times) or the variable speed state (77 times) become the variable short hits. The big hits E, F, and G controlled to the state (77 times) or the non-changeable state are per special changeable change.

Next, the electrical configuration of the pachinko gaming machine will be described with reference to FIG.
A main control board 30 for controlling the entire pachinko gaming machine is mounted on the back side of the pachinko gaming machine of the present embodiment. The main control board 30 executes various processes for controlling the entire pachinko gaming machine and outputs various control commands (control commands) according to the process results. An effect control board 31 is mounted on the back side of the machine. The effect control board 31 controls the operation of the effect display device 11 based on the control command output by the main control board 30.

Hereinafter, specific configurations of the main control board 30 and the effect control board 31 will be described.
The main control board 30 has a main control CPU 30a that executes control operations in a predetermined procedure, a main control ROM 30b that stores a control program for the main control CPU 30a, and a main control CPU that can write and read necessary data. A RAM 30c is provided. The main control CPU 30a is connected to various switches SW1 to SW4 so that detection signals output by detecting the game balls can be input. The main control CPU 30a includes a first special symbol display device 12a, a first special symbol hold display device 13a, a second special symbol display device 12b, a second special symbol hold display device 13b, a normal symbol display device 14, and a normal symbol display device 14. An electric accessory solenoid SOL1 and a special prize opening solenoid SOL2 are connected.

  Further, the main control CPU 30a is a random number for hit determination, a random number for special figure distribution, a random number for small hit symbol distribution, a random number for reach determination, a random number for fluctuation pattern distribution, a random number for determination per common figure, and the like. A random number update process (random number generation process) for updating the value of the random number at predetermined intervals is executed. The winning determination random number is a random number used in the big hit lottery (big hit determination) and the small hit lottery (small hit determination). The special figure distribution random number is a random number used when determining the jackpot symbol. The small hit design random number is a random number used when determining the small hit symbol. The reach determination random number is a random number used in the reach lottery (reach determination) for determining whether or not to form a reach in the case of not winning the big hit lottery or the small hit lottery, that is, in the case of a loss. The random number for distribution pattern distribution is a random number used when selecting the variation pattern of the variation game. The random number for judgment per common figure is a random number used in lottery per common figure. Further, the main control CPU 30a has a timer function, and measures time at a predetermined timing (for example, a timing at which a variable game is started). The main control RAM 30c stores (sets) various pieces of information (random numbers, timer values, flags, etc.) that are appropriately rewritten during the operation of the pachinko gaming machine.

  The main control ROM 30b stores a main control program and various determination values (a big hit determination value, a small hit determination value, a reach determination value, a normal hit determination value, etc.). The jackpot determination value is a determination value used in the jackpot lottery, and is determined from numerical values (all 65536 integers from 0 to 65535) that the hit determination random number can take. In this embodiment, 205 values are set as the jackpot determination values for the non-probable change state, and the probability of winning in the big hit lottery in the non-probability change state is 205/65536. On the other hand, 1937 values are set as the jackpot determination values for the probability variation state, and the probability of winning in the jackpot lottery in the probability variation state is 1937/65536.

  The small hit determination value is a determination value used in the small hit lottery, and is determined so as not to overlap with the big hit determination value from the numerical values (all 65536 integers from 0 to 65535) that the random number for winning determination can take. ing. In this embodiment, 183 values are set for the first variation game and one value is set for the second variation game as the small hit determination values. As a result, the probability of winning in the small hit lottery during the first variation game is 183/65536, while the probability of winning in the small hit lottery during the second variation game is 1/65536.

  The reach determination value is a determination value used in an internal lottery (reach determination) on whether or not to form a reach when determining a loss, and is a numerical value that can be taken by a random number for reach determination (a total of 239 patterns from 0 to 238). (Integer). The reach determination value of this embodiment will be described in detail later.

  The determination value per base map is a determination value used in the lottery per base map, and is determined from numerical values (all 65536 integers from 0 to 65535) that can be taken by a random number for determination per base map. In the present embodiment, 1125 values are set as the per-normal figure determination values for the non-variable short state, and the probability of winning in the lottery per common figure in the non-variable short state is 1125/65536. On the other hand, in the present embodiment, 65535 values are set as the standard figure determination values for the variable state, and the probability of winning in the lottery per standard figure in the variable state is 65535/65536.

  The main control ROM 30b stores a plurality of types of variation patterns. The variation pattern is a pattern that is the base of the production from the start of the variation of the symbol (special symbol and decoration) until the symbol (special symbol and ornament) is displayed in a fixed stop. The variation content (production content) and the variation time (production time) can be specified. In this embodiment, the plurality of types of variation patterns can be classified into variation patterns for hit variation, variation patterns for outlier reach variation, and variation patterns for outlier variation. The winning variation is a variation performed when winning a big hit lottery or a small hit lottery. In the hit variation, the big hit symbol or the small hit symbol is finally displayed in a definite stop in the changing game. On the other hand, in the winning variation, in the symbol variation game using decorative drawings, the big hit symbol or the probable variation suggestion symbol is finally displayed in a fixed stop manner after reaching the reach effect. The loss reach change is performed when the reach lottery is won without winning the big hit lottery or the small hit lottery, and the final symbol is finally stopped and displayed in the variable game. On the other hand, in the detachment reach variation, in the symbol variation game with decorations, the reach design is finally displayed through the reach effect, and finally the deferred symbol (reach is formed) is displayed. The loss variation is performed when none of the big hit lottery, the small hit lottery, or the reach lottery is won, and finally the lost symbol is fixedly stopped and displayed in the variable game. On the other hand, in the variation variation, in the symbol variation game by the decoration drawing, the reach symbol (not reach) is finally displayed in a fixed stop state without reaching reach. In the variation game, when the fluctuation of the special figure is started, the fluctuation of the special figure is continued until the fluctuation time elapses without performing the reach effect. There are a plurality of types of variation patterns for hit variation, outlier reach variation, and outlier variation, and one of them is selected.

Here, the fluctuation pattern in the pachinko gaming machine of the present embodiment will be described with reference to FIG.
The variation patterns in the present embodiment are further classified and distributed according to gaming state, variation type (variation name), and classification defined based on the gaming state.

  In the present embodiment, the “normal” classification is defined in the case of the non-variable state excluding the non-variable state in the probability variation state (the remaining number of times is 3) after the completion of the variable state (77 times). That is, the category “normal” corresponds to the case in the normal mode MA or the normal latent expectation mode MB. The “special” category is defined in the case of the non-changeable state in the probability change state (3 remaining times) after the end of the changeover state (77 times). That is, the category “special” corresponds to the case of the probability variation (crying) mode MF.

  The category “CT” is defined as a variable state (20 times) or a variable state (80 times). That is, the category “CT” corresponds to the case of the latent expectation (20) mode MC or the latent expectation (80) mode MD. In addition, the category “ST” is defined as a variable state (77 times). That is, the category “ST” corresponds to the case in the probability variation mode ME. The “common” category is defined as a variable state. That is, the category “common” corresponds to the case of the latent expectation (20) mode MC, the latent expectation (80) mode MD, or the probability variation mode ME.

  In this embodiment, variation patterns HP1 to HP3, HP116, and HP120 to HP124 are prepared as variation patterns for deviation variation. These fluctuation patterns are further classified into “normal”, “special”, “CT”, “ST”, or “common” categories as shown in FIG.

  Note that the variation times of the variation patterns HP1 to HP3 and HP116 classified into the “normal” or “special” categories that are in the non-variable state are set as shown in FIG. On the other hand, the variation times of the variation patterns HP120 to HP124 classified into the “CT”, “ST”, or “common” category that is in the variable state are set as shown in FIG. In particular, the fluctuation times of the fluctuation patterns HP120 and HP121 are set shorter than the fluctuation patterns HP1 to HP3 and HP116. In the variable state, the selection of the fluctuation patterns HP120 and HP121 is configured to occupy most. For this reason, in the variable state, the variation time of the fluctuating game can be shortened compared to the non-variable state.

  In the present embodiment, variation patterns HP4 to HP39, HP118, HP125 to HP127, HP134 to HP137, HP138, HP142, and HP144 are prepared as variation patterns for deviation reach variation. These fluctuation patterns are further classified into “normal”, “special”, “CT”, “ST”, or “common” categories as shown in FIG.

  Further, as a variation pattern for hit variation, a variation pattern for big hit variation and a variation pattern for probability variation suggestion variation are prepared. The variation pattern for big hit variation is selected at the time of winning big hit A, B, C, H, I (full open big hit) in the big hit internal lottery. Then, in the variation pattern for big hit variation, the contents for finalizing and displaying the big hit symbol in which the symbols in all the rows finally become the same symbol (the same symbols in all the rows) in the symbol variation game by the decorative drawing are specified. The variation pattern for the probability variation suggestion variation is selected at the time of winning the big hit D, E, F, G (short open big hit) in the big hit internal lottery or the small hit J in the small lot internal lottery. Then, in the variation pattern for probability variation suggestion variation, the content that finally displays the certain probability suggestion symbol in the symbol variation game based on the decoration diagram is specified. In the present embodiment, a full open big hit is determined for the same symbol in all rows. In addition, there is a possibility of a short hit big hit or a small hit in the probability variation suggestion design.

  For this reason, in this embodiment, regardless of the type of jackpot, when the same symbols in all the columns are displayed in a fixed and stopped manner in the symbol variation game based on the ornament, the symbol variation game based on the ornament with the effect content based on the variation pattern for the jackpot variation Will be done. Therefore, in this embodiment, when full open big hits (especially big hits B, C, H, I) are won, the same symbols for all the columns in the same stage are displayed at the start of full open big hit games corresponding to these. It is comprised so that the symbol change game by the decorative drawing to be made can be performed.

  Also, in this embodiment, regardless of the type of big hit or small hit, when the probability variation suggestion symbol is displayed in a fixed stoppage in the symbol variation game based on the ornament, the symbol based on the ornament with the effect contents based on the variation pattern for probability variation suggestion variation The variation game is performed, and the probability variation suggestion symbol is further displayed in a fixed stop state. Therefore, in this embodiment, when winning a short-open big hit or small hit, at the start of the corresponding short-open big hit game or small hit game, the graphic with a decorative figure that displays the fixed change suggestion symbols with the same effect content fixed stop display It is comprised so that a variable game can be performed.

  In the present embodiment, variation patterns HP40 to HP53, HP117, and HP128 are prepared as variation patterns for probability variation suggestion variation. These fluctuation patterns are further classified into “normal”, “special”, “CT”, “ST”, or “common” categories as shown in FIG.

  In the present embodiment, variation patterns HP54 to HP115, HP119, HP129 to HP133, HP139 to HP141, HP143, and HP145 are prepared as variation patterns for the big hit variation. These fluctuation patterns are further classified into “normal”, “special”, “CT”, “ST”, or “common” categories as shown in FIG.

  In the present embodiment, the variation pattern for losing reach variation and the variation pattern for winning variation include a pattern in which the effect contents of the symbol variation game by the decorative drawing are the same.

  Further, the main control ROM 30b has a plurality of types (in this embodiment, eight types) of distribution tables (distribution modes) in which change patterns that can be selected and conditions for selecting these selectable change patterns are tabulated. ) Is stored.

  Then, as shown in FIG. 6, each distribution table is distributed so that a plurality of types can be selected from the variation patterns HP1 to HP145 in the present embodiment, and the conditions for selecting these distributed variation patterns are set. It prescribes. The distribution table according to the present embodiment can be selected as a condition for selecting a variation pattern, depending on the lottery results of the big hit determination, the small hit determination and the reach determination, and the types of the big hit (special figure) at the time of the big win. The ratio (selection rate) for selecting a pattern is defined.

  Specifically, in this embodiment, a low-accuracy non-changing distribution table is prepared. In the low-accuracy non-variable short and short distribution table, fluctuation patterns for outlier fluctuation, outlier reach fluctuation, probable change suggestion fluctuation, and jackpot fluctuation that are classified into the “normal” category are assigned. Further, in this embodiment, a sorting table for high-precision unvariable 1 is prepared. As shown in the remarks column, the high-accuracy non-variable short 1 distribution table has a variation pattern that can be selected and a condition for selecting these selectable variation patterns as the low-precision non-variable short distribution. It is configured in the same manner as the table.

  Further, in this embodiment, a sorting table for high-precision unvariable 2 is prepared. In the allocation table for high-precision non-variable short 2, variation patterns for outlier fluctuation, outlier reach fluctuation, probable change suggestion fluctuation, and jackpot fluctuation, which are classified into the “special” category, are assigned. And as shown in the remarks column, the distribution table for the high-precision non-variable 2 is configured in a dedicated mode whose contents are different from those of other distribution tables.

  In the present embodiment, a sorting table for low probability variation is prepared. In the low probability variation short allocation table, variation patterns for outlier variation, outlier reach variation, probability variation suggestion variation, and jackpot variation, which are classified into the “CT” category, are allocated. In addition, the distribution table for low-probability short-to-short variation includes some variation patterns among the variation patterns for outlier variation, outlier reach variation, probability variation suggestion variation, and jackpot variation that are classified into the “common” category. Is distributed. As shown in the remarks column, the low-accuracy variable distribution table is configured to include variation patterns HP122, HP128, HP138, and HP141. In this embodiment, a sorting table for high-accuracy change 3 is prepared. As shown in the remarks column, the distribution table for the high-accuracy variation 3 has the same mode as the distribution table for the low-accuracy variation shortening in which the variation pattern that can be selected and the conditions for selecting these variation patterns can be selected. It is configured.

  In the present embodiment, a sorting table for high-accuracy change 1 is prepared. In the distribution table for the high probability variation 1, variation patterns for the outlier variation, the outlier reach variation, the probability variation suggestion variation, and the big hit variation, which are classified into the category “ST”, are allocated. In addition, the distribution table for high probability variation 1 includes some variations of the variation patterns for outlier variation, outlier reach variation, probability variation suggestion variation, and jackpot variation that are classified in the “common” category. The pattern is distributed. As shown in the remarks column, the allocation table for the high accuracy variation 1 is configured to include variation patterns HP122, HP128, HP138, and HP141.

  In the present embodiment, a sorting table for high-accuracy variation 2 is prepared. In the allocation table for high-accuracy short and long 2, some of the fluctuation patterns for outlier fluctuation, outlier reach fluctuation, probable change suggestion fluctuation, and jackpot fluctuation that are classified into the “common” category are included. It is distributed. As shown in the remarks column, the high-accuracy short / second 2 distribution table is configured to include only the fluctuation patterns HP124, HP144, and HP145.

  In this embodiment, a common variable distribution table is prepared. In the common variable distribution table, some of the fluctuation patterns for outlier fluctuation, outlier reach fluctuation, probable change suggestion fluctuation, and jackpot fluctuation are classified as “common”. It has been. As shown in the remarks column, the common variable distribution table is configured to include only the variable patterns HP123, HP142, and HP143.

Next, the effect control board 31 will be described.
The effect control board 31 has an effect control CPU 31a that executes control operations in a predetermined procedure, an effect control ROM 31b that stores a control program for the effect control CPU 31a, and an effect control that can write and read necessary data. A RAM 31c is provided. The effect control CPU 31a executes random number update processing (random number generation processing) for updating various random number values at predetermined intervals. The effect display device 11 is connected to the effect control CPU 31a. The effect control ROM 31b stores various image display data (image data such as symbols, backgrounds, characters, characters, etc.). In addition, various information (random number value, timer value, flag, etc.) that is appropriately rewritten during the operation of the pachinko gaming machine is stored (set) in the effect control RAM 31c.

  Hereinafter, various processes such as a special symbol input process and a special symbol start process executed by the main control CPU 30a of the main control board 30 based on the main control program will be described. In the present embodiment, the main control CPU 30a executes various processes such as a special symbol input process and a special symbol start process every predetermined control cycle (for example, 4 ms). The special symbol start process is executed after the special symbol input process ends.

First, the special symbol input process will be described.
First, the main control CPU 30a determines whether or not a game ball has entered the first start winning port 15 based on whether or not a detection signal is input from the start port switch SW1. If this determination result is affirmative, the main control CPU 30a determines whether or not the first reserved storage number stored in the main control RAM 30c is less than the upper limit number of four. When the first reserved memory number is less than 4, the main control CPU 30a increments the first reserved memory number by +1 (1 addition). The main control CPU 30a that updated (added 1) the first reserved memory number changes the display content of the first special symbol hold display device 13a so as to display the updated (after added) first reserved memory number. Thereafter, the main control CPU 30a reads and acquires various random number values from the main control RAM 30c, and sets the values in a predetermined storage area of the main control RAM 30c corresponding to the first reserved storage number. In the present embodiment, the main control CPU 30a acquires each value of a hit determination random number, a special figure distribution random number, a small hit symbol distribution random number, a reach determination random number, and a variation pattern distribution random number. Thereafter, the main control CPU 30a ends the special symbol input process.

  On the other hand, when a game ball has not entered the first start winning opening 15, or when a game ball has entered the first start winning opening 15, but the first reserved memory number is not less than 4, the main control CPU 30a Then, it is determined whether or not a game ball has entered the second start winning opening 16. When no game ball has entered the second start winning opening 16, the main control CPU 30a ends the special symbol input process. On the other hand, when a game ball enters the second start winning opening 16, the main control CPU 30a determines whether or not the second reserved storage number stored in the main control RAM 30c is less than the upper limit number of four. To do. When the second reserved memory number is not less than 4, the main control CPU 30a ends the special symbol input process. On the other hand, when the second reserved memory number is less than 4, the main control CPU 30a increments the second reserved memory number by +1 (1 addition). The main control CPU 30a that has updated (added 1) the second reserved memory number changes the display content of the second special symbol hold display device 13b so as to display the updated (after added) second reserved memory number. Thereafter, the main control CPU 30a reads and acquires various random number values from the main control RAM 30c, and sets the values in a predetermined storage area of the main control RAM 30c corresponding to the second reserved storage number. In the present embodiment, the main control CPU 30a acquires each value of a hit determination random number, a special figure distribution random number, a small hit symbol distribution random number, a reach determination random number, and a variation pattern distribution random number. Thereafter, the main control CPU 30a ends the special symbol input process.

In this way, the main control RAM 30c that stores up to the upper limit number (holding upper limit number) of game balls that have entered each start winning opening 15, 16 functions as a holding storage means.
Next, the special symbol start process will be described.

  First, the main control CPU 30a executes execution condition determination as to whether or not a variable game is being executed and whether or not a hit game (during a big hit game or a small hit game). When the determination result of the execution condition determination is affirmative, the main control CPU 30a ends the special symbol start process. On the other hand, when the determination result of the execution condition determination is negative (not in the changing game and in the winning game), the main control CPU 30a has the second reserved memory number stored in the main control RAM 30c “0”. It is determined whether or not it is larger than (zero). When the second reserved memory number is 1 or more, the main control CPU 30a includes the second variable game that is being held, and therefore the second symbol change process flag assigned to the predetermined storage area of the main control RAM 30c is set to the second. A value “1” indicating that the variable game is to be executed is set. Then, the main control CPU 30a subtracts “1” from the second reserved memory number, and changes the display content of the second special symbol hold display device 13b so as to display the updated (after subtraction) second reserved memory number. To do. When the symbol variation processing flag is set to “1”, the main control CPU 30a performs the special symbol start processing related to the second variation game based on the second start holding ball.

  Subsequently, the main control CPU 30a reads the value of a random number for hit determination stored in a predetermined storage area of the main control RAM 30c in association with the second reserved storage number. At this time, the main control CPU 30a reads the value of the random number for hit determination associated with the second start hold ball stored most quickly among the second start hold balls stored in the main control RAM 30c.

  Then, the main control CPU 30a compares the hit determination random number value stored in association with the second reserved storage number with the jackpot determination value, and determines whether or not both values match. Make a big hit (big hit lottery). At this time, the main control CPU 30a performs the jackpot determination using the jackpot determination value for the non-probability changing state when the current gaming state is the non-probability changing state, while the probability changing state when the current gaming state is the probability changing state. The big hit judgment is performed using the big jackpot judgment value for use. Note that the main control CPU 30a grasps whether or not the current gaming state is a probability change state based on a control flag (a probability change flag described later) set in the main control RAM 30c.

  When the determination result of the big hit determination is affirmative, the main control CPU 30a executes a second big hit fluctuation process for causing the second variable game to become a big hit fluctuation. In the second big hit variation process, the main control CPU 30a reads the value of the random number for special figure distribution associated with the second start holding ball stored earlier. Then, the main control CPU 30a determines the jackpot symbol as the special symbol 2 to be displayed on the second special symbol display device 12b with a fixed stop based on the value of the special symbol distribution random number. In the present embodiment, since the jackpot symbol of the special figure is set for each type of jackpot, the jackpot type to be given to the player is determined by determining the jackpot symbol. At this time, the main control CPU 30a is classified into symbols a, b, c, h, and i as special figure 2 to be confirmed and stopped on the second special symbol display device 12b based on the random numbers for special figure distribution. To decide. Further, the main control CPU 30a selects and determines a variation pattern for large hit variation. Thereafter, the main control CPU 30a ends the special symbol start process. Details of the selection of the variation pattern will be described later in detail.

  On the other hand, if the determination result of the big hit determination is negative, the main control CPU 30a compares the value of the random number for hit determination previously read with the small hit determination value, and the second variation whether or not both values match. Make a small hit determination (lottery lottery) related to the game. In this way, when performing the small hit determination related to the second variable game, the main control CPU 30a sets the small hit probability of the variable game to a predetermined probability (in this embodiment, regardless of whether or not the probability change state). 1/65536), a small hit determination is performed.

  If the determination result of the small hit determination is affirmative, the main control CPU 30a sets “1” to the small hit flag indicating that the game is a variable game that is a small hit, reads the value from the probability change flag and the operation flag, Based on this value, the second small hit variation process for executing the second variable game that is a small hit is executed. In the second small hit variation process, the main control CPU 30a reads out the small hit symbol distribution random number value associated with the second start holding ball that has been stored earliest from the main control RAM 30c, and the small hit symbol is stored. Based on the value of the random number for distribution, a small hit symbol is determined as a special symbol to be confirmed and stopped on the second special symbol display device 12b. At this time, the main control CPU 30a determines one of the symbols classified as the symbol j as the special symbol 2 to be displayed on the second special symbol display device 12b on the basis of the random numbers for small hit symbol distribution. The main control CPU 30a selects and determines a variation pattern for probability variation suggestion variation. Thereafter, the main control CPU 30a ends the special symbol start process. Details of the selection of the variation pattern will be described later in detail.

  On the other hand, when the determination result of the small hit determination is negative, the main control CPU 30a specifies a deviation from the fact that the value of the random number for hit determination is not a big hit or a small hit value. For this reason, the main control CPU 30a reads the value of the reach determination random number associated with the second stored stored number earliest and compares the reach determination random number value with the reach determination value. Reach determination (reach lottery) related to the second variation game as to whether or not they match is performed. Details of the reach determination value will be described later in detail.

  When the determination result of the reach determination is affirmative, the main control CPU 30a executes the second reach variation process for executing the second variation game that causes the reach reach variation because the reach lottery is won. In the second reach variation process, the main control CPU 30a determines a symbol that is not a special symbol 2 to be confirmed and stopped on the second special symbol display device 12b. Further, the main control CPU 30a selects and determines a fluctuation pattern for deviation reach fluctuation. Thereafter, the main control CPU 30a ends the special symbol start process. Details of the selection of the variation pattern will be described later in detail.

  On the other hand, when the determination result of the reach determination is negative, the main control CPU 30a executes a second deviation variation process for executing the second variation game that causes the deviation variation. In the second deviation variation process, the main control CPU 30a determines a deviation symbol as the special figure 2 to be confirmed and stopped on the second special symbol display device 12b. Further, the main control CPU 30a selects and determines a variation pattern for deviation variation. Thereafter, the main control CPU 30a ends the special symbol start process. Details of the selection of the variation pattern will be described later in detail.

  On the other hand, when the second reserved memory number is “0”, the main control CPU 30a determines whether or not the first reserved memory number stored in the main control RAM 30c is larger than “0”. When the first reserved memory number is “0”, the main control CPU 30a ends the special symbol start process because there is no first variable game being held. On the other hand, when the first number of reserved memories is larger than “0”, there is a first variable game that is on hold, so the value “0” indicating that the first variable game is to be executed is set in the special symbol variation processing flag. To do. Then, the main control CPU 30a subtracts “1” from the first reserved memory number, and changes the display content of the first special symbol hold display device 13a so as to display the updated first (after subtraction) first reserved memory number. To do. When the symbol variation processing flag is set to “0”, the main control CPU 30a performs the special symbol start processing related to the first variation game based on the first start holding ball.

  Subsequently, the main control CPU 30a reads the value of the random number for hit determination stored in a predetermined storage area of the main control RAM 30c in association with the first reserved storage number. At this time, the main control CPU 30a reads out the value of the random number for hit determination associated with the first start holding ball stored first among the first start holding balls stored in the main control RAM 30c.

  Then, the main control CPU 30a compares the value of the random number for hit determination stored in association with the first reserved storage number with the big hit determination value, and relates to the first variation game whether or not both values match. Make a big hit (big hit lottery). At this time, the main control CPU 30a performs the jackpot determination using the jackpot determination value for the non-probability changing state when the current gaming state is the non-probability changing state, while the probability changing state when the current gaming state is the probability changing state. The big hit judgment is performed using the big jackpot judgment value for use.

  When the determination result of the big hit determination is affirmative, the main control CPU 30a executes a first big hit fluctuation process for causing the first variable game to become a big hit fluctuation. In the first big hit fluctuation process, the main control CPU 30a reads the value of the random number for special figure distribution associated with the first start holding ball stored earlier. Then, the main control CPU 30a determines a jackpot symbol as the special figure 1 to be displayed on the first special symbol display device 12a with a fixed stop based on the value of the special figure distribution random number. At this time, the main control CPU 30a determines one of the symbols A to I classified as the special figure 1 to be confirmed and stopped on the first special symbol display device 12a based on the random number for special figure distribution. The main control CPU 30a selects and determines a variation pattern for probability variation suggestion variation or big hit variation. Thereafter, the main control CPU 30a ends the special symbol start process. Details of the selection of the variation pattern will be described later in detail.

  On the other hand, if the determination result of the big hit determination is negative, the main control CPU 30a compares the value of the random number for hit determination previously read with the small hit determination value, and first variation of whether or not both values match. Make a small hit determination (lottery lottery) related to the game. In this way, when performing the small hit determination relating to the first variable game, the main control CPU 30a sets the small hit probability of the variable game to a predetermined probability (in this embodiment, regardless of whether or not the probability change state). 183/65536), a small hit determination is performed.

  If the determination result of the small hit determination is affirmative, the main control CPU 30a sets “1” to the small hit flag indicating that the game is a variable game that is a small hit, reads the value from the probability change flag and the operation flag, Based on this value, a first small hit variation process for executing the first variable game that is a small hit is executed. In the first small hit variation process, the main control CPU 30a reads out the small hit symbol distribution random number value associated with the first start holding ball stored first from the main control RAM 30c, and the small hit symbol Based on the value of the random number for distribution, a small hit symbol is determined as a special symbol to be confirmed and stopped on the first special symbol display device 12a. At this time, the main control CPU 30a determines which of the symbols is classified as the symbol J as the special symbol 1 to be confirmed and stopped on the first special symbol display device 12a based on the random numbers for small hit symbol distribution. The main control CPU 30a selects and determines a variation pattern for probability variation suggestion variation. Thereafter, the main control CPU 30a ends the special symbol start process. Details of the selection of the variation pattern will be described later in detail.

  On the other hand, when the determination result of the small hit determination is negative, the main control CPU 30a specifies a deviation from the fact that the value of the random number for hit determination is not a big hit or a small hit value. Therefore, the main control CPU 30a reads the value of the reach determination random number associated with the first stored stored number that is earliest and compares the reach determination random number with the reach determination value. A reach determination (reach lottery) related to the first variation game is performed to determine whether or not they match. Details of the reach determination value will be described later in detail.

  When the determination result of the reach determination is affirmative, the main control CPU 30a executes the first reach variation process for executing the first variation game that causes the reach reach variation because the reach lottery is won. In the first reach variation process, the main control CPU 30a determines a symbol that is not a special symbol 1 to be displayed on the first special symbol display device 12a with a fixed stop. Further, the main control CPU 30a selects and determines a fluctuation pattern for deviation reach fluctuation. Thereafter, the main control CPU 30a ends the special symbol start process. Details of the selection of the variation pattern will be described later in detail.

  On the other hand, if the determination result of the reach determination is negative, the main control CPU 30a executes a first deviation variation process for executing the first variation game that causes the deviation variation. In the first deviation variation process, the main control CPU 30a determines a deviation symbol as the special figure 1 to be confirmed and stopped on the first special symbol display device 12a. Further, the main control CPU 30a selects and determines a variation pattern for deviation variation. Thereafter, the main control CPU 30a ends the special symbol start process. Details of the selection of the variation pattern will be described later in detail.

  In this way, the main control CPU 30a that performs the reach lottery functions as the reach lottery unit, and the main control CPU 30a that determines the variation content of the variable game based on the result of the reach lottery or the like serves as the variation content determination unit. Function.

  Then, the main control CPU 30a that has determined the special figure and the variation pattern outputs the control command generated according to the determined items to the effect control board 31 (effect control CPU 31a) at a predetermined timing. Specifically, the main control CPU 30a first outputs a variation pattern designation command instructing the variation pattern and instructing the start of the variation game at the start of the variation game. Incidentally, the variation pattern designation commands are classified into a variation pattern designation command for special figure 1 (for the first variation game) and a variation pattern designation command for special figure 2 (for the second variation game). Further, the main control CPU 30a outputs a special symbol stop symbol designation command for designating a special symbol, after outputting the variation pattern designation command. The special symbol stop symbol designation commands are also classified into special symbol 1 (first variable game) stop symbol designation commands and special symbol 2 (second variable game) stop symbol designation commands. Yes. The main control CPU 30a outputs a symbol stop command for instructing the end of the variation game (determination of symbol determination) when the variation time determined in the instructed variation pattern has elapsed, as the variation time elapses. Incidentally, the symbol stop command is classified into a symbol stop command for special figure 1 (for the first variable game) and a symbol stop command for special figure 2 (for the second variable game). The main control CPU 30a controls the display content of the first special symbol display device 12a with the start of the first variable game, while the second special symbol display device 12b has with the start of the second variable game. Control display content. That is, the main control CPU 30a starts the fluctuation of the special figure by the start of the fluctuation game, and the special figure determined at the elapse of the fluctuation time set in the decided fluctuation pattern (the big hit symbol, the small hit symbol or the off symbol) Is displayed with a fixed stop.

  When the big hit is determined, the main control CPU 30a starts the big hit game control (hit game control) based on the big hit type specified in the special drawing after the change game based on the determined change pattern. At that time, the main control CPU 30a sets information indicating that the big hit game is started in the main control RAM 30c. In the big hit game, the main control CPU 30a outputs an opening command at the start of the big hit game, outputs a round command at the start of each round game, and further outputs an ending command at the end of the big hit game. The opening command instructs the start of the opening (effect), the round command instructs the start of the round game (effect), and the ending command instructs the start of the ending (effect).

  Further, when determining the small hit, the main control CPU 30a starts the control of the small hit game (hit game control) after the end of the variation game based on the determined variation pattern. At that time, the main control CPU 30a sets information indicating that the small hit game is started in the main control RAM 30c. In the small hit game, the main control CPU 30a outputs an opening command at the start of the small hit game, and also outputs a command instructing the start of the big winning opening 19 during the small hit game. Output ending command when finished. The command for instructing the opening of the big winning opening 19 instructs the start of the production during the opening / closing operation of the big winning opening 19 for the small hit game.

  Then, the main control CPU 30a controls the opening / closing operation of the big winning opening 19 in a corresponding opening manner in the big hit game or the small hit game. In the present embodiment, when the opening time (predetermined time) elapses from the start of the big hit game control or the small hit game control, the main control CPU 30a opens the big winning opening 19 and starts the first release. Control.

  Subsequently, the main control CPU 30a measures the round game time determined in advance for each round game and controls the game to enter during the round game by inputting the detection signal from the count switch SW3. Count the number of game balls entering. The main control CPU 30a is released by satisfying one of the fact that the round game time has passed and the upper limit number of game balls entered in each round game of the big hit game. The winning opening 19 is controlled to be closed. Further, the main control CPU 30a measures the maximum opening time and controls the number of game balls entered during the small hit game by inputting the detection signal from the count switch SW3 in the case of the small hit game control. Count. Then, the main control CPU 30a opens the grand prize opening 19 at most 11 times until the maximum opening time elapses in the small hit game and until the upper limit number of game balls enter. Note that the main control CPU 30a closes the big winning opening 19 and closes the small winning game when the upper limit number of gaming balls enter before the big winning opening 19 is opened 11 times in the small winning game. May be terminated.

  Further, the main control CPU 30a that ended the big hit game sets “1” to the probability change flag indicating that the probability change state is given and sets the probability change state when the game state is changed to the probability change state after the big hit game ends. Outputs a probability change command indicating that is added. In this case, the main control CPU 30a sets the number of times of high accuracy giving (in this embodiment, “80 times”). Then, when the high-confidence grant count is set, the main control CPU 30a subtracts 1 from the high-confidence grant count every time the variable game is executed, and when the high-confidence grant count becomes "0 (zero)" The probability variation state is terminated when the probability variation state termination condition is satisfied. In this case, the main control CPU 30a sets the probability variation flag to “0 (zero)” and outputs a non-probability variation command indicating that a non-probability variation state is to be given. Further, when the non-probability change state is given after the big hit game is finished, the main control CPU 30a sets the probability change flag to “0” and outputs a non-probability change command indicating that the non-probability change state is given.

  In addition, the main control CPU 30a sets “1” to the operation flag indicating that the variable state is to be applied and provides the variable state when the variable state is to be provided after the big hit game is finished. Output the variable command shown. In this case, the main control CPU 30a sets the number of operations (in this embodiment, “20 times”, “77 times”, or “80 times”). When the number of times of operation is set, the main control CPU 30a subtracts 1 from the number of times of operation every time the variable game is executed. As a result, the variable state is terminated. In this case, the main control CPU 30a sets “0 (zero)” to the operation flag and outputs a non-variable command indicating that the non-variable state is to be given. Further, the main control CPU 30a sets “0 (zero)” to the operation flag and outputs a non-variable command when giving the non-variable state after the end of the big hit game.

  The main control CPU 30a has a big hit A and a big hit D, F, G when the hit state is "low accuracy variation short" or "high accuracy variation short", and the hit state is "high accuracy unchanging short", "low After the big hit game based on the big hit E in the “probable short” or “high probability short”, control is performed in the same manner with respect to the short state. Specifically, the main control CPU 30a sets “77 times” as the number of operations after the end of the big hit game based on these. Thus, the main control CPU 30a controls to the variable state (77 times) during the “77 times” of the variable game less than “80 times” after the big hit game based on these big wins. In this case, the main control CPU 30a sets “80 times” as the number of high-accuracy assignments, so that the variable state is controlled to end before the positively changed state. Subsequently, in this case, when the main control CPU 30a ends the variable state before the probable change state with the end of the variable game for “77 times” after the end of the big hit game, the main game CPU 30a During this period, control is performed to the probability variation state (the remaining three times). In the present embodiment, during the variation game for the number of shortened grants less than the number of high-accuracy grants, the control for giving the variable state becomes the shortening grant control, while the control for giving the remaining number of times of the high-confidence grant counts. The control for imparting the non-variable state is the non-given control.

  Further, the main control CPU 30a, after the end of the big hit game based on the big hit B, C, H, I when the hit state is “low probability non-variable” or “high probability non-variable” and excluding FIG. , Control in the same manner with respect to the variable state. Specifically, the main control CPU 30a sets “80 times” as the number of operations after the end of the big hit game based on these. Thus, the main control CPU 30a controls to the variable state (80 times) during the “80 times” variable game after the end of the big game based on the big game. In this case, the main control CPU 30a sets “80 times” as the number of high-accuracy grants for the big hits B and C, so that the variable state is terminated in accordance with the end of the probability variation state. Control. In the present embodiment, the control for giving the variable state during the variable game for the number of high-accuracy grants is the normal grant control.

  In addition, the main control CPU 30a has a big hit B and H in the case where the hit state is “low accuracy invariant” or “high accuracy invariant” and in FIG. After the big hit game based on the big hit D in the case of “high probability non-variable” and the big hit F in the state of hitting “high probability non-variable”, control is made in the same manner with respect to the variable state. Specifically, the main control CPU 30a sets “20 times” as the number of operations after the end of the big hit game based on these. As a result, the main control CPU 30a controls to the variable state (20 times) during the “20 times” variable game after the big hit game based on these big wins. In this case, the main control CPU 30a sets “80 times” as the number of high-accuracy grants for the big hits B, D, and F, so that the variable state is terminated before the positive variable state. To control. Subsequently, in this case, when the main control CPU 30a ends the variable state before the probable change state with the end of the variable game for “20 times” after the end of the big hit game, the main game CPU 30a During this time, control is performed in a probable state. In the present embodiment, the control for giving the variable state is the special grant control while it is shorter than the normal grant control or the shortened grant control.

  Further, the main control CPU 30a has a large hit C and I in the case where the hit state is “low accuracy invariant” or “high accuracy invariant” and in FIG. After the big hit game based on the big hits E and F in “” and the big hit G based on the hit state “low probability non-variable” or “high probability non-variable”, the control is controlled in the same manner with respect to the short-change state. Specifically, the main control CPU 30a controls to the non-changeable state after the end of the big hit game based on these. In this case, the main control CPU 30a performs control so that the probability variation state is imparted in the non-variable state, since “80 times” is set as the number of times of high probability provision other than the big hit I.

  Since the gaming state at the time of winning the small hit is maintained after the end of the small hitting game, the main control CPU 30a sets the gaming state at the time of winning the small hit. In accordance with this, the main control CPU 30a outputs a command for designating a gaming state such as a probability changing state or a changing state so that the gaming state at the time of winning a small hit is obtained. At that time, if the number of high-accuracy grants and the number of actuations are set, the number of times of high-accuracy grants and the number of actuations when winning a small hit are also maintained.

In this way, the main control CPU 30a that performs control relating to the gaming state functions as a gaming state control means.
The probability variation flag and the operation flag are cleared ("0" is set) when a big hit game or a small hit game is awarded. In this case, when the big hit or the small hit is generated, the main control CPU 30a ends the probability change state and the short change state with the start of the big hit game or the small hit game. Further, the probability variation flag and the operation flag are stored in a predetermined storage area of the main control RAM 30c. By these probability change command, non-change command, change command, and non-change command, the production control CPU 31a is currently in the change state or in the non-change state, in the change state or in the non-change state. You can see if there is.

  Then, the main control CPU 30a that ended the big hit game or the small hit game confirms the number of the stored memory at the end time, executes the process related to the variable game based on the start reserved ball, and executes the variable game. Let it be done. On the other hand, if the number of stored memories at the end of the big hit game or the small hit game is “0”, the main control CPU 30a plays a variable game until the game balls enter the start winning holes 15 and 16. Wait without running.

  The main control CPU 30a sets the number of executions in the main control RAM 30c after the end of the big hit game, and updates the number of executions by one each time the variable game is executed. Thereby, the main control CPU 30a counts (counts) the number of times the variable game has been executed since the previous big hit. Further, the main control CPU 30a is reset (reset) to the number of executions to “0 (zero)” when a big hit game is awarded. Note that the main control CPU 30a maintains the contents without resetting the number of executions even if a small hit game is awarded.

Next, processing related to the general game executed by the main control CPU 30a based on the main control program will be described.
When the game ball passes through the gate 20 and the detection signal output by the gate switch SW4 that detects the game ball is input, the main control CPU 30a obtains the random number for determining per game from the main control RAM 30c, The value is temporarily stored in the main control RAM 30c in association with the number of stored general-purpose start-up balls (hereinafter referred to as the general-purpose start-up storage number). Note that the main control CPU 30a adds 1 to the general-purpose chart start reserved memory number when the general-purpose map start reserved memory count has not reached the upper limit (in this embodiment, “4”). On the other hand, if the number of reserved general-purpose maps is reaching the upper limit, the number of reserved general-purpose drawings reserved exceeding the upper limit is not rewritten, and the random number for determination per map is not acquired.

  Then, the main control CPU 30a uses the base map per-unit determination stored in the main control RAM 30c in association with the number of base start-holding memories when the base map is not being displayed in a variable manner and is not playing a game per base map. Read a random value. Then, the main control CPU 30a compares the value with the standard figure determination value, and performs a standard figure determination (lottery per standard figure) as to whether or not it is a standard figure. When the game state is the non-changed state, the main control CPU 30a compares the non-changed state determination value for the non-changed state with the random number for determining the normal figure. In the case where the gaming state is the variable state, the per-normal determination value for the variable state is compared with the random number for determination per general diagram.

  The main control CPU 30a controls the display content of the normal symbol display device 14 with the start of the general game. That is, the main control CPU 30a starts the fluctuation of the usual figure by the start of the usual figure game, and displays the fixed figure (the symbol per ordinary figure or the off-normal figure) determined at the elapse of a predetermined fluctuation time. . The main control CPU 30a sets different fluctuation times as the fluctuation times of the usual game according to the gaming state at the start of the usual game, and displays the normal symbols in a fixed stop state. Specifically, the main control CPU 30a sets “5 seconds” as the variation time in the non-variable state, and sets the variation time to be shorter than the non-variable state in the variable state. Is set to “0.7 seconds”. Thereby, the fluctuation time of the usual game played in the variable state is shortened than the fluctuation time of the usual game played in the non-variable state.

  Further, the main control CPU 30a controls the opening state of the opening / closing blades 17 in accordance with the gaming state at the time of hitting the usual figure after the end of the usual figure game corresponding to the usual figure. Specifically, in the non-variable state, the main control CPU 30a opens and closes the opening and closing blades 17 for the first number of times (in this embodiment, 0.2 (seconds)) for the first number of times (in this embodiment, 1 ( Times)) minutes. In the variable speed state, the main control CPU 30a opens and closes the opening / closing blade 17 for a second number of times (5 (times) in this embodiment) for a second opening time (0.7 (seconds) in this embodiment), Control to open.

Next, various processes executed by the effect control CPU 31a of the effect control board 31 based on the effect control program will be described.
When the change control designation command is input, the effect control CPU 31a determines the symbol combination of the decoration drawing to be confirmed and stopped on the effect display device 11 according to the command. Specifically, when a jackpot symbol is designated as a special symbol, the effect control CPU 31a determines a jackpot symbol (combination) for each special symbol. Then, when the full open big hit is instructed by the stop symbol designation command for special figure 1 or special figure 2, the production control CPU 31a has the same symbols with even numbers of symbols in all rows as decorative figures (design combinations). The jackpot symbol ([222], [444], etc.) of the decorative drawing is determined. In addition, when the big hit A is instructed by the stop symbol designation command for the special figure 1 or the special figure 2 and the big hit A is instructed, the effect control CPU 31a displays all rows of symbols as a decorative figure (design combination). The jackpot symbol ([111], [333], etc.) of the decorative drawing that becomes an odd number of the same symbol is determined. Further, when the short opening big hit or the small hit is specified by the stop symbol designation command for special figure 1 or special figure 2, the effect control CPU 31a uses the big hit of the decorative figure suggesting the probability change as a decorative figure (design combination). The symbol ([121] etc.) is determined.

  On the other hand, the effect control CPU 31a determines a shift symbol (combination) as a decorative drawing when a shift symbol is designated as a special symbol. At this time, the effect control CPU 31a determines an outlier pattern (combination) including the reach symbol as a decoration when the variation pattern for the outlier reach variation is instructed. On the other hand, when the variation pattern for deviation variation is instructed, the effect control CPU 31a determines a symbol (combination) that does not include a reach symbol as a decoration.

  Then, the effect control CPU 31a controls the display content of the effect display device 11 so as to display an image of the symbol variation game based on the decorative drawing based on the image display data. At this time, when the design control CPU 31a inputs a symbol stop command during the symbol variation game based on the decorative drawing, the determined decoration diagram is confirmed and stopped on the effect display device 11, and the symbol variation game based on the decorative diagram is ended. Further, the effect control CPU 31a measures the elapsed time from the start of the game with the start of the symbol variation game by the decorative display of the effect display device 11, and based on the measured time and the image display data, the image is displayed. The image displayed on the display unit GH is switched every predetermined control cycle (for example, every 4 ms).

  In addition, when the opening command, the round command, and the ending command are input in the control of the effect during the big hit game, the effect control CPU 31a selects the corresponding image display data. In addition, in the control of the effect during the small hit game, the effect control CPU 31a selects the corresponding image display data when an opening command, a command for instructing the opening of the big prize opening 19 and an ending command are input. Then, the effect control CPU 31a controls the display contents of the effect display device 11 to execute various effects during the big hit game and the small hit game based on the image display data. Further, the production control CPU 31a measures the elapsed time from the start of these productions along with the start of various productions during the big hit game and the small hit game, and based on the measured time and the image display data. The image displayed on the display unit GH is switched every predetermined control cycle (for example, every 4 ms).

  In addition, when the effect control CPU 31a inputs a probability change command or a change command, the effect control CPU 31a sets information (such as a flag) indicating that the probability change state or the change state has been assigned to the effect control RAM 31c. Then, the effect control CPU 31a stores and maintains the current setting contents in the effect control RAM 31c until the probability change command, the non-changeable command, the change command, and the non-change command are input. The effect control CPU 31a knows whether or not the gaming state is a probability change state or a change state based on the setting contents of the effect control RAM 31c.

  Then, as shown in FIG. 3, the effect control CPU 31a controls the transition of the effect mode in a transition mode corresponding to the trigger of the mode transition when the trigger for the transition of the predetermined mode arrives. The effect control CPU 31a grasps the set effect mode by setting a mode flag (information) indicating the type of effect mode in the effect control RAM 31c. In addition, the effect control CPU 31a controls the display content of the effect display device 11 so that the effect mode indicated by the mode flag is set every time the change game (the symbol change game with decorations) is started. In the present embodiment, the effect control CPU 31a that performs control related to the effect mode functions as a game control means and a mode setting means as control related to the symbol variation game (variation game) by the decoration.

  In addition, the effect control CPU 31a controls the display content of the effect display device 11 so as to cause a right-handed recommended notification effect that prompts the player to make a right-handed game after inputting the variable command. Then, the effect control CPU 31a continuously performs the right-handed recommended notification effect under the condition that the variable speed state is continued. In addition, the effect control CPU 31a controls the display content of the effect display device 11 so that the right-handed recommended notification effect is performed after the opening command is input. Then, the effect control CPU 31a causes the right-handed recommended notification effect to be continuously performed under the condition that the state during the big hit game or the small hit game is continued. In the image display unit GH, “→” and “right” are displayed as images as a right-handed recommended notification effect. Depending on this, it is possible to allow the player to grasp that the right-handed game is recommended as the best game method in the variable state and the game state during the big hit game or the small hit game.

  On the other hand, the effect control CPU 31a provides a left-handed recommended notification effect that prompts the player to make a left-handed game after the non-change command is input or after the probability change mode MF ends after the probability change mode ME ends. The display content of the effect display device 11 is controlled so as to be performed. Then, the effect control CPU 31a continuously performs the left-handed recommended notification effect under the condition after the end of the probability change (crying) mode MF if it is in the non-changeable state or after the end of the probability change mode ME. . Further, the effect control CPU 31a performs the left-hand recommended notification effect only for a predetermined effect time (10 seconds in the present embodiment) and ends it. In the image display unit GH, “←” and “left” are displayed as images as a left-handed recommended notification effect. Depending on this, it is possible to make the player know that left-handed gaming is recommended as the best gaming method in the non-variable gaming state.

  Each of these recommended notification effects is performed in parallel with the symbol variation game by the decorative drawing. However, the recommended notification effect varies, for example, by being performed at the upper part of the image display unit GH without interrupting the symbol variation game. Consideration is given so as not to interfere with the decorative drawings and production.

Next, a configuration for selecting reach determination and a variation pattern in the present embodiment will be described in detail.
In the present embodiment, as shown in FIGS. 7A and 7B, the combination of the reach probability (reach determination value) and the distribution table that are won in reach determination is defined by the first type flag. . The first type flag is defined by the gaming state (during special symbol start processing) in the present embodiment. In the present embodiment, as shown in FIG. 8, the setting mode of the first type flag for each execution count from the previous jackpot is defined by the second type flag as the distribution type. In addition, the second type flag is defined by a combination of the last big hit (special figure) type and the previous hit state in the present embodiment. The second type flag is set in the main control RAM 30c based on the grant of the big hit game, and the setting content is maintained until the next big hit game is triggered. Further, the main control ROM 30b stores a setting table as shown in FIG. 8 in which the setting types of the first type flag defined in the second type flag are tabulated. The main control CPU 30a can identify the first type flag from the number of executions counted in the main control RAM 30c if the second type flag is grasped from the setting table.

  Then, the main control CPU 30a performs the determination using the reach probability defined by the first type flag based on the first type flag defined by the second type flag when performing the reach determination at the time of the special symbol start process. It will be. The main control CPU 30a uses the distribution table defined by the first type flag based on the first type flag defined by the second type flag when selecting the variation pattern during the special symbol start process. You will make a selection. As described above, the main control CPU 30a includes the second type flag corresponding to the scene, the first type flag defined in the second type flag, the reach probability defined in the first type flag, and the first type flag. One variation pattern is selected and determined using the distribution table defined in (1).

Next, the first type flag will be described in detail with reference to FIGS. 7 (a) and 7 (b).
FIG. 7A shows a combination mode of the first type flag for the special figure 1 (first variation game), the reach probability (reach determination value) defined in the first type flag, and the distribution table. Yes. FIG. 7B shows a combination mode of the first type flag for the special figure 2 (second variation game), the reach probability (reach determination value) defined in the first type flag, and the distribution table. Show. In the present embodiment, the reach probability is defined only by the first type flag regardless of the number of the first reserved memory number and the second reserved memory number at the time of the special symbol start process.

  The first type flag [A1] is set when the gaming state (current state) at the time of the special symbol start process is “low probability non-changeable”. As shown in the remarks column, the first type flag [A1] is configured to be used when the effect mode in the special symbol start process is the normal mode MA or the normal latent expectation mode MB. Further, as shown in FIGS. 7A and 7B, the first type flag [A1] is 8/239 (reach determination value is not related to the type of the variable game (special figure 1 and special figure 2)). 8) (reach probability of 0 to 7) and a low probability non-variable short and short allocation table. In the non-variable state, the possibility that the second variation game is played is lower than that in the first variation game, so the reach probability in the first type flag [A1] is the same regardless of the type of variation game. It prescribes.

  In addition, the first type flags [B1] and [B2] are set when the gaming state (current state) at the time of the special symbol start process is “highly accurate unchangeable”. As shown in the remarks column, the first type flag [B1] is configured to be used when the effect mode in the special symbol start process is the normal mode MA or the normal latent expectation mode MB. Further, as shown in the remarks column, the first type flag [B2] is configured to be used when the effect mode at the time of the special symbol start process is the probability change (crying) mode MF. For example, as shown in FIGS. 7A and 7B, the first type flag [B1] is 5/239 (5 types of reach determination values 0 to 4) regardless of the type of the variable game. Are defined as a combination of a reach probability and a sorting table for high-precision non-variable short 1.

  For this reason, in the present embodiment, the combination of the reach probability and the distribution table is different between the first type flags [B1] and [B2] if “highly accurate non-variable”. Yes. Further, in the present embodiment, if “high probability non-variable”, the reach determination by the first type flag [B2] is won by the reach determination compared to the reach determination by the first type flag [B1]. It is comprised so that it may be easy. Further, in the present embodiment, when “high probability non-variable” is set, the reach probability is the same among the first type flags regardless of the type of the variable game. In the non-variable state, the possibility that the second variation game will be played is lower than that in the first variation game. Therefore, the reach probability in the first type flag is defined to be the same regardless of the type of the variation game. Yes.

  In addition, the first type flags [C1], [C2], [C3], and [C4] are defined when the gaming state (current state) at the time of the special symbol start process is “low probability change short”. As shown in the remarks column, the first type flags [C1] and [C2] are configured to be used when the effect mode in the special symbol start process is the latent expectation (80) mode MD. . As shown in the remarks column, the first type flag [C3] is configured to be used when the effect mode at the time of the special symbol start process is the latent expectation (20) mode MC. Further, as shown in the remarks column, the first type flag [C4] is configured to be used when the special symbol start process corresponds to “remaining number announcement fluctuation” to be described later. For example, as shown in FIG. 7A, the first type flag [C2] has a reach probability of 30/239 (30 types of reach determination values of 0 to 29) in the case of the first variation game. Stipulates a combination with a low-accuracy short-distance distribution table. On the other hand, as shown in FIG. 7B, the first type flag [C2] has a reach probability of 60/239 (60 types of reach determination values of 0 to 59) and a low level in the second variation game. The combination with the distribution table for the probability variation is specified.

  For this reason, in this embodiment, if “low probability change”, the combination of the reach probability and the distribution table is the same between the first type flags [C1] to [C3] for the first variation game. On the other hand, the combination of the reach probability and the distribution table is different between these and the first type flag [C4]. Further, in this embodiment, if “low probability change short”, the reach probability is the same for the first variation game regardless of the first type flag. In the variable state, the probability that the first variation game is played is lower than that in the second variation game. Therefore, the reach probability in the first type flag is defined to be the same regardless of the type of the first type flag. ing.

  On the other hand, in this embodiment, if “low probability change short”, the combination of the reach probability and the distribution table is different between the first type flags [C1] to [C4] for the second variable game. It is configured. In the present embodiment, if “low probability change short”, the reach probability is different between the first type flags [C1] to [C3] for the second variable game, but the distribution table is the same. It is comprised so that. Further, in this embodiment, if “low probability change short”, the first type flag [C1] → first type flag [C2], [C4] → first type flag [C3] for the second variable game. In order, it is configured to be easily won by reach determination.

  Further, in the present embodiment, if “low probability change short”, the reach probability is different between the first type flag [C1] except for the first type flag [C1] according to the type of the variable game, and the first in the second variable game. It is configured so that the reach probability does not become lower than that of the floating game.

  In addition, when the game state (current state) at the time of the special symbol start processing is “highly accurate change short”, the first type flags [D1], [D2], [D3], [D4], [D5], [D6 ], [D7] are defined. As shown in the remarks column, the first type flags [D1] to [D3] are configured to be used when the effect mode at the time of the special symbol start process is the probability variation mode ME. As shown in the remarks column, the first type flags [D4] and [D5] are configured to be used when the effect mode at the time of the special symbol start process is the latent expectation (80) mode MD. . As shown in the remarks column, the first type flag [D6] is configured to be used when the effect mode at the time of the special symbol start process is the latent expectation (20) mode MC. As shown in the remarks column, the first type flag [D7] is configured to be used when the special symbol start process corresponds to “remaining number notification fluctuation” to be described later. Then, for example, as shown in FIG. 7A, the first type flag [D1] is a reach probability of 28/239 (28 types of reach determination values from 0 to 27) in the case of the first variation game. Stipulates a combination with a sorting table for high-precision variation 1. On the other hand, as shown in FIG. 7B, the first type flag [D1] is 15/239 (15 types of reach determination values of 0 to 14) and high probability for the second variation game, as shown in FIG. The combination with the sorting table for the probability variation 1 is specified.

  For this reason, in this embodiment, if “high probability change”, the combination of the reach probability and the distribution table is the same between the first type flags [D1] and [D2] for the first variation game. In addition, the combination of the reach probability and the distribution table is the same between the first type flags [D4] to [D6]. In the present embodiment, if “high probability change”, the first type flags [D1] and [D2] or the first type flags [D4] to [D6] and the first type regarding the first variable game. The combination of the reach probability and the allocation table is different between the flag [D3] or the first type flag [D7]. Further, in the present embodiment, if “high probability change short”, the reach probability is the same for the first variation game regardless of the first type flag. In the variable state, the probability that the first variation game is played is lower than that in the second variation game. Therefore, the reach probability in the first type flag is defined to be the same regardless of the type of the first type flag. ing.

  On the other hand, in this embodiment, if “high probability change short”, the combination of the reach probability and the distribution table is different between the first type flags [D1] to [D7] for the second variable game. It is configured. Further, in the present embodiment, if “high probability change”, the reach probability is different between the first type flags [D1] and [D2] for the second variable game, but the distribution table is the same. It is comprised so that. In the present embodiment, if “high probability change”, the reach probability is different between the first type flags [D4] to [D6] for the second variable game, but the distribution table is the same. It is comprised so that. In the present embodiment, if “high probability change short”, the reach probability is the same between the first type flags [D1] and [D4] and the first type flag [ D2] and [D5] have the same reach probability, while the first type flags [D3] and [D7] have the same reach probability. In the present embodiment, if “high probability change”, the first type flag [D1], [D4] → first type flag [D2], [D5] → first type flag for the second variable game. In the order of [D3], [D7] → first type flag [D6], it is configured to be easily won by reach determination.

  Further, in the present embodiment, the “reliability probability” is configured so that the reach probability varies depending on the type of the variable game. Further, in this embodiment, if “high probability change short”, according to the type of the change game, the second change game is compared with the first change game between the first type flags [D1] and [D4]. Thus, while the reach probability is lowered, the reach probability is higher in the second variation game than in the first variation game while the first type flags [D1] and [D4] are excluded. .

Next, the second type flag will be described in detail based on FIG.
FIG. 8 shows the first type defined for the previous big hit (Special Figure 1 / Special Figure 2), the previous big hit condition, and the number of executions since the previous big hit (the number of executions after hit (times)). The setting mode of the flag is shown. In FIG. 8, the second type flag written in parentheses like “([6])” means the second type flag whose jackpot symbol is special figure 2. In FIG. 8, [normal] means normal mode MA, [normal latent] means normal latent expectation mode MB, [latent (20)] means latent expectation (20) mode MC, [ "Hidden (80)]" means latent expectation (80) mode MD, "Probability change" means probability change mode ME, and "Three times of crying" means probability change (cry) mode MF. In the following description, “execution count” means the execution count from the previous big hit.

  And after the end of the big hit game based on the big hit A based on the symbols A and a, that is, the big hit A, the second type flag [5] as the specific distribution type is determined regardless of the hit state. Yes. In addition, after the big hit game based on the big hits D, F, and G, that is, the big hit game based on the big hits D, F, and G, when the hit state is “low probability variation short” or “high probability variation short”, A two-type flag [5] is defined. In addition, after the last big hit is symbol E, that is, after the big hit game based on the big hit E is finished, if the hit state is “high probability unchangeable”, “low probability change short” or “high probability change short” A two-type flag [5] is defined. As shown in the remarks column, the second type flag [5] is displayed when the production mode changes from the probability change mode ME → the probability change (crying) mode MF → the normal mode MA after the previous big hit, that is, the gaming state is The setting type of the first type flag in the case of transition from “high accuracy variation” in the variable state (77 times) → “high accuracy non-variation” in the probability variation state (the remaining 3 times) → “low accuracy non-variation” It prescribes.

  As shown in FIG. 8, the second type flag [5] is set between the first type flag [D1], [D2], [D3], and [D7] between “1 to 77 times” performed in the probability variation mode ME. ] For each execution count. The second type flag [5] indicates that the number of executions performed in the probability variation (crying) mode MF after the probability variation mode ME (variable state (77 times)) having the number of executions “1 to 77” is “ Between “78 to 80 times”, the first type flag [B2] is defined for each execution count. Further, the second type flag [5] indicates that the number of executions performed in the normal mode MA after the end of the probability change (crying) mode MF (probability change state (the remaining three times)) with the number of executions of “78 to 80 times” is “ The first type flag [A1] is defined for each number of executions between “81 times”.

  In the present embodiment, if the second type flag [5], during the probability variation mode ME, the number of executions is “1 to 67”, and most of the second variation game is 15/239 ([D1]). On the other hand, reach determination is performed at 55/239 ([D7]), which is higher than 15/239 ([D1]) every predetermined number of times. In the present embodiment, if the second type flag is [5], the number of executions is “1 to 67 times”, and most of the variation pattern is a distribution table for high accuracy variation 1 ([D1]). On the other hand, the variation pattern is selected by a common variable distribution table ([D7]) every predetermined number of times.

  In the present embodiment, if the second type flag is [5], the first type is a specific number of times of “1”, “23”, “45”, “67”. Flag [D7] is defined. In other words, in the present embodiment, if the second type flag [5], the remaining number of times of the variation game in the probability variation mode ME is the specific number of times (“1 time”, “23 times”, “45 times”, “ The first type flag [D7] is defined in the case of “77 times”, “55 times”, “33 times”, and “11 times” including the 67th variation game. As a result, in the second type flag [5], the first type flag is set every predetermined number of times (22 times in the present embodiment) that the remaining number of times of the variation game in the probability variation mode ME is an odd number. [D7] will be used.

  In the present embodiment, if the second type flag is [5], during the probability variation mode ME, the number of executions is “68-76”, and most of “1-67” is related to the second variation game. Reach determination is performed at 30/239 ([D2]), which is higher than 15/239 ([D1]). Furthermore, in the present embodiment, if the second type flag [5], during the probability change mode ME, the number of executions is “77 times” and the first type flag [68 to 76 times] for the second variable game is [ Instead of using D2], the first type flag [D3] is used. That is, in the present embodiment, if the second type flag is [5], the number of executions is “77 times” in the probability variation mode ME, and 30/239 ([68-76 times] for the second variation game ([ The reach determination is performed at 55/239 ([D3]), which is higher than D2]). In the present embodiment, if the second type flag is [5], the variation number is selected in the distribution table for high-precision variation 1 ([D2]) between the number of executions of “68 to 76”. On the other hand, the number of executions is “77”, and the variation pattern is selected in the distribution table for high accuracy variation 2 ([D2]).

  Further, in the present embodiment, if the second type flag [5], during the probability variation (crying) mode MF, the number of executions is “78 to 80 times”, regardless of the type of the variable game, “1 to 1”. The reach determination is performed at 157/239 ([B2]), which is higher than the reach probability at “77 times”. Furthermore, in the present embodiment, if the second type flag [5] is used, the reach probability at “1 to 80 times” will be obtained during the normal mode MA with the number of executions “81 times” regardless of the type of the variable game. Reach determination is performed at 8/239 ([A1]), which is lower than that. In the present embodiment, if the second type flag is [5], the number of executions is between “78 and 80”, and the distribution table for the high-precision non-variable short / second 2 regardless of the type of the variable game. While the variation pattern is selected in ([B2]), the low probability non-variable distribution table ([A1]) between the execution times of “81-” and regardless of the type of the variation game. The variation pattern is selected at.

  Also, if the previous big hit is symbol B, C, b, c, that is, after the big hit game based on big hit B, C ends, specified if the hit state is “low probability variation short” or “high probability variation short” The second type flag [6] as the distribution type is defined. In addition, after the end of the big hit game based on the symbols b and c, that is, the big hits B and C in the special figure 2, the hit state is “low probability non-variable” or “high probability non-variable”. Even in this case, the second type flag [6] is set. Then, as shown in the remarks column, the second type flag [6] is displayed when the production mode is changed from the latent expectation (80) mode MD to the normal mode MA after the previous big hit, that is, the gaming state is changed. (80 times) “High probability variation” → “Low probability non-variability” is defined in the first type flag setting mode.

  Also, if the previous big hit is symbol H, I, h, i, that is, after the big hit game based on big hit H, I ends, it is specified if the hit state is “low probability variation short” or “high probability variation short” A second type flag [2] is defined as the distribution type. In addition, after the big hit game based on the big hits H and I in the special figure 2 is completed, the hit state is “low probability non-variable” or “high probability non-variable”. Even in this case, the second type flag [2] is set. And as shown in the remarks column, the second type flag [2] is displayed when the production mode transitions from the latent expectation (80) mode MD to the normal mode MA after the previous big hit, that is, after the last big hit. It defines the setting mode of the first type flag when the game state shifts from “low probability variation” to “low probability non-variation” in the variation state (80 times).

  In the present embodiment, the second type flag [6] and the second type flag [2] are different in whether or not they are in a state of probability change, and the player cannot recognize the difference in appearance. Defines the setting mode of the first type flag in the scene where.

  As shown in FIG. 8, the second type flag [6] includes the first type flags [D4] and [D5] between “1 to 80 times” performed in the latent expectation (80) mode MD in the probability variation state. ] And [D7] are defined for each execution count. Further, the second type flag [6] is set in the normal mode MA after the completion of the latent expectation (80) mode MD (variation state in the probability variation state (80 times)) with the execution count of “1 to 80 times”. The first type flag [A1] is defined for each number of executions in the range of “81 times to”. On the other hand, the second type flag [2] is, as shown in FIG. 8, between the first type flag [C1] between “1 to 80 times” performed in the latent expectation (80) mode MD in the non-probability change state. , [C2], [C4] are defined for each execution count. In addition, the second type flag [2] is displayed in the normal mode MA after the completion of the latent expectation (80) mode MD (variation state in the non-probability variation state (80 times)) with the number of executions of “1 to 80 times”. The first type flag [A1] is defined for each number of executions when the number of executions is between “81 times”.

  In the present embodiment, if the second type flag [6], during the latent expectation (80) mode MD in the probability variation state, the number of executions is between “1 to 61” and most of the second variation game is While reach determination is performed at 15/239 ([D4]), reach determination is performed at 55/239 ([D7]), which is higher than 15/239 ([D4]) every predetermined number of times. Further, in the present embodiment, if the second type flag [6], the number of executions is “1 to 61 times”, and most of the variation pattern is a distribution table ([D4]) for the high-precision variable 3. On the other hand, the variation pattern is selected by a common variable distribution table ([D7]) every predetermined number of times.

  Further, in the present embodiment, if the second type flag [6], during the latent expectation (80) mode MD in the probability variation state, the number of executions is “62 to 80 times”, and the second variation game is Reach determination is performed at 30/239 ([D5]), which is higher than 15/239 ([D4]) in most of “1 to 61 times”. Furthermore, in the present embodiment, if the second type flag [6] is used, the reach probability at “1 to 80 times” will be obtained during the normal mode MA with the number of executions “81 times” regardless of the type of the variable game. Reach determination is performed at 8/239 ([A1]), which is lower than that. In the present embodiment, if the second type flag [6] is selected, a variation pattern is selected in the high-definition variable 3 distribution table ([D5]) when the number of executions is “62 to 80”. On the other hand, the variation pattern is selected in the low probability non-variable allocation table ([A1]) between “81 times and”.

  On the other hand, in the present embodiment, if the second type flag [2], the number of executions is “1 to 61” during the latent expectation (80) mode MD in the non-probability change state, and the second variation game is related. In most cases, reach determination is performed at 30/239 ([C1]), while reach determination is performed at 60/239 ([C4]), which is higher than 30/239 ([C1]) every predetermined number of times. Done. In this embodiment, if the probability variation state, it is easy to win the jackpot, so the appearance rate of reach production including the jackpot increases, so if the number of executions is the same, the non-probability state is compared to the probability variation state. Reach determination is performed with a high reach probability. Further, in the present embodiment, if the second type flag [2], the number of executions is “1 to 61”, and most of the change patterns of the low-accuracy variable allocation table ([C1]) are changed. On the other hand, selection is performed, and a variation pattern is selected by a common variable distribution table ([C4]) every predetermined number of times.

  In the present embodiment, if the second type flag [2] is used, the second variation game is executed while the number of executions is “62 to 80 times” during the latent expectation (80) mode MD in the non-probability change state. , Reach determination is performed at 60/239 ([C2]), which is higher than 30/239 ([C1]) in most of “1 to 61 times”. Furthermore, in the present embodiment, if the second type flag [2] is used, the reach probability at “1 to 80 times” will be obtained during the normal mode MA with the number of executions “81 times” regardless of the type of the variable game. Reach determination is performed at 8/239 ([A1]), which is lower than that. In the present embodiment, if the second type flag [2] is selected, the variation pattern is selected in the low-accuracy variable distribution table ([C2]) when the number of executions is “62 to 80 times”. On the other hand, the variation pattern is selected in the distribution table ([A1]) for low-accuracy non-variable shortening between “81 times and after”.

  As described above, in the second type flag [6], the first type flag [D7] is set to the first type flag [C4], and the first type flag [D4] is set to the first type flag [6]. The type flag [C1] is replaced with the first type flag [D5] with the first type flag [C2]. In the first type flags [C1], [C2], and [C4], the reach probability of the first type flag [C4] is not lower than that of the first type flags [C1] and [C2]. For this reason, it tends to approximate the relationship between the first type flags [C1], [C2], and [C4] and the first type flags [D4], [D5], and [D7] to be replaced. As a result, in the present embodiment, the second type flag [2] is configured to be the first type flag setting mode corresponding to the tendency based on the second type flag [6].

  In the present embodiment, if the second type flag [2], [6], the number of executions is a specific number of times “1”, “21”, “41”, “61”. First type flags [C4] and [D7] are defined. That is, in the present embodiment, if the second type flag [2], [6], the remaining number of times of the variation game in the latent expectation (80) mode MD is the above-mentioned specific number of times (“1 time”, “21 times”). ”,“ 41 times ”,“ 61 times ”) and the first type flag [C4 when the game is“ 80 times ”,“ 60 times ”,“ 40 times ”,“ 20 times ”, respectively. ] And [D7]. As a result, in the second type flags [2] and [6], a predetermined number of times (in the present embodiment, 20), the remaining number of times of the variable game in the latent expectation (80) mode MD is a multiple of “20”. The first type flags [D4] and [D7] are used every time.

  In addition, when the previous big hit is symbol B, that is, after the big hit game based on the big hit B in the special figure 1 is finished, if the hit state is “low probability unchangeable” or “high probability unchangeable” A two-type flag [1] is defined. In addition, when the previous big hit is symbol D, that is, after the big hit game based on the big hit D is completed, when the hit state is “low probability unchanging short” or “high probability unchanging short”, the second type flag [ 1] is defined. In addition, after the last big hit is symbol F, that is, after the big hit game based on the big hit F is finished, the second type flag [1] is set when the hit state is “high probability unchanging short”. Then, as shown in the remarks column, the second type flag [1] is displayed when the production mode shifts from the latent expectation (20) mode MD to the normal mode MA after the previous big hit, that is, the gaming state is changed. It defines the setting mode of the first type flag in the case of (20 times) transition from “high accuracy variation” → “high accuracy non-variation” → “low accuracy non-variation”.

  In addition, when the previous big hit is symbol H, that is, after the big hit game based on the big hit H in the special figure 1 is finished, the second type flag [ 0 (zero)] is defined. And as shown in the remarks column, the second type flag [0 (zero)] is displayed when the production mode changes from the latent expectation (20) mode MD to the normal mode MA after the previous big hit, that is, the gaming state is It defines the setting mode of the first type flag in the case of transition from “low probability variation” to “low probability non-variation” in the variation state (20 times).

  In the present embodiment, the second type flag [1] and the second type flag [0 (zero)] are different in whether or not they are in a state of probability change, and recognize the difference in the appearance of the player. The setting mode of the first type flag in a scene where an effect that cannot be obtained is performed is defined.

  As shown in FIG. 8, the second type flag [1] is set between the first type flags [D6] and [D7] between “1 to 20 times” performed in the latent expectation (20) mode MC in the probability variation state. ] For each execution count. Further, the second type flag [1] is set in the normal mode MA after the completion of the latent expectation (20) mode MC (variable state in the probability variation state (20 times)) with the execution count of “1 to 20 times”. The first type flag [B1] is defined for each number of executions between the execution times of “21 to 80 times”. In addition, the second type flag [1] indicates that the number of executions performed in the normal mode MA after the normal mode MA (non-variable state in the probability variation state) with the number of executions “21 to 80 times” is “81 to The first type flag [A1] is defined for each execution count. On the other hand, as shown in FIG. 8, the second type flag [0 (zero)] is a first type flag between “1 to 20 times” performed in the latent expectation (20) mode MD in the non-probability change state. [C3] and [C4] are defined for each execution count. In addition, the second type flag [0 (zero)] is normally set after the completion of the latent expectation (20) mode MC (variation state in the non-probability variation state (20 times)) with the number of executions of “1 to 20 times”. The first type flag [A1] is defined for each number of executions when the number of executions performed in the mode MA is “21 times”.

  In the present embodiment, if the second type flag [1], during the latent expectation (20) mode MD in the probability variation state, the number of executions is between “1-20 times” and most of the second variation game is While reach determination is performed at 100/239 ([D6]), reach determination is performed at 55/239 ([D7]), which is lower than 100/239 ([D6]) only at a specific number of times “1”. Is done. In the present embodiment, if the second type flag is [1], the number of executions is “1 to 20 times”, and the variation pattern is mostly the distribution table for high accuracy variation 3 ([D6]). On the other hand, the variation pattern is selected only by “one time” in the common variable distribution table ([D7]).

  In the present embodiment, if the second type flag [1], during the normal mode MA in the probability variation state, the number of executions is between “21 to 80 times” and “1 to 20” regarding the second variation game. Reach determination is performed at 5/239 ([B1]), which is lower than 100/239 ([D6]) in the majority of times. Furthermore, in the present embodiment, if the second type flag [1] is used, the reach probability at “21 to 80 times” will be obtained in the normal mode MA with the number of executions “81 times” regardless of the type of the variable game. Reach determination is performed at 8/239 ([A1]), which is higher than that. In the present embodiment, if the second type flag is [1], the number of executions is “21 to 80 times”, and the variation pattern in the distribution table for high accuracy non-variable short 1 ([B1]). On the other hand, the variation pattern is selected in the distribution table ([A1]) for low probability non-variation between “81 times” and “.

  In the present embodiment, if the second type flag [0 (zero)], during the latent expectation (20) mode MD in the uncertain change state, the number of executions is between “1-20 times” and the second Most of the floating games are determined by 131/239 ([C3]). On the other hand, in the present embodiment, the second type flag [0 (zero)] is 131 / only at a specific number of times when the number of executions is “1” during the latent expectation (20) mode MD in the uncertain change state. Reach determination is performed at 60/239 ([C4]), which is lower than 239 ([C3]). Furthermore, in the present embodiment, if the second type flag [0 (zero)], during the normal mode MA in the uncertain change state, the number of executions is between “21 times” and “ Reach determination is performed at 8/239 ([A1]), which is lower than 131/239 ([C3]) in most of “1 to 20 times”. In this embodiment, if the probability variation state, it is easy to win the jackpot, so the appearance rate of reach production including the jackpot increases, so if the number of executions is the same, the non-probability state is compared to the probability variation state. Reach determination is performed with a high reach probability. In the present embodiment, if the second type flag [0 (zero)] is used, the number of executions is “1 to 20 times”, and the majority is a low-accuracy variable allocation table ([C3]). While the variation pattern is selected, the variation pattern is selected in the common variation allocation table ([C4]) only once. Further, in the present embodiment, if the second type flag [0 (zero)], the number of executions varies between “21 times” and the distribution table ([A1]) for low probability non-variable shortening. A pattern is selected.

  As described above, the second type flag [0 (zero)] is set in the second type flag [1], with the first type flag [D7] set to the first type flag [C4] and the first type flag [D6]. Is replaced with the first type flag [C3], and the first type flag [B1] is replaced with the first type flag [A1]. In the first type flags [C3], [C4], and [A1], the order of the first type flag [A1] → the first type flag [C4] → the first type flag [C3] is higher. The first type [C3], [C4], [A1] and the first type flags [D6], [D7], [B1] to be replaced tend to have the same tendency. As a result, in the present embodiment, the second type flag [0 (zero)] is configured to be the first type flag setting mode corresponding to the tendency based on the second type flag [1]. .

  In addition, if the previous big hit is symbol C, that is, after the big hit game based on the big hit C in the special figure 1 is finished, if the hit state is “low probability unchanging short” or “high probability unchanging short” A two-type flag [3] is defined. In addition, after the big hit game based on the big hits E and F, that is, the big hit game based on the big hits E and F, the second type flag [3] is set when the hit state is “low probability unchanging short”. It has been. When the previous big hit is symbol G, that is, after the big hit game based on the big hit G is completed, the second type flag [ 3] is defined. Then, as shown in the remarks column, the second type flag [3] is displayed when the production mode is changed from the normal latent expectation mode MB to the normal mode MA after the previous big hit, that is, the gaming state is the non-variable state. The setting mode of the first type flag in the case of transition from “high accuracy non-variable” → “low accuracy non-variable” is defined.

  In addition, when the previous big hit is symbol I, that is, after the big hit game based on the big hit I in the special figure 1, the second type flag [ 4] is defined. Then, as shown in the remarks column, the second type flag [4] is displayed when the presentation mode shifts from the normal latent expectation mode MB to the normal mode MA after the previous big hit, that is, the gaming state after the last big hit. Stipulates the setting mode of the first type flag in the case of “low probability non-variable” in the non-variable state.

  In the present embodiment, the second type flag [3] and the second type flag [4] are different scenes whether or not they are in a state of probability variation, and the player cannot recognize the difference in appearance. Defines the setting mode of the first type flag in the scene where.

  As shown in FIG. 8, the second type flag [3] is “1 to 1” which is performed in the normal latent expectation mode MB in the probability variation state (the normal mode MA in the case of winning the “fall” of the fall lottery on the way). Between “80 times”, the first type flag [B1] is defined for each execution count. Further, the second type flag [3] is set to the normal latent expectation mode MB or normal after the normal latent expectation mode MB or normal mode MA (non-variable short state in the probability variation state) with the number of executions “1 to 80” is completed. The first type flag [A1] is defined for each number of executions when the number of executions performed in the mode MA is “81 times-”. On the other hand, as shown in FIG. 8, the second type flag [4] is performed in the normal latent expectation mode MB in the uncertain change state (the normal mode MA when winning the “fall” in the middle of the fall lottery). The first type flag [A1] is defined for each number of executions between “once”.

  In this embodiment, the second type flag [3] is executed during the normal latent expectation mode MB in the probability variation state (the normal mode MA when winning the “fall” in the middle of falling). The reach determination is performed at 5/239 ([B1]) regarding the second variable game between the number of times “1 to 80”. Further, in the present embodiment, if the second type flag [3], the number of executions during the normal latent expectation mode MB in the probability variation state (the normal mode MA in the case of winning the “fall” in the middle of falling) Between “81 times” and “81 times”, reach determination is performed at 8/239 ([A1]), which is higher than 5/239 ([B1]) in “1 to 80 times”. . Further, in the present embodiment, if the second type flag [3], the fluctuation pattern in the distribution table ([B1]) for the high-precision non-variable short 1 between the number of executions is “1 to 80”. On the other hand, the variation pattern is selected in the distribution table ([A1]) for low probability non-variation between “81 times” and “. In the present embodiment, 5/239 ([B1]) is the lowest reach probability.

  On the other hand, in the present embodiment, if the second type flag is [4], the normal latent expectation mode MB in the uncertain change state (the normal mode MA when winning the “fall” in the middle of falling) is “ The reach determination is performed at 8/239 ([A1]) for the second variation game between “once and once”. In this embodiment, if the probability variation state, it is easy to win the jackpot, so the appearance rate of reach production including the jackpot increases, so if the number of executions is the same, the non-probability state is compared to the probability variation state. Reach determination is performed with a high reach probability. In the present embodiment, if the second type flag [4] is selected, a variation pattern is selected in the low-accuracy non-variable distribution table ([A1]) between the number of executions “1 to”. Is done.

  As described above, the second type flag [4] is set by replacing the first type flag [B1] with the first type flag [A1] in the second type flag [3]. Further, in the second type flag [3], [4], the reach probability cannot be changed between the number of executions “1 to 80 times”. The first type flag corresponding to the tendency based on the second type flag [3] is set.

  For this reason, in this embodiment, even when the big hit game is controlled to the same gaming state, if the second type flag is different, the reach probability in the variable game executed after the big hit game is ended Are changed on the basis of the type of the previous jackpot and the hit state of the previous jackpot. As a result, even when the big hit game is controlled to the same gaming state, if the second type flag is different, the variation pattern selection mode in the variable game performed after the big hit game is finished , Based on the type of the previous jackpot and the last hit state of the jackpot. Also, even if the game state is controlled to be the same after the end of the big hit game, if the second type flag is different, the reach probability and the change pattern of the change game to be performed after the end of the big hit game are selected. Since the aspect is changed, the effect of the change game (especially, the symbol change game with a decorative drawing) is changed.

  Further, in the present embodiment, the control relating to reach determination and selection of the variation pattern after the end of the big hit game is performed based on the first type flag defined for each execution count. As a result, even if the player continues to stay in the same production mode after the end of the jackpot game, if the number of executions is different, the reach probability in the variable game performed after the end of the jackpot game is It is changed based on the number of executions after the end of the big hit game. In addition, even when staying in the same production mode after the end of the jackpot game, if the number of executions is different, the variation pattern selection mode in the variation game performed after the end of the jackpot game Is changed based on the number of executions after the end of the jackpot game. In this way, even when staying in the same production mode after the jackpot game ends, if the number of executions is different, the reach probability in the variable game played after the jackpot game ends and Since the variation pattern selection mode is changed, the effect of the variation game (especially, the symbol variation game using decorative drawings) is changed.

  And in this embodiment comprised in this way, it is prescribed | regulated by 1st type flag [B2] based on 2nd type flag [5] during probability change (crying) mode MF of a probability change state (remaining 3 times). The variation patterns HP116 to HP119 classified into the “special” category can be selected. Further, in the present embodiment, since it is easier to win the losing than the winning probability of the big hit or the small win, the scene of the losing occupies the majority. And, except in the probability change (crying) mode MF in the probability change state (remaining 3 times), except for the latent expectation (20) mode MC, it is easy to become non-winning of reach determination compared to winning of reach determination, so it is off. Among them, a variation pattern for deviation variation without a reach effect is easily selected. Note that, during the latent expectation (20) mode MC, the reach determination is more likely not to be won than in the probability variation (crying) mode MF, so that a variation pattern for deviation variation is selected compared to the probability variation mode MF. It will be easy.

  On the other hand, in the probability variation (crying) mode MF in the probability variation state (the remaining three times), it is easier to reach a reach determination than a non-win in reach determination. The pattern is most easily selected.

  Then, as shown in FIG. 9, the fluctuation pattern HP 118 for the fluctuation reach fluctuation is classified into the “special” category that can be selected during the probability variation (crying) mode MF in the probability variation state (remaining three times) of the present embodiment. The determined variation time is determined to be longer than the variation time determined for any of the variation times defined for each of the variation patterns HP1 to HP3 and HP120 to HP124. In addition, the variation time set in the variation pattern HP 116 for detachment variation classified into the “special” category that can be selected during the probability variation (crying) mode MF in the probability variation state (the remaining three times) of the present embodiment is the variation pattern. It is determined to be longer than any of the variation times determined for each of HP2, HP3, and HP120 to HP124. Further, fluctuation patterns HP120 to HP124 for deviation fluctuation that can be selected in the fluctuation state HP116 and HP118 for fluctuation fluctuation for outlier fluctuation or deviation reach fluctuation that can be selected during the probability variation (crying) mode MF. It is determined to be longer than the fluctuation time set for any of the fluctuation times set for each of the above.

  For this reason, in the variation game for three times in the probability variation (crying) mode MF, a longer period is ensured even in the case of the same variation game for three times than in the other effect modes (particularly in the probability variation mode ME). be able to. As a result, in the limited period of the three-time variation game in the probability variation (crying) mode MF, a period for enjoying the variation game during this period can be secured.

  In addition, as shown in FIG. 10, the production contents by the variation patterns HP 116 and HP 118 that are likely to be selected during the probability variation (crying) mode MF in the probability variation state (remaining three times) ”. In the “listening effect”, in the image display unit GH, as shown in FIG. 11A, after the temporary display of the decorative drawing ([7]) in the left column is stopped, as shown in FIG. This is performed by slowly (slowly) fluctuating so as to ask whether or not to form a reach while displaying the same symbol ([7]) as the left column that has already been stopped and displayed in the column. Subsequently, in the image display unit GH, when forming a reach, as shown in FIG. 11C, the left column and the right column are temporarily stopped and displayed with the same symbol ([7 ↓ 7]) to form the reach. On the other hand, when the reach is not formed, as shown in FIG. 11D, the left column and the right column are temporarily stopped with different symbols ([7 ↓ 8]), and the reach is not formed. The “listening effect” asks whether or not the left column and the right column have the same design. Therefore, if the reach is not formed, the order of change is “1” from the decoration figure that is temporarily displayed in the left column. The subsequent decorative drawing ([8]) is temporarily stopped and displayed. Note that the solid line “↓” in FIGS. 11A to 11I indicates the fluctuation display, and the broken line “↓” indicates that the fluctuation speed fluctuates slowly (slowly) compared to the solid line “↓”. Means. When a variation game based on the variation pattern HP119 for jackpot variation is performed, the image display unit GH is accompanied by a “listening effect”. On the other hand, when a variation game based on the variation pattern HP117 for probability variation suggestion variation is performed, the image display unit GH undergoes a special effect.

  Then, as shown in the remarks column, the production contents by the variation patterns HP 116 and HP 118) are basically the same type as the variation patterns HP 121 and HP 122 that are most easily selected during the probability variation mode ME that will stay until the last minute. It is configured. In the probability variation mode ME, since most of the variation patterns are selected based on the first type flags [D1] and [D2], the variation patterns HP121 and HP122 are the most selected among the variation patterns for the deviation variation. It will be easy to be done.

  Specifically, as shown in FIG. 10, the contents of the effects of the fluctuation patterns HP121 and HP122 are set to “normal fluctuation effects”. In the “normal variation effect”, the image display unit GH temporarily stops and displays the decorative drawing ([7]) in the left column, as shown in FIG. After the temporary display of the pattern ([8]) different from the left column in the row, as shown in FIG. 11 (g), the middle row decoration ([9]) is temporarily stopped to display the decorations of all rows. Confirmed stop display is performed. Further, between the variation patterns HP121 and HP122, the time until the left column that is temporarily stopped and displayed first is temporarily stopped is set to be long in the variation pattern HP122, and after the left column is temporarily stopped and displayed. These aspects are configured so as to have the same aspect.

  The variation patterns HP 116 and HP 118 and the variation patterns HP 121 and HP 122 differ in whether or not “listening effect” is accompanied until the right column is temporarily stopped, that is, the variation rate of the right column is different. Only the difference is made, and other parts are configured to have the same effect. With respect to the effect after the right column is temporarily stopped, the variation pattern HP 116 for deviation variation and the variation patterns HP 121 and HP 122 are performed in the same type, while the variation pattern HP 118 for variation deviation deviation and the variation pattern are used. It is performed in the same kind of mode (reach effect) with HP138 and the like. The effect after the right column is temporarily stopped and displayed is performed in the same type as the variation pattern HP 141 that can be selected during the probability variation mode ME if the variation pattern HP 119 for jackpot variation is used. In the variation game using the variation patterns HP 116 and HP 118 (including HP 119), the image display unit GH displays “remaining 3 times” for the first time in the probability change (crying) mode MF and “remaining 2 times” for the second time. "If it is the third time, the display effect of" Last "is accompanied with each.

  For this reason, during the probability variation (crying) mode MF, not only the effect contents by the variation pattern that can be selected at the time of losing, but also the aspect such as the background image related to the effect mode is set to be the same as the probability variation mode ME. It will be. As a result, during the probability change (crying) mode MF, the player makes an appearance expression as if the probability change mode ME continues on the appearance of the player.

  In addition, as described above, at the start of the probability change (crying) mode MF, it is highly possible that the second reserved memory number has reached the upper limit number or “3” closest to the upper limit number until the start. . For this reason, during the probability variation (crying) mode MF, the second variation game can be performed in the same manner as during the probability variation mode ME in which the second variation game is easy to be performed because it is in the variation state, although it is in the non-variable state. Because of the high nature, the probabilistic mode ME is produced and expressed as if the probabilistic mode ME continues on the appearance of the player.

  In addition, as described above, in the variation game for three times in the probability variation (crying) mode MF, since the time required for one game is likely to be longer than that in the probability variation mode ME that stays just before, the probability variation mode. It is possible to give a feeling that the time required for one game with the ME tends to be long.

  In the present embodiment, the difference between the probability variation mode ME and the probability variation (crying) mode MF is whether or not the gaming state is a shortage state, while the presentation state is a “listening effect” in a variable game. In addition to whether or not a right-handed recommended notification effect is included.

  Further, in the present embodiment configured as described above, the first type flags [C4] and [D7] based on the respective second type flags are defined in the variable game having a specific number of times in the variable state. The variation patterns HP123, HP142, and HP143 that are classified into the “common” category can be selected.

  Then, as shown in FIG. 10, in the variable state, the contents of the effects by the variable patterns HP123, HP142, and HP143 that can be selected in a specific number of variable games are performed in the variable state including the current variable game. It is defined in “Remaining Number Notification Production” that notifies the remaining number of floating games. In the present embodiment, the fluctuation game with the “remaining number notification effect” is “remaining number notification change”. In the “remaining number announcement effect”, as shown in FIG. 11 (h), the image display unit GH displays a symbol variation game with a decorative drawing on the upper right, and is larger than the symbol variation game by “remaining X times (“ X "is the remaining number at that time)". Subsequently, in the image display unit GH, if the variation pattern is HP123, an outlier symbol that does not form a reach is displayed in a fixed stop display, while if it is the variation pattern HP142 or HP143, a reach is formed and a shift is made to reach production. As a result, the off symbol or jackpot symbol forming the reach is displayed in a fixed stop state. Note that the remaining number to be notified in the “remaining number notification effect” is determined in advance for the content to be notified at each specific number of times. For example, in a variation game with the number of executions of “23 times” in the probability variation mode ME, the content of “the remaining 55 times” is predetermined. In addition, when a variation game based on the variation pattern HP128 for probability variation suggestion variation is performed in the “remaining number notification variation”, the probability variation suggestion symbol is confirmed and stopped on the image display unit GH through a dedicated effect.

  For this reason, in the variable state, in the variable game having a specific number of times, the “remaining number announcement effect” is set. Further, during the latent expectation (80) mode MD or the probability variation mode ME, it is set to be accompanied by a “remaining number announcement effect” in a variable game every predetermined number of times (“20 times” or “22 times”). Will be.

  Also, the number of executions before and after the first type flags [C4] and [D7] defined based on the respective second type flags are not higher than those for the second variable game (second type). A first type flag is defined as a reach probability (low for flag [6]). For this reason, in the variable state, in the variable game having a specific number of times, the “remaining number notification effect” is set so as to be more likely to be a reach effect between the second variable games. Further, during the latent expectation (80) mode MD or the probability variation mode ME, the second game is accompanied by a “remaining number announcement effect” in a variable game every predetermined number of times (“20 times” or “22 times”). It is set so as to be more likely to be a reach effect between the floating games.

  In the variable state, the reach probability is defined to be the same before and after the first type flags [C4] and [D7] defined based on the second type flags for the first variation game. . For this reason, it is set so that the appearance level of the reach effect is not changed between the first variable games in the variable game with the specific number of times in the variable state only with the “remaining number notification effect”. It will be.

  Further, in the present embodiment configured as described above, the first type flag [D3] based on the second type flag [5] in the variable game with the last execution count of the probability change mode ME of “77 times” is set. The variation patterns HP 124, HP 144, and HP 145 classified into the defined “common” category can be selected.

  Then, as shown in FIG. 10, the contents of the effect by the variation patterns HP124, HP144, and HP145 that can be selected in the variation game with the last execution number of the probability variation mode ME of “77 times” are changed to the probability variation (cry) mode MF. It is stipulated in “Three crying production of crying” to announce the transition. As shown in FIG. 11 (i), in the “three times crying effect of crying”, as shown in FIG. 11 (i), while displaying the symbol variation game with a decorative figure on the upper right, “Time” is displayed. Subsequently, in the image display unit GH, if the variation pattern HP124, the loss symbol that does not form reach is fixedly stopped and displayed, while if the variation pattern HP144 and HP145, the reach is formed and the flow proceeds to reach production. As a result, the off symbol or jackpot symbol forming the reach is displayed in a fixed stop state. In addition, in the variation game with the last execution count of the probability variation mode ME of “77”, when the variation game based on the variation pattern HP128 for the probability variation suggestion variation is performed, the image display unit GH passes a dedicated effect. become.

For this reason, the probability variation mode ME is set to be accompanied by a “three-time crying effect” in a variation game with “77 times” as the last execution number of the mode.
In addition, the number of executions (“76 times”) immediately before the first type flag [D3] defined based on the second type flag [5] is lower than that for the second variable game (“76”). A first type flag is defined as a reach probability (not high). For this reason, during the probability variation mode ME, in the variation game with the number of executions of “77 times” at the end of the mode, the reach is further increased between the second variation games with the “three-time crying effect”. It is set so that it becomes easy to produce.

  In the second type flag [5], the reach probability is defined to be the same even for the number of executions (“76 times”) immediately before the first type flag [D3] for the first variation game. For this reason, during the probability variation mode ME, in the variation game in which the number of executions at the end of the mode is “77”, only the “three-time crying effect” is included, and the reach is achieved during the first variation game. It is set so as not to change the appearance of the production.

  Next, in the embodiment configured as described above, with respect to the mode in which the variable game is performed, the case where the game is controlled to the variable state after the end of the big hit game is illustrated in FIGS. ) Will be described in detail.

Further, in the following description, the reach probability used in most of each description will be referred to as “base probability”.
First, the case of the second type flags [0 (zero)] and [1] shown in FIG. 12A, that is, the case where the variable game is performed during the latent expectation (20) mode MC will be described. The “base probability” in this case is 30/239 for the first variation game and 131/239 for the second variation game if the second type flag [0 (zero)], while the second type flag If it is [1], it will be 28/239 for the first variation game and 100/239 for the second variation game.

  In this case, “remaining 20 times” is notified at the first execution time. In this case, the number of executions is “1”, the reach probability is lower than the “base probability” (“low”), and the “remaining number notification effect” is set for the second variable game (special drawing 2). After the accompanying variable game is performed, a variable game is performed in which the number of executions is “2 to 20 times” and the reach probability is “base probability”.

  Thus, in the case of the second type flags [0 (zero)], [1], that is, when a variable game is played during the latent expectation (20) mode MC, the reach probability increases with the progress of the number of executions. The aspect which increases in steps is realized.

  On the other hand, in this case, with respect to the first variation game (Special Figure 1), a variation game is performed in which the number of executions is “1” and can be accompanied by “remaining number announcement effect”. ”Is a variation game in which the reach probability is“ base probability ”.

  Next, the case of the second type flags [2] and [6] shown in FIG. 12B, that is, the case where the variable game is performed during the latent expectation (80) mode MD will be described. In this case, if the second type flag [2], the “base probability” is 30/239 for the first variation game and 30/239 for the second variation game, while the second type flag [6]. Then, it becomes 28/239 in the first variation game and 15/239 in the second variation game.

  In this case, the number of executions is “first”, “remaining 80 times”, the number of executions is “21”, “remaining 60 times”, and the number of executions is “41”, “remaining”. “40 times”, “61 times” is executed, and “20 times remaining” is announced. Also, in this case, with respect to the second variation game (Special Figure 2), the number of executions is “1”, the reach probability is higher than the “base probability” (“high”), and the “remaining number announcement effect” is set. After the accompanying variable game is performed, a variable game is performed in which the number of executions is “2 to 20 times” and the reach probability is “base probability”. In this case, the variation game is played with the same tendency as “1 to 20 times” between the execution times of “21 to 40 times” and “41 to 60 times”.

  Also, in this case, after the number of executions is “61” and the reach probability is higher than the “base probability” (“high”), and a variable game that can be accompanied by “remaining number announcement effect” is executed, A variable game is performed in which the number of times is “62 to 80” and the reach probability is not higher than that immediately before and the reach probability is higher than the “base probability”. In the present embodiment, if the number of executions is “62 to 80” and the second type flag [2], the reach probability is the same (“high”) as before, while the second type flag [6]. The reach probability is lower ("medium") than before.

  Thus, in the case of the second type flags [2] and [6], that is, when a variation game is performed during the latent expectation (80) mode MD, the reach probability is set to “base” between the second variation games. While a variable game with “probability” is being played, a variable game with a high reach probability is played every 20 times. In this case, a mode is realized in which the reach probability increases step by step with the progress of the number of executions, except for the variation game that can be accompanied by the “remaining number announcement effect” between the second variation games.

  On the other hand, in this case, for the first floating game (Special Figure 1), the “remaining number notification effect” is executed every 20 times of “1”, “21”, “41”, “61”. ”Is performed, but a variation game is performed in which the number of executions is“ 1 to 80 ”and the reach probability is constant at the“ base probability ”.

  Next, in the case of the second type flag [5] shown in FIG. 12C, that is, after the variation game is performed during the probability variation mode ME, the variation game is subsequently performed during the probability variation (crying) mode MF. The case will be described. In this case, the “base probability” is 28/239 for the first variation game and 15/239 for the second variation game.

  In this case, the number of executions is “1”, “77 remaining”, the number of executions is “23”, “55 remaining”, the number of executions is “45”, "33 times", the number of executions is "67 times" and "the remaining 11 times" is announced. Also, in this case, with respect to the second variation game (Special Figure 2), the number of executions is “1”, the reach probability is higher than the “base probability” (“high”), and the “remaining number announcement effect” is set. After the accompanying variable game is played, the variable game is executed with the number of executions being “2 to 22 times” and the reach probability being the “base probability”. In this case, the variation game is played with the same tendency as “1 to 22 times” between the execution times of “23 to 44 times” and “45 to 66 times”. Also, in this case, after the number of executions is “67” and the reach probability is higher than the “base probability” (“high”), and a variable game that can be accompanied by “remaining number announcement effect” is performed, A variable game is performed in which the number of times is “68-76” and the reach probability is lower than immediately before and higher than the “base probability” (“medium”). Also, in this case, a variable game is performed in which the number of executions is “77”, the reach probability is higher (“high”) than the “base probability”, and the “crying three-time effect” is accompanied. .

  Further, in this case, following the probability variation mode ME, during the probability variation (crying) mode MF, the number of executions is “78 to 80 times” and “77 times” immediately before the second variation game (Special Figure 2) ( A variable game is performed in which the reach probability is significantly higher (“high”) than “1 to 77 times” in the probability variation mode ME.

  Thus, in the case of the second type flag [5], that is, after the variable game is performed during the probability variation mode ME, and subsequently the variable game is performed during the probability variation (crying) mode MF, the second variation is performed. During the game, a variation game with a reach probability of “base probability” is performed, and a variation game in which the reach probability is higher than the “base probability” is performed every 22 times. In this case, a mode is realized in which the reach probability increases step by step with the progress of the number of executions, except for the variation game that can be accompanied by the “remaining number announcement effect” between the second variation games. Further, in this case, a mode is realized in which the reach probability increases stepwise as the number of executions progresses between the second variation games when the number of executions is “68 to 80”.

  On the other hand, in this case, for the first floating game (Special Figure 1), the “remaining number notice effect” is executed every 20 times of “1”, “23”, “45”, “67”. ”Is performed, but a variation game is performed in which the number of executions is“ 1 to 77 ”and the reach probability is constant at the“ base probability ”. Further, in this case, following the probability variation mode ME, during the probability variation (crying) mode MF, the number of executions is “78 to 80 times” and “77 times” immediately before the first variation game (Special Figure 1) ( A variable game is performed in which the reach probability is significantly higher (“high”) than “1 to 77 times” in the probability variation mode ME.

  Thus, in the case of the second type flag [5], that is, after a variable game is performed during the probability variation mode ME, and subsequently a variable game is performed during the probability variation (crying) mode MF, the first variation is performed. In the game, “1 to 80 times” realizes a mode in which the reach probability increases step by step as the number of executions progresses. For this reason, in this case, even if the first variation game (see Fig. 1) is performed during the probability variation (crying) mode MF in the non-variable state, the number of executions during the second variation game progresses. Accordingly, it is possible to realize a mode in which the reach probability is increased.

  In the case of the second type flag [5], that is, after the variable game is performed during the probability change mode ME, and subsequently the variable game is performed during the probability change (crying) mode MF, the image display unit GH A display effect is performed in the manner shown in FIGS. In addition, illustration of the fluctuation | variation of a decoration drawing is abbreviate | omitted in Fig.13 (a)-(i).

  Specifically, as shown in FIG. 13A, in the image display unit GH, a first variation game that can be accompanied by “remaining 77 times” is performed. Then, after 22 times, as shown in FIG. 13B, the image display unit GH executes a 23rd variation game that may be accompanied by “the remaining 55 times”. Subsequently, after 22 times, as shown in FIG. 13C, the 45th variation game that may be accompanied by “the remaining 33 times” is performed in the image display unit GH. Subsequently, after 22 times, as shown in FIG. 13D, the 67th variation game that may be accompanied by “11 remaining times” is performed in the image display unit GH. Subsequently, after 10 times, as shown in FIG. 13E, the image display unit GH performs the 77th variation game that may be accompanied by “3 times of crying”. In the meantime, there may be a reach, a big hit or a small hit. Further, between FIGS. 13A to 13E, “→” and “right” are continuously displayed on the image display unit GH.

  Here, at the start of the 77th variation game, assuming that the second reserved memory number has reached the upper limit (holding in the special figure 2: 4), the second variation game will be performed the 77th time. Thus, the second reserved memory number decreases by 1 and the second reserved memory number becomes “3” (hold in FIG. 2: 3) at the start of the 78th variation game.

  In this case, after the 77th variation game is performed, the variation state is terminated when the variation game ends. When the variable state is terminated in this way, even if the player has finished the right-handed game so far or has finished launching the game ball itself, the second reserved memory number should be “3” or more. Thereafter, it is possible to maintain a situation in which the second variation game that is advantageous to the player can be performed even in the probability variation (crying) mode MF.

  In this case, assuming that the game ball is stopped at the above timing, in the image display unit GH, as shown in FIGS. Then, the second variation game) is performed. Since these reachable games have a reach probability that is significantly higher than the “base probability”, they are likely to be reachable. In this case, the second reserved memory number is decreased by 1 by the 78th second variable game, and the second reserved memory number becomes “2” (special figure 2 hold: 2) at the start of the 79th variable game. When the 79th second variable game is performed, the second reserved memory number is decreased by 1, and at the start of the 80th variable game, the second reserved memory number is “1” (special figure 2 hold: 1). It becomes. In the middle of this, there may be a big hit or a small hit. Also, between FIGS. 13 (f) to 13 (h), the recommended effects are not performed on the image display unit GH, and “remaining 3 times” for the 78th time and “remaining 2 times” for the 79th time. If it is the 80th time, the display effect of “Last” can be performed.

  Subsequently, after the 80th variation game is performed in this case, the probability variation state is terminated when the variation game ends. Then, after the 80th variation game is performed, the variation game in the normal mode MA is performed on the image display unit GH as shown in FIG. In this case, the 80th second variation game is performed in this case, so that the second reserved memory number is decreased by 1 and the 81st variable game is started, the second reserved memory number is “0 ( Zero) ”(Special Figure 2 On Hold: 0 (zero)), it becomes the first variation game. In the 81st variation game, “←” and “left” are displayed on the image display unit GH as shown in FIG.

  For this reason, the probability change state (crying) mode in which the state is changed from the state informed of the probability change state to the end of the change state, and the notification of the change state and the notification is continued even after the end of the change state. The three variation games in the MF are positioned as the last chance (three times of crying) that the variation game is performed in the probability variation state. That is, in such a last chance (three times of crying), the player expects to win a big hit, so that it can be a scene that attracts the player's attention especially during the game.

  And, in such a game, especially when the scene where the player's attention is gathered is reached, if the variable state continues, the profit from the winning ball based on the entering of the gaming ball to the second start winning opening 16 is obtained. There is a possibility that the game ball cannot be concentrated because the game ball is continuously fired in order to acquire the game. On the other hand, in the present embodiment, especially during such a game, when the scene that attracts the player's attention is reached, the variable state is terminated, and the second reserved memory number may be “3” or more at the time of the termination. In this case, the player can safely stop the launch of the game ball by adopting a configuration that does not cause any disadvantage to the player. As a result, the player who stops firing the game ball can concentrate on the three fluctuation games in the probability change (crying) mode MF.

As described above in detail, the present embodiment has the following effects.
(1) Depending on whether the game is controlled to the variable state (80 times) or the variable state (77 times) according to the probability variable state, it is a variation of the game between “80 times” controlled to the probability variable state. It was set as the structure which gives the device which can have. Furthermore, if it is in the non-variable state in the probability variation state (remaining three times), a dedicated distribution table different from that used in the immediately preceding variation state (77 times) (distribution for high-precision unvariable shortness 2) (Table) was designed to make it possible to entertain a unique game with a variation pattern. Then, if the player is interested in putting the game ball into the second start winning opening 16 during the variable state, the player's interest is not in the variable state (the remaining three times). If it is in the variable state, the player's interest can be directed to the specific game in the non-variable state. For this reason, if it is in the non-variable short state in the probability variation state (the remaining three times), it has been configured so as to make it possible to further enjoy the “three times” game during this time. As a result, it is possible to improve the interest of the game during this period by devising the game for a limited period of “80 times” controlled to the probability variation state.

  (2) At the time of switching to the non-variable state in the probability variation state (the remaining three times), if the second reserved memory has reached the upper limit number (“4” in the present embodiment), the variation state is terminated. Even so, the second variation game based on the special-purpose start-up ball that has already been put on hold has a configuration in which the game for “three times” in the probability change state (the remaining three times) can be enjoyed. As a result, even if the variable state is terminated in the middle of the probability change state, it is possible to entertain a unique game during the non-change state in the probability change state (the remaining three times).

  (3) Also, in this embodiment, when switching to the non-changeable state in the probability change state (the remaining three times), if the second reserved memory reaches “3” close to the upper limit number, the change state is A configuration in which a device that can entertain a game of “three times” in the probability variation state (the remaining three times) by the second variation game based on the start holding ball for the special figure that is already held even if it is ended, and did. As a result, even if the variable state is terminated in the middle of the probability change state, an opportunity to entertain a unique game in the non-variable state in the probability change state (the remaining three times) can be suitably reached.

  (4) If it is in the non-variable state in the probability variation state (the remaining three times), the variation time is longer than in the variation state in the probability variation state (80 times) or in the variation state (77 times). Since a variable game is easily performed, a configuration is provided to make it easier for the player to grasp the difference between the game in the variable state but the game in the variable state. Furthermore, if it is in the non-variable state in the probability variation state (the remaining three times), the variation time is longer than that in the probability variation state (80 times) or the variation state (77 times) in the probability variation state. Since the game is easy to be performed, a configuration is provided in which it is possible to easily secure a period during which the game for the probability variation state (the remaining three times) is enjoyed. As a result, it is possible to improve the interest of the game during this period by devising the game for a limited period of “three times” controlled to the non-variable state in the probability variation state (the remaining three times). it can.

  (5) From the aspect of giving the variable state, the player is devised so that the player can grasp the probability variable state. Thereby, a variation can be given to the game while it is controlled to the probable change state depending on whether it is controlled to the change state (80 times) or the change state (77 times). As a result, it is possible to improve the interest of the game during this period by devising the game for a limited period of “80 times” controlled to the probability variation state.

  (6) The start condition is given by detecting the ball entering at the second start winning opening 16 having the open / close blades 17 and the second variable game having a high degree of advantage for the player is preferentially executed. If it is a short state, it was set as the structure which can devise which can produce the condition where the 2nd pending | holding memory | storage number tends to reach | attain an upper limit number, and a 2nd variable game is easy to be performed. Furthermore, if the second reserved memory number reaches the upper limit number when switching to the non-variable state in the probability variation state (the remaining three times), the start suspension ball that has already been suspended even if the variation state ends. By the second variation game based on the above, a configuration is provided in which the game can be enjoyed for “three times” in the probability variation state (the remaining three times). As a result, even if the shortage state is terminated in the middle of the certainty change state, it is possible to entertain a unique game during unassigned control without changing the advantage for the player.

  (7) Regarding the control in the variable speed state (77 times), the control is performed in the variable speed state (77 times) because it is performed only when the jackpot game is in the probability variable state ("high probability variable short"). It will be informed that the state is surely changed. For this reason, in the case of the second variation game, when the end of the big hit game is controlled to the probability variation state, a contrivance that can increase the rate of notification of the probability variation state compared to the first variation game. It was set as the structure to give. As a result, even if the shortened state is terminated in the middle of the probability change state, the player can enjoy the unique game in the non-change state in the probability change state (the remaining three times) without changing the advantage for the player. I can do it.

  (8) While in the variable speed state (77 times), the player can grasp the probability variable state by the probability change mode ME, while in the variable speed state (80 times), the latent expectation (80) mode MD The device is configured to allow the player to grasp that there is a possibility. Further, when the probability variation state ME has already been grasped via the probability variation mode ME, it is controlled from the middle of the probability variation state to the non-variable state, so that the unchanging probability variation state (the remaining 3) Times) game can be given. In other words, in a game where the probability variation mode ME can grasp that it is in the probability variation state, the game characteristics having a period of enjoying the game with interest in the variation game by not giving the variation state from the middle of the probability variation state. Can be granted. On the other hand, in a game in which it is not possible to grasp the probability variation state by the latent expectation (80) mode MD, by providing the variation state for “80 times” controlled to the probability variation state, the benefit of the variation state is achieved. It is possible to give the game characteristics to obtain the maximum. For this reason, it was set as the structure which gives the device which can provide the game property according to the condition of a game. As a result, it is possible to improve the interest of the game during this period by devising the game for a limited period of “80 times” in which the probability is changed.

  (9) The reach probability is determined based on the previous jackpot type and the previous jackpot state. As a result, even in a situation where the game state when performing reach determination is the same, reach determination can be performed with different reach probabilities based on the previous jackpot type and the previous jackpot hit state. For this reason, it is possible to change the reach probability even in a situation where the game state when performing reach determination is the same, and it is possible to play a variable game with a reach probability suitable for the situation.

  (10) In this embodiment, the combination of the reach probability and the distribution table is defined by the first type flag. In the present embodiment, the first type flag is defined by the second type flag for each execution count. Further, in the present embodiment, the second type flag is defined based on the previous jackpot type and the previous jackpot state. For this reason, the reach probability can be changed even in a situation where the game state when the reach determination is made is the same by the second type flag, and a variable game can be played with a reach probability suitable for the situation.

  (11) After the jackpot game is over, the effect mode is set based on the type of the previous jackpot and the last hit state of the jackpot. In addition, the reach probability is determined based on the number of executions in addition to the previous jackpot type and the last jackpot hit state. As a result, even in the situation where the production mode when performing reach determination is the same, reach determination can be performed with different reach probabilities based on the number of executions in addition to the type of previous jackpot and the last hit state of jackpot become. For this reason, it is possible to change the reach probability even in a situation where the effect modes when performing reach determination are the same, and it is possible to play a variable game with a reach probability suitable for the situation.

  (12) With respect to the second variable game, since it is easy to be performed because the rate of entering the second start winning opening 16 can be improved if the variable state is in the variable state, the reach probability in the variable state is set to the previous time. In addition to the type of jackpot and the last hit status of the jackpot, it is determined based on the number of executions. On the other hand, the first variation game is not easily played because the rate of entering the first start winning opening 15 cannot be improved just because it is in the variable state, so the reach in the variable state is not reached. The probability is determined based on the previous jackpot type and the previous jackpot hit state, and is set to the same probability regardless of the number of executions. For this reason, in a game where the first symbol variation game and the second symbol variation game can be performed, the reach probability can be changed even in the situation where the effect mode when performing the reach determination is the same, and such a configuration is changed to the situation. It can be applied to suitable scenes.

  (13) Concerning the first variable game, if not in the variable state, the reach probability is determined based on the number of executions in addition to the type of the previous jackpot and the state of the previous jackpot did. For this reason, in a game where the first variation game and the second variation game can be performed, the reach probability can be changed even in a situation where the effect mode when performing reach determination is the same, and such a configuration is suitable for the situation. Can be applied to the scene.

  (14) In the present embodiment, for the first variation game, if the second type flag [5], the number of other executions based on the number of executions during the probability change (crying) mode MF that is not in the variable state. Different reach probabilities. For this reason, in the present embodiment, since the first variation game is easy to be performed because it is in the non-variable short state, the game property determined during this time is maintained, assuming that the first variation game is performed, for example. can do.

  (15) For the first variable game, if not in a variable state, the reach probability is determined based on the previous jackpot type and the previous jackpot hit state, and is set to the same probability regardless of the number of executions. The configuration includes cases. In addition, regarding the second variable game, if the situation is not in the variable state, the reach probability is determined based on the last jackpot type and the last jackpot hit state, regardless of the number of executions. It was set as the structure defined to the same probability. For this reason, in games where the first symbol variation game and the second symbol variation game can be performed, the reach probability can be changed even in the situation where the effect mode when performing the reach lottery is the same, and such a configuration is changed to the situation. It can be applied to suitable scenes.

  (16) In the present embodiment, the first variation game and the second variation game are executed during the normal mode MA or the normal latent expectation mode MB that is not in the variable state if the second type flag [4]. The same reach probability is set regardless of the number of times. For this reason, in this embodiment, since the second variation game is performed in the normal mode MA or the normal latent expectation mode MB in which the first variation game is easy to be performed because it is in the non-variable short state, Sex can be maintained.

  (17) The reach probability and the distribution table are determined by combining them for each execution count. Accordingly, reach determination can be performed with different reach probabilities based on the number of executions even in the same situation, and variation patterns can be determined with different distribution tables based on the number of executions even in the same situation. For this reason, even when the variation pattern is determined, it is possible to change the effect of the variation game.

  (18) In the present embodiment, the combination of the reach probability and the distribution table is defined by the first type flag. In the present embodiment, the first type flag is defined by the second type flag for each execution count. Further, in the present embodiment, the second type flag is defined based on the previous jackpot type and the previous jackpot state. For this reason, the second type flag can change the effect of the variation game even when the variation pattern is determined in the same situation.

  (19) Configuration based on the second type flags [2], [5], and [6] for increasing the reach probability every predetermined number of times (in this embodiment, every 20 or 22). It was. Thereby, when based on the second type flags [2], [5], and [6], it is possible to prevent the fluctuating game between the number of executions of “1 to 80 times” from being played indifferently.

  (20) In the case of being based on the second type flags [5] and [6] among jackpots A, B, and H having different degrees of advantage for the player, the number of executions is set every predetermined number of times (this embodiment) Then, every 20 or 22 times), the interval for increasing the reach probability is varied. Thereby, the symbol variation game can be performed with an effect suitable for the type of jackpot.

  (21) Then, in the big hit A, the predetermined number of times that the reach probability is increased based on the second type flag [5] (in this embodiment, “22 times”) is the second type flag [ 2] and [6], the configuration is larger than the predetermined number of times (in this embodiment, “20 times”) in which the reach probability is increased. As a result, after the big hit game is over, regardless of the degree of advantage, it is possible to prevent the fluctuating game between the number of executions of “1 to 80 times” from being played indifferently. When the previous big hit is especially big hits B and H, the interval in which the reach probability increases is shortened to prevent the fluctuating game between the number of executions of “1 to 80 times” from being played indifferently. It is possible to make ingenuity to enhance the effect.

  (22) After the big hit A that controls to the same gaming state regardless of the hit state, the same second type flag is set regardless of the hit state. Thereby, it is possible to set a combination of the reach probability and the allocation table in accordance with the game performance after the big hit A is finished (in this embodiment, the probability variation mode ME).

  (23) After the big hit A (second type flag [5]) ends, different reachability is imparted by changing the reach probability setting mode in the middle (in this embodiment, “67 times”). The configuration. Thereby, it can contribute to prevention of the rutiness by the game property after the end of the hit game based on the big hit A.

  (24) A configuration in which the second type flag is made different according to the gaming state given by the big hits B and H after the winning game based on the big hits B and H controlled to different gaming states according to the hit state. It was. Thereby, it is possible to set a combination of the reach probability and the distribution table according to the game characteristics after the end of the hit game based on the big hits B and H.

  (25) After the winning game based on the big hits B and H is finished, the second type flag is made different according to the mode of giving the variable state. In the case of the variable state (80 times), the second type flag [6] is set to prevent the fluctuating game between the number of executions of “1 to 80 times” from being played indifferently. . On the other hand, in the variable speed state (20 times), by setting the second type flags [0 (zero)], [1], the player's sense of expectation is gained as the game progresses for a short time. Can do. Thereby, it is possible to set a combination of the reach probability and the distribution table according to the game characteristics after the end of the hit game based on the big hits B and H.

  (26) After the big hit based on the big hits B and H (second type flag [2], [6]), in the case of the variable speed state (80 times), it is halfway (in this embodiment, “62 times -") It was set as the structure which gives different game property by varying the setting aspect of reach probability. As a result, it is possible to contribute to prevention of rutiness due to game characteristics when the big hits B and H are finished in a variable state (80 times).

  (27) After the big hits B and H (second type flag [0 (zero)], [1]) are finished, after the changing state (20 times), the changing state is changed (80 times). Until the “21 to 80 times” in which the short state has been given elapses, the reach probability is set to be lower than in the case of the variable state (80 times). In addition, after the big hits B and H (second type flag [0 (zero)], [1]) are finished, and after the changing state (20 times), the changing state is changed if the changing state (80 times). Until the “21 to 80 times” to which the state was given elapses, a distribution table different from that in the variable state (80 times) is determined. As a result, after the shortened state (20 times) is completed, it is possible to prevent the player from expecting the player's sense of expectation due to reach, while shortening the period until the next big hit or small hit.

  (28) After the end of jackpot B, H (second type flag [2], [6]), after the end of the variable state (20 times), if the variable state (80 times), the variable state is After the given “21 to 80 times”, the reach probability is determined to be higher than before, and a different allocation table is used. As a result, after the shortening state (20 times) is completed, if the probability variation state is continued, the probability variation state is continued, but since it may not be so, the player is prevented from having excessive expectations due to reach. can do. On the other hand, after the short-term change state (20 times) is finished, even if it is in the probable change state, the expectation for the next big hit or small hit can be held after the probable change state is ended.

  (29) After the end of the big hit A (second type flag [5]), the predetermined number of times that the reach probability increases (in this embodiment, “22 times”) is the big hit B, H (second type flag [2] ], [6]), the configuration is larger than a predetermined number of times (in this embodiment, “20 times”) in which the reach probability increases. As a result, regardless of the degree of advantage of the big hit, it is possible to prevent the fluctuation game between them from being played in an indefinite manner. Can be devised to strengthen the effect of preventing the inadvertently performed.

  (30) After the jackpot game is over, a configuration including jackpots C and I, in which a change state (80 times) is given and a change state is not given in some cases. Thereby, even if it does not change the ratio of big hits B and H, the appearance ratio of the situation (shortening state (80 times)) similar to the big hits B and H can be increased. On the other hand, when the variable state is not given, a low reach probability is set as compared with other cases, so that it is possible to prevent the player from feeling uneasy about the player's expectation due to the reach, while reducing the period until the next big hit or small hit. It can be devised to shorten even a little. And when a variable state is not provided, especially if it is a big hit C, it is more effective because it determines the lowest reach probability.

  (31) After the jackpot game is over, the constitution includes jackpots D and F which may be given a variable state (20 times) and may be given a variable state (77 times). Thereby, even if it does not change the ratio of big hits B and H, the appearance ratio of the situation (shortening state (80 times)) similar to the big hits B and H can be increased. On the other hand, when the variable state is not given, it is possible to increase the variation of the game property by realizing the game property different from the big hits B and H.

  (32) After the jackpot game is over, a configuration including jackpots E, F, and G, in which a variable state (77 times) is given and a variable state is not given in some cases. Thereby, even if it does not change the ratio of big hit A, the appearance ratio of the situation (shortening state (77 times)) similar to this big hit A can be increased. On the other hand, when the variable state is not given, it is possible to contribute to the increase in the variation of the game property by increasing the appearance ratio of the situation similar to the big hits C and I.

  (33) The reach probability and the distribution table are determined by changing the combination mode for each second type flag. As a result, even when the type of the previous big hit is the same, the change contents of the change game can be determined in a combination manner of different reach probabilities and distribution tables according to the previous hit state. For this reason, even when the variation content of the variation game is determined in the same gaming state, it is possible to bring about a change in the production of the variation game.

  (34) The second type flag can be changed for each type of jackpot even when the jackpot game is started from the same gaming state. Thus, by using the second type flag, even when the big game ends after the end of the same gaming state, it is possible to play a variable game with a suitable effect for each type of big game.

  (35) After the big hit game is finished, the number of times of changing to the variable state can be changed depending on the type of the big hit even though the game is started from the variable state. In such a configuration, by using the second type flag, even when the big hit game is started from the variable speed state, a variable game can be played with a suitable effect for each big hit with a different number of times of changing to the variable speed state. It can be carried out.

  (36) The interval at which the reach probability increases based on the number of executions in the second type flags [2], [5], and [6] (in the present embodiment, “20 times” or “22 times”) is a variable state. The remaining number of times is set to have a certain rule. Thereby, the entertainment of the game of this period can be improved by devising the game of the limited period which becomes a variable state.

  (37) For big hits, depending on the state of hit, “high accuracy non-change”, “high accuracy change” in the change state (20 times), and “high accuracy change” in the change state (77 times) In addition, each game state is provided with a jackpot that associates any one of the normal latent expectation mode MB, the latent expectation (20) mode MC, and the probability variation mode ME. As a result, in the case of winning consecutively such a big hit, “high-precision unchanging / shortening” → shortening state (20 times) “high-predicting short / short” → shortening state (77 times) “ In accordance with the gradual transition of the gaming state such as “highly accurate change short”, the effect mode also shifts in stages such as the normal latent mode MB → latent expectation (20) mode MC → probable change mode ME. As a result, the transition of the production mode can be diversified even if the same type of jackpot is continuously won.

  (38) For big hits, depending on the state of hit, “high accuracy non-change”, “high accuracy change” in variable state (20 times), and “high accuracy change” in variable state (77 times) In addition, each game state is configured to have only one type of jackpot that associates any one of the normal latent expectation mode MB, the latent expectation (20) mode MC, and the probability variation mode ME. . As a result, the transition of the production mode can be diversified even if the same big hit F is continuously won.

  (39) The big hit is configured to have the big hits B and H that are controlled to the “low probability change short” in the variable speed state (20 times). As a result, if it is difficult to grasp the difference in appearance with respect to the “high-precision variation” in the short-distance state (20 times) and the short-distance state by winning the big hit B, H, the short-distance state ( 77) “High accuracy change short”. For this reason, even if the shift state (20 times) “high probability variation short” or “low probability variation short” is shifted by the big hit B, H, if the big hit F is won, the effect mode also shifts. As a result, the transition of the production state can be diversified even when another big hit (especially big hit B, H) is sandwiched between the same type of big hit (especially big hit F).

  (40) When winning consecutively for big hit F, the shift state (77 times) that shifts from the “high accuracy change” in the change state (20 times) shifts from “high accuracy non-change”. It was set as the structure given during the variation | change game of the large number of times compared with a variable state (20 times). As a result, when winning continuously in the big hit F, the state of change is not changed from “high probability unchangeable” to “20 times” in accordance with the progressive transition of the game state. The “high-precision variation” in the variation state (20 times) is “high-precision variation” → “77 times”, and “high-precision variation” in the variation state, which is the variation state) The transition is advantageously made in stages. As a result, even if the same type of big hit (especially big hit F) is continuously won, the change state can be changed and diversified.

  (41) “High probability variation” or “low probability variation” in the variation state (20), that is, in the latent expectation (20) mode MC, the variation state ends before “80 times” in the probability variation state. A game that can be played. Also, in the variable state (77 times), “highly accurate change short”, that is, in the probability change mode ME, the state of probability change is large as compared with “20 times”, but the variable state is changed before “80 times”. The game characteristics can be finished. As a result, when controlled to the latent expectation (20) mode MC, during the control, not only the expectation of the probability variation state is expected, but also the expectation of the probability variation state is continued after the end of the control. You can hold them. In addition, when controlled to the probability variation mode ME, not only is the expectation for the next jackpot during the control, but also the expectation for the next jackpot is continued after the end of the control. Can do. As a result, even if the same type of big hit (especially big hit F) is continuously won, the game characteristics can be suitably enjoyed by the player by diversifying the transition of the production mode.

  (42) The configuration is controlled to the normal mode MA after the end of the variable state accompanying the end of the latent expectation (20) mode MC or the latent expectation (80) mode MD or after the end of the normal latent expectation mode MB. . As a result, in any case, after the end of the characteristic production mode, the normal mode MA is controlled. Therefore, even in the normal mode MA, expectation can be expected for the probability variation state. As a result, even if the same type of hit (especially the big hit F) is continuously won, the game characteristics can be suitably enjoyed by the player by diversifying the transition of the effect mode.

In addition, the said embodiment can be actualized in another embodiment (another example) as follows.
In the present embodiment, the second type flags [2], [5], and [6] may be configured such that the reach probability increases step by step as the game progresses. For example, in the second type flags [2] and [6], the reach probability of 16/239 is “1 to 60 times” and the reach probability of 32/239 is “76 to 75 times”. The reach probability of 157/239 is determined at “˜80 times”.

  In the present embodiment, the “remaining number announcement effect” may change the effect content, and the number of times that the reach probability increases every predetermined number of times, and an effect different from the number of other executions may be performed. What is necessary is just to be comprised so that it may come out. In addition, the “crying three times linking effect” may change the content of the effect, and any configuration that allows the transition to the probability change (crying) mode MF may be grasped. It may be performed at the end or at the start of the probability change (crying) mode MF. On the other hand, there is no need to set up a dedicated floating game for performing the “remaining number announcement effect” or the “three-time crying effect”. You may make the same production as the number of times.

  In the present embodiment, in the variation game using the first type flags [C4], [D3], and [D7], a predetermined dedicated variation pattern may be determined regardless of the reach determination result. . In this case, only the content of the fixed stop display is different between the time of the loss and the time of the reach, and the variable game with the same effect content up to the final stop display is performed.

  In the present embodiment, it is possible to share the reach probability and the combination mode of the distribution table regardless of whether or not the probability variation state. In this case, the second type flag may be shared. For example, in the scene where the second type flag [2] is set, the second type flag [6] is set instead.

  In the present embodiment, it is sufficient that the second variation game is more advantageous to the player than the first variation game, and the degree of advantage may be defined only with a winning ball that can be obtained with a big hit, or a big round with a prescribed round It may be determined by a number. In this case, what is necessary is just to comprise so that the jackpot which made the prescribed | regulated round number differ may be included.

  In this embodiment, the reach probability may be different based on the number of reserved memories at the time of execution of the variable game. In this case, the reach probability may be based on the sum of the numbers of reserved memories, or the number of individual reserved memories. May be based on Also, in this case, especially in the variable state where importance is attached to the game characteristics based on the reach probability, by adopting a configuration based on the sum of the numbers of reserved memories, the reach determination is performed with a desired reach probability at a high rate. obtain.

  In the present embodiment, the variable state (77 times) can be given even in the non-probable state, or the short state (80 times) and the short state (20 times) can be given only in the probable state. . These shortened states can also include the case of giving only in the non-probable state.

  In the present embodiment, the variation times of the variation patterns HP 116 and HP 118 may be changed. However, it is preferable that the variation pattern HP118 is longer than HP120 to HP120.

  In the present embodiment, the variation patterns are classified for each category, but can be configured to be selectable regardless of the category or the gaming state. Even in such a case, if the distribution table is defined in association with the game state (effect mode) by the first type flag, the effect associated with the game state (effect mode) may be performed. it can.

  In the present embodiment, during the probability variation (crying) mode MF, the same variation pattern as in the probability variation mode ME may be selectable, or the same distribution table may be defined. That is, during the probability variation (crying) mode MF, the probability variation mode ME and the variation state may be the same except for whether or not the variation state. Further, the same variation pattern as in the probability change (crying) mode MF and in the latent expectation (80) mode MD may be selectable. Further, during the probability change (crying) mode MF, the reach probability may be the same as or lower than the probability change mode ME and the latent expectation (80) mode MD. On the other hand, during the probability change (crying) mode MF, it may be set so that a dedicated effect (the effect related to the effect mode and the variable game) different from the other effect modes also appears.

  -In this embodiment, if the number of times of the variable game that becomes the probability change (crying) mode MF is less than or equal to the upper limit number of the second reserved memory number, for example, it may be changed to "4 times", "2 times", etc. it can. In accordance with this, the number of probability variation states and the number of variation states (77 times), that is, the number of times of performing the shortening giving control are changed and adjusted. On the other hand, the number of times of the change game that becomes the probability change (crying) mode MF can be changed to be equal to or more than the upper limit number of the second reserved memory numbers or the sum of the upper limit numbers of the respective reserved memory numbers.

  -In this embodiment, you may change the number of times of a probable change state, and change the number of times of a change state according to this. For example, if the number of times of the probable change state is “50”, the number of times of the change state by the normal application control is set to “50”, and the number of times of the change state by the short application control is set to “47 times”. To "". Also, for example, by setting 10,000 times (the number of times that a big hit can be won in the probability changing state), the probability changing state may continue substantially until the next big hit. In addition, the number of times of changing state can be set to the same regardless of the type of jackpot.

  In the present embodiment, in the variable state, if the variable game has any one of the function of shortening the variation time of the variable game and the function of improving the pitch rate to the second start winning opening 16 Good. In addition, the improvement of the entrance rate to the second start winning opening 16 has one of a function of increasing the opening time and the number of times of opening and closing the blade 17 and a function of shortening the fluctuation time of the usual game. It only has to have.

  -In this embodiment, it can also be realized with specifications that do not control to the uncertain change state after the end of the big hit. Moreover, regarding the variable state, it can be realized by a specification in which the variable state (20 times) is not set, that is, the latent expectation (20) mode MC is not set.

  In the present embodiment, regarding the effect mode, the normal latent expectation mode MB can be not set, and more types of effect modes can be set. In the normal mode MA, the non-probability variation state can be determined. In addition, regarding the effect mode, the condition for ending the effect mode may be arbitrarily changed, all may adopt a falling lottery method, or the number of stays may be determined in advance.

  In the present embodiment, the type of jackpot is changed in accordance with the change in the specifications of the above-described shortage state and production mode. For example, the big hits D to F may not be selectively provided, or the big hits B and H may be set to a non-changing state (0 (zero) times) instead of the changing state (20 times). . In addition, it is possible to have a specification that does not provide a small hit, and in this case, by including a big hit that gives an uncertain change state in a short open big hit, it is possible to secure a latent game characteristic. In addition, it is only necessary to select whether or not to include each jackpot according to the specifications.

-In this embodiment, it is good also as a specification which does not provide an upper limit number for the reserved memory number for special figures, and it is also possible to change the upper limit number of the reserved memory number for special figures.
In the present embodiment, it may be configured not to include a case where the reach probability is the same regardless of the number of executions for each variable game after the end of the big hit game. On the other hand, in the variable state, regarding the first variable game, the reach probability may be the same regardless of whether the variable state is given, whether it is a certain variable state, or the number of executions. In the non-variable state, the reach probability may be set to be the same regardless of whether or not the second variable game is in a probable state and the number of executions.

  In the present embodiment, the left-handed game can be realized in the recommended specification even during the variable state, and can be realized in the sequentially variable specification in which each variable game is played in the order in which the starting conditions are established. In such a specification, since the first variation game can be played even in the variable state, a configuration in which the reach probability is the same regardless of whether it is the first variation game or the second variation game. preferable. In this case, the reach probability determined in the first variation game of the present embodiment is adopted in the non-variable state, while the variable probability state is determined in the second variation game in the present embodiment. The reach probability will be adopted.

  In the present embodiment, the reach probability and the distribution table may be defined based on the previous jackpot type and the last jackpot hit state, and may not be defined for each execution count.

  -In this embodiment, if the production mode is set based on the type of the last jackpot and the last hit state of the big jackpot, the reach probability and the distribution table are the same if the production mode is the same. It may be specified.

-This embodiment may be implement | achieved by the specification which does not set production mode.
In the present embodiment, the first type flag and the second type flag may be configured to define only the reach probability, and the distribution table may be configured to depend on the gaming state at that time.

  In the present embodiment, the reach probability does not have to be lowest when the end of the big hit C is in the non-variable state, whereas the reach probability is lowest when the end of the big hit I is in the non-variable state. You can also In accordance with this, the distribution table may be different or determined identically.

  In the present embodiment, during the probability variation mode ME, an interval in which the reach probability is increased every predetermined number of times as compared with the latent expectation (80) mode MD (interval defining the first type flags [D7] and [C4]) May be set short, or may be set the same between them. In other words, the interval at which the reach probability increases every predetermined number of times does not have to have a fixed rule for the remaining number of executions of the variable game performed in the variable state. On the other hand, in the probability variation mode ME, in the latent expectation (80) mode MD, it is not necessary to adopt a configuration in which the reach probability is increased every predetermined number of times, and the reach probability is decreased every predetermined number of times. You can also In accordance with this, the distribution table may be different or determined identically.

  -In this embodiment, when the big hits B, H after the end of the change (20 times), even if the reach probability is lowered with the progress of the game, or the same regardless of the progress of the game Good. Also, when the big hits B and H are finished in the variable state (20 times), the reach probability is higher after the short state (20 times) than in the short state (20 times). The number of executions may be “81 times”, and the reach probability may be lower or the same as compared to “21 to 80 times”. In accordance with this, the distribution table may be different or determined identically.

  -In this embodiment, when the big hits B and H are finished after the change (80 times), it is not necessary to adopt a configuration in which the reach probability increases every predetermined number of times. In addition, when the big hits B and H are finished after the change (80 times), the number of executions is “62 to 80 times”, which may be higher or the same as “61 times”. It may be lower or the same as the previous “42 to 60 times”.

  In the present embodiment, after the big hit A ends, the reach probability may be lowered with the progress of the game, or may be the same regardless of the progress of the game. Further, after the end of the big hit A, the reach probability may be made higher or the same as that of the variable state (20 times) after the variable state (20 times), and the number of executions may be “81 times”. The reach probability may be set to be lower or the same in “˜” compared to “21 to 80 times”. In accordance with this, the distribution table may be different or determined identically. In addition, after the end of the big hit A, the number of executions is “68 to 76 times”, which may be higher or the same as “67 times”, and compared with the previous “46 to 66 times”. It may be low or the same.

  In the present embodiment, in the big hit F, if the hit state is “highly accurate non-changeable”, a changed state (80 times) may be given. That is, as a gaming state, when winning continuously in the big hit F, it is only necessary to have a configuration in which the gaming state and the production mode can be changed in stages according to the winning, and it is not always promoted in the middle of the change. It does not have to be. Further, for example, in the big hit D, if the hit state is “low probability non-changing”, a changing state (20 times) may be given. For example, in big hit A, you may make it change the provision aspect of a variable state according to the state at the time of a hit. Further, for example, in the big hits B and H, the giving state of the variable state may be made the same regardless of the hit state.

  In the present embodiment, only one type of big hit F that is a special hit is set, but a plurality of big hits that act in the same way as the big hit F can be set. Thereby, it is possible to suitably diversify the transition of the production mode after the succession of similar big hits.

  -In this embodiment, the reach probability prescribed | regulated to a 1st type flag may be changed within the range which can show | play the effect of this embodiment. Further, the type of variation pattern to be distributed in the distribution table defined by the first type flag may be changed within a range in which the effect of the present embodiment can be achieved.

-In this embodiment, the falling lottery may set a difference depending on whether or not the probability variation state, for example, if the probability variation state is set to be more difficult to win "falling" compared to the non-probability variation state To do.
In the present embodiment, the information on the first type flag and the second type flag can be grasped by the CPU 31a for effect control. As a result, it is possible to stabilize the production mode and the production control.

In the present embodiment, a right-handed recommended notification effect or a left-handed recommended notification effect can be performed during the probability change (crying) mode MF.
The present embodiment can be realized in a specification that does not have either a probability change state or a change state, or can be realized in a specification that does not have any of these. Moreover, when it does not have a variable state, it does not need to be equipped with a normal electric accessory.

  In the present embodiment, the effect display device 11 is a liquid crystal type, but it may be a dot matrix type or a 7 segment LED type display device, or a mechanical type display device such as a drum type.

  The various effects (effect modes, etc.) in the present embodiment are not limited to those performed by the effect display device 11, and may be performed by speakers or lamps, or effect means dedicated to various effects (effect modes, etc.). May be provided separately.

  -Although this embodiment was actualized in the pachinko game machine using two special figures, you may materialize in the pachinko game machine which draws a lottery aspect using one special figure. In this case, with respect to the reach probability, the reach probability determined in the first variation game of the present embodiment is adopted if it is a non-variable short state, while the reach probability is adopted in the second variation game of the present embodiment. The specified reach probability is adopted.

  -In this embodiment, although it embodied in the pachinko gaming machine using a special figure and a decoration drawing, you may materialize in the pachinko gaming machine using only a special figure. In this case, the special figure can be a design for production.

  In this embodiment, the special symbol stop symbol designation command may be a command indicating a symbol (special symbol) to be displayed on the special symbol display devices 12a and 12b in the symbol variation game, and the type of jackpot is specified. Any command can be used as long as it indicates what can be done. The lottery and small lottery results and the types of big and small hits can be specified from the variation pattern. In this case, the variation pattern designation command may also indicate the lottery or small lottery result and the type of big or small hit.

  In the present embodiment, a sub-control board that comprehensively controls various effects can be newly provided between the main control board 30 and the effect control board 31. In the sub control board, a part of the process executed by the effect control board 31 (effect control CPU 31a) can be performed.

  -You may mount this embodiment in the 1 type, 2 types mixed pachinko game machine. The first type pachinko game machine is a pachinko game that will be a big hit when a change in the symbol starts when the game ball enters the start prize opening and the symbol combination of the predetermined symbol is displayed in a fixed stop state. Point to the machine. In addition, the second type pachinko gaming machine is, for example, that a special electric accessory is released when a game ball enters a start winning opening, and a game is played in a special area (so-called V zone) in the electric accessory. This refers to a pachinko machine that wins when the ball wins.

Next, a technical idea that can be grasped from the above-described embodiment and another example (modification) will be additionally described below.
(A) The percentage controlled by the shortening grant control among the hits after the end of the winning game in the second symbol variation game is controlled to the high probability state is higher than that in the first symbol variation game. It is comprised so that the said advantage may be prescribed | regulated by the ratio notified that it is the said high-probability state by performing the said shortening provision control.

  MA to MF ... production mode, SW1, SEW2 ... start switch, SW4 ... gate switch, 11 ... production display device, 12a ... first special symbol display, 12b ... second special symbol display device, 13a ... first special symbol hold Display device, 13b ... second special symbol hold display device, 14 ... normal symbol display device, 15 ... first start winning port, 16 ... second starting winning port, 19 ... large winning port, 20 ... normal symbol differential game, DESCRIPTION OF SYMBOLS 30 ... Main control board, 30a ... Main control CPU, 30b ... Main control ROM, 30c ... Main control RAM, 31 ... Production control board, 31a ... Production control CPU, 31b ... Production control ROM, 31c ... Production Control RAM.

Claims (3)

A first starting means, when the game ball the ball entrance port comprises a second starting means having an opening and closing mechanism for varying the state easy and ball entrance hard state ball entrance, was won per extraction election Wins the winning means after the end of the symbol variation game, and the winning probability of the winning lottery is higher than the low probability state until the specific number of symbol variation games is executed after the end of the winning game It is controllable to a high probability state, and the time per unit time at which the game ball is likely to enter the upper limit from the end of the hit game until the specific number of symbol variation games is executed is higher than the non-special state In the gaming machine that can be controlled to increase special state ,
A variation content determining means for determining the variation content of the symbol variation game is provided.
Is constructed as gaming state after the end of this Ri game is controlled based on the type of per,
The gaming state is a combination of whether or not the high probability state and whether or not the special state,
The type of pre-Symbol per a gaming state when the winning in the per drawing, the game information based on the set,
Reach effect is achieved in the symbol variation game executed at the time of entering the second starting means with a probability corresponding to the game information and the number of symbol variation games executed after the end of the winning game. Configured to run,
In the symbol variation game executed when triggered by entering the second starting means when the special state is controlled up to the execution of the specific number of symbol variation games after the winning game is finished the probability that reach effect is executed, varies according to the number of symbol variation game that is executed after the end of per game,
In the case where the special state is controlled with the upper limit from the end of the winning game to the execution of the specific number of symbol variation games being executed, the variation content determining means is executed after the game information and the winning game is completed. Based on the distribution mode according to the number of times of the symbol variation game, the variation content of the symbol variation game that is executed upon entering the second starting means is determined,
When the number of symbol variation games executed after the winning game has reached the number of times of switching before reaching the specific number of times, the symbol variation executed upon entering the second starting means While the probability that the reach effect is executed in the game is not switched, the distribution mode is changed when determining the variation content of the symbol variation game that is executed upon entering the second starting means. A gaming machine. According to the game information and the number of symbol variation games executed after the end of the winning game, it is possible to specify information different from the game information,
2. The game according to claim 1, wherein information different from the game information is associated with a probability that a reach effect is executed in a symbol variation game executed when a ball enters the second starting means. Machine. According to the game information and the number of symbol variation games executed after the end of the winning game, it is possible to specify information different from the game information,
The information different from the game information is associated with the distribution mode when determining the variation content of the symbol variation game executed when the second starting means is entered. Or the gaming machine according to claim 2.