JP5076644B2 - Pachinko machine - Google Patents

Description

  The present invention relates to a pachinko gaming machine including a symbol display on which a video of a symbol game for displaying each of a plurality of identification elements in a variable state and a variable stop state in order.

In the pachinko gaming machine, the vertically long identification element display areas are set in three rows in the middle left and right, and the identification elements are displayed in the identification element display areas in the respective columns based on the game balls entering the starting opening. There is a configuration in which variable display is performed in three middle and lower columns. In the case of this configuration, it is determined whether or not a big hit is based on the game ball entering the start opening, and if it is determined that a big hit, the middle and middle rows in the identification element display area in the left row When each of the identification elements in each column is variably stopped so that the same identification elements are arranged in the middle stage in the identification element display area and the middle stage in the identification element display area of the right column, and it is determined that it is not a big hit In order to prevent the same identification elements from being arranged in the middle row in the left column identification element display area, the middle row in the middle row identification element display area, and the middle row in the right row identification element display area, Each is variably stopped. In this conventional pachinko machine, a rendering image in which the identification element display area in the left column, the identification element display area in the middle column, and the identification element display area in the right column are connected to each other is displayed by lottery, and the identification element display area in the left column The middle and middle columns in the middle and middle row of the identification element display area are displayed in the middle row and the middle row in the right row of the identification element display area, respectively. The identification elements that are identical to each other in the middle stage in the identification element display area and the lower stage in the identification element display area in the right column are stopped or displayed in the identification element display area in the left column. The player is informed that the big hit has been determined by stopping and displaying the same identification element in each of the middle stage and the upper stage in the identification element display area in the right column.
JP 2001-17649 A

  In the case of the conventional pachinko gaming machine described above, when an effect image in which the identification element display area in the left column, the identification element display area in the middle column, and the identification element display area in the right column are connected to each other is displayed, a plurality of identification elements are mutually connected. The probability of having the same jackpot combination increases. Since this probability is only on the video that is not related to the actual jackpot probability that a plurality of discriminating elements become a jackpot combination, the player's expectation that a plurality of discriminating elements will be a jackpot combination is expected. You ca n’t really raise it.

  The present invention has been made in view of the above circumstances, and an object of the present invention is to accurately generate an effect image that can truly enhance a player's expectation that a plurality of identification elements become a jackpot combination. An object of the present invention is to provide a pachinko machine equipped with a process capable of doing so.

1. Description of pachinko gaming machine according to claim 1 The pachinko gaming machine according to claim 1 is characterized in that it includes [1] game board to [9] symbol game means.
[1] The game board has a game area in which a game ball can roll. Reference numeral 18 in FIG. 2 is an example of a game board, and reference numeral 22 in FIG. 2 is an example of a game area.
[2] The variable entrance is provided in the game board and can be switched between a closed state in which the game ball rolling in the game area of the game board cannot enter and an open state in which the game can be entered. It is. 2 is an example of a variable entrance.
[3] The starting port is provided in the game board, and a game ball that rolls in the game area of the game board can enter. Reference numeral 24 in FIG. 2 is an example of a starting port.
[4] The symbol display is provided on the game board, and displays a graphic game image. In this symbol display, a plurality of types of identification elements are variably displayed in a predetermined order. A plurality of types of pattern elements different from any of the plurality of identification element display areas and the identification elements are variably displayed in a predetermined order. A plurality of design element display areas, and a video of a design game is a video that displays an identification element in a variable state in each of the plurality of identification element display areas and a plurality of design element display areas. Each of them includes both images that display the pattern elements in a variable state. The decorative symbol display 33 in FIG. 2 is an example of a symbol display, and the symbol display 33 displays an image of the decorative symbol game corresponding to the image of the symbol game. As shown in FIG. 4, the decorative design game video includes a video in which the design elements are displayed in a changing state, a left notice area Ly, and a medium notice area in each of the left change area Lm, the middle change area Cm, and the right change area Rm. Each of Cy and right notice area Ry includes both images that display notice elements in a fluctuating state, and each of left notice area Ly, middle notice area Cy, and right notice area Ry corresponds to a pattern element display area. The notice element corresponds to a picture element. Each of the left variation region Lm, the middle variation region Cm, and the right variation region Rm corresponds to an identification element display region, and the symbol element corresponds to an identification element.
[5] The big hit judging means judges whether or not the big hit is to open the variable pitch opening based on the game ball entering the starting port, and step S76 in FIG. It is an example of a means.
[6] The identification symbol setting means sets a plurality of identification elements in a predetermined combination of big hits when the big hit determining means determines that the big hit is determined, and plural when the big hit determining means determines that the big hit is not big hit The discriminating element is set to an outlier combination different from the jackpot combination. Each of step S287 and step S290 in FIG. 61 is an example of an identification symbol setting unit, and three identification elements are set to the same jackpot combination. Each of step S294 and step S296 in FIG. 61 is an example of an identification symbol setting unit, and three identification elements are set in a combination that is not identical to each other.
[7] The picture setting means sets a combination of a plurality of picture elements on the basis of the game ball entering the starting port. Steps S299, S302, S305, S308 and FIG. Each of 63 steps S313, S318, and S326 is an example of a pattern setting means.
[8] The variable information selection means is for selecting variable information for setting the contents of the effect of the image of the symbol game from a plurality of predetermined variable information, and it is determined that the big hit determination means is the big hit. when from among the variable information for the jackpot including a first variable information and the second variable information to select the variable information, jackpot determination means when it is determined that it is not the big hit of the third variable information and fourth Variable information is selected from variable information for detachment including variable information . Step S283 in FIG. 61 is an example of variable information selection means. The variable information selection means in step S283 selects process data from the process data # 11, # 21, # 31, # 41, and # 51 when it is determined that the big hit determination means is a big hit. Each of data # 11 to # 51 corresponds to variable information for jackpot, process data # 51 corresponds to first variable information for jackpot, and process data # 41 corresponds to second variable information for jackpot. I win. In step S283, the variable information selection unit selects process data from the process data # 00, # 01, # 10, # 20, # 30, # 40, and # 50 when it is determined that the big hit determination unit is not a big hit. Each of the process data # 00 to # 50 corresponds to the variable information for detachment, the process data # 50 corresponds to the third variable information for detachment, and the process data # 40 is the fourth information for detachment . It corresponds to the variable information .

Variable information selection means selects a high probability to the first the first variable information among the first variable information and the second variable information when it is determined that the big hit determination means is a big hit, the second variable information is selected to shall at high probability to the second, the selection probability of the process data # 21 and # 41 and # 51 for the big hit the first processes data # 51 corresponding to the first variable information Process data # 41 corresponding to the second variable information that is set higher is set second highest . The variable information selection means selects a high probability to the first to fourth variable information among the third variable information and the fourth variable information when it is determined that the big hit determination means is not the big hit, the third variable and information is selected to shall at high probability to the second, the selection probability of process data # 40 and # 50 for off is set high to process data # 40 is the first corresponding to the fourth variable information The process data # 50 corresponding to the third variable information is set second highest .
[9] The symbol game means starts from a game start process in which the game game ball enters the starting port, and the image of the symbol game is displayed in the symbol display on the symbol display unit according to the selection result of the variable information selection means. is intended to display up game stop process is variable stop state, when the variable information selection means has selected the respective first variable information and the second variable information and the third variable information and fourth variable information is Both the game start process and the game stop process are executed. In the game start process, the identification element is displayed in a variable state in each of the plurality of identification element display areas, and the pattern element is displayed in a variable state in each of the plurality of pattern element display areas. Displays the identification element in a variable stop state in each of the plurality of identification element display areas, and displays the pattern element in a variable stop state in each of the plurality of pattern element display areas. The display is performed such that a plurality of identification elements have a combination according to the setting result of the identification symbol setting means, and the stop display of the pattern elements is a combination of the plurality of pattern elements according to the setting result of the pattern setting means. To be done. Step S276 in FIG. 60 is an example of symbol game means.

Symbol game means abolished with identification elements each of a plurality of identification elements display area when the variable information selection means has selected the respective third variable information for the first variable information and off for jackpot, a plurality Each of the pattern element display areas is erased together with the pattern elements, and one effect area is displayed. This one effect area is set larger than each identification element display area and each pattern element display area, and there is an effective combination of pattern elements and identification elements in one effect area. After a plurality of predetermined effect elements are variably displayed in a predetermined order, any one of the plurality of effect elements is stopped and displayed. The series of processes are those carried out within a period of at or al game stop processing Lima game start processing, each of the third variable information for the first variable information and off for the jackpot has been selected Sometimes, an effect image in which a plurality of identification element display areas and a plurality of pattern element display areas are reduced to one effect area is displayed. The extra large effect area B in FIG. 11 is an example of one effect area. Each of the left change area Lm, the middle change area Cm, the right change area Rm, the left notice area Ly, the middle notice area Cy, and the right notice area Ry. It is set large compared to. As shown in FIG. 12, this oversized effect area B includes oversized effect elements “1”, “2”, “3”, “4”, “5”, “6”, “7”, “8”, “notice symbol A”, and “notice symbol B”. "" Preliminary symbol C "is displayed in a variable manner, and each of the extra large effect elements" 1 "to" Notice symbol C "corresponds to an effect element.

Symbol game means abolished with identification elements each of a plurality of identification elements display area when the variable information selection means has selected the respective fourth variable information for the second variable information and off for jackpot, a plurality Each of the design element display areas is extinguished together with the design elements, two or more effect areas are displayed, and each of the two or more effect areas includes a part of an effective combination of pattern elements and an identification element. The plurality of types of effect elements are variably displayed in a predetermined order, and then any one of the plurality of types of effect elements is stopped and displayed. The number of display of the effect area is set to be smaller than the total number of the identification element display area and the pattern element display area, and the size of each effect area is the size of each identification element display area and each pattern element display. It is set larger than the size of each area. This series of processes is performed within a period from the start of the game start process to the start of the game stop process. Each of the second variable information for jackpot and the fourth variable information for release is When selected, an effect image in which the plurality of identification element display areas and the plurality of pattern element display areas are reduced to two or more effect areas is displayed. Each of the left connection area Lc, the middle connection area Cc, and the right connection area Rc in FIG. 9 is an example of an effect area. The left change area Lm, the middle change area Cm, the right change area Rm, the left notice area Ly, and the middle notice area. It is set larger than each of Cy and right notice area Ry. As shown in FIG. 10A, the left connection region Lc is a large production element “1” “2” “3” “4” “5” “6” “7” “8” “head A” “ “Head B” and “Head C” are variably displayed, and each of the large effect elements “1” to “head C” corresponds to an effect element. As shown in FIG. 10B, the middle connection area Cc is a large production element “1” “2” “3” “4” “5” “6” “7” “8” “torso A” “ The body part B and the body part C are displayed in a variable manner, and each of the large effect elements “1” to “body part C” corresponds to an effect element. As shown in FIG. 10C, the right connection region Rc is a large production element “1” “2” “3” “4” “5” “6” “7” “8” “leg part A” “ “Leg B” and “Leg C” are variably displayed, and each of the large effect elements “1” to “Leg C” corresponds to an effect element.

2 . Description of the operation of the pachinko gaming machine according to claim 1 When the game ball enters the start opening, it is determined whether or not it is a big hit. When it is determined that a big hit is a plurality of identification elements are set to the combination of the jackpot is set combinations of a plurality of picture elements, for big hit, including a first variable information and the second variable information Variable information is selected from the variable information. When it is determined that it is not a big hit, a plurality of identification elements are set as an outlier combination, a combination of a plurality of picture elements is set, and outlier variable information including third variable information and fourth variable information Variable information is selected from among them.

When the game ball enters the start opening, as shown below, a graphic game image of the effect content corresponding to the variable information selection result is displayed on the symbol display.
(1) When each of the first variable information for jackpot and the third variable information for losing is selected The identification element is displayed in a variable state in each of the plurality of identification element display areas, The pattern elements are displayed in a variable state in each of the pattern element display areas. Then, the plurality of identification element display areas and the plurality of pattern element display areas are reduced to one effect area, and after the effect elements are variably displayed in one effect area, one effect element is stopped and displayed. The When the effect video is finished, the identification elements are displayed in a variable stop state in each of the plurality of identification element display areas, and the plurality of identification elements become a combination of big hits or combinations of losing. At the same time, the pattern elements are displayed in a variable stop state in each of the plurality of pattern element display areas, and a combination of the plurality of pattern elements is set.
(2) When each of the second variable information for jackpot and the fourth variable information for losing is selected The identification element is displayed in a variable state in each of the plurality of identification element display areas, The pattern elements are displayed in a variable state in each of the pattern element display areas. Then, the plurality of identification element display areas and the plurality of pattern element display areas are reduced to two or more effect areas, and one effect element is displayed after the effect elements are variably displayed in each of the two or more effect areas. Is stopped. When the effect video is finished, the identification elements are displayed in a variable stop state in each of the plurality of identification element display areas, and the plurality of identification elements become a combination of big hits or combinations of losing. At the same time, the pattern elements are displayed in a variable stop state in each of the plurality of pattern element display areas, and a combination of the plurality of pattern elements is set .
3 . Description of the effect of the pachinko gaming machine according to claim 1 The first variable information is selected with a higher probability than the second variable information when it is determined that it is a big hit, and the third variable information is determined that it is not a big hit . Since the variable information is selected with a lower probability than the fourth variable information , a plurality of discriminating element display areas and a plurality of design element display areas are produced when a production image is generated in which the picture element display areas are reduced to one production area. The actual probability that the identification element is a jackpot combination increases. When it is determined that it is a big hit, the second variable information is selected with a lower probability than the first variable information , and when it is determined that it is not a big hit, the fourth variable information is selected with a higher probability than the third variable information. When an effect video in which a plurality of discriminating element display areas and a plurality of pattern element display areas are reduced to two or more effect areas is generated, an effect video that is reduced in one effect area is generated. Compared to the above, the actual probability that a plurality of identification elements become a jackpot combination is lowered . Immediate Chi, accurately actual effect image probability is high in which a plurality of identification elements comprising a combination of jackpot in response to the total number of the plurality of identification elements display area and the plurality of picture element display region decreases number Can be generated. For this reason, the player can grasp the actual jackpot probability from the reduced state of the total number of the plurality of identification element display areas and the plurality of picture element display areas. The player's expectation for becoming truly increases. Moreover, one effect element is stopped and displayed in each of the two or more effect regions, and one effect element is stopped and displayed in one effect region. For this reason, as the number of display areas decreases, it becomes easier to visually recognize the types of effect elements, so that the impression that the probability that a plurality of identification elements will become a jackpot combination increases as the number of display areas decreases. Can also be given on. This effect first variable information and selected third variable information in the second fourth high probability variable information in the first for out variable information mutually selected and the same probability of jackpot even if you select a high probability to the second it is the same.

  As shown in FIG. 1, an outer frame 1 is installed on the island of Pachinko hall. The outer frame 1 has a rectangular tube shape with front and rear surfaces open, and a front frame 2 is attached to the front end surface of the outer frame 1. A horizontally long rectangular upper plate 3 and a horizontally long rectangular lower plate 4 are mounted on the front end surface of the front frame 2 in two upper and lower stages. An upper plate 5 is fixed, and a lower plate 6 whose upper surface is open is fixed to the front surface of the lower plate 4.

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

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

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

  As shown in FIG. 2, the game board 18 has a start port 24 fixed in the game area 22. The start port 24 has a pocket shape with an upper surface opened, and a game ball rolling in the game area 22 can be won in the start port 24 from the upper surface. A start port sensor 25 (see FIG. 3) is mounted in the start port 24, and the start port sensor 25 detects that a game ball has won the start port 24 and outputs a start signal.

  As shown in FIG. 2, a special winning opening 26 is fixed to the game board 18 in the game area 22. The special winning opening 26 has a horizontally long box shape with an open front, and a door 27 is mounted on the special winning opening 26 so as to be rotatable about a horizontal shaft 28. The door 27 is connected to a special prize opening solenoid 29 (see FIG. 3). The door 27 closes the front face of the special prize opening 26 in a non-winning manner based on the fact that the special prize opening solenoid 29 is in a vertically closed state when the power is cut off. FIG. Shown in state. The door 27 rotates in an open state where the special winning opening solenoid 29 is energized and falls forward in the open state. When the door 27 is open, the game ball rides on the door 27 and rolls into the special winning opening 26. It is permissible. A count sensor 30 (see FIG. 3) is mounted in the special winning opening 26, and the count sensor 30 detects that a game ball has won the special winning opening 26 and outputs a count signal.

  As shown in FIG. 2, a display frame 31 is fixed to the game board 18 within the game area 22, and a special symbol display 32 is fixed to the display frame 31. This special symbol display 32 is composed of a dot matrix type LED display, and when a game ball wins in the start opening 24, a set number of game balls are awarded in the upper plate 5 from the prize ball payout device. It is paid out as a ball, and a special symbol game video is displayed on the special symbol display 32. This special symbol game video displays the special symbols in order in a variable state and a variable stop state. This special symbol change display changes cyclically in the predetermined order “1” → “2” → “3” → “4” → “5” → “1” → “2”. The special symbol stop display is performed by stopping the special symbol variation display at any one of “1” to “5”, and the special symbol “3” is referred to as the probability variation big hit symbol. The special symbol “5” is generally referred to as a jackpot symbol, and the special symbols “1”, “2”, and “4” are referred to as outlier symbols.

  A big hit round is started when the probability change big hit symbol “3” or the normal big hit symbol “5” is stopped and displayed on the special symbol display 32. This jackpot round opens a special winning opening 26 and generates an advantageous state for a player to allow a game ball to win in the special winning opening 26. The special winning opening 26 has an upper limit value (for example, 10 ) Is held until the game ball winning number condition and the opening time reach the upper limit value (for example, 30 sec) are satisfied. This jackpot round is repeated a fixed number of times (for example, 15 times), and the repeated number of times of the jackpot round is referred to as a jackpot game.

  When the probability change jackpot symbol “3” is stopped and displayed on the special symbol display 32, the probability variation mode is activated from the special symbol game immediately after the jackpot game is finished, and the normal symbol jackpot symbol “5” is displayed on the special symbol display 32. When the stop display is made, the probability variation mode is invalidated from the special symbol game immediately after the big hit game ends. In the probability variation mode valid state, the probability that either of the probability variation jackpot symbol “5” and the normal jackpot symbol “3” is stopped in the special symbol game is higher than the probability variation mode invalid state, and the jackpot game is The probability of being performed is higher than the invalid state in the probability variation mode.

  As shown in FIG. 2, a decorative symbol display 33 is fixed to the display frame 31. The decorative symbol display 33 is composed of a color liquid crystal display having a display area larger than that of the special symbol display 32. When the game ball is won in the start opening 24, the decorative symbol display 33 is decorated. An image of the symbol game is displayed. During the display of the decorative symbol game video, the sound of the content corresponding to the video of the decorative symbol display 33 is output from each of the speakers 14, and each of the plurality of illumination LEDs 17 becomes the video of the decorative symbol display 33. Emits light according to the content.

  FIG. 4 shows an image of the decorative symbol game. In the decorative symbol game, the variable region Em and the notice region Ey are set in the display region of the decorative symbol display 33. The fluctuation area Em is set to have a larger vertical dimension than the notice area Ey. Within the fluctuation area Em, the left fluctuation area Lm, the middle fluctuation area Cm, and the right fluctuation area Rm are set in a horizontal row. The left notice area Ly, the middle notice area Cy, and the right notice area Ry are set in a horizontal line in the notice area Ey.

  The lower left variation region Lm to the right variation region Rm are the same in size and contour shape, and in the decorative design game, each of the left variation region Lm to the right variation region Rm is virtual. Instead of the area, the images are displayed separately from each other, and the symbol elements are sequentially displayed in the variation state and the variation stop state in each of the left variation region Lm to the right variation region Rm. FIG. 5A shows the types of symbol elements in the left column displayed in the left variation area Lm in the decorative symbol game, and FIG. 5B shows in the middle variation area Cm in the decoration symbol game. FIG. 5C shows the types of symbol elements in the right column displayed in the right variation region Rm in the decorative symbol game. Eight types of “1”, “2”, “3”, “4”, “5”, “6”, “7”, and “8” are set in common in the symbol elements of these columns, and the variation of the symbol elements in each column The display circulates the symbol elements in a predetermined order “1” → “2” → “3” → “4” → “5” → “6” → “7” → “8” → “1”. It is done by changing it. The variation display of the symbol elements in each column is started in time synchronization with the start of the variation of the special symbol, and the symbol elements in the left column are the symbol elements in the left column, the symbol elements in the middle column, and the symbols in the right column. Fluctuation is stopped at any one of “1” to “8” among the symbol elements, and the symbol elements on the right column are the second “1” to “8” among the symbol elements on the left column to the right column. The symbol element in the middle row stops changing at any one of “1” to “8” among the symbol elements in the left column to the right column.

  The three elements of the left row, middle row, and right row are the decorative symbols, and the combination of the decorative symbols is a combination of a probable big hit, a normal big hit, and an outlier reach. There are four types of combinations that are completely out of place. As shown in FIG. 4 (b), the probability variation jackpot combination refers to a combination in which the symbol elements in the left column, the symbol elements in the middle column, and the symbol elements in the right column are the same odd number. Four types of combinations "111", "333", "555", and "777" are set for the big hit combination. As shown in FIG. 4C, the normal jackpot combination refers to a combination in which the symbol elements in the left column, the symbol elements in the middle column, and the symbol elements in the right column are the same even number. Four types of combinations “222”, “444”, “666”, and “888” are set for the jackpot combination. As shown in FIG. 4 (d), the combination of outreach is that the symbol elements in the left column and the symbol elements in the right column are the same, and the symbol elements in the middle column are the symbol elements in the left column and the symbol elements in the right column. Different combinations are referred to, and combinations that are completely out of order refer to combinations in which the symbol elements in the left column and the symbol elements in the right column are different from each other, as shown in FIG. When the out symbol is stopped and displayed in a special symbol game, this decorative symbol will stop variably in either the combination of complete disengagement or out of reach combination. When it is displayed, it finally stops changing with a combination of normal jackpots, and when a special variable game is stopped and displayed with special symbol games, it finally stops changing with a combination of positive jackpots.

  As shown in FIG. 4, the upper left notice area Ly to the right notice area Ry have the same size and contour shape, and each of the left notice area Ly to the right notice area Ry. Is set smaller than the left variation region Lm, the middle variation region Cm, or the right variation region Rm. Each of the left notice area Ly to the right notice area Ry is displayed as a picture instead of a virtual area in a decorative design game, and is displayed separately from each other in the left notice area Ly to the right notice area Ry. The notice elements are sequentially displayed in a variable state and a variable stop state. FIG. 5D shows the types of notice elements in the left column displayed in the left notice area Ly in the decorative symbol game. Three types of “head A”, “head B”, and “head C” are set for the notice elements in the left column, and the change display of the notice elements in the left column indicates the order of the notice elements in a predetermined order “ It is performed by cyclically changing in the order of “head A” → “head B” → “head C” → “head A”. FIG. 5 (e) shows the types of middle row notice elements displayed in the middle notice area Cy in the decorative symbol game. Three types of “body A”, “body B”, and “body C” are set for the notice elements in the middle row, and the change display of the notice elements in the middle row indicates the order of the notice elements in a predetermined order “ It is performed by cyclically changing in the order of “body A” → “body B” → “body C” → “body A”. (F) of FIG. 5 shows the types of the right notice elements displayed in the right notice area Ry in the decorative symbol game. Three types of “leg A”, “leg B”, and “leg C” are set for the notice element in the right column, and the change display of the notice element in the right column indicates the order of the notice elements in a predetermined order “ It is performed by cyclically changing in the order of “leg A” → “leg B” → “leg C” → “leg A”.

  In FIG. 6A, the notice element in the left column stops variably at “head A”, the notice element in the middle line stops variably at “body A”, and the notice element in the right column is “leg part A”. The image when the change is stopped is shown. In this case, one completed notice symbol A determined in advance from the combination of the notice element “head A”, the notice element “body A”, and the notice element “leg A” is displayed. That is, each of the notice element “head A”, the notice element “body A”, and the notice element “leg A” is set by dividing one notice symbol A into three equal parts. Is a combination of three notice elements, where “Head A” is in the middle row and “Torso A” is in the middle row and “Leg A” is in the right row, and the left row is “Head” A combination of three notice elements that are “A” and the right column is “leg A” and the middle column is not “torso A” is referred to as a complete collapse combination, and the left column is “head A”. The combination of three notice elements whose right column is not "Leg A" is called an incomplete combination, and two notices with the left column "Head A" and the right column "Leg A" A combination of elements is referred to as a combination immediately before completion.

  In FIG. 6B, the notice element in the left column stops variably at “head B”, the notice element in the middle line stops variably at “body B”, and the notice element in the right column is “leg B”. The image when the change is stopped is shown. In this case, one completed notice symbol B different from the notice symbol A is displayed from the combination of the notice element “head B”, the notice element “body B” and the notice element “leg B”. That is, each of the notice element “head B”, the notice element “body B”, and the notice element “leg B” is set by dividing one notice symbol B into three equal parts. Is a combination of three notice elements with “head B”, middle row “body B” and right row “leg B”, and the left row is “head” The combination of three notice elements that are “B” and the right column is “leg B” and the middle column is not “torso B” is referred to as a complete collapse combination, and the left column is “head B”. The combination of three notice elements that are not “leg B” in the right column is called an incomplete combination, and two notices in which the left column is “head B” and the right column is “leg B”. A combination of elements is referred to as a combination immediately before completion.

  In FIG. 6C, the notice element in the left column stops variably when the head element is “head C”, the notice element in the middle line stops variably at “body C”, and the notice element in the right column is “leg part C”. The image when the change is stopped is shown. In this case, one completed notice symbol C different from both the notice symbol A and the notice symbol B from the combination of the notice element “head C”, the notice element “body C”, and the notice element “leg C”. Is displayed. That is, each of the notice element “head C”, the notice element “body C”, and the notice element “leg C” is set by dividing one notice symbol C into three equal parts. Is a combination of three notice elements with “head C”, middle row “body C” and right row “leg C”, and the left row is “head” The combination of three notice elements that are “C”, the right column is “leg C”, and the middle column is not “torso C” is referred to as a complete collapse combination, and the left column is “head C”. A combination of three notice elements whose right column is not “leg C” is called an incomplete combination, and two notices whose left column is “head C” and right column is “leg C”. A combination of elements is referred to as a combination immediately before completion.

  FIG. 7 shows an effect image 1 that is displayed in order to produce whether or not the decorative symbol is a jackpot combination before the decorative symbol combination is finalized in the decorative symbol game. This production video 1 appears in a state where all of the symbol elements in the left column, the symbol elements in the middle column, the symbol elements in the right column, the notice elements in the left column, the notice elements in the middle column, and the notice elements in the right column are changed. In the effect image 1, one notice connection area Y is set in the display area of the decorative symbol display 33, and the effect elements are variably displayed in the notice connection area Y. The notice connecting area Y is set in a horizontally long rectangular shape formed by connecting the left notice area Ly, the middle notice area Cy, and the right notice area Ry to each other, and is displayed as an image instead of a virtual area. . The advance linked area Y is set to have a larger area than the left change area Lm, middle change area Cm, right change area Rm, left notice area Ly, middle notice area Cy, and right notice area Ry. FIG. 8 shows an effect element group that is an aggregate of effect elements that are displayed in a variable manner in the advance linked area Y. This effect element group is composed of a notice symbol A, a notice symbol B, and a notice symbol C, and the variation display of the effect elements is “notice symbol A”, “notice symbol B”, “notice symbol C”, “notice symbol A”,. It is done cyclically in the order.

  FIG. 9 shows an effect image 2 that is displayed in order to produce an effect as to whether or not the decorative symbol is a jackpot combination before the decorative symbol combination is determined in the decorative symbol game. This effect image 2 is a continuation of the effect image 1 in which the design elements are variably displayed in the left change region Lm, the middle change region Cm, and the right change region Rm, respectively, and the effect elements are displayed in the notice linked region Y. In the effect image 2, as shown in FIG. 9B, the display area of the decorative symbol display 33 includes the left connection area Lc, the middle connection area Cc, and the right connection area Rc in three horizontal rows. The large effect element is variably displayed in each of the left connected region Lc to the right connected region Rc. The left connection region Lc is set in a vertically long rectangular shape formed by connecting the left change region Lm and the left notice region Ly to each other. The left change region Lm, the middle change region Cm, the right change region Rm, and the left notice The area is set larger than each of the area Ly, the middle notice area Cy, and the right notice area Ry. The middle connection area Cc is set in a vertically long rectangular shape formed by connecting the middle fluctuation area Cm and the middle warning area Cy to each other, and the left fluctuation area Lm, the middle fluctuation area Cm, the right fluctuation area Rm, and the left notice. The area is set larger than each of the area Ly, the middle notice area Cy, and the right notice area Ry. The right connection area Rc is set in a vertically long rectangular shape formed by connecting the right fluctuation area Rm and the right notice area Ry to each other, and includes a left change area Lm, a middle change area Cm, a right change area Rm, and a left notice. The area is set larger than each of the area Ly, the middle notice area Cy, and the right notice area Ry.

  Each of the left connection area Lc, the middle connection area Cc, and the right connection area Rc is displayed as an image instead of a virtual area, and FIG. 10A shows a left variable display in the left connection area Lc. A large production element group in the left column, which is an aggregate of the large production elements in the column, is shown. The large effect element group in the left column is left in the symbol elements “1”, “2”, “3”, “4”, “5”, “6”, “7”, and “8” in the left column that are displayed variably in the left variation region Lm. The notice elements “Head A”, “Head B”, and “Head C” in the left column, which are variably displayed in the notice area Ly, are added. 2. “3” “4” “5” “6” “7” “8” “head A” “head B” “head C” “1”... FIG. 10B shows a middle row large effect element group that is an aggregate of middle row large effect elements that are displayed in a variable manner in the middle connection area Cc. The middle stage large production element group is centered on the middle row of design elements “1”, “2”, “3”, “4”, “5”, “6”, “7”, and “8” that are variably displayed in the middle fluctuation region Cm. A middle row of notice elements “body A”, “body B”, and “body C” that are variably displayed in the notice area Cy are added. 2. “3” “4” “5” “6” “7” “8” “body A” “body B” “body C” “1”... FIG. 10C shows a large effect element group in the right column, which is an aggregate of the right effect elements in the right column that are variably displayed in the right connection region Rc. This large production element group in the right column is right to the symbol elements “1”, “2”, “3”, “4”, “5”, “6”, “7”, and “8” in the right column that are variably displayed in the right variation region Rm. The right column notice elements “Leg A”, “Leg B”, and “Leg C” that are variably displayed in the notice area Ry are added. 2. “3” “4” “5” “6” “7” “8” “Leg A” “Leg B” “Leg C” “1”...

  Each of (c) to (e) in FIG. 9 shows an image in which the large effect symbol is stopped and displayed in the effect image 2. This large production symbol refers to the combination of the large production elements in the left column, the large production elements in the middle row, and the large production elements in the right column. There are four types of combinations: reach combinations and complete collapse combinations. As shown in (c) of FIG. 9, the combination of the large production symbols is a combination of an odd number in which the large production elements in the left column, the large production elements in the middle row, and the large production elements in the right column are the same. As shown in FIG. 9 (d), the combination of the big jackpots of the large production symbols is the same as the large production elements in the left column, the large production elements in the middle row, and the large production elements in the right column. The combination of completion of the large effect symbols is a combination of completion of the notice symbol A to the notice symbol C as shown in FIG. 9 (e). The combination of outliers in the large stage design is the same for the large stage elements in the left column and the large stage elements in the right column, and the large stage elements in the middle row are the large stage elements in the left column and the large stage elements in the right column. Different combinations are referred to for each of the elements. For example, “7 6 7” and “7 head A 7” correspond to outlier combinations. The combination of large production symbols is the combination immediately before completion with each of the large production elements in the left row and the large production elements in the right row suspended and completed with the large production elements in the middle row suspended. For example, “head A trunk B leg A” and “head A 7 leg A” correspond to a combination of complete collapse.

  FIG. 11 shows an effect image 3 that is displayed to effect whether or not the decorative symbol is a jackpot combination before the combination of the decorative symbols is determined in the decorative symbol game. The effect video 3 appears as a continuation of the effect video 2 in which the large effect elements are variably displayed in the left connection region Lc, the middle connection region Cc, and the right connection region Rc. As shown in FIG. 11C, one oversized connected area B is set in the display area of the decorative symbol display 33, and the oversized effect element is variably displayed in the oversized connected area B. The extra large connected area B has a size and contour shape obtained by connecting six of the left change area Lm, the middle change area Cm, the right change area Rm, the left notice area Ly, the middle notice area Cy, and the right notice area Ry. And is displayed as a video rather than a virtual area. The extra large connected area B is set to have a larger area than the left change area Lm, middle change area Cm, right change area Rm, left notice area Ly, middle notice area Cy, and right notice area Ry. FIG. 12 shows an oversized effect element group that is an aggregate of oversized effect elements that are variably displayed in the oversized connection region B. This oversized effect element group includes symbol elements “1”, “2”, “3”, “4”, “5”, and “6” that are displayed in a variable manner in the left variation region Lm, the middle variation region Cm, and the right variation region Rm. “7” “8” is added with the notice symbol A, the notice symbol B and the notice symbol C, and the change display of the oversized effect element is “1” “2” “3” “4” “5” “6” “7” “8” “notice symbol A” “notice symbol B” “notice symbol C” “1”...

  The main control circuit 50 in FIG. 3 controls the game content of the special symbol game, and has a CPU 51, ROM 52 and RAM 53. A control program and control data are recorded in the ROM 52 of the main control circuit 50, and the CPU 51 executes a control operation based on the control program and control data in the ROM 52 using the RAM 53 as a work area. The sensor circuit 54 outputs a start signal from the start port sensor 25 and a count signal from the count sensor 30 to the main control circuit 50. The main control circuit 50 detects the start signal via the sensor circuit 54. Each of the control command and the prize ball command is set based on the fact, and the prize ball command is set based on detecting the count signal via the sensor circuit 54. The solenoid circuit 55 cuts off the special prize opening solenoid 29, and the main control circuit 50 opens and closes the door 27 of the special prize opening 26 based on driving control of the solenoid circuit 55. The LED circuit 56 displays a special symbol on the special symbol display 32, and the main control circuit 50 controls the display content of the special symbol display 32 based on driving control of the LED circuit 56.

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

  The effect control circuit 70 is a control command setting result transmitted from the main control circuit 50, and includes a CPU 71, a ROM 72, and a RAM 73. A control program and control data are recorded in the ROM 72 of the effect control circuit 70. When the CPU 71 receives the setting result of the control command, the CPU 71 uses the RAM 73 as a work area and controls the effect based on the control program and control data in the ROM 72. Set the command.

  The display control circuit 80 transmits the result of setting the effect control command from the effect control circuit 70. The display control circuit 80 displays an image corresponding to the reception result of the effect control command on the decorative symbol display 33 based on receiving the setting result of the effect control command, and has VDP, VROM, and VRAM. ing. The VROM is image data for displaying each of the symbol elements “1” to “8” in the decorative symbol game, and image data for displaying each of the notification elements “head A” to “head C” and the notification element. Image data for displaying each of “body A” to “body C”, image data for displaying each of notice elements “leg A” to “leg C”, and left variation region Lm to right Image data for displaying each of the changing areas Rm, image data for displaying each of the left notice area Ly to the right notice area Ry, image data for displaying the notice linked area Y, and the left linked area Lc to the right Image data for displaying each of the connection areas Rc and image data for displaying the oversized connection area B are recorded in advance, and the effect element is displayed using image data for displaying the notice element. And The large effect element in the column is displayed using image data for displaying the symbol element and the image data for displaying the notice element, and the extra large effect element displays the image data and the notice element for displaying the symbol element. It is displayed using image data. In this VROM, video data for displaying a background image in the decorative design game is recorded in advance, and the VDP develops each of image data and video data detected from the VROM in the VRAM, and displays the R on the decorative design display 33. -Displaying the image of the decorative design game in color by outputting each signal of G and B.

  The sound control circuit 90 transmits the setting result of the effect control command from the effect control circuit 70. The sound control circuit 90 outputs sound from each of the speakers 14 based on receiving the setting result of the effect control command, and has a sound IC, a sound ROM, a sound RAM, a DAC, an audio amplifier, and a volume. doing. The audio IC generates an audio signal for outputting audio from each of the speakers 14, and audio data for generating the audio signal is recorded in advance in the audio ROM. The audio RAM is used as a work memory for expanding audio data detected by the audio IC from the audio ROM, and the DAC converts a digital signal output from the audio IC into an analog signal. The audio amplifier amplifies the digital signal output from the DAC and outputs the amplified digital signal to each of the speakers 14. The volume adjusts the level of the analog signal output from the audio amplifier. The lighting control circuit 100 transmits the setting result of the effect control command from the effect control circuit 70. The illumination control circuit 100 sets an illumination signal for blinking each of the plurality of illumination LEDs 17 based on receiving the setting result of the effect control command, and each of the plurality of illumination LEDs 17 is an illumination signal. Flashes based on the setting result.

  FIG. 13 shows a list of control commands that the main control circuit 50 transmits to the effect control circuit 70. Each control command is composed of 2 bytes. The first byte of each control command is MODE data (command classification), and the second byte of each control command is EXT data (command type). . Each of the control commands 8000 (h) to 8051 (h) is a variation start command for notifying the effect control circuit 70 that the special symbol game is to be started, and the required time from the start of the special symbol game to the stop thereof. Contains EXT data for selection. This required time corresponds to the change display time of the special symbol, and the change start command corresponds to a change pattern command for designating the effect contents of the decorative symbol game to the effect control circuit 70.

  The control command 90XX (h) corresponds to the symbol information command for notifying the effect control circuit 70 of the type of the special symbol to be stopped and displayed on the special symbol display 32 in the special symbol game. The symbol information command 9000 (h) The special symbol variation stop mode is a probability variation jackpot symbol, and the symbol information command 9001 (h) indicates that the special symbol variation stop mode is a normal jackpot symbol, and the symbol information command 9002 (h ) Indicates that the special symbol is out of the way when the fluctuation is stopped. The control command A000 (h) is transmitted to the effect control circuit 70 when the change display time corresponding to the EXT data of the change start command has elapsed, and the effect control circuit 70 indicates that the special symbol change display stops. This corresponds to a variable stop command to be notified.

  The control command A1XX (h) corresponds to a hold command for notifying the effect control circuit 70 that the special symbol game has been put on hold, and the hold command A100 (h) shows that one special symbol game has been put on hold. The hold command A101 (h) indicates that two special symbol games have been held, the hold command A102 (h) indicates that three special symbol games have been held, and the hold command A103 (h) indicates four times. This indicates that the special symbol game has been suspended. The control command B0XX (h) notifies the effect control circuit 70 that the first big hit round including the first time is started, and notifies the effect control circuit 70 how many times this big hit round is. Corresponds to a round command. The control command B100 (h) is transmitted from the main control circuit 50 at the start of the interval when each big hit round including the first time is completed, and corresponds to an interval command for notifying the effect control circuit 70 that the interval starts. To do.

  FIG. 14 shows a list of random counters updated by the main control circuit 50. The random counter MR1 is used for determining whether or not it is a big hit that opens the special winning opening 26, and is cyclically updated in the range of “0” to “316”. The random counter MR2 is used to determine whether or not it is out of reach, and is cyclically updated within the range of “0” to “49”. The random counter MR3 is for selecting a variation start command used when selecting a variation start command, and is updated cyclically within a range of “0” to “100”. The random counter MR4 is used for determining the probability variation used when determining whether or not the probability variation is a big hit, and is cyclically updated within the range of “0” to “9”. The random counter MR5 is used for selecting out symbols used when selecting a special symbol from a plurality of out symbols, and is updated cyclically within a range of “0” to “399”.

  In the ROM 52 of the main control circuit 50, a normal jackpot determination table and a jackpot determination table at the time of probability change are recorded in advance. The normal jackpot determination table is control data for determining based on the random counter MR1 whether or not a big hit is made when the probability variation mode is invalid. The normal jackpot determination table includes a table (a) in FIG. As shown in FIG. 5, the big hit determination result is assigned to the random counter MR1 “7”, and the outlier determination result is assigned to the remaining values excluding the random counter MR1 “7”. The jackpot determination table at the time of probability change is control data for determining whether or not the jackpot is based on the random counter MR1 when the probability variation mode is valid. The jackpot determination table at the time of probability change is shown in FIG. As shown in FIG. 4, the big hit determination result is assigned to each of the random counters MR1 “0 to 30”, and the outlier determination result is assigned to each of the random counters MR1 “31 to 316”. In other words, it is determined that the effective state in the probability variation mode is a big hit with a constant probability higher than the invalid state in the probability variation mode.

  In the ROM 52 of the main control circuit 50, a detached symbol table is recorded in advance. The off symbol table is for selecting a off symbol based on the random counter MR5. The off symbol table includes a random counter MR5 “0 to 132” for the off symbol “1” as shown in FIG. ”Is assigned, random counter MR5“ 133-264 ”is assigned to off symbol“ 2 ”, and random counter MR5“ 265-399 ”is assigned to off symbol“ 4 ”.

  A variable display time table is recorded in advance in the ROM 52 of the main control circuit 50. As shown in FIG. 17, the fluctuation display time table is obtained by assigning a fluctuation display time to each of the EXT data of the fluctuation start commands # 00 to # 51, and the fluctuation start command # 00 and the fluctuation start command # 01. Each is for a complete detachment to be selected when complete detachment is determined. The variation start command # 10, the variation start command # 20, the variation start command # 30, the variation start command # 40, and the variation start command # 50 are for the outreach to be selected when the outreach is determined. Yes, the variation start command # 11, the variation start command # 21, the variation start command # 31, the variation start command # 41, and the variation start command # 51 are respectively big hits to be selected when a normal big hit or a probable big hit is determined. The variation display time of the variation start command # 00 to the variation display time of the variation start command # 51 are set to different values.

  In the ROM 52 of the main control circuit 50, a variation start command table for big hit, a variation start command table for outreach and a variation start command table for complete out are recorded in advance. Each of the big hit change start command table to the completely off change start command table is for selecting a change start command based on the random counter MR3, and the big hit change start command table is usually a big hit or a probable change. Used when the big hit is determined, the fluctuation start command table for outlier reach is used when the outlier reach is determined, and the fluctuation start command table for full hit is used when the complete outage is determined . FIG. 18 shows a variation start command table for big hits to a variation start command table for complete losing. The variation start command table for complete losing includes a variation start command # 00 to # 01 for complete losing. A random counter MR3 is assigned to the fluctuation start command table for outreach, and a random counter MR3 is assigned to each of fluctuation start commands # 10 to # 50 for outreach, and a fluctuation start command table for big hits. The random counter MR3 is assigned to each of the big hit variation start commands # 11 to # 51.

  In the big hit change start command table, five random counters MR3 “0 to 4” are assigned to the change start command # 11, and fifteen “5 to 19” are assigned to the change start command # 21. Random counter MR3 is assigned, 20 random counters MR3 “20 to 39” are assigned to change start command # 31, and 25 random counters “40 to 64” are assigned to change start command # 41. MR3 is assigned, and 36 random counters MR3 “65 to 100” are assigned to the change start command # 51. When a big hit is determined, the change start command # 51 is selected with the highest probability, The change start command # 41 is selected with the second highest probability, the change start command # 31 is selected with the third highest probability, Dynamic start command # 21 is selected with high probability the fourth variation start command # 11 is selected at the lowest probability.

  In the fluctuation start command table for outlier reach, 35 random counters MR3 “0 to 34” are assigned to the fluctuation start command # 10, and 25 “35 to 59” are assigned to the fluctuation start command # 20. Random counter MR3 is assigned, 20 random counters MR3 “60 to 79” are assigned to the variation start command # 30, and 15 random numbers “80 to 94” are assigned to the variation start command # 40. Counter MR3 is assigned, and six random counters MR3 “95 to 100” are assigned to change start command # 50, and change start command # 50 is selected with the lowest probability when outlier reach is determined. The change start command # 40 is selected with the second lowest probability, and the change start command # 30 is the third lowest probability. Is selected, change start command # 20 are selected by the low probability Fourth, fluctuation start command # 10 are selected by the highest probability.

  A control data storage area 140 is set in the RAM 53 of the main control circuit 50 as shown in FIG. The control data storage area 140 is an area for storing various data necessary for playing a special symbol game. The reserved data storage unit 141, the special symbol storage unit 142, the flag storage unit 143, the timer storage unit 144, and the counter storage. Part 145. The reserved data storage unit 141 is an area in which the acquisition result of the big hit determination random counter MR1 is recorded. When the game ball wins the start opening 24, the measurement value of the random counter MR1 is acquired, and the random counter MR1 is acquired. The result is recorded in the hold data storage unit 141. The reserved data storage unit 141 records the acquisition results of up to four random counters MR1, and the acquisition results of the random counter MR1 indicate the reservation numbers “1”, “2”, “ It is recorded in the hold data storage unit 141 together with either “3” or “4”.

  The special symbol storage unit 142 is an area where the setting result of the special symbol is recorded. For example, when the probability variation big hit symbol “3” is set, the special symbol big hit symbol “3” is recorded in the special symbol storage unit 142. The flag storage unit 143 is an area for storing a start signal flag, a special process flag, a big hit flag, and a probability change flag. The start signal flag indicates whether or not the game ball has won in the start port 24, and is set to an on state based on the game ball winning in the start port 24. The special figure process flag designates which one of the big hit determination process in step S61 to the interval process in step S67 to be executed alternatively in the special symbol process of FIG. The big hit flag indicates whether or not a big hit has been determined, and is set to an ON state based on the determination of the big hit. The probability variation flag indicates whether or not the probability variation jackpot has been determined, and is set to an ON state based on the determination of the probability variation jackpot.

  The timer storage unit 144 is an area in which the variable timer MT1, the wait timer MT2, and the interval timer MT3 are stored. The variation timer MT1 is set with a variation display time corresponding to the setting result of the variation start command as an initial value, and the special timer game is obtained by periodically subtracting the variation timer MT1 from the initial value at a constant time interval. The remaining time is measured. The wait timer MT2 has a fixed wait time set as an initial value. The wait timer MT2 is periodically subtracted from the initial value at a fixed time interval, so that the next time the special symbol game of this time ends. The remaining time until the special symbol game is started is measured. The interval timer MT3 is set with a constant interval time as an initial value, and the interval timer MT3 is periodically subtracted from the initial value at a constant time interval, so that the next round of big hit rounds ends. The time remaining until the big hit round is measured. The counter storage unit 145 is an area in which random counters MR1 to MR5 and a big hit round counter MN1 are stored. The jackpot round counter MN1 measures the number of continuations of the jackpot round. When the jackpot round ends, the jackpot round counter MN1 is added to measure the number of continuations of the jackpot round.

  A process data table is recorded in advance in the ROM 72 of the effect control circuit 70 as shown in FIG. This process data table is used to select one corresponding to the EXT data of the change start command from the process data numbers P00 to P51. The EXT data 00 (h) to the change start command # of the change start command # 00. This is set by assigning one process data number to each of the 51 EXT data 51 (h).

  In the ROM 72 of the effect control circuit 70, process data # 00 to # 51 are recorded in advance as shown in FIG. Each of the process data # 00 to # 51 is composed of a process timer set value and effect control data, and one process data number is assigned to each of the process data # 00 to # 51. Each of the process data # 00 and the process data # 01 is for complete outage that is a selection target at the time of complete outage determination. The process data # 10, the process data # 20, the process data # 30, the process data # 40, and the process Each of data # 50 is for outreach to be selected at the time of determination of outreach, and each of process data # 11, process data # 21, process data # 31, process data # 41, and process data # 51 As shown in FIGS. 21 to 26, the effect control data of the process data # 00 to # 51 are display control data, audio control data, and electrical decoration. It is configured to include control data. Each of these display control data indicates the effect contents of the video displayed on the decoration symbol display 33 in the decoration symbol game, and each sound control data indicates the effect contents of the sound output from each of the speakers 14 in the decoration symbol game, The illumination control data shows the contents of the effect of blinking each of the plurality of illumination LEDs 17 in the decoration pattern game, and the process timer setting value is produced by the corresponding display control data, audio control data, and illumination control data. This corresponds to data for specifying the time for generation.

  In each of the process data # 00 to # 51, as shown in FIG. 21 to FIG. 26, a whole figure variation start command is commonly set as display control data. This all figure change start command displays the left change area Lm, the middle change area Cm, the right change area Lm, the left notice area Ly, the middle notice area Cy, and the right notice area Ry on the decorative symbol display 33, and the symbol elements. Is displayed in a changing state in each of the left changing area Lm, the middle changing area Cm, and the right changing area Rm, and the notice elements are respectively shown in the left notice area Ly, the middle notice area Cy, and the right notice area Ry. The symbol element in the left column and the symbol element in the middle column are based on the all diagram variation start command regardless of which of process data # 00 to # 51 is selected. Each of the symbol element in the right column, the notice element in the left column, the notice element in the middle column, and the notice element in the right column is displayed in a varying state.

  Process data for complete miss # 00, process data for complete miss # 01, process data for miss reach # 10, process data for jackpot # 11, process data for miss reach # 20, and process data for jackpot # 21 to 23, as shown in FIGS. 21 to 23, as the display control data, the left column symbol element stop command, the left column warning element stop command, the right column symbol element stop command, and the right column warning element stop The command, the middle row symbol element stop command, and the middle row notice element stop command are set in common. The symbol element stop command in the left column is for suspending the symbol element in the left variation area Lm, and the notice element stop command in the left column is for variably stopping the notice element in the left notification area Ly. is there. The symbol element stop command in the right column is for suspending the symbol element in the right change region Rm, and the notice element stop command in the right column is for variably stopping the notice element in the right notice region Ry. is there. The middle row symbol element stop command is used to stop changing the symbol elements in the middle fluctuation region Cm, and the middle row warning element stop command is used to change and stop the notice elements in the middle warning region Cy. is there. The symbol element stop command in the left column to the notice element stop command in the middle column include (1) symbol element stop command in the left column (2) notice element stop command in the left column (3) symbol element stop command in the right column (4 ) Notice element stop command in the right column (5) Symbol element stop command in the middle column (6) Large process timer setting values are given in the order of the notice element stop command in the middle column, and process data # 00 to process data # When each of 21 is selected, (1) symbol element in the left column (2) notice element in the left column (3) symbol element in the right column (4) notice element in the right column (5) symbol element in the middle column (6 ) Stop display is performed in the order of the notice elements in the middle row.

  Each of the process data # 30 for outreach and the process data # 31 for big hit is 6 of a left change area Lm, a middle change area Cm, a right change area Rm, a left notice area Ly, a middle notice area Cy, and a right notice area Ry. This is for displaying the notice linked area Y after displaying the pieces, and displaying the effect elements in the notice linked area Y in the change state and the change stop state in order, in each of the process data # 30 and the process data # 31. 24, as shown in FIG. 24, although all of the figure change start command, the symbol element stop command in the left column, the symbol element stop command in the right column, and the symbol element stop command in the middle column are set, the notice in the left column The element stop command, the notice element stop command in the right column, and the notice element stop command in the middle line are not set. The process data # 30 for outreach is set when the fluctuation start command # 30 for outreach is selected, and is set with a probability of “20/101” when the outreach is determined. The The big hit process data # 31 is set when the big hit change start command # 31 is selected, and is set with a probability of “20/101” when the big hit is determined. That is, when the production video 1 in which the production elements are variably displayed in the notice connection area Y is generated, the decoration pattern has a probability of "50% (= 20 * 100/20 + 20)" The reliability of the production video 1 is set to a medium value.

  Each of the process data # 40 for outreach and the process data # 41 for jackpot displays the notice connection area Y, and then displays the left connection area Lc, the middle connection area Cc, and the right connection area Rc. The large production elements are displayed in order in the fluctuating state and in the fluctuating stop state in each of the Lc to the right connected region Rc, and each of the process data # 40 and the process data # 41 is shown in FIG. In addition, although all figure change start commands are set, the symbol element stop command in the left column, the notice element stop command in the left column, the symbol element stop command in the right column, the notice element stop command in the right column, and the symbol element in the middle column The stop command and the notice element stop command in the middle row are not set. The process data # 40 for outreach is set when the fluctuation start command # 40 for outreach is selected, and is set with a probability of “15/101” when the outreach is determined. The The big hit process data # 41 is set when the big hit change start command # 41 is selected, and is set with a probability of “25/101” when the big hit is determined. That is, when the effect image 1 is developed into an effect image 2 in which large effect elements are variably displayed in the left connected region Lc, the middle connected region Cc, and the right connected region Rc, “62.5% (= 25 * 100/15 + 25) ”is set so that the decorative symbol will be either a promiscuous jackpot combination or a normal jackpot combination, and the reliability of effect video 2 is set to a higher value than effect video 1 ing.

  Each of the process data # 50 for outreach and the process data # 51 for big hits displays the oversized connected area B after the notice connected area Y and the left connected area Lc to the right connected area Rc in order, and the oversized connected area B The extra large production elements are displayed in order in the fluctuating state and the fluctuating stop state, and in the process data # 50 and the process data # 51, all the figure variation start commands are set, but the symbols in the left column are displayed. The element stop command, the notice column stop command in the left column, the symbol element stop command in the right column, the notice element stop command in the right column, the symbol element stop command in the middle column, and the notice element stop command in the middle column are not set. . The process data # 50 for outreach is set when the fluctuation start command # 50 for outreach is selected, and is set with a probability of “6/101” when the outreach is determined. The The big hit process data # 51 is set when the big hit change start command # 51 is selected, and is set with a probability of “36/101” when the big hit is determined. That is, when the effect image 1 and the effect image 2 are developed into an effect image 3 in which the oversized effect elements are displayed in the oversized connection area B in a variable manner, the decorative pattern has a probability of “85.7% (= 36 * 100/6 + 36)”. Is set so as to be either a promiscuous big hit combination or a normal jackpot combination, and the reliability of the production video 3 is set to a very high value compared to the production video 1 and the production video 2 respectively.

  Each of the process data # 20 for outreach and the process data # 21 for big hit is 6 of a left change area Lm, a middle change area Cm, a right change area Rm, a left notice area Ly, a middle notice area Cy, and a right notice area Ry. After the pieces are displayed, the nest element is stopped and displayed in each of the left change area Lm, the middle change area Cm, and the right change area Rm without generating any of the effect images 1 to 3. This is for stopping and displaying the notice elements in the Ly, the middle notice area Cy, and the right notice area Ry. The process data # 20 for outreach is set when the fluctuation start command # 20 for outreach is selected, and is set with a probability of “25/101” when the outreach is determined. The The big hit process data # 21 is set when the big hit change start command # 21 is selected, and is set with a probability of “15/101” when the big hit is determined. That is, when none of the production video 1 to production video 3 occurs, the decorative symbol becomes either the probability big hit combination or the normal big hit combination with a low probability of “37.5% (= 15 * 100/25 + 15)”. Is set to

  In the ROM 72 of the effect control circuit 70, a video data table is recorded in advance as shown in FIG. This video data table includes one video data for each of the remaining process data numbers P00, P01, P10, P11, P20, P21, P41, P41, P50, and P51 excluding both process data numbers P30 and P31. When the remaining process data numbers P00 to P51 are set, video data numbers corresponding to the process data number setting results are selected. In this video data table, three video data numbers are assigned to each of the process data numbers P30 and P31. The three video data numbers corresponding to each of the process data numbers P30 and P31 are assigned any of the notice symbols A to C as effect elements, and each of the process data numbers P30 and P31 is set. Of the three video data numbers corresponding to the process data number setting result, one corresponding to the effect element setting result is selected.

  In the VROM of the display control circuit 80, video data # V00 to # V51 are recorded in advance as shown in FIG. One video data number is assigned to each of the video data # V00 to # V51, and the video data corresponding to the selection result of the video data number is reproduced in the decorative design game. Each of these video data # V00 to # V51 is for displaying an image of the background of the decorative symbol game, and includes a left variation area Lm, a middle variation area Cm, a right variation area Rm, a left notice area Ly, and a medium notice area. Cy, right notice area Ry, notice connection area Y, left connection area Lc, middle connection area Cc, right connection area Rc, extra large connection area B, symbol elements in each column, notice elements in each column, effect elements, and in each column Each of the large effect element and the extra large effect element is displayed in front of the background image corresponding to the video data.

  In the ROM 72 of the effect control circuit 70, as shown in FIG. 28, a video data table for big hit games is recorded in advance. In this jackpot game video data table, one video data number is assigned to each of the plurality of EXT data of the jackpot round command, and during the jackpot game, a video corresponding to the EXT data of the jackpot round command is assigned. A data number is selected. In the VROM of the display control circuit 80, as shown in FIG. 28, a plurality of video data for big hit games are recorded in advance. Each of the plurality of video data is assigned one video data number for the jackpot game. During the jackpot game, video data for the jackpot game corresponding to the selection result of the video data number for the jackpot game is displayed. Played.

  FIG. 29 shows a list of random counters updated by the effect control circuit 70. The random counter SR1 is updated cyclically within a range of “0 to 249”. This random counter SR1 is used for each of the case where the decorative symbol is set to a combination of probable big hits, the case of setting to a normal jackpot combination, the case of setting of a detach reach, and the case of setting to a combination of complete losing In each of the cases where the decorative symbol is set to the probability jackpot combination and the normal jackpot combination, the symbol elements in each column are selected according to the update result of the random counter SR1, and the decorative symbol is out of reach. In the case of setting to the combination of the left column, each of the symbol elements in the left column and the symbol element in the right column is selected in accordance with the update result of the random counter SR1, and in the case of setting the decoration symbol to a completely out of combination, The symbol element is selected according to the update result of the random counter SR1. This random counter SR1 is used for each of the case where the notice symbol is set to a completed combination, the case where the notice symbol is set to a combination that is not complete, and the case where it is set to an unfinished combination. Is set in accordance with the update result of the random counter SR1, and in the case of setting the notice symbol to a combination of complete collapse, each of the notice element in the left column and the notice element in the right column is set. Is selected according to the update result of the random counter SR1, and when the notice symbol is set to an incomplete combination, the notice element in the left column is selected according to the update result of the random counter SR1.

  The random counter SR2 is updated cyclically within a range of “0 to 162”. This random counter SR2 is used for each of the case where the decorative design is set to the combination of outliers and the case of setting to the combination of complete outliers. In each case where the combination is set, the symbol element in the middle row is selected according to the update result of the random counter SR2. This random counter SR2 is also used for setting the combination of the preliminarily broken pattern and the combination of the uncompleted combination. In the case of setting to the combination, the notice element in the middle row is selected according to the update result of the random counter SR2.

  The random counter SR3 is updated cyclically within a range of “0 to 72”. This random counter SR3 is used when the decorative symbol is set to a completely out-of-combination combination. Is selected accordingly. This random counter SR3 is also used when the notice symbol is set to an incomplete combination. When the notice symbol is set to an incomplete combination, the notice element in the right column is the update result of the random counter SR3. It is selected according to. The random counter SR4 is updated cyclically within a range of “0 to 10”. The random counter SR4 is used when setting an effect element to be stopped and displayed in the effect image 1, and when setting an effect element to be stopped and displayed in the effect image 1, the effect element is an update result of the random counter SR4. It is selected according to.

  The random counter SR5 is cyclically updated within the range of “0 to 222”. This random counter SR5 is set in the production video 2 when the big production symbol is set to the probable big hit combination, when the normal big hit combination is set, when the outlier reach combination is set, and when the completion combination is set, and when the completion is broken. Are used for each of the following combinations, and each of the cases where the large directing symbol is set to the promiscuous jackpot combination, the normal jackpot combination, and the completed combination are each The large production elements in the column are selected according to the update result of the random counter SR5, and the large production elements in the left column and the large production elements in the left column and Each large effect element in the right column is selected according to the update result of the random counter SR5.

  The random counter SR6 is updated cyclically within a range of “0 to 100”. This random counter SR6 is used for the case where the effect image 2 is set to the combination of outlier reach and the case of setting to the combination of collapse of the complete effect. In the case where the combination is set to the combination of the completion failure and the case where the combination is broken, the middle stage large production element is selected according to the update result of the random counter SR6. The random counter SR7 is updated cyclically within a range of “0 to 22”. This random counter SR7 is used when setting an oversized effect element that is stopped and displayed in the effect image 3, and when setting an oversized effect element that is stopped and displayed in the effect image 3, the oversized effect element is the random counter SR7. Is selected according to the update result.

  In the ROM 72 of the effect control circuit 70, as shown in FIG. 30, a probability variation big hit symbol table and a normal big hit symbol table are recorded in advance. The probability variation jackpot symbol table is obtained by assigning a random counter SR1 to each of four types of odd symbol elements “1”, “3”, “5”, and “7”. The symbol element corresponding to the update result of the random counter SR1 is selected from the probability variation big hit symbol table, and the symbol element of each column is set to a common selection result. The normal jackpot symbol table is obtained by assigning a random counter SR1 to each of the four types of even symbol elements “2”, “4”, “6”, and “8”. In the normal jackpot symbol table, the symbol element corresponding to the update result of the random counter SR1 is selected, and the symbol element of each column is set as a common symbol element selection result.

  In the ROM 72 of the effect control circuit 70, as shown in FIG. 30, a reach symbol table and a left symbol table are recorded in advance. The reach symbol table is obtained by assigning a random counter SR1 to each of the eight symbol elements “1 to 8”. When the decorative symbol is set as a combination of outreach, the random counter SR1 is updated from the reach symbol table. A symbol element corresponding to the result is selected, and each of the symbol elements in the left column and the symbol elements in the right column is set as a common symbol element selection result. The left symbol table is obtained by assigning a random counter SR1 to each of the eight symbol elements “1 to 8”. When the decorative symbol is set to a completely out of combination, the random counter SR1 is updated from the left symbol table. The symbol element corresponding to the result is selected, and the symbol element in the left column is set as the symbol element selection result.

  In the ROM 72 of the effect control circuit 70, as shown in FIG. 31, an unreachable symbol table and a middle symbol table are recorded in advance. The reach-removed symbol table is obtained by assigning a random counter SR2 to each of the eight types of symbol elements “1 to 8”. When a decorative symbol is set as a combination of a miss-reach, the random counter SR2 from the reach-removed symbol table is set. The symbol element corresponding to the update result is selected, and the symbol element in the middle row is set as the symbol element selection result. The middle symbol table is obtained by assigning the random counter SR2 to each of the eight symbol elements “1 to 8”. When the decorative symbol is set to a completely out of combination, the random counter SR2 is updated from the middle symbol table. The symbol element corresponding to the result is selected, and the symbol element in the middle row is set as the symbol element selection result.

  In the ROM 72 of the effect control circuit 70, as shown in FIG. 32, a right symbol table is recorded in advance. This right symbol table is obtained by assigning a random counter SR3 to each of the eight symbol elements “1 to 8”. When the decorative symbol is set to a completely out of combination, the random symbol SR3 is set from the right symbol table. The symbol element corresponding to the update result is selected, and the symbol element in the right column is set as the symbol element selection result.

  In the ROM 72 of the effect control circuit 70, as shown in FIG. 33, a completed symbol table, a complete collapse symbol table, and an unfinished left symbol table are recorded in advance. The completed symbol table is obtained by assigning a random counter SR1 to each of the nine types of notice elements “head A” to “leg C”. The notice element in the left column, the notice element in the middle column, and the notice element in the right column are selected according to the update result of the counter SR1. The completed collapse symbol table is a table in which a random counter SR1 is assigned to each of the six types of notice elements “head A” to “leg C”. From the table, each of the notice element in the left column and the notice element in the right column corresponding to the update result of the random counter SR1 is selected. The unfinished left symbol table is obtained by assigning a random counter SR1 to each of the three types of notice elements "head A" to "head C", and is not completed when the notice symbols are set to an incomplete combination. The notice element in the left column corresponding to the update result of the random counter SR1 is selected from the left symbol table.

  In the ROM 72 of the effect control circuit 70, as shown in FIG. 34, an incomplete symbol table is recorded in advance. This unfinished symbol table is obtained by assigning a random counter SR2 to each of the three types of notice elements "body A" to "body C". In the case of setting to the combination, the notice element in the middle row corresponding to the update result of the random counter SR2 is selected from the incomplete symbol table. In the ROM 72 of the effect control circuit 70, as shown in FIG. 35, an incomplete right symbol table is recorded in advance. This incomplete right symbol table is obtained by assigning a random counter SR3 to each of the three types of notice elements “leg A” to “leg C”, and is not used when the notice symbol is set to an incomplete combination. The notice element in the right column corresponding to the update result of the random counter SR3 is selected from the completed right symbol table.

  In the ROM 72 of the effect control circuit 70, an effect element table is recorded in advance as shown in FIG. This effect element table is obtained by assigning a random counter SR4 to each of the three types of effect elements “notice symbol A” to “notice symbol C”. The effect element corresponding to the update result of the random counter SR4 is selected.

  As shown in FIG. 37, the large effect symbol table 1 and the large effect symbol table 2 are recorded in the ROM 72 of the effect control circuit 70 in advance. The large production symbol table 1 includes the large production elements “1” to “head C” in the left column, the large production elements “1” to “body C” in the middle row, and the large production elements “1” to “legs” in the right column. Random counter SR5 is assigned to each of "part C", and when the large effect symbol is stopped and displayed in effect image 2 at the time of the probable big hit, the update result of random counter SR5 from large effect symbol table 1 A large production element in each column is selected. The large design symbol table 2 includes production elements “2”, “4”, “6”, “8”, “head A”, “head B”, “head C” in the left column and production elements “2”, “4” in the middle row. "6" "8" "Torso A" "Torso B" "Torso C" and production elements "2" "4" "6" "8" "Leg A" "Leg B" " Random counter SR5 is assigned to each of “legs C”, and when a large effect symbol is stopped and displayed in effect image 2 at the time of a normal jackpot decision, the update result of random counter SR5 is updated from large effect symbol table 2 The large production element in each row is selected.

  As shown in FIG. 38, the large effect symbol table 3 and the large effect symbol table 4 are recorded in the ROM 72 of the effect control circuit 70 in advance. The large effect design table 3 is obtained by assigning a random counter SR5 to each of the large effect elements “1” to “head C” in the left column and the large effect elements “1” to “leg C” in the right column. When the large effect symbol is stopped and displayed in the effect image 2 when the reach reach is determined, the large effect element in the left column and the large effect element in the right column corresponding to the update result of the random counter SR5 are selected from the large effect symbol table 3. The The large production symbol table 4 is obtained by assigning a random counter SR6 to each of the large production elements “1” to “body C” in the middle row, and the large production symbol is stopped and displayed in the production video 2 when the reach reach is determined. In such a case, the middle stage large effect element corresponding to the update result of the random counter SR6 is selected from the large effect symbol table 4.

  In the ROM 72 of the effect control circuit 70, as shown in FIG. 39, an extra large effect symbol table 1, an extra large effect symbol table 2, and an extra large effect symbol table 3 are recorded in advance. The oversized effect design table 1 is obtained by assigning a random counter SR7 to each of the oversized effect elements “2”, “4”, “6”, and “8”, and normally displays the oversized effect design in the effect video 3 when determining the big hit. In this case, an oversized effect element corresponding to the update result of the random counter SR7 is selected from the oversized effect design table 1. The oversized effect design table 2 is obtained by assigning a random counter SR7 to each of the oversized effect elements “1”, “2”, “3”, “4”, “5”, “6”, “7”, and “8”. When an oversized effect symbol is sometimes stopped and displayed in the effect image 3, an oversized effect element corresponding to the update result of the random counter SR7 is selected from the oversized effect symbol table 2. The oversized effect design table 3 is obtained by assigning a random counter SR7 to each of the oversize effect elements “notice design A”, “notice design B”, and “notice design C”. When the stop display is performed, an oversized effect element corresponding to the update result of the random counter SR7 is selected from the oversized effect design table 3.

  As shown in FIG. 40, an effect control data storage area 150 is set in the RAM 73 of the effect control circuit 70. The effect control data storage area 150 includes a command storage unit 151, a flag storage unit 152, and a timer storage unit 153. A counter storage unit 154, a confirmed symbol storage unit 155, a temporary symbol storage unit 156, a notice symbol storage unit 157, an effect element storage unit 158, a large effect element storage unit 159, and an extra large effect element storage unit 160. The command storage unit 151 is an area in which a change start command, a symbol information command, a change stop command, a hold command, a big hit round command, and an interval command transmitted from the main control circuit 50 are recorded. This is an area where a symbol game start flag, a decorative symbol game flag, a decorative symbol game stop flag, a big hit round flag, and an interval flag are recorded.

  The decorative symbol game start flag indicates whether or not a variation start command is transmitted from the main control circuit 50, and is set to an ON state based on the transmission of the variation start command. The decorative symbol game flag indicates whether or not the decorative symbol game is being executed, and is set to an on state in the execution state of the decorative symbol game. The decorative symbol game stop flag indicates whether or not a variation stop command has been transmitted from the main control circuit 50, and is set to an ON state based on the transmission of the variation stop command. The big hit round flag indicates whether or not a big hit round command is transmitted from the main control circuit 50, and is set to an ON state when the big hit round command is transmitted. The interval flag indicates whether or not an interval command is transmitted from the main control circuit 50, and is set to an ON state based on the transmission of the interval command.

The timer storage unit 153 is an area where the variable timer ST1 is recorded. This variation timer ST1 is set with a constant initial value “0”, and the variation timer ST1 is periodically added at regular time intervals from the initial value to measure the elapsed time of the decorative symbol game. . The counter storage unit 154 is an area in which random counters SR1 to SR7 are recorded, the confirmed symbol storage unit 155 is an area in which a decorative symbol that is finally stopped and displayed in the decorative symbol game is recorded, and the temporary symbol storage unit 156 is This is an area in which a temporary decorative symbol that is stopped and displayed before the decorative symbol recorded in the confirmed symbol storage unit 155 in the decorative symbol game is stopped and displayed. The notice symbol storage unit 157 is an area in which a notice symbol to be stopped and displayed in the decorative symbol game is recorded, and the effect element storage unit 158 records the effect element setting result when the effect element is stopped and displayed in the effect image 1. It is an area. The large effect element storage unit 159 is an area where the setting result of the large effect element of each column is recorded when the large effect element of each column is stopped and displayed in the effect image 2, and the extra large effect element storage unit 160 is the effect image 3 In this area, the setting result of the oversized effect element is recorded when the oversized effect element is stopped and displayed.
[1] Main Processing FIG. 41 shows the main processing executed by the CPU 51 of the main control circuit 50 when the power is turned on. When the power is turned on, the CPU 51 registers and PIO (parallel input / output port) in step S1. Initialize each of In step S2, the pending data storage unit 141, special symbol storage unit 142, flag storage unit 143, timer storage unit 144, and counter storage unit 145 of the RAM 53 are initialized, and a timer interrupt is generated every 4 msec in step S3. The CTC (counter / timer) is initialized as described above.

When the CPU 51 initializes the CTC in step S3, the counter updating process 1 in step S4 is repeated. In this counter update process 1, each of the random counter MR3 and the random counter MR5 of the counter storage unit 145 is updated by “1”. As shown in FIG. 14, the random counter MR3 is changed from the initial value “0” to the upper limit value. After being added to “100”, the initial value “0” is restored and updated cyclically. The random counter MR5 is added from the initial value “0” to the upper limit value “399” and then returned to the initial value “0”. Updated cyclically.
[2] Timer Interrupt Processing FIG. 42 shows timer interrupt processing executed by the CPU 51 every 4 msec when a timer interrupt occurs. The CPU 51 performs input processing at step S11 and counter update at step S12 each time a timer interrupt occurs. Process 2 and the data acquisition process of step S13 and the special symbol process process of step S14 are executed in this order.
[2-1] Input Processing FIG. 43 shows the details of the input processing in step S11, and the CPU 51 determines whether or not there is a start signal from the sensor circuit 54 in step S21. If it is determined that there is no start signal, the start signal flag of the flag storage unit 143 is reset to OFF in step S22. If it is determined that there is a start signal, the start signal flag of the flag storage unit 143 is set in step S23. Set to ON state.
[2-2] Counter update process 2
FIG. 44 shows details of the counter update process 2 in step S12. The CPU 51 updates the random counter MR1 of the counter storage unit 145 by the unit value “1” in step S31, and in step S32 the random number of the counter storage unit 145 is updated. The counter MR2 is updated by the unit value “1”, and the random counter MR4 of the counter storage unit 145 is updated by the unit value “1” in step S33. As shown in FIG. 14, the random counter MR1 is added to the initial value “0” from the initial value “0” and then returned to the initial value “0” and added cyclically. The random counter MR2 is used for judging a detachment reach. The random counter MR2 is added from the initial value “0” to the upper limit value “49”, then returned to the initial value “0” and added cyclically. The random counter MR4 is used for determination of probability variation, and is added from the initial value “0” to the upper limit value “9”, then returned to the initial value “0” and added cyclically.
[2-3] Data Acquisition Processing FIG. 45 shows details of the data acquisition processing in step S13, and the CPU 51 determines the setting state of the start signal flag in the flag storage unit 143 in step S41. For example, when the game ball wins in the start port 24, the start signal flag of the flag storage unit 143 is set to the ON state in the input process of step S11. In this case, the CPU 51 determines in step S41 of FIG. 45 that the start signal flag of the flag storage unit 143 is set to the on state, and acquires the measurement value of the random counter MR1 from the counter storage unit 145 in step S42. . Then, the process proceeds to step S43, and it is determined whether or not the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 of the hold number 1.

  When the CPU 51 determines in step S43 that the acquisition result of the random counter MR1 is not recorded in the hold data storage unit 141 of the hold number 1, the CPU 51 determines the acquisition result of the random counter MR1 in the hold data storage unit 141 of the hold number 1 in step S44. To record. Then, in step S45, it is notified that one special symbol game has been held based on the transmission of the hold command “A100 (h)” to the effect control circuit 70, and in step S46, the start signal flag of the flag storage unit 143 is notified. To the off state.

  When the CPU 51 determines in step S43 that the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 of the hold number 1, the acquisition result of the random counter MR1 is stored in the hold data storage unit 141 of the hold number 2 in step S47. It is determined whether or not is recorded. When it is determined that the acquisition result of the random counter MR1 is not recorded in the hold data storage unit 141 of the hold number 2, the process proceeds to step S48, and the acquisition result of the random counter MR1 is stored as the hold data storage unit 141 of the hold number 2. To record. Then, in step S49, it is notified that two special symbol games have been suspended based on the transmission of the suspension command “A101 (h)” to the effect control circuit 70, and in step S46, the start signal flag of the flag storage unit 143 is notified. To the off state.

  When the CPU 51 determines that the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 of the hold number 2 in step S47, the acquisition result of the random counter MR1 is stored in the hold data storage unit 141 of the hold number 3 in step S50. It is determined whether or not is recorded. If it is determined that the acquisition result of the random counter MR1 is not recorded in the hold data storage unit 141 of the hold number 3, the process proceeds to step S51, and the acquisition result of the random counter MR1 is stored in the hold data storage unit 141 of the hold number 3. To record. Then, in step S52, it is notified that the special symbol game has been suspended three times based on the transmission of the suspension command “A102 (h)” to the effect control circuit 70. In step S46, the start signal flag of the flag storage unit 143 is notified. To the off state.

  When the CPU 51 determines in step S50 that the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 of the hold number 3, the acquisition result of the random counter MR1 is stored in the hold data storage unit 141 of the hold number 4 in step S53. It is determined whether or not is recorded. If it is determined that the acquisition result of the random counter MR1 is not recorded in the hold data storage unit 141 of the hold number 4, the process proceeds to step S54, and the acquisition result of the random counter MR1 is set to the hold data storage unit 141 of the hold number 4. To record. Then, in step S55, it is notified that four special symbol games have been suspended based on the transmission of the suspension command “A103 (h)” to the effect control circuit 70, and in step S46, the start signal flag of the flag storage unit 143 is notified. To the off state.

When the CPU 51 determines that the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 with the hold number 4 in step S53, the acquisition result of the random counter MR1 is cleared in step S56. In other words, the upper limit value “4” is set for the number of times that the special symbol game is held, and the random counter MR1 is set when the game ball wins in the start port 24 in a state where the four special symbol games are already held. Each of the recording process and the hold command transmission process is not performed, and it is invalidated that the game ball is won in the start port 24.
[2-4] Special symbol process FIG. 46 shows the details of the special symbol process in step S14. The special symbol process includes step S61, a big symbol determination process, a special symbol change start process in step S62, a special symbol change process in step S63, a special symbol change stop process in step S64, a wait process in step S65, and a step S66. The jackpot game process and the interval process of step S67 are included, and the jackpot determination process in step S61 to the interval process in step S67 are alternatively performed according to the setting state of the special figure process flag in the flag storage unit 143.
[2-4-1] Big hit determination process FIG. 47 shows the details of the big hit determination process in step S61. This jackpot determination processing is executed when the special figure process flag of the flag storage unit 143 is set to “0”, and the special figure process flag of the flag storage unit 143 is initialized in step S2 of FIG. Initially set to “0” in the process.

  The CPU 51 determines whether or not the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 with the hold number 1 in step S71 of FIG. When it is determined that the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 of the hold number 1, the process proceeds to step S72, and the acquisition result of the random counter MR1 is stored from the hold data storage unit 141 of the hold number 1 Is detected.

  When the CPU 51 detects the acquisition result of the random counter MR1 from the hold data storage unit 141 with the hold number 1 in step S72, the CPU 51 detects the recording result of the probability change flag from the flag storage unit 143 in step S73, and the detection result of the probability change flag is on. It is determined whether or not. When it is determined that the probability variation flag is set to the on state, the big hit determination table at the time of probability variation of FIG. 15B is selected from the ROM 52 in step S74, and the probability variation flag is reset to the off state. Is determined, the normal big hit determination table shown in FIG. 15A is selected from the ROM 52 in step S75 of FIG.

  When the CPU 51 selects the jackpot determination table at the time of probability change or the jackpot determination table at the normal time, the determination result according to the detection result of the random counter MR1 from the jackpot determination table at the time of probability change or the normal jackpot determination table at step S76 in FIG. Select. When a determination result of losing is selected here, the big hit flag of the flag storage unit 143 is reset to the OFF state in step S77, and “1” is set to the special figure process flag of the flag storage unit 143 in step S83. For example, when the detection result of the random counter MR1 is “30”, the big hit determination result is selected from the big hit determination table at the time of probability change, and the determination result out of the normal big hit determination table is selected.

  When the CPU 51 selects the big hit determination result in step S76 of FIG. 47, the big hit flag of the flag storage unit 143 is set to the ON state in step S78, and the random storage MR4 for probability change determination is measured from the counter storage unit 145 in step S79. Get the result. Then, the process proceeds to step S80, and the acquisition result of the random counter MR4 is compared with each of the five probability variation values “1, 3, 5, 7, 9”. Each of these five probability variation values is recorded in advance in the ROM 52. When the CPU 51 determines in step S80 that the acquisition result of the random counter MR4 is the same as any of the five probability variation values, the process proceeds to step S81. Then, the probability variation flag of the flag storage unit 143 is set to the on state. Then, the process proceeds to step S83, where “1” is set in the special figure process flag of the flag storage unit 143.

When the CPU 51 determines in step S80 that the acquisition result of the random counter MR4 is different from any of the five probability variation values, the CPU 51 resets the probability variation flag in the flag storage unit 143 to an off state in step S82. Then, the process proceeds to step S83, where “1” is set in the special figure process flag of the flag storage unit 143.
[2-4-2] Special Symbol Variation Start Processing FIG. 48 shows details of the special symbol variation start processing in step S62. This special symbol variation start process is executed when the special symbol process flag of the flag storage unit 143 is set to “1”, and the CPU 51 executes the big hit flag of the flag storage unit 143 in step S91 of FIG. Determine the setting status of. Here, when it is determined that the big hit flag of the flag storage unit 143 is set to the on state, the process proceeds to step S92, and the setting state of the probability variation flag of the flag storage unit 143 is determined.

  When the CPU 51 determines in step S92 that the probability variation flag of the flag storage unit 143 is set to the on state, the CPU 51 proceeds to step S93. Here, the mode of the special symbol when the fluctuation is stopped is set to the probability variation jackpot symbol “3”, and the probability variation jackpot symbol “3” is recorded in the special symbol storage unit 142. Then, the process proceeds to step S94, and the fluctuation start command table for jackpot shown in FIG.

  If the CPU 51 determines in step S92 in FIG. 48 that the probability variation flag in the flag storage unit 143 has been reset to the off state, the CPU 51 proceeds to step S95. Here, the mode of the special symbol variation stop is set to the normal jackpot symbol “5”, and the normal jackpot symbol “5” is recorded in the special symbol storage unit 142. Then, the process proceeds to step S94, and the fluctuation start command table for jackpot shown in FIG.

  When the CPU 51 determines in step S91 in FIG. 48 that the jackpot flag in the flag storage unit 143 has been reset to the OFF state, the CPU 51 selects the out symbol table in FIG. 16 from the ROM 52 in step S96, and the counter in step S97 in FIG. The measurement result of the random counter MR5 is acquired from the storage unit 145, and the process proceeds to step S98. Here, an out symbol corresponding to the acquisition result of the random counter MR5 is selected from the out symbol table, and the selection result of the out symbol is recorded in the special symbol storage unit 142. For example, when the acquisition result of the random counter MR5 is “50”, the off symbol “1” is selected, and the off symbol “1” is recorded in the special symbol storage unit 142.

  48, when the off symbol is recorded in the special symbol storage unit 142 in step S98 of FIG. 48, the measurement value of the random counter MR2 is acquired from the counter storage unit 145 in step S99, and the acquisition result of the random counter MR2 is stored in the ROM 52 in step S100. Each of the five recorded outlier reach values “0, 1, 2, 3, 4” is compared. Here, when it is determined that the acquisition result of the random counter MR2 is the same as any one of the five outlier values, the process proceeds to step S101, and the fluctuation start command table for outlier reach shown in FIG. When it is selected and it is determined that the acquisition result of the random counter MR2 is different from any of the five outlier reach values, the process proceeds to step S102, and the fluctuation start command for complete deviation shown in FIG. Select a table.

  When the CPU 51 selects any one of the variation start command table for big hits, the variation start command table for outreach and the variation start command table for complete loss, the CPU 51 measures the random counter MR3 from the counter storage unit 145 in step S103 of FIG. Get the result. Then, the process proceeds to step S104, and the variation start command corresponding to the acquisition result of the random counter MR3 is selected from the selection result of the variation start command table. For example, when the acquisition result of the random counter MR3 is “90”, the variation start command # 40 “8040 (h)” is selected from the variation start command table for outlier reach in FIG. The variation start command # 51 “8051 (h)” is selected from the variation start command table for big hit in b), and the variation start command # 01 “from the variation start command table for complete losing in FIG. 8001 (h) "is selected.

  48, when the variation start command is selected in step S104 of FIG. 48, the variation start command selection result is transmitted to the effect control circuit 70 in step S105, and in step S106, the symbol information command corresponding to the recording result of the special symbol storage unit 142 Set. For example, when the probability variation big hit symbol “3” is recorded in the special symbol storage unit 142, the symbol information command “9000 (h)” for probability variation big hit is set, and the normal symbol hit symbol “5” is recorded in the special symbol storage unit 142. The symbol information command “9001 (h)” for normal jackpot is normally set when it is set, and the symbol information command “9001 (h)” is set for the special symbol storage unit 142 when any of the symbols “1”, “2”, “4” is recorded. The symbol information command “9002 (h)” is set.

  When CPU 51 sets the symbol information command in step S106, CPU 51 transmits the symbol information command setting result to effect control circuit 70 in step S107. In step S108, the variation display time corresponding to the selection result of the variation start command is selected from the variation display time table of FIG. 13, and the variation display time selection result is set as an initial value in the variation timer MT1 of the timer storage unit 144. . For example, when the selection result of the change start command is change start command # 11 “8011 (h)”, the change display time “12000” is selected, and the change display time “12000” is set in the change timer MT1.

  When the CPU 51 sets the variation display time selection result to the variation timer MT1 in step S108 of FIG. 48, the acquisition result of the random counter MR1 recorded in the retention data storage unit 141 of the retention number 1 is cleared in step S109. In S110, it is determined whether or not the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 of the hold number 2. Here, when it is determined that the acquisition result of the random counter MR1 is not recorded in the hold data storage unit 141 of the hold number 2, the process proceeds to step S116, and “2” is set to the special figure process flag of the flag storage unit 143. .

  When the CPU 51 determines in step S110 that the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 of the hold number 2, the random counter recorded in the hold data storage unit 141 of the hold number 2 in step S111. The MR1 is shifted to the hold data storage unit 141 with the hold number 1. Then, the process proceeds to step S112, and it is determined whether or not the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 of the hold number 3. If it is determined that the acquisition result of the random counter MR1 is not recorded in the hold data storage unit 141 with the hold number 3, the process proceeds to step S116, and “2” is set in the special figure process flag of the flag storage unit 143. .

  When the CPU 51 determines in step S112 that the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 of the hold number 3, the random counter recorded in the hold data storage unit 141 of the hold number 3 in step S113. The MR1 is shifted to the hold data storage unit 141 with the hold number 2. Then, the process proceeds to step S114, and it is determined whether or not the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 with the hold number 4. Here, when it is determined that the acquisition result of the random counter MR1 is not recorded in the hold data storage unit 141 of the hold number 4, the process proceeds to step S116, and “2” is set in the special figure process flag of the flag storage unit 143. .

When the CPU 51 determines that the acquisition result of the random counter MR1 is recorded in the hold data storage unit 141 with the hold number 4 in step S114, the random counter recorded in the hold data storage unit 141 with the hold number 4 in step S115. The MR1 is shifted to the hold data storage unit 141 with the hold number 3. Then, the process proceeds to step S116, where “2” is set in the special figure process flag of the flag storage unit 143.
[2-4-3] Special Symbol Variation Processing FIG. 49 shows details of the special symbol variation processing in step S63. This special symbol variation process is executed when the special symbol process flag is set to “2”, and the CPU 51 controls the special symbol indicator 32 to blink based on the fact that the LED of the special symbol indicator 32 is controlled to blink in step S121. Is displayed in a variation state, and the remaining time of the special symbol game is updated based on subtracting the unit value ΔT recorded in advance in the ROM 52 from the measurement value of the variation timer MT1 of the timer storage unit 144 in step S122. Then, the process proceeds to step S123, and the subtraction result of the variation timer MT1 in the timer storage unit 144 is compared with “0”. Here, when “MT1 = 0” is detected, the end of the special symbol game is determined, and the special symbol game is ended based on transmitting the variation stop command “A000 (h)” to the effect control circuit 70 in step S124. In step S125, “3” is set in the special figure process flag of the flag storage unit 143.
[2-4-4] Special Symbol Fluctuation Stop Process FIG. 50 shows details of the special symbol fluctuation stop process in step S64. This special symbol variation stop process is executed when the special symbol process flag is set to “3”, and the CPU 51 stops the variation display of the special symbol in step S131. The special symbol variation stop is performed based on the setting result of the special symbol recorded in the special symbol storage unit 142. When the probability variation big hit is determined, the special symbol on the special symbol display 32 is the probability variation big hit symbol “3”. Is stopped and displayed, and when the normal big hit is determined, the normal big hit symbol “5” is stopped and displayed, and when either outreach or complete outage is determined, either the out symbol “1”, “2” or “4” Is stopped and displayed.

When the CPU 51 finishes displaying the special symbol in step S131, the CPU 51 sets an initial value (for example, 2.0 sec) of the wait time in the wait timer MT2 of the timer storage unit 144 in step S132, and the flag storage unit 143 in step S133. Set “4” in the figure process flag. The initial value of this wait time is recorded in advance in the ROM 52, and if a special symbol game is put on hold, the next special symbol game will be executed after the wait time has elapsed since the end of this special symbol game. Be started.
[2-4-5] Wait Process FIG. 51 shows details of the wait process in step S65. This wait processing is executed when the special figure process flag is set to “4”, and the CPU 51 is a unit recorded in advance in the ROM 52 from the measured value of the wait timer MT2 of the timer storage unit 144 in step S141. The remaining wait time is updated by subtracting the value ΔT. In step S142, the result of subtraction of the wait timer MT2 in the timer storage unit 144 is compared with “0”. When it is determined that “MT2 = 0”, the process proceeds to step S143.

  When proceeding to step S143, the CPU 51 determines the setting state of the big hit flag in the flag storage unit 143. When it is determined that the big hit flag of the flag storage unit 143 is reset to the off state, the process proceeds to step S144, and the special process flag of the flag storage unit 143 is set to “0”.

When the CPU 51 determines in step S143 that the big hit flag of the flag storage unit 143 is set to the on state, the CPU 51 sets an initial value “0” in the big hit round counter MN1 of the counter storage unit 145 in step S145. The jackpot round counter MN1 measures the number of continuations of the jackpot round. When the CPU 51 initializes the jackpot round counter MN1 of the counter storage unit 145 in step S145, the CPU 51 proceeds to step S146, and the first jackpot round command “ B001 (h) "is set. In step S147, the setting result of the big hit round command “B001 (h)” is transmitted to the effect control circuit 70, and “5” is set in the special figure process flag of the flag storage unit 143 in step S148.
[2-4-6] Jackpot Game Processing FIG. 52 shows details of the jackpot game processing in step S66. This jackpot game process is executed when the special figure process flag of the flag storage unit 143 is set to “5”, and the CPU 51 executes the jackpot round process in step S151. In this big hit round process, the special winning opening 26 is opened until the upper limit value (for example, 10) of the game balls are won in the special winning opening 26 or the opening time of the special winning opening 26 reaches the upper limit (for example, 30 sec). The CPU 51 closes the special winning opening 26 when it is determined in the big hit round process in step S151 that the upper limit value of the game ball has won in the special winning opening 26 or the opening time of the special winning opening 26 has reached the upper limit. In step S152, it is determined that the current big hit round has ended.

  When the CPU 51 determines in step S152 that the current big hit round has ended, the unit value “1” recorded in advance in the ROM 52 is added to the big hit round counter MN1 in the counter storage unit 145 in step S153. Then, the interval command “B100 (h)” is set in step S154, and the setting result of the interval command is transmitted to the effect control circuit 70 in step S155. Each of the interval command setting process and the transmission process is performed based on the end of each big hit round, and the interval command “ B100 (h) "is transmitted.

When the CPU 51 transmits an interval command to the effect control circuit 70 in step S155, the CPU 51 sets an initial value (for example, 3.0 sec) of the interval time recorded in advance in the ROM 52 in the interval timer MT3 of the timer storage unit 144 in step S156. Then, the process proceeds to step S157, and “6” is set in the special figure process flag of the flag storage unit 143.
[2-4-7] Interval Processing FIG. 53 shows details of the interval processing in step S67. This interval process is executed when the special figure process flag of the flag storage unit 143 is set to “6”, and the CPU 51 records it in advance from the interval timer MT3 of the timer storage unit 144 to the ROM 52 in step S161. The remaining interval time is measured by subtracting the unit time ΔT.

  When the CPU 51 subtracts the interval timer MT3 of the timer storage unit 144 in step S161, the CPU 51 compares the subtraction result of the interval timer MT3 of the timer storage unit 144 with the limit value “0” recorded in advance in the ROM 52 in step S162. If “MT3 = 0” is determined here, the process proceeds to step S163, and the big hit round counter MN1 in the counter storage unit 145 is compared with the final value “15” recorded in the ROM 52 in advance.

  When the CPU 51 determines “MN1 <final value” in step S163, it sets a big hit round command in step S164. Then, in step S165, the setting result of the big hit round command is transmitted to the effect control circuit 70, and in step S166, “5” is set in the special figure process flag of the flag storage unit 143. This jackpot round command is set according to the jackpot round counter MN1 of the counter storage unit 145. For example, when “MN = 1”, the second jackpot round command “B002 (h)” is set, and “ When MN = 14 ”, the final 15th big hit round command“ B00E (h) ”is set.

When the CPU 51 determines “MN1 = final value (15)” in step S163, it resets the big hit flag in the flag storage unit 143 to an off state in step S167. Then, the process proceeds to step S168, and “0” is set to the special figure process flag of the flag storage unit 143. FIG. 54 shows the transmission timings of the jackpot round command and the interval command. The jackpot round command is transmitted when each jackpot round starts, and the interval command is transmitted when each interval starts (each jackpot round is Sent when finished).
[11] Main Processing FIG. 55 shows the main processing executed by the CPU 71 of the effect control circuit 70 when the power is turned on. When the power is turned on, the CPU 71 registers and PIO (parallel input / output port) in step S201. Initialize each of In step S202, the command storage unit 151, the flag storage unit 152, the timer storage unit 153, the counter storage unit 154, the confirmed symbol storage unit 155, the temporary symbol storage unit 156, the notice symbol storage unit 157, and the effect element storage unit 158 of the RAM 73 are stored. The large effect element storage unit 159 and the oversized effect element storage unit 160 are initialized, and a CTC (counter / timer) is generated so that a timer interrupt is generated every 10 msec synchronized with the frame frequency of the display control circuit 80 in step S203. Set.

When the CPU 71 initializes the CTC in step S203, the CPU 71 repeats the counter update process 1 in step S204. In this counter update process 1, each of the random counter SR1 to the random counter SR3 of the counter storage unit 154 is updated by a unit value “1”. As shown in FIG. 29, the random counter SR1 starts from the initial value “0”. After being added to the upper limit “249”, the initial value “0” is restored and updated cyclically, and the random counter SR2 is added from the initial value “0” to the upper limit “162” and then changed to the initial value “0”. The random counter SR3 is cyclically updated by returning to the initial value “0” after being added from the initial value “0” to the upper limit value “72”.
[12] External Interrupt Processing When the change start command, symbol information command, change stop command, hold command, jackpot round command and interval command are transmitted from the main control circuit 50, an external interrupt is generated in the CPU 71. This external interrupt is generated separately from the timer interrupt, and the CPU 71 enters an interrupt disabled state based on the occurrence of the external interrupt. When this external interrupt occurs, the CPU 71 stores each of the change start command to the interval command in the reception command buffer and cancels the interrupt disabled state.
[13] Timer Interrupt Processing FIG. 56 shows timer interrupt processing executed by the CPU 71 every 10 msec when a timer interrupt occurs. The CPU 71 executes command analysis processing in step S211 and counter in step S212 each time a timer interrupt occurs. The update process 2, the hold command process in step S213, the decorative symbol game process in step S214, and the jackpot game process in step S215 are executed in this order.
[13-1] Command Analysis Processing FIG. 57 shows details of the command analysis processing in step S211, and the CPU 71 checks the reception command buffer in step S221, and any one of the change start command to the interval command is stored in the reception command buffer. It is determined whether or not is recorded. If it is determined that any of the change start command to the interval command is recorded in the reception command buffer, the process proceeds to step S222, and one control command is detected from the change start command to the interval command from the reception command buffer. .

  When the CPU 71 detects a control command from the received command buffer in step S222, the CPU 71 compares the detection result of the control command with a pending command in step S223. If it is determined that the detection result of the control command is a pending command, the process proceeds to step S224, and the detection result of the pending command is recorded in the command storage unit 151.

  If CPU 71 determines in step S223 that the detection result of the control command is not a pending command, it compares the detection result of the control command with the symbol information command in step S225. If it is determined that the control command detection result is a symbol information command, the process proceeds to step S226, and the symbol information command detection result is recorded in the command storage unit 151.

  When the CPU 71 determines that the detection result of the control command is not a symbol information command in step S225, the CPU 71 compares the detection result of the control command with the change start command in step S227. If it is determined that the detection result of the control command is a change start command, the process proceeds to step S228, and the change start command detection result is recorded in the command storage unit 151. And it transfers to step S229 and sets the decoration symbol game start flag of the flag storage part 152 to an ON state.

  If the CPU 71 determines in step S227 that the detection result of the control command is not a variation start command, the CPU 71 compares the detection result of the control command with a variation stop command in step S230. When it is determined that the detection result of the control command is a variable stop command, the process proceeds to step S231, and the detection result of the variable stop command is recorded in the command storage unit 151. And it transfers to step S232 and sets the decoration symbol game stop flag of the flag storage part 152 to an ON state.

  When CPU 71 determines in step S230 that the control command detection result is not a change stop command, CPU 71 compares the control command detection result with the big hit round command in step S233. If it is determined that the control command detection result is a big hit round command, the process proceeds to step S234, and the big hit round command detection result is recorded in the command storage unit 151. And it transfers to step S235 and sets the big hit round flag of the flag storage part 152 to an ON state.

When CPU 71 determines in step S233 that the control command detection result is not a big hit round command, CPU 71 compares the control command detection result with the interval command in step S236. Here, when it is determined that the detection result of the control command is an interval command, the process proceeds to step S237, and the detection result of the interval command is recorded in the command storage unit 151. Then, the process proceeds to step S238, and the interval flag of the flag storage unit 152 is set to the on state.
[13-2] Counter update process 2
FIG. 58 shows details of the counter update process 2 in step S212. The CPU 71 updates the random counter SR4 of the counter storage unit 154 by the unit value “1” in step S241, and in step S242 the random number of the counter storage unit 154 is changed. The counter SR5 is updated by the unit value “1”. In step S243, the random counter SR6 of the counter storage unit 154 is updated by the unit value “1”, and in step S244, the random counter SR7 of the counter storage unit 154 is updated by the unit value “1”. The random counter SR4 is used to select an effect element when the effect element is stopped and displayed in the effect image 1, and is added from the initial value “0” to the upper limit value “10” as shown in FIG. After that, it is cyclically added back to the initial value “0”. Each of the random counter SR5 and the random counter SR6 is used when the large effect element is stopped and displayed in the effect image 2, and the random counter SR5 is added from the initial value “0” to the upper limit value “222”. The random counter SR6 is cyclically added by returning to the initial value “0”, and after being added from the initial value “0” to the upper limit value “100”, the random counter SR6 is cyclically added by returning to the initial value “0”. The random counter SR7 is used for selecting an oversized effect element when the oversized effect element is stopped and displayed in the effect image 3, and is added to the upper limit value “22” from the initial value “0” and then the initial value. It is cyclically added back to “0”.
[13-3] Hold Command Processing FIG. 59 shows details of the hold command processing in step S213, and the CPU 71 determines whether or not a hold command is stored in the command storage unit 151 in step S251. Here, when it is determined that the hold command is stored in the command storage unit 151, the process proceeds to step S252, and the hold command is detected from the command storage unit 151.

  When the CPU 71 detects a hold command from the command storage unit 151 in step S252, the CPU 71 detects EXT data from the detection result of the hold command in step S253, and compares the detection result of EXT data with “00 (h)”. If it is determined that the detection result of EXT data is “00 (h)”, the hold display command 1 is transmitted to the display control circuit 80 in step S254, and the hold command “A100 ( h) ”is cleared. When receiving the hold display command 1, the display control circuit 80 detects image data corresponding to the hold display command 1 from the VROM and, as shown in FIG. One reserved picture 34 is displayed. On the decorative symbol display 33, a hold display area 35 is set at the lower corner, and the hold picture 34 is displayed in the hold display area 35.

  If the CPU 71 determines in step S253 in FIG. 59 that the EXT data detection result is different from “00 (h)”, the CPU 71 compares the EXT data detection result with “01 (h)” in step S256. When it is determined that the detection result of the EXT data is “01 (h)”, the hold display command 2 is transmitted to the display control circuit 80 in step S257, and the hold command “A101 ( h) ”is cleared. When the display control circuit 80 receives the hold display command 2, the display control circuit 80 detects image data corresponding to the hold display command 2 from the VROM, and 2 based on the detection result of the image data in the hold display area 35 of the decorative symbol display 33. The pieces of reserved picture 34 are displayed.

  If the CPU 71 determines that the detection result of the EXT data is different from “01 (h)” in step S256, the CPU 71 compares the detection result of the EXT data with “02 (h)” in step S259. If it is determined that the detection result of the EXT data is “02 (h)”, the hold display command 3 is transmitted to the display control circuit 80 in step S260, and the hold command “A102 ( h) ”is cleared. When the display control circuit 80 receives the hold display command 3, the display control circuit 80 detects image data corresponding to the hold display command 3 from the VROM. The pieces of reserved picture 34 are displayed.

If the CPU 71 determines that the detection result of the EXT data is different from “02 (h)” in step S259, the CPU 71 compares the detection result of the EXT data with “03 (h)” in step S262. If it is determined that the detection result of the EXT data is “03 (h)”, the hold display command 4 is transmitted to the display control circuit 80 in step S263, and the hold command “A103 (” is sent from the command storage unit 151 in step S264. h) ”is cleared. When receiving the hold display command 4, the display control circuit 80 detects image data corresponding to the hold display command 4 from the VROM, and 4 based on the detection result of the image data in the hold display area 35 of the decorative symbol display 33. The pieces of reserved picture 34 are displayed.
[13-4] Decoration Symbol Game Processing FIG. 60 shows details of the decoration symbol game processing in step S214, and the CPU 71 determines the setting state of the decoration symbol game start flag in the flag storage unit 152 in step S271. If it is determined that the decorative symbol game start flag in the flag storage unit 152 is set to the on state, the process proceeds to step S272, and the decorative symbol game start flag in the flag storage unit 152 is reset to the off state. In step S273, the decorative symbol game flag in the flag storage unit 152 is set to the on state, and a preparatory process for starting the decorative symbol game is performed in the decorative symbol game start process in step S274.

If the CPU 71 determines in step S271 that the decorative symbol game start flag in the flag storage unit 152 has been reset to an off state, in step S275, whether or not the decorative symbol game flag in the flag storage unit 152 has been set to an on state. Determine whether. For example, in the state where the decorative symbol game start process in step S274 is completed, it is determined in step S275 that the decorative symbol game flag in the flag storage unit 152 is set to the on state, and the decorative symbol game in-process processing in step S276 is performed. A symbol game is executed. When the decorative symbol game stop flag of the flag storage unit 152 is set to the on state in the execution state of the decorative symbol game, the process proceeds from step S277 to step S278, and the decorative symbol game flag in the flag storage unit 152 is reset to the off state. To do. In step S279, the decorative symbol game stop flag in the flag storage unit 152 is reset to an off state, and the decorative symbol game stop process in step S280 is executed.
[13-4-1] Decoration Symbol Game Start Processing Each of FIGS. 61 to 63 shows details of the decoration symbol game start processing in step S274, and the CPU 71 changes from the command storage unit 151 in step S281 in FIG. The reception result of the start command is detected, and the EXT data is detected from the detection result of the fluctuation start command. In step S282, the process data table of FIG. 20 is detected from the ROM 72, and a process data number corresponding to the detection result of the EXT data is selected from the process data table. Next, the process proceeds to step S283 in FIG. 61, and process data corresponding to the selection result of the process data number is selected from the process data table in FIG. For example, when the detection result of the EXT data is “40 (h)”, the process data number P40 is selected, and when the process data number P40 is selected, the process data # 40 is selected.

  When the CPU 71 selects process data in step S283 of FIG. 61, the CPU 71 sets the initial value “0” recorded in advance in the ROM 72 to the variable timer ST1 of the timer storage unit 153 in step S284. In step S285, the reception result of the symbol information command is detected from the command storage unit 151. In step S286, it is determined whether the detection result of the symbol information command is a probable big hit. For example, when the detection result of the symbol information command is “9000 (h)”, it is determined that the probability variation big hit is determined, and the decorative symbol is set to the combination of the probability variation big hit in the probability variation big hit symbol setting processing in step S287. Next, the process proceeds to step S288, and the set result of the combination of probability variation big hit symbols is recorded in the confirmed symbol storage unit 155.

  FIG. 64 shows the details of the probability variation jackpot symbol setting process of step S287, and the CPU 71 detects the probability variation jackpot symbol table of FIG. 30 (a) from the ROM 72 in step S351. In step S352 of FIG. 64, the measurement result of the random counter SR1 is detected from the counter storage unit 154, and the process proceeds to step S353. Here, a symbol element corresponding to the detection result of the random counter SR1 is selected from the probability variation big hit symbol table, and each of the symbol element in the left column, the symbol element in the middle column, and the symbol element in the right column is set as a selection result of the symbol element. The decorative design is set to a combination of probable big hits. For example, when the detection result of the random counter SR1 is “200”, the symbol element “7” is selected, and the symbol element of each column is set to “7”, so that the decorative symbol is set to the combination “777” for the probability variation jackpot. Then, the decorative symbol is recorded in the fixed symbol storage unit 155 with the combination “777” of the probability variation big hit.

  When the CPU 71 determines in step S286 of FIG. 61 that the detection result of the symbol information command is not a probability variation big hit symbol, the CPU 71 determines in step S289 whether the detection result of the symbol information command is a normal big hit symbol. For example, when the detection result of the symbol information command is “9001 (h)”, it is determined that the symbol is a normal jackpot symbol, and the decorative symbol is set to a combination of a normal jackpot in the normal jackpot symbol setting process in step S290. Then, the process proceeds to step S291, and the setting result of the normal jackpot combination is recorded in the fixed symbol storage unit 155.

  FIG. 65 shows the details of the normal jackpot symbol setting process in step S290, and the CPU 71 detects the normal jackpot symbol table in FIG. 30B from the ROM 72 in step S361. In step S362 in FIG. 65, the measurement result of the random counter SR1 is detected from the counter storage unit 154, and the process proceeds to step S363. Here, a symbol element corresponding to the detection result of the random counter SR1 is selected from the normal jackpot symbol table, and each of the symbol element in the left column, the symbol element in the middle column, and the symbol element in the right column is set as the selection result of the symbol element. The decoration pattern is usually set to a big hit combination. For example, when the detection result of the random counter SR1 is “200”, the symbol element “8” is selected, and the symbol element of each column is set to “8”, so that the decorative symbol is normally set to the combination of “888”. Then, the decorative symbols are recorded in the confirmed symbol storage unit 155 with the normal jackpot combination “888”.

  When CPU 71 determines in step S289 in FIG. 61 that the detection result of the symbol information command is not a normal big hit symbol, CPU 71 detects the reception result of the change start command from command storage unit 151 in step S292. Then, in step S293, the EXT data is detected from the detection result of the fluctuation start command, and the detection result of the EXT data is determined as a detach reach determination value “10 (h)” “20 (h)” “30 (h). ) ”And“ 40 (h) ”. Here, when it is determined that the detection result of the EXT data is the same as any one of the outlier reach determination values “10 (h)” to “40 (h)”, the process proceeds to an outlier reach symbol setting process in step S294, and the decorative symbol is displayed. Is set to the combination of outreach. Then, the process proceeds to step S295, and the setting result of the detach reach combination is recorded in the fixed symbol storage unit 155.

  FIG. 66 shows the details of the outreach symbol setting process in step S294. The CPU 71 detects the reach symbol table in FIG. 30C from the ROM 72 in step S371, and from the ROM 72 in FIG. 66 in step S372. (A) of the unreachable symbol table is detected. 66. In step S373 of FIG. 66, the measurement result of the random counter SR1 is detected from the counter storage unit 154. In step S374, a symbol element corresponding to the detection result of the random counter SR1 is selected from the reach symbol table, and the symbol element in the left column is selected. Each of the symbol elements in the right column is set as a common symbol element selection result. For example, when “SR1 = 200”, the symbol element “7” is selected, and the symbol element in the left column and the symbol element in the right column are each set to a common “7”.

  When the CPU 71 sets each of the symbol elements in the left column and the right column in step S374, the CPU 71 detects the measurement result of the random counter SR2 from the counter storage unit 154 in step S375. In step S376, a symbol element corresponding to the detection result of the random counter SR2 is selected from the unreachable symbol table, and the symbol element in the middle row is set as the symbol element selection result. For example, when “SR2 = 50”, the symbol element “3” is selected, and the symbol element in the middle row is set to “3”.

  When the CPU 71 sets the symbol elements in the middle row in step S376 of FIG. 66, the CPU 71 proceeds to step S377. Here, the setting result of the symbol elements in the middle column is compared with the setting result of the symbol elements in the left column, and when it is determined that they are different, the process proceeds to step 295 in FIG. For example, when the setting result of the symbol element in the left column is “7” and the setting result of the symbol element in the middle column is “8”, the decoration symbol is recorded in the fixed symbol storage unit 155 with the combination of “787”.

  When CPU 71 determines in step S377 of FIG. 66 that the setting result of the middle row symbol elements and the setting result of the left row symbol elements are the same, in step 378, the middle row symbol elements are set in step S376. Change to the symbol element next to the symbol element. For example, when the setting result of the symbol element in the left column and the setting result of the symbol element in the middle column are “8”, the symbol element in the middle column is changed to “1” next to “8”, and the fixed symbol storage unit In 155, the decorative symbol is recorded as a combination “818” of the detachment reach.

  If the CPU 71 determines in step S293 in FIG. 61 that the detection result of the EXT data is different from any of the outlier reach determination values “10 (h)” to “40 (h)”, the complete out symbol setting in step S296 is performed. Proceed to processing, and set the decorative pattern to a completely out of combination. Then, the process proceeds to step S297, and the setting result of the completely out of combination is recorded in the confirmed symbol storage unit 155.

  FIG. 67 shows the details of the complete out symbol design processing in step S296. The CPU 71 detects the left symbol table in FIG. 30 (d) from the ROM 72 in step S381, and from the ROM 72 in FIG. 67 in step S382. The middle symbol table of (b) is detected, and the right symbol table of FIG. 32 is detected from the ROM 72 in step S383 of FIG. In step S384 of FIG. 67, the measurement result of the random counter SR1 is detected from the counter storage unit 154. In step S385, the symbol element corresponding to the detection result of the random counter SR1 is selected from the left symbol table, and the symbol element in the left column is selected. Set to. For example, when “SR1 = 200”, the symbol element “7” is selected, and the symbol element in the left column is set to “7”.

  When the CPU 71 sets the symbol elements in the left column in step S385, the CPU 71 detects the measurement result of the random counter SR2 from the counter storage unit 154 in step S386. In step S387, a symbol element corresponding to the detection result of the random counter SR2 is selected from the middle symbol table, and the symbol element in the middle row is set as the symbol element selection result. For example, when “SR2 = 100”, the symbol element “5” is selected, and the symbol element in the middle row is set to “5”.

  When the CPU 71 sets the middle row of symbol elements in step S387, the CPU 71 detects the measurement result of the random counter SR3 from the counter storage unit 154 in step S388. In step S389, a symbol element corresponding to the detection result of the random counter SR3 is selected from the right symbol table, and the symbol element in the right column is set as the symbol element selection result. For example, when “SR3 = 50”, the symbol element “6” is selected, and the symbol element in the right column is set to “6”.

  When the CPU 71 sets the symbol elements in the right column in step S389, the CPU 71 proceeds to step S390. Here, the setting result of the symbol element in the left column is compared with the setting result of the symbol element in the right column, and if it is determined that they are different, the process proceeds to step 297 in FIG. For example, when the setting result of the symbol element in the left column is “8”, the setting result of the symbol element in the right column is “7”, and the setting result of the symbol element in the middle column is “1”, the decoration symbol is stored in the fixed symbol storage unit 155. Is recorded as a completely out-of-combination combination “817”.

  When the CPU 71 determines in step S390 in FIG. 67 that the setting result of the left column symbol element and the right column symbol element setting result are the same, the CPU 71 sets the right column symbol element in step S389. Change to the symbol element next to the symbol element. For example, when the setting result of the symbol element in the left column is “8”, the setting result of the symbol element in the right column is “8”, and the setting result of the symbol element in the middle column is “1”, the symbol element in the right column is “8”. To the next “1”, and the decoration symbol is recorded in the confirmed symbol storage unit 155 with the combination “811” that is completely off.

  When the CPU 71 sets the confirmed symbol storage unit 155 in any of step S288, step S291, step S295, and step S297 in FIG. 61, whether or not the process data setting result is process data # 00 in step S298 in FIG. Judging. As shown in FIG. 79, this process data # 00 is to stop the change of the notice symbol in an unfinished combination, and the CPU 71 sets the process data setting result in step S298 in FIG. When it is determined that it is 00, the process proceeds to the notice symbol setting process 1 in step S299. In step S299, the notice symbol setting process 1 sets the notice symbol to an incomplete combination, and in step S300, the result of setting the incomplete combination is recorded in the notice symbol storage unit 157.

  FIG. 68 shows the details of the notice symbol setting process 1 in step S299. The CPU 71 detects the incomplete left symbol table in FIG. 33 (c) from the ROM 72 in step S401, and from the ROM 72 in step S402 in FIG. The incomplete symbol table in FIG. 34 is detected, and the incomplete right symbol table in FIG. 35 is detected from the ROM 72 in step S403 in FIG. In step S404 of FIG. 68, the measurement result of the random counter SR1 is detected from the counter storage unit 154. In step S405, the notice pattern element in the left column corresponding to the detection result of the random counter SR1 is selected from the unfinished left symbol table. . For example, when “SR1 = 200”, the notice element “head C” in the left column is selected.

  When the CPU 71 selects the notice element in the left column in step S405, the CPU 71 detects the measurement result of the random counter SR2 from the counter storage unit 154 in step S406. Then, the process proceeds to step S407, and the middle row notice element corresponding to the detection result of the random counter SR2 is selected from the incomplete symbol table. For example, when “SR2 = 100”, the notice element “body B” in the middle row is selected.

  When the CPU 71 selects the notice element in the middle row in step S407, the CPU 71 detects the measurement result of the random counter SR3 from the counter storage unit 154 in step S408. Then, the process proceeds to step S409, and the notice element in the right column corresponding to the detection result of the random counter SR3 is selected from the incomplete right symbol table. For example, when “SR3 = 50”, the notice element “leg C” in the right column is selected.

  When the CPU 71 selects the notice element in the right column in step S409, the CPU 71 determines in step S410 whether the selection result of the notice element in the left column and the selection result of the symbol element in the right column are a combination immediately before completion. If it is determined here that the combination is not immediately before completion, the process proceeds to step 300 in FIG. For example, when the selection result of the notice element in the left column is “head A”, the selection result of the notice element in the right column is “leg C”, and the selection result of the notice element in the middle column is “body A”, the left column It is determined that the selection result of the previous notice element and the selection result of the right notice element in the right column are not the combination immediately before completion, and the combination “head A trunk A leg C is not completed in the notice symbol storage unit 157. Is recorded.

  When the CPU 71 determines in step S410 in FIG. 68 that the selection result of the left column notification element and the selection item of the right column notification are the combination just before completion, the right column notification element is selected in step S409. Change to the next notice element of the notice element. For example, if the selection result of the notification element in the left column is “head C”, the setting result of the notification element in the right column is “leg C”, and the setting result of the notification element in the middle column is “body A”, the left column It is determined that the selection result of the previous notice element and the selection result of the right notice element in the right column are a combination immediately before completion. In this case, the selection result of the notice element in the right column is changed to “leg part A” next to “leg part C”, and the combination “head C trunk part A in which the notice symbol is not completed in the notice symbol storage part 157 is changed. Recorded in “leg A”.

  When CPU 71 determines in step S298 in FIG. 62 that the process data setting result is not process data # 00, CPU 71 determines in step S301 whether or not the process data setting result is process data # 01. As shown in FIG. 79, this process data # 01 is to stop the change of the notice symbol by a combination of collapse of the completion, and the CPU 71 confirms that the process data setting result is process data # 01 in step S301 of FIG. Is determined, the process proceeds to the notice symbol setting process 2 in step S302. In step S302, the notice symbol setting process 2 sets the notice symbol as a combination of completion failure, and in step S303, the result of setting the combination of completion failure is recorded in the notice symbol storage unit 157.

  FIG. 69 shows the details of the notice symbol setting process 2 in step S302. The CPU 71 detects the completed broken symbol table in FIG. 33B from the ROM 72 in step S421, and the diagram from the ROM 72 in step S422 in FIG. 34 incomplete symbol tables are detected. In step S423 of FIG. 69, the measurement result of the random counter SR1 is detected from the counter storage unit 154. In step S424, the notice pattern element in the left column and the right column in accordance with the detection result of the random counter SR1 are detected from the completed collapsed symbol table. Select each of the notice elements. For example, when “SR1 = 100”, the notice element “head B” in the left column and the notice element “leg B” in the right column are selected.

  When the CPU 71 selects the notice element in the left column and the notice element in the right column in step S424, the CPU 71 detects the measurement result of the random counter SR2 from the counter storage unit 154 in step S425. Then, the process proceeds to step S426, and the middle row notice element corresponding to the detection result of the random counter SR2 is selected from the incomplete symbol table. For example, when “SR2 = 150”, the notice element “body C” in the middle row is selected.

  If CPU71 selects the notice element of a middle row | line | column by step S426, it will transfer to step S427. Here, whether the selection result of the notice element in the left column, the selection result of the notice element in the middle column, and the selection result of the notice element in the right column is a combination of completion, and the three parties are not a combination of completion Is determined, the process proceeds to step 303 in FIG. For example, when the selection result of the notice element in the left row is “head A”, the choice result of the notice element in the right column is “leg A”, and the selection result of the notice element in the middle row is “body B”, three parties Is determined not to be a completed combination, and the notice symbol storage unit 157 records the notice symbol as a combination “head A trunk B leg A”.

  When the CPU 71 determines in step S427 in FIG. 69 that the selection result of the left-hand notice element, the selection result of the middle-row notice element, and the selection result of the right-hand notice element is a combination of completion, the middle row in step S428. The notice element is changed to the notice element next to the notice element selected in step S426. For example, when the selection result of the notification element in the left column is “head C”, the setting result of the notification element in the right column is “leg C”, and the setting result of the symbol element in the middle column is “body C”, three parties Is determined to be a complete combination. In this case, the selection result of the notice element in the middle row is changed to “torso A” next to “torso C”, and the notice symbol is stored in the notice symbol storage unit 157 in the combination “head C torso A”. Recorded as “leg C”.

  If the CPU 71 determines in step S301 in FIG. 62 that the process data setting result is not the process data # 01, the CPU 71 determines in step S304 whether the process data setting result is either the process data # 10 or the process data # 11. Judging. As shown in FIG. 82, each of the process data # 10 and the process data # 11 is to stop the change of the notice symbol in an incomplete combination, and the CPU 71 displays the process data setting result in step S304 in FIG. When it is determined that the process data is either process data # 10 or process data # 11, the process proceeds to the notice symbol setting process 1 in step S305. The notice symbol setting process 1 of step S305 is to set the notice symbol to an incomplete combination in the same procedure as step S299, and when the CPU 71 sets the notice symbol to an incomplete combination in step S305, the process proceeds to step S306. Then, the setting result of the incomplete combination is recorded in the notice symbol storage unit 157.

  When CPU 71 determines in step S304 in FIG. 62 that the process data setting result is neither process data # 10 nor process data # 11, CPU 71 determines that the process data setting result is process data # 20 and process data # 21 in step S307. It is judged whether it is either of these. As shown in FIG. 84, each of the process data # 20 and the process data # 21 is to stop the variation of the notice symbol by the combination of completion after the variation of the decorative symbol is stopped by the combination of the temporary detachment reach, When the CPU 71 determines in step S307 in FIG. 62 that the process data setting result is either process data # 20 or process data # 21, the CPU 71 proceeds to the notice symbol setting process 3 in step S308. Here, the notice symbol is set to the completed combination, and the result of setting the completed combination is recorded in the notice symbol storage unit 157 in step S309.

  FIG. 70 shows details of the notice symbol setting process 3 in step S308. The CPU 71 detects the completed symbol table in FIG. 33A from the ROM 72 in step S431. 70. In step S432 of FIG. 70, the measurement result of the random counter SR1 is detected from the counter storage unit 154. In step S433, the notice pattern element in the left column and the notice in the middle column corresponding to the detection result of the random counter SR1 from the completed symbol table. Select each element and notice element in the right column. For example, when “SR1 = 0”, the left-hand notice element “head A”, the middle-row notice element “body A”, and the right-hand notice element “leg part A” are selected, and the notice symbol storage unit 157 is selected. The notice symbol is recorded in the completed combination “head A trunk A leg A”.

  When the CPU 71 records the setting result of the notice symbol in the notice symbol storage unit 157 in step S309 in FIG. 62, the CPU 71 proceeds to a detach reach symbol setting process in step S310. The outreach symbol setting process in step S310 is to set the decoration symbol as a combination of outreach in the same procedure as in step S294 in FIG. 61. The CPU 71 converts the decoration symbol into a combination of outreach in step S310 in FIG. When it is set, the process proceeds to step S 311, and the setting result of the outlier reach combination is recorded in the temporary symbol storage unit 156.

  If the CPU 71 determines in step S307 in FIG. 62 that the process data setting result is neither process data # 20 nor process data # 21, the process data setting result in step S312 in FIG. It is determined whether the data is any of data # 31. As shown in FIG. 86, each of the process data # 30 and the process data # 31 displays the preview connection area Y by connecting the left notice area Ly, the middle notice area Cy, and the right notice area Ry to each other. The effect elements are displayed in order in the fluctuating state and the fluctuating stop state in the notice linked region Y, and the CPU 71 determines whether the process data setting result is either process data # 30 or process data # 31 in step S312 of FIG. When it is determined that there is, the process proceeds to the notice symbol setting process 3 in step S313. The notice symbol setting process 3 is to set the notice symbol to the completed combination in the same procedure as step S308 in FIG. 62. When the notice symbol is set to the completed combination in step S313 in FIG. 63, the CPU 71 performs step S314. , And the setting result of the completed combination is recorded in the notice symbol storage unit 157.

  When the CPU 71 records the completed combination setting result in the notice symbol storage unit 157 in step S314, the CPU 71 sets the effect element in the effect element setting process in step S315, and the effect element setting result in the effect element storage unit 158 in step S316. Record. FIG. 71 shows the details of the effect element setting process in step S315, and the CPU 71 detects the effect element table in FIG. 36 from the ROM 72 in step S441. In step S442 in FIG. 71, the measurement result of the random counter SR4 is detected from the counter storage unit 154. In step S443, an effect element corresponding to the detection result of the random counter SR4 is selected from the effect element table. For example, when “SR4 = 5”, the effect element “notice symbol B” is selected, and the effect element “notice symbol B” is recorded in the effect element storage unit 158.

  If the CPU 71 determines in step S312 of FIG. 63 that the process data setting result is neither process data # 30 nor process data # 31, then in step S317 the process data setting result is process data # 40 and process data # 41. It is judged whether it is either of these. As shown in FIGS. 92 and 93, each of the process data # 40 and the process data # 41 displays the left connection area Lc, the middle connection area Cc, and the right connection area Rc after the notice connection area Y is displayed. The large effect elements are sequentially displayed in the fluctuating state and the fluctuating stop state in each of the left connecting region Lc, the middle connecting region Cc, and the right connecting region Rc. The CPU 71 displays process data in step S317 in FIG. When it is determined that the setting result is either process data # 40 or process data # 41, the process proceeds to the notice symbol setting process 3 in step S318. The notice symbol setting process 3 is to set the notice symbol to the completed combination in the same procedure as step S308 in FIG. 62. When the notice symbol is set to the completed combination in step S318 in FIG. 63, the CPU 71 performs step S319. , And the setting result of the completed combination is recorded in the notice symbol storage unit 157.

  When the CPU 71 records the setting result of the notice symbol in the notice symbol storage unit 157 in step S319, the reception result of the symbol information command is detected from the command storage unit 151 in step S320, and the detection result of the symbol information command is “ It is determined whether it is “9000 (h)”. Here, when it is determined that the detection result of the symbol information command is “9000 (h)”, in the large effect symbol setting process 1 in step S321, the large effect symbol is converted into a combination of a probable big hit, a normal jackpot combination, and a completed combination. In step S325, the setting result of the probability variation big hit combination, the setting result of the normal big hit combination, or the setting result of the completed combination is recorded in the big effect element storage unit 159.

  FIG. 72 shows details of the large effect symbol setting process 1 in step S321, and the CPU 71 detects the large effect symbol table 1 in FIG. 37 (a) from the ROM 72 in step S451. Then, in step S452 of FIG. 72, the measurement result of the random counter SR5 is detected from the counter storage unit 154, and the process proceeds to step S453. Here, each of the large production element in the left column, the large production element in the middle row, and the large production element in the right column corresponding to the detection result of the random counter SR5 is selected from the large production symbol table 1, and Set to any combination of combination, normal jackpot combination, and completion. For example, when the detection result of the random counter SR5 is “200”, the large effect element “head C” in the left column is selected, the large effect element “body C” in the middle row is selected, and the large effect element in the right column “Leg C” is selected, and the large effect design is recorded in the large effect element storage unit 159 with the completed combination “head C trunk C leg C”. When the detection result of the random counter SR5 is “120”, the large effect element “7” in the left column is selected, the large effect element “7” in the middle row is selected, and the large effect element “7” in the right column. Is selected, and the large effect symbol is recorded in the large effect element storage unit 159 with the probability variation jackpot combination “777”.

  If the CPU 71 determines in step S320 of FIG. 63 that the detection result of the symbol information command is not for a probable big hit, whether or not the detection result of the symbol information command is “9001 (h)” for a normal big hit in step S322. Judging. Here, when it is determined that the detection result of the symbol information command is “9001 (h)”, the large effect symbol setting process 2 in step S323 sets the large effect symbol to either the normal jackpot combination or the completion combination. In step S325, the setting result of the normal jackpot combination or the completion combination setting is recorded in the large effect element storage unit 159.

  FIG. 73 shows details of the large effect symbol setting process 2 in step S323, and the CPU 71 detects the large effect symbol table 2 in FIG. 37B from the ROM 72 in step S461. Then, in step S462 of FIG. 72, the measurement result of the random counter SR5 is detected from the counter storage unit 154, and the process proceeds to step S463. Here, each of the large effect element in the left column, the large effect element in the middle row, and the large effect element in the right column according to the detection result of the random counter SR5 is selected from the large effect symbol table 2, and the effect symbol is combined with the normal jackpot And any combination of completion. For example, when the detection result of the random counter SR5 is “140”, the large effect element “head A” in the left column is selected, the large effect element “body A” in the middle row is selected, and the large effect element in the right column “Leg A” is selected, and the large effect design is recorded in the large effect element storage unit 159 with the completed combination “head A trunk A leg A”. When the detection result of the random counter SR5 is “30”, the large effect element “2” in the left column is selected, the large effect element “2” in the middle row is selected, and the large effect element “2” in the right column. Is selected, and the large effect symbol is recorded in the large effect element storage unit 159 in the normal big hit combination “222”.

  If the process data # 40 for outreach is set, the CPU 71 determines in step S322 in FIG. 63 that the detection result of the symbol information command is not usually for big hit, and the large effect symbol setting process 3 in step S324. Migrate to In this large production symbol setting process 3, the large production symbol is set to one of the combination of outlier reach and the combination of complete collapse, and in step S325, the setting result of the combination of outlier reach or the combination of complete collapse is used as the large production element. Record in the storage unit 159.

  FIG. 74 shows details of the large effect symbol setting process 3 in step S324. The CPU 71 detects the large effect symbol table 3 in FIG. 38 (a) from the ROM 72 in step S471, and the ROM 72 in step S472 in FIG. From FIG. 38, the large effect symbol table 4 of (b) is detected. 74. In step S473 of FIG. 74, the measurement result of the random counter SR5 is detected from the counter storage unit 154. In step S474, the large effect element in the left column and the right column corresponding to the detection result of the random counter SR5 from the large effect symbol table 3 are detected. Select each of the large production elements. For example, when “SR5 = 50”, the large effect element “head A” in the left column is selected, and the large effect element “leg part A” in the right column is selected.

  When CPU 71 selects each of the left stage large effect element and the right column large effect element in step S474, CPU 71 detects the measurement result of random counter SR6 from counter storage unit 154 in step S475. Then, the process proceeds to step S476, and a medium row large effect element corresponding to the detection result of the random counter SR6 is selected from the large effect symbol table 4. For example, when “SR6 = 50”, the large production element “6” in the middle row is selected.

  When the CPU 71 selects the middle stage large effect element in step S476 of FIG. 74, the process proceeds to step S477. Here, the selection result of the big production element in the left row, the selection result of the big production element in the middle row, and the selection result of the big production element in the right row are either the combination of the probable big hit, the combination of the normal big hit, or the combination of the completion When it is determined that the selection result of the large production element in the left column to the selection of the large production element in the right column is not one of the combination of the probable big hit, the combination of the normal big hit, and the combination of the completion Control proceeds to step 325 in FIG. For example, when the selection result of the large production element in the left column is “head A”, the selection result of the large production element in the middle row is “8”, and the selection result of the large production element in the right column is “Leg A”, 3 It is determined that the user cannot be one of the probable big hit combination, the normal big hit combination, or the completed combination, and the large production element storage unit 159 has a combination of the large production pattern “Head A 8 Leg A”. To be recorded.

  If the CPU 71 determines in step S477 of FIG. 74 that the selection result of the large effect element in the left column to the selection result of the large effect element in the right column is one of the combination of the probability variation big hit, the combination of the normal big hit, and the combination of completion. In step 478, the large production element in the middle row is changed to the next large production element after the large production element selected in step S476. For example, when the selection result of the large production element in the left column is “8”, the selection result of the large production element in the middle row is “8”, and the selection result of the large production element in the right column is “8”, the large production of the middle row The element is changed to “body A” next to “8”, and the large effect symbol is recorded in the large effect element storage unit 159 with the combination “8 trunk A 8” of the reach. In addition, the selection result of the large production element in the left column is “head C”, the selection result of the large production element in the middle row is “body C”, and the selection result of the large production element in the right column is “leg C”. In some cases, the large stage element in the middle row is changed to “1” next to “body C”, and the large stage pattern is recorded in the large stage element storage unit 159 with the combination “head C 1 leg C” of the complete collapse. Is done.

  When the process data setting result is either process data # 50 or process data # 51, the CPU 71 proceeds from step S317 to step S326 in FIG. As shown in FIGS. 96 and 97, each of the process data # 50 and the process data # 51 displays the left connection area Lc, the middle connection area Cc, and the right connection area Rc after the notice connection area Y is displayed. Then, the oversized connected area B is displayed in the left connected area Lc, the middle connected area Cc, and the right connected area Rc without displaying the large effect elements in the variable stop state, and the oversized connected area B is displayed. The elements are sequentially displayed in a variable state and a variable stop state, and when the CPU 71 proceeds to step S326 in FIG. 63, the notice symbol is set to a completed combination in the same procedure as step S308 in FIG. In step S327, the completed combination setting result is recorded in the notice symbol storage unit 157.

  When the CPU 71 records the setting result of the notice symbol in the notice symbol storage unit 157 in step S327, the CPU 71 detects the reception result of the symbol information command from the command storage unit 151 in step S328, and the detection result of the symbol information command is “ It is determined whether it is “9000 (h)”. Here, when it is determined that the detection result of the symbol information command is “9000 (h)”, an oversized effect element is set in the oversized effect element setting process 1 in step S329, and an oversized effect element storage unit 160 is set in step S333. Record the effect element setting results.

  FIG. 75 shows the details of the oversized effect element setting process 1 in step S329, and the CPU 71 detects the oversized effect element table 1 in FIG. 39A from the ROM 72 in step S481. In step S482 in FIG. 75, the measurement result of the random counter SR7 is detected from the counter storage unit 154, and in step S483, the extra large effect element corresponding to the detection result of the random counter SR7 is selected from the extra large effect element table 1. For example, when “SR7 = 20”, the oversized effect element “7” is selected, and the oversized effect element “7” is recorded in the oversized effect element storage unit 160.

  If the CPU 71 determines in step S328 of FIG. 63 that the detection result of the symbol information command is not for a probable big hit, whether or not the detection result of the symbol information command is “9001 (h)” for a normal big hit in step S330. Judging. Here, when it is determined that the detection result of the symbol information command is “9001 (h)”, an oversized effect element is set in the oversized effect element setting process 2 in step S331, and the oversized effect element storage unit 160 is oversized in step S333. Record the effect element setting results.

  FIG. 76 shows details of the oversized effect element setting process 2 in step S331, and the CPU 71 detects the oversized effect element table 2 in FIG. 39B from the ROM 72 in step S491. In step S492 in FIG. 76, the measurement result of the random counter SR7 is detected from the counter storage unit 154, and in step S493, an extra large effect element corresponding to the detection result of the random counter SR7 is selected from the extra large effect element table 2. For example, when “SR7 = 10”, the oversized effect element “4” is selected, and the oversized effect element “4” is recorded in the oversized effect element storage unit 160.

  If the process data # 50 for outreach is set, the CPU 71 determines in step S330 in FIG. 63 that the detection result of the symbol information command is not usually for big hit, and the extra large effect element setting process 3 in step S332. Migrate to In this oversized effect element setting process 3, an oversized effect element is set, and in step S333, the setting result of the oversized effect element is recorded in the oversized effect element storage unit 160.

  FIG. 77 shows details of the oversized effect element setting process 3 in step S332, and the CPU 71 detects the oversized effect element table 3 in FIG. 39C from the ROM 72 in step S501. In step S502 in FIG. 77, the measurement result of the random counter SR7 is detected from the counter storage unit 154, and in step S503, the extra large effect element corresponding to the detection result of the random counter SR7 is selected from the extra large effect element table 3. For example, when “SR7 = 10”, the oversized effect element “notice symbol B” is selected, and the oversized effect element “notice symbol B” is recorded in the oversized effect element storage unit 160.

  When the CPU 71 proceeds to step S334 in FIG. 63, the CPU 71 detects the decorative design game video data table in FIG. When the process data number selection result is either P30 or P31, a video data number corresponding to both the process data number selection result and the effect element setting result is selected from the video data table, and the process data number When the selection result is neither P30 nor P31, the video data number corresponding to the selection result of the process data number is selected from the video data table. For example, when the process data number P30 is selected, the video data number V30A to V30C is selected according to the setting result of the notice symbol, and when the process data number P41 is selected, the video data number # V41 is selected. Is done.

  When the video data number is selected in step S334 in FIG. 63, the CPU 71 transmits the selection result of the video data number to the display control circuit 80 in step S335, and transmits a reproduction start command to the display control circuit 80 in step S336. When the display control circuit 80 receives the selection result of the video data number, the display control circuit 80 selects the video data for the decoration symbol game corresponding to the reception result of the video data number from the VROM, and develops the selection result of the video data in the RAM. Based on the reception of the reproduction start command, reproduction of the video data selection result developed in the VRAM is started.

When the CPU 71 transmits a reproduction start command to the display control circuit 80 in step S336, the CPU 71 transmits a hold deletion command to the display control circuit 80 in step S337. When the display control circuit 80 receives a hold erasure command, the display control circuit 80 deletes one hold picture 34 from the hold display area 35 of the decorative symbol display 33.
[13-3-2] Decoration symbol game processing The decoration symbol game processing in step S276 of FIG. 60 measures the elapsed time of the decoration symbol game based on adding the unit time to the variable timer ST1 of the timer storage unit 153. When the addition result of the variation timer ST1 in the timer storage unit 153 matches one of a plurality of process timer setting values corresponding to the process data setting result, the process data setting result is changed to the variation timer ST1 addition result. Each of the corresponding display control data, audio control data, and electrical decoration control data is detected, the display control data detection result is transmitted to the display control circuit 80, the audio control data detection result is transmitted to the audio control circuit 90, The result of detecting the electric decoration control data is transmitted to the electric decoration control circuit 100. In the decorative design game, the display control circuit 80 uses the decorative design display 3 3 is controlled based on the reception result of the display control data, the audio control circuit 90 controls each of the speakers 14 based on the reception result of the audio control data, and the illumination control circuit 100 is a plurality of illuminations. This is performed by controlling each of the LEDs 17 based on the reception result of the illumination control data.

  FIG. 78 shows the processing contents of the CPU 71 when the process data # 00 is set. The CPU 71 adds the unit time to the variable timer ST1 of the timer storage unit 153 in step S511 and displays the decorative symbol game. Measure elapsed time. Then, the process proceeds to step S512, where the process timer setting value for the all-graphics variation start command is detected from the process data # 00, and the detection result of the process timer setting value for the all-graphics variation start command is used as the addition result of the variation timer ST1. Compare. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the all diagram variation start command, the process proceeds to step S513, and the all diagram variation start command is transmitted to the display control circuit 80. Then, the display control circuit 80 detects the video data corresponding to the all symbol variation start command from the VROM, and the left variation region Lm and the middle variation are displayed on the decorative symbol display 33 based on the video data detection result superimposed on the video data. Each of the area Cm, the right change area Rm, the left notice area Ly, the middle notice area Cy, and the right notice area Ry is displayed, and the display of the symbol elements in the left column in the change state is started in the left change area Lm. In Cm, display of the middle row of symbol elements in a changing state is started. In the right changing region Rm, the display of the right row of symbol elements is started in a changing state. In the left warning region Ly, the left row of warning elements is changed. The display is started, the display of the middle row of the notice elements in the middle notice area Cy is started in a changing state, and the right row of the notice elements is started to be displayed in the right state of the right notice area Ry. FIG. 79 (a) shows an image in which display of the symbol elements in each column and the notice elements in each column is started in a fluctuating state.

  When the CPU 71 proceeds to step S514 in FIG. 78, the process timer setting value for the symbol element stop command in the left column is detected from the process data # 00, and the detection result of the process timer setting value for the symbol element stop command in the left column is detected. It compares with the addition result of fluctuation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the symbol element stop command in the left column, the process proceeds to step S515, and the setting result of the symbol element in the left column is determined from the confirmed symbol storage unit 155. Is detected. Then, the detection result of the symbol element in the left column is transmitted to the display control circuit 80, and the symbol element stop command in the left column is transmitted to the display control circuit 80 in step S516. Then, the display control circuit 80 stops the variation display of the symbol elements in the left column at the reception result, and displays the reception results of the symbol elements in the left column in the left variation area Lm of the decorative symbol display 33 in a stationary state. FIG. 79 (b) shows a video in which the symbol elements in the left column have stopped changing.

  When the CPU 71 proceeds to step S517 in FIG. 78, the process timer setting value for the notice element stop command in the left column is detected from the process data # 00, and the detection result of the process timer setting value for the notice element stop command in the left column is detected. It compares with the addition result of fluctuation timer ST1. If it is determined that the addition result of the variable timer ST1 has reached the process timer set value for the notice element stop command in the left column, the process proceeds to step S518, and the result of setting the notice element in the left column from the notice symbol storage unit 157 Is detected. Then, the detection result of the notice element in the left column is transmitted to the display control circuit 80, and the notice element stop command in the left column is transmitted to the display control circuit 80 in step S519. Then, the display control circuit 80 stops the change display of the notice element in the left column at the reception result, and displays the reception result of the notice element in the left column in the left notice area Ly of the decorative symbol display 33 in a stationary state. FIG. 79 (c) shows an image in which the notice element in the left column is stopped changing.

  When the CPU 71 proceeds to step S520 in FIG. 78, the process timer setting value for the symbol element stop command in the right column is detected from the process data # 00, and the detection result of the process timer setting value for the symbol element stop command in the right column is displayed. It compares with the addition result of fluctuation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the symbol element stop command in the right column, the process proceeds to step S521, and the setting result of the symbol element in the right column is determined from the confirmed symbol storage unit 155. Is detected. Then, the detection result of the symbol element in the right column is transmitted to the display control circuit 80, and the symbol element stop command in the right column is transmitted to the display control circuit 80 in step S522. Then, the display control circuit 80 stops the fluctuation display of the symbol elements in the right column with the reception result, and displays the reception results of the symbol elements in the right column in the right fluctuation area Rm of the decorative symbol display 33 in a stationary state. When the process data # 00 is set, the decoration symbol is set to a completely out-of-combination combination, and when the symbol element in the right column stops changing, the decoration symbol does not reach the reach state as shown in FIG. 79 (d). .

  When the CPU 71 proceeds to step S523 in FIG. 78, the process timer setting value for the notice element stop command in the right column is detected from the process data # 00, and the detection result of the process timer setting value for the notice element stop command in the right column is displayed. It compares with the addition result of fluctuation timer ST1. If it is determined that the addition result of the variable timer ST1 has reached the process timer set value for the notice element stop command in the right column, the process proceeds to step S524, and the result of setting the notice element in the right column from the notice symbol storage unit 157 Is detected. Then, the detection result of the notice element in the right column is transmitted to the display control circuit 80, and the notice element stop command in the right column is transmitted to the display control circuit 80 in step S525. Then, the display control circuit 80 stops the change display of the right notice elements in the right row with the reception result, and displays the reception results of the right notice elements in the right notice area Ry of the decorative symbol display 33 in a stationary state. When the process data # 00 is set, the notice symbol is set to an incomplete combination, and when the notice element in the right column stops changing, the notice symbol corresponds to the reach state as shown in FIG. 79 (e). It is not a combination just before completion.

  When the CPU 71 proceeds to step S526 in FIG. 78, the process timer setting value for the symbol element stop command in the middle row is detected from the process data # 00, and the detection result of the process timer setting value for the symbol element stop command in the middle row is obtained. It compares with the addition result of fluctuation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the symbol element stop command in the middle column, the process proceeds to step S527, and the setting result of the symbol element in the middle column is determined from the confirmed symbol storage unit 155. Is detected. Then, the detection result of the middle row symbol elements is transmitted to the display control circuit 80, and the middle row symbol element stop command is transmitted to the display control circuit 80 in step S528. Then, the display control circuit 80 stops the change display of the middle row of symbol elements at the reception result, and displays the reception result of the middle row of symbol elements in the middle fluctuation region Cm of the decorative symbol display 33 in a stationary state. The process data # 00 is for complete detachment, and when the middle row of design elements stops changing, as shown in FIG. 79 (f), the decorative design is a combination of complete detachment.

  When the CPU 71 proceeds to step S529 in FIG. 78, it detects the process timer setting value for the notice element stop command in the middle row from the process data # 00, and the detection result of the process timer setting value for the notice element stop command in the middle row is detected. It compares with the addition result of fluctuation timer ST1. When it is determined that the addition result of the variable timer ST1 has reached the process timer set value for the notice element stop command in the middle row, the process proceeds to step S530, and the result of setting the notice element in the middle row from the notice symbol storage unit 157. Is detected. Then, the detection result of the middle row notice element is transmitted to the display control circuit 80, and the middle row notice element stop command is transmitted to the display control circuit 80 in step S531. Then, the display control circuit 80 stops the change display of the notice element in the middle row with the reception result, and displays the reception result of the notice element in the middle row in the stationary notice area Cy in the decorative symbol display 33 in a stationary state. When the process data # 00 is set, the notice symbol is set to an incomplete combination. When the notice element in the final middle row is in a stopped state, the notice symbol is not completed as shown in FIG. 79 (g). It becomes a combination.

  FIG. 80 shows the processing contents of the CPU 71 when the process data # 01 is set. This process data # 01 is set at the time of determination of complete deviation. As shown in FIG. 21 (b), the notice element low-speed fluctuation command is set at the timing immediately after the notice element stop command in the right column. It differs from process data # 00. At the time of setting this process data # 01, the CPU 71 transmits an all figure variation start command to the display control circuit 80 in step S513 of FIG. 80, and in step S515, transmits the setting result of the symbol elements in the left column of the confirmed symbol storage unit 155. Later, in step S516, a symbol element stop command in the left column is transmitted. Then, after transmitting the setting result of the notice element in the left column of the notice symbol storage unit 157 in step S518, a notice element stop command in the left column is transmitted in step S519, and the symbol in the right column of the confirmed symbol storage unit 155 is transmitted in step S521. After transmitting the element setting result, a symbol element stop command in the right column is transmitted in step S522. Next, in step S524, the result of setting the notice element in the right column of the notice symbol storage unit 157 is transmitted, and then a notice element stop command in the right column is transmitted in step S525. Accordingly, the symbol elements in the left column are suspended for the first time according to the recording result of the fixed symbol storage unit 155, the notice elements in the left column are suspended for the second time according to the recording result of the notice symbol storage unit 157, and the symbols in the right column are displayed. The element is stopped by the third change in the recording result of the fixed symbol storage unit 155, and the notice element in the right column is stopped by the fourth change in the recording result of the notice symbol storage unit 157. At the time of setting this process data # 01, the notice symbol is set to a combination of complete collapse, and as shown in FIG. 79 (h), each of the notice element in the left column and the notice element in the right column is variably stopped. Based on the above, a combination just before completion corresponding to the reach state is obtained.

  When the CPU 71 proceeds to step S541 in FIG. 80, it detects the process timer setting value for the notice element low-speed fluctuation command from the process data # 01, and detects the detection result of the process timer setting value for the notice element low-speed fluctuation command in the fluctuation timer ST1. Compare with the addition result. When it is determined that the addition result of the change timer ST1 has reached the process timer set value for the notice element low speed change command, the process proceeds to step S542, and the notice element low speed change command is transmitted to the display control circuit 80. The notice element low-speed fluctuation command is transmitted in a state where the notice element in the left column and the notice element in the right column are stopped in a combination just before completion, and the display control circuit 80 receives the notice element low-speed fluctuation command. Based on this, the fluctuation speed of the notice elements in the middle row is delayed compared to the fluctuation speed in accordance with the all-picture fluctuation start command, and the notice elements in the middle row are changed slowly in the middle notice area Cy in the decorative symbol display 33. Display with status. This fluctuating speed refers to an interval time during which a notice element is switched to the next notice element.

  When the CPU 71 transmits the warning element low-speed fluctuation command to the display control circuit 80 in step S542 of FIG. 80, the CPU 71 transmits the setting results of the middle row of symbol elements to the display control circuit 80 in step S527, and then step S528. Then, the middle row symbol element stop command is transmitted. After the setting result of the middle row notice element is sent in step S530, the middle row notice element stop command is sent in step S531. This process data # 01 is for complete detachment, and when the symbol elements in the middle row stop variably, as shown in FIG. When this process data # 01 is set, the notice symbol is set to a combination of collapsed completion. When the notice element in the final middle row is changed and stopped, the notice symbol is completed as shown in FIG. 79 (j). It becomes a combination of collapse.

  FIG. 81 shows the processing contents of the CPU 71 when each of the process data # 10 for outreach and the process data # 11 for jackpot is set. Each of the process data # 10 and the process data # 11 As shown in FIG. 22, it is different from the process data # 00 in that the symbol element low speed variation command is set at the timing immediately after the notice element stop command in the right column. When each of the process data # 10 and the process data # 11 is set, the CPU 71 transmits a full figure variation start command to the display control circuit 80 in step S513 in FIG. After transmitting the element setting result, a symbol element stop command in the left column is transmitted in step S516. Then, after transmitting the setting result of the notice element in the left column of the notice symbol storage unit 157 in step S518, a notice element stop command in the left column is transmitted in step S519, and the symbol in the right column of the confirmed symbol storage unit 155 is transmitted in step S521. After transmitting the element setting result, a symbol element stop command in the right column is transmitted in step S522. Next, in step S524, the result of setting the notice element in the right column of the notice symbol storage unit 157 is transmitted, and then a notice element stop command in the right column is transmitted in step S525. Accordingly, the symbol elements in the left column are suspended for the first time according to the recording result of the fixed symbol storage unit 155, the notice elements in the left column are suspended for the second time according to the recording result of the notice symbol storage unit 157, and the symbols in the right column are displayed. The element is stopped by the third change in the recording result of the fixed symbol storage unit 155, and the notice element in the right column is stopped by the fourth change in the recording result of the notice symbol storage unit 157. When the process data # 10 is set, the decorative symbol is set to the combination of detachment reach, and when the process data # 11 is set, the decorative symbol is set to the jackpot combination. At each time of setting, as shown in (d) of FIG. 82, the decorative symbols become a combination of reach when the symbol elements in the left column and the symbol elements in the right column stop changing. When each of the process data # 10 and the process data # 11 is set, the notice symbol is set to an incomplete combination. As shown in FIG. 82 (e), the notice element in the left column and Even if each of the notice elements in the right column stops variably, the notice symbol will not be the combination just before completion.

  When proceeding to step S551 in FIG. 81, the CPU 71 detects the process timer set value for the symbol element low-speed fluctuation command from the process data # 10 or the process data # 11, and the detection result of the process timer set value for the symbol element low-speed fluctuation command Is compared with the addition result of the variation timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the symbol element low-speed variation command, the process proceeds to step S552, and the symbol element low-speed variation command is transmitted to the display control circuit 80. This symbol element low-speed fluctuation command is transmitted in a state where the symbol elements in the left column and the symbol elements in the right column are stopped by a combination of reach, and the display control circuit 80 receives the symbol element low-speed fluctuation command. Based on the above, the fluctuation speed of the middle row of symbol elements is delayed as compared with the fluctuation speed according to the whole figure fluctuation start command, and the middle row of symbol elements within the middle fluctuation area Cm of the decorative symbol display 33 is in the low speed fluctuation state. Is displayed. The fluctuation speed refers to an interval time during which a symbol element is switched to the next symbol element.

  When the CPU 71 transmits a symbol element low speed fluctuation command to the display control circuit 80 in step S552 of FIG. 81, the CPU 71 transmits the setting result of the middle row of symbol elements in the determined symbol storage unit 155 in step S527, and then in step S528, the middle row of symbols. An element stop command is transmitted, and in step S530, the setting result of the notification element in the middle row of the notification symbol storage unit 157 is transmitted, and then a notification element stop command in the middle row is transmitted in step S531. Process data # 10 is for outreach, and when the middle row of design elements stops changing, the decorative design becomes a combination of outreach as shown in FIG. 82 (f). The process data # 11 is for big hits, and when the symbol elements in the middle row stop variably, as shown in FIG. 82 (h), the decorative symbols are either the probability big hit combination or the normal big hit combination. Become. When each of the process data # 10 and the process data # 11 is set, the notice symbol is set to an incomplete combination, and in the state where the notice element in the final middle row is stopped changing, (g) and ( As shown in each of i), the notice symbol becomes an incomplete combination.

  FIG. 83 shows the processing contents of the CPU 71 when the process data # 20 for outreach and the process data # 21 for jackpot are set. The process data # 20 and the process data # 21 are As shown in FIG. 23, it differs from the process data # 00 in that the symbol element low-speed fluctuation command and the notice element low-speed fluctuation command are set at the timing immediately after the notice element stop command in the right column. It is also different from the process data # 00 in that a symbol element deletion command, a symbol element reproduction command, a middle row re-variation start command, and a middle row re-variation stop command are set immediately after the notice element stop command. .

  When each of the process data # 20 and the process data # 21 is set, the CPU 71 transmits an all-graphics change start command to the display control circuit 80 in step S513 in FIG. 83, and in the step S515, the symbol elements in the left column of the temporary symbol storage unit 156 are displayed. In step S516, the symbol element stop command in the left column is transmitted. Then, after transmitting the setting result of the notice element in the left column of the notice symbol storage unit 157 in step S518, a notice element stop command in the left column is transmitted in step S519, and the symbol in the right column of the temporary symbol storage unit 156 is transmitted in step S521. After transmitting the element setting result, a symbol element stop command in the right column is transmitted in step S522. Next, in step S524, the result of setting the notice element in the right column of the notice symbol storage unit 157 is transmitted, and then a notice element stop command in the right column is transmitted in step S525. Therefore, the symbol elements in the left column are first suspended by the recording result of the temporary symbol storage unit 156, the notice elements in the left column are secondly suspended by the recording result of the notice symbol storage unit 157, and the symbols in the right column are stopped. The element is stopped by the third change in the recording result of the temporary symbol storage unit 156, and the notice element in the right column is stopped by the fourth change in the recording result of the notice symbol storage unit 157. At the time of setting each of the process data # 20 and the process data # 21, the decorative symbols are recorded in the temporary symbol storage unit 156 as a combination of temporary removal reach, and as shown in FIG. When each of the symbol elements and the symbol elements in the right column stops changing according to the recording result of the temporary symbol storage unit 156, the decorative symbol becomes a temporary reach combination. When each of the process data # 20 and the process data # 21 is set, the notice symbol is set to a complete combination. As shown in FIG. 84 (e), the notice element in the left column and the notice element in the right column are set. When each of them stops variably, the notice symbol becomes a combination just before completion.

  When the CPU 71 transmits the notice element stop command in the right column to the display control circuit 80 in step S525 of FIG. 83, the CPU 71 sends a symbol element low speed fluctuation command in step S552, and sends a notice element low speed fluctuation command in step S542. The symbol element low-speed fluctuation command is transmitted in a state where the symbol elements in the left column and the symbol elements in the right column are stopped by a combination of temporary reach, and the display control circuit 80 receives the symbol element low-speed fluctuation command. Based on this, the symbol elements in the middle row are displayed in a low-speed fluctuation state. The notice element low-speed fluctuation command is transmitted in a state in which the notice element in the left column and the notice element in the right column are stopped in a combination just before completion, and the display control circuit 80 receives the notice element low-speed fluctuation command. Based on this, the notice elements in the middle row are displayed in a low-speed fluctuation state.

  When the CPU 71 transmits the warning element low-speed fluctuation command to the display control circuit 80 in step S542 of FIG. 83, the CPU 71 transmits the setting result of the middle row of symbol elements in the temporary symbol storage unit 156 in step S527, and then in step S528, the middle row of symbols. An element stop command is transmitted, and in step S530, the setting result of the notification element in the middle row of the notification symbol storage unit 157 is transmitted, and then a notification element stop command in the middle row is transmitted in step S531. When each of the process data # 20 and the process data # 21 is set, the decorative symbols are recorded in the temporary symbol storage unit 156 in a combination of temporary outreach, and when the middle row of the symbol elements stops changing, FIG. As shown in (f), the decorative design is a combination of temporary disengagement reach. When each of the process data # 20 and the process data # 21 is set, the notice symbol is set to a complete combination, and when the notice element in the final middle row is stopped changing, as shown in (g) of FIG. In addition, the notice symbol is a complete combination.

  When the CPU 71 proceeds to step S561 in FIG. 83, the process data setting value for the symbol element deletion command is detected from the process data # 20 or the process data # 21, and the detection result of the process timer setting value for the symbol element deletion command is changed. It compares with the addition result of timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process element set value for the symbol element deletion command, the process proceeds to step S562, and a symbol element deletion command is transmitted to the display control circuit 80. This symbol element erasure command is transmitted in a state in which the decorative symbol is suspended by the combination of the temporary detachment reach and the notice symbol is suspended by the combination of completion. As shown in (h), the symbol element in the left column, the symbol element in the middle column, and the symbol element in the right column are deleted based on the reception of the symbol element deletion command.

  When the CPU 71 proceeds to step S563 in FIG. 83, the process timer setting value for the symbol element reproduction command is detected from the process data # 20 or the process data # 21, and the detection result of the process timer setting value for the symbol element reproduction command is changed. It compares with the addition result of timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the symbol element reproduction command, the process proceeds to step S564, and the setting result of the symbol element in the left column is detected from the confirmed symbol storage unit 155. To the display control circuit 80. In step S565, the setting result of the symbol element in the right column is detected from the confirmed symbol storage unit 155 and transmitted to the display control circuit 80, and the symbol element reproduction command is transmitted to the display control circuit 80 in step S566. This symbol element reproduction command is transmitted immediately after the symbol elements in each column are erased, and the display control circuit 80 determines the reception result of the symbol elements in the left column based on the reception of the symbol element reproduction command. A stationary state is displayed in the fluctuation region Lm, and a reception result of the symbol elements in the right column is displayed in a stationary state in the right fluctuation region Rm. When the process data # 20 is set, the decorative symbol is recorded in the fixed symbol recording unit 155 as a combination of out-of-reach, and when the process data # 21 is set, the decorative symbol is recorded as a positive symbol combination or a normal bonus combination. 84. When the symbol elements in the left column and the symbol elements in the right column are redisplayed based on the symbol element reproduction command, the combination of reach is obtained as shown in (i) of FIG.

  When the CPU 71 proceeds to step S567 in FIG. 83, it detects the process timer setting value for the middle row revariation start command from the process data # 20 or the process data # 21, and sets the process timer setting for the middle row revariation start command. The value detection result is compared with the addition result of the variation timer ST1. If it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the middle row re-variation start command, the process proceeds to step S568, and the middle row re-variation start command is transmitted to the display control circuit 80. To do. This re-change start command in the middle column is transmitted in a state where the symbol elements in the left column and the symbol elements in the right column are re-displayed in the combination of the reach, and the display control circuit 80 (FIG. 84) As shown in i), the symbol elements are re-displayed in the low-speed fluctuation state in the middle fluctuation area Cm based on the reception of the middle-row re-variation start command.

  When the CPU 71 proceeds to step S569 in FIG. 83, it detects the process timer setting value for the re-variation stop command in the middle column from the process data # 20 or the process data # 21, and sets the process timer for the re-variation stop command in the middle column. The value detection result is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the re-variation stop command in the middle row, the process proceeds to step S570, and the setting result of the middle row symbol element is determined from the confirmed symbol storage unit 155. Is detected and transmitted to the display control circuit 80. Then, the process proceeds to step S <b> 571, and a middle row re-variation stop command is transmitted to the display control circuit 80. The middle row re-variation stop command is transmitted in the low-speed fluctuation state of the middle row symbol element, and the display control circuit 80 receives the middle row re-variation stop command and receives the middle row symbol element. The low-speed fluctuation display is stopped at the reception result. Process data # 20 is for outliers, and when the middle row of symbol elements stops fluctuating as a result of recording in the confirmed symbol storage unit 155, as shown in (j) of FIG. It becomes a combination of reach. Process data # 21 is for big hits. When the middle row of symbol elements stops fluctuating according to the recording result of the fixed symbol recording unit 155, the decorative symbol is the final probability variation big hit as shown in FIG. 84 (k). Or a normal jackpot combination.

  FIG. 85 shows the processing contents of the CPU 71 when each of the process data # 30 for outreach and the process data # 31 for jackpot is set. Each of the process data # 30 and the process data # 31 As shown in FIG. 24, the process data # 00 is different in all respects except that the all-view variation start command is set.

  At the time of setting each of the process data # 30 and the process data # 31, the CPU 71 transmits an all-diagram change start command to the display control circuit 80 in step S513 in FIG. The process timer setting value for the area movement command is detected, and the detection result of the process timer setting value for the advance area movement command is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the advance notice area movement command, the process proceeds to step S582, and the advance notice area movement command is transmitted to the display control circuit 80. In this advance notice area movement command, symbol elements are variably displayed in the left change area Lm, the middle change area Cm, and the right change area Rm, respectively, and in the left notice area Ly, the middle notice area Cy, and the right notice area Ry. The display control circuit 80 sends each of the left notice area Ly and the right notice area Ry to the middle notice area Cy when receiving the notice area movement command. To move and display. Each of the movement display of the left notice area Ly and the movement display of the right notice area Ry is performed in a changing state of the notice element. The notice element of the left notice area Ly moves together with the left notice area Ly, and the right notice area Ly The notice element of Ry moves together with the right notice area Ry.

  In step S583, the CPU 71 detects the process timer setting value for the notice element deletion command from the process data # 30 or the process data # 31, and detects the detection result of the process timer setting value for the notice element deletion command in the variation timer ST1. Compare with the addition result. If it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the notice element deletion command, the process proceeds to step S584, and the notice element deletion command is transmitted to the display control circuit 80. This notice element deletion command is transmitted during the movement in which the left notice area Ly and the right notice area Ry move together with the notice element toward the middle notice area Cy. When received, the notice element in the left notice area Ly, the notice element in the middle notice area Cy, and the notice element in the right notice area Ry are deleted.

  When the CPU 71 proceeds to step S585, it detects the process timer setting value for the warning area erasure command from the process data # 30 or the process data # 31, and the detection result of the process timer setting value for the warning area erasure command is stored in the variation timer ST1. Compare with the addition result. If it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the advance notice area deletion command, the process proceeds to step S586, and the advance notice area erase command is transmitted to the display control circuit 80. This notice area clear command is transmitted immediately after the notice elements in each column are erased. As shown in FIG. 86 (b), the display control circuit 80 receives the notice area clear command. Each of the advance notice area Ly, the middle notice area Cy, and the right notice area Ry is erased during the movement.

  When the CPU 71 proceeds to step S587 in FIG. 85, it detects the process timer set value for the notice linked area display command from the process data # 30 or the process data # 31, and the detection result of the process timer set value for the notice linked area display command. Is compared with the addition result of the variation timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the notice linked area display command, the process proceeds to step S588, and the notice linked area display command is transmitted to the display control circuit 80. The notice link area display command is transmitted in a state where each of the left notice area Ly to the right notice area Ry is erased, and the display control circuit 80, as shown in FIG. When the area display command is received, the notice linked area Y is displayed at a display position recorded in advance in the ROM. That is, the display control circuit 80 displays an image in which the notice linked area Y is generated based on the connection of the left notice area Ly, the middle notice area Cy, and the right notice area Ry.

  When the CPU 71 proceeds to step S589 in FIG. 85, it detects the process timer setting value for the effect element variation start command from the process data # 30 or the process data # 31, and the detection result of the process timer setting value for the effect element variation start command Is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process element set value for the effect element variation start command, the process proceeds to step S590, and an effect element variation start command is transmitted to the display control circuit 80. This effect element change start command is transmitted in a state where the notice linked area Y is displayed, and the display control circuit 80 receives the effect element change start command as shown in FIG. 86 (d). Based on the above, the effect elements are cyclically displayed in the order of “notice symbol A”, “notice symbol B”, “notice symbol C”, “notice symbol A”,.

  When the CPU 71 proceeds to step S591 in FIG. 85, the process timer setting value for the symbol element stop command in the left column is detected from the process data # 30 or the process data # 31, and the process timer setting for the symbol element stop command in the left column is set. The value detection result is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the symbol element stop command in the left column, the process proceeds to step S592, and the setting result of the symbol element in the left column is determined from the confirmed symbol storage unit 155. Is detected. Then, the detection result of the symbol element in the left column is transmitted to the display control circuit 80, and the symbol element stop command in the left column is transmitted to the display control circuit 80 in step S593. Then, the display control circuit 80 stops the fluctuation display of the symbol elements in the left column at the reception result, and displays the reception results of the symbol elements in the left column in the left fluctuation area Lm in a stationary state. FIG. 86 (e) shows an image in which the symbol elements in the left column have stopped changing.

  When the CPU 71 proceeds to step S594 in FIG. 85, the process timer setting value for the symbol element stop command in the right column is detected from the process data # 30 or the process data # 31, and the process timer setting for the symbol element stop command in the right column is set. The value detection result is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the symbol element stop command in the right column, the process proceeds to step S595, and the setting result of the symbol element in the right column is determined from the confirmed symbol storage unit 155. Is detected. Then, the detection result of the symbol element in the right column is transmitted to the display control circuit 80, and the symbol element stop command in the right column is transmitted to the display control circuit 80 in step S596. Then, the display control circuit 80 stops the fluctuation display of the symbol elements in the right column at the reception result, and displays the reception results of the symbol elements in the right column in a stationary state in the right fluctuation region Rm. When the process data # 30 is set, the decorative symbol is set to the combination of outliers, and when the process data # 31 is set, the decorative symbol is set to the probability variation big hit combination or the normal big hit combination. In a state where each of the symbol elements in the column is stopped from fluctuating, the decorative symbols become a combination of reach as shown in FIG. 86 (f).

  When the CPU 71 proceeds to step S597 in FIG. 85, it detects the process timer setting value for the symbol element low-speed fluctuation command from the process data # 30 or the process data # 31, and the detection result of the process timer setting value for the symbol element low-speed fluctuation command Is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the symbol element low-speed variation command, the process proceeds to step S598, and the symbol element low-speed variation command is transmitted to the display control circuit 80. This symbol element low-speed fluctuation command is transmitted in a state where the symbol elements in the left column and the symbol elements in the right column are stopped by a combination of reach, and the display control circuit 80 receives the symbol element low-speed fluctuation command. Based on this, the symbol elements in the middle row are displayed in a low-speed fluctuation state.

  When the CPU 71 proceeds to step S599, it detects the process timer setting value for the effect element variation stop command from the process data # 30 or the process data # 31, and the detection result of the process timer setting value for the effect element variation stop command is detected as the variation timer. It compares with the addition result of ST1. When it is determined that the addition result of the variation timer ST1 has reached the process element set value for the effect element variation stop command, the process proceeds to step S600, and the effect element setting result is detected from the effect element storage unit 158. Then, the effect element detection result is transmitted to the display control circuit 80, and an effect element fluctuation stop command is transmitted to the display control circuit 80 in step S601. Then, the display control circuit 80 stops the change display of the effect element with the reception result, and displays the reception result of the effect element in the notice linked region Y in a stationary state as shown in FIG.

  In step S602 of FIG. 85, the CPU 71 detects the process timer setting value for the symbol element stop command in the middle row from the process data # 30 or the process data # 31, and sets the process timer for the symbol element stop command in the middle row. The value detection result is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the symbol element stop command in the middle column, the process proceeds to step S603, and the setting result of the symbol element in the middle column is determined from the confirmed symbol storage unit 155. Is detected. Then, the detection result of the middle row symbol elements is transmitted to the display control circuit 80, and the middle row symbol element stop command is transmitted to the display control circuit 80 in step S604. The middle row symbol element stop command is transmitted in a state where the middle row symbol elements are fluctuating at a low speed, and the display control circuit 80 receives the middle row symbol element stop command based on the reception of the middle row symbol element stop command. The symbol element fluctuation display is stopped at the reception result, and the reception results of the middle row symbol elements are displayed in a stationary state in the middle fluctuation region Cm. When the process data # 30 is set, the decorative symbol is set to the combination of outreach, and in the state where the middle row of the symbol elements is stopped, the combination of the decorative symbol is out of reach as shown in FIG. 86 (k). become. When the process data # 31 is set, the decorative symbol is set to the probability variation big hit combination or the normal big hit combination, and when the middle row of the symbol elements stops changing, as shown in FIG. 86 (h), the decorative symbol is set. Is either a promiscuous jackpot combination or a normal jackpot combination.

  When the CPU 71 proceeds to step S605 in FIG. 85, the process timer setting value for the effect element deletion command is detected from the process data # 30 or the process data # 31, and the detection result of the process timer setting value for the effect element deletion command is changed. It compares with the addition result of timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the effect element deletion command, the process proceeds to step S606, and the effect element deletion command is transmitted to the display control circuit 80. This effect element erasure command is transmitted in a state where the effect element is fluctuating and stopped in the notice linked area Y, and the display control circuit 80 receives the effect element erasure command in the notice linked area Y. Erase.

  In step S607, the CPU 71 detects the process timer setting value for the advance linked area erase command from the process data # 30 or the process data # 31, and sets the detection result of the process timer set value for the advance linked area erase command as the variation timer. It compares with the addition result of ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the advance linked area deletion command, the process proceeds to step S608, and the advance linked area erase command is transmitted to the display control circuit 80. The advance linked area deletion command is transmitted in a state where the effect elements in the advance linked area Y are deleted, and the display control circuit 80 notifies the advance as shown in FIGS. 86 (i) and (l). When the linked area deletion command is received, the notice linked area Y is deleted.

  When the CPU 71 proceeds to step S609 in FIG. 85, the process timer setting value for the warning area reproduction command is detected from the process data # 30 or the process data # 31, and the detection result of the process timer setting value for the warning area reproduction command is changed. It compares with the addition result of timer ST1. If it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the advance notice area reproduction command, the process proceeds to step S610, and the advance notice area reproduction command is transmitted to the display control circuit 80. This notice area reproduction command is transmitted in a state where the notice linked area Y is erased, and when the display control circuit 80 receives the notice area reproduction command, the left notice area Ly, the middle notice area Cy, and the right notice area Ry. Are re-displayed at the same initial position as when all the figure change start commands are received.

  When the CPU 71 proceeds to step S611 in FIG. 85, the process timer setting value for the notice symbol display command is detected from the process data # 30 or the process data # 31, and the detection result of the process timer setting value for the notice symbol display command is changed. It compares with the addition result of timer ST1. When it is determined that the addition result of the variable timer ST1 has reached the process timer set value for the notice symbol display command, the process proceeds to step S612, and the notice element setting result in the left column is detected from the notice symbol storage unit 157. To the display control circuit 80. In step S613, the setting result of the notice element in the middle row is detected from the notice symbol storage unit 157 and transmitted to the display control circuit 80. In step S614, the result of setting the notice element in the right column is detected from the notice symbol storage unit 157. Then, the data is transmitted to the display control circuit 80. Next, the process proceeds to step S615, and a notice symbol display command is transmitted to the display control circuit 80. This notice symbol display command is transmitted in a state in which each of the left notice area Ly to the right notice area Ry is redisplayed at the initial position, and the display control circuit 80 is based on receiving the notice symbol display command. The reception result of the notice element in the left column is displayed in a stationary state in the left notice area Ly, the reception result of the notice element in the middle row is displayed in a stationary state in the middle notice area Cy, and the reception result of the notice element in the right column Is displayed in a stationary state in the right notice area Ry. When each of the process data # 30 and the process data # 31 is set, the notice symbol is set to a complete combination. In the left notice area Ly to the right notice area Ry, (j) and (m) in FIG. As shown in FIG. 5, the notice symbol is displayed in a completed combination.

  When each of the process data # 30 and the process data # 31 is set, video data corresponding to the effect element setting result is reproduced. For example, when the notice symbol A is set as an effect element, either video data # V30A or video data # V31A corresponding to the notice symbol A is reproduced, and the video data # V30A and video data # V31A are displayed on the decorative symbol display 33. An image corresponding to either of these is displayed. FIG. 87 shows a part of video corresponding to each of video data # V30A and video data # V31A. This video is displayed during the period from when the effect element is stopped and displayed until the middle row of the notice element stops variably. A reach action video A in which the same character design A as A performs a tightrope is displayed. The ending of this reach action video A is set to the result that the character design A fails to the tightrope in the video data # V30A, and the result that the character design A succeeds to the tightrope in the video data # V31A. It can be enjoyed from the behavior of the character pattern A that either becomes a combination of probability variation jackpots or a combination of normal jackpots.

  When the notice symbol B is set as an effect element, either video data # V30B or video data # V31B corresponding to the notice symbol B is reproduced, and the video data # V30B and video data # V31B are displayed on the decorative symbol display 33. The video corresponding to either is displayed. FIG. 88 shows a part of video corresponding to each of video data # V30B and video data # V31B. This video is displayed during a period from when the effect element is stopped and displayed until when the middle row of the symbol elements stops variably. When the video data # V30B and the video data # V31B are being reproduced, the notice symbol is displayed. A reach action video B is displayed in which the same character design B as B performs a swing in the air. In the video data # V30B, the ending of this reach action video B is set to the result that the character symbol B fails the aerial swing. In the video data # V31B, the character symbol B is set to the result that the aerial swing succeeds. It can be enjoyed from the behavior of the character design B that the decorative design is either a combination of probability variation jackpots or a combination of normal jackpots.

  When the notice symbol C is set as an effect element, either video data # V30C or video data # V31C corresponding to the notice symbol C is reproduced, and the video data # V30C and video data # V31C are displayed on the decorative symbol display 33. The video corresponding to either is displayed. FIG. 89 shows a part of video corresponding to each of video data # V30C and video data # V31C. This video is displayed during a period from when the effect element is stopped and displayed until the middle row of the symbol element stops changing. When the video data # V30C and the video data # V31C are being reproduced, the notice symbol is displayed. A reach action video C is displayed in which the same character symbol C as C sneaks. The ending of this reach action video C is set to the result that the character symbol C fails to skate in the video data # V30C, and the result that the character symbol C succeeds to skate in the video data # V31C. It can be enjoyed from the behavior of the character design C that either becomes a combination of probability variation jackpots or a combination of normal jackpots. That is, when each of the process data # 30 and the process data # 31 is set, a reach action image using a character design of the same type as the notice design stopped and displayed in the notice connection area Y is displayed in a reach state.

  FIG. 90 and FIG. 91 show the processing contents of the CPU 71 when the process data # 40 for outreach and the process data # 41 for jackpot are set, respectively. As shown in FIG. 5, the process element # 30 and the process data # 31 are the same in that all the figure change start command to the effect element change start command are set. The process data # 30 and the process data # 31 are different from each other in that each confirmation display command is set. Both the same and different points are the same for the process data # 41.

  When each of the process data # 40 and the process data # 41 is set, the CPU 71 transmits a full-image variation start command to the display control circuit 80 in step S513 in FIG. 90, and transmits a notice area movement command to the display control circuit 80 in step S582. To do. In step S584, a notice element deletion command is transmitted to the display control circuit 80. In step S586, a notice area deletion command is transmitted to the display control circuit 80. Next, in step S588, a notice linked area display command is transmitted to the display control circuit 80, and an effect element variation start command is transmitted to the display control circuit 80 in step S590. That is, when the process data # 40 and the process data # 41 are set, the symbol elements are variably displayed in the left fluctuation area Lm, the middle fluctuation area Cm, and the right fluctuation area Rm, respectively, and in the left notice area Ly and in the middle. When the notice element is variably displayed in each of the notice area Cy and the right notice area Ry, and the process data # 30 or the process data # 31 is set as shown in (a) to (d) of FIG. The notice linked area Y is displayed in the same development, and the effect elements are displayed in a variable manner in the notice linked area Y.

  When the CPU 71 proceeds to step S621 in FIG. 90, the process timer setting value for the effect element deletion command is detected from the process data # 40 or the process data # 41, and the detection result of the process timer setting value for the effect element deletion command is changed. It compares with the addition result of timer ST1. If it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the effect element deletion command, the process proceeds to step S622, and the effect element deletion command is transmitted to the display control circuit 80. This effect element erasure command is transmitted in a state in which the effect elements are variably displayed in the preview connection area Y, and the display control circuit 80, as shown in FIG. Is received, the effect elements in the notice linked area Y are erased in a fluctuating state.

  When the CPU 71 proceeds to step S623 in FIG. 90, it detects the process timer set value for the advance linked area erase command from the process data # 40 or the process data # 41, and the detection result of the process timer set value for the advance linked area erase command Is compared with the addition result of the variation timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the advance linked area erase command, the process proceeds to step S624, and the advance linked area erase command is transmitted to the display control circuit 80. This advance linked area deletion command is transmitted in a state where the effect elements in the advance linked area Y are deleted, and the display control circuit 80, as shown in FIG. Is received, the notice linked area Y is deleted.

  When the CPU 71 proceeds to step S625 in FIG. 90, the process timer setting value for the warning area reproduction command is detected from the process data # 40 or the process data # 41, and the detection result of the process timer setting value for the warning area reproduction command is changed. It compares with the addition result of timer ST1. If it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the advance notice area reproduction command, the process proceeds to step S626, and the advance notice area reproduction command is transmitted to the display control circuit 80. This notice area reproduction command is transmitted with the notice linked area Y erased, and when the display control circuit 80 receives the notice area reproduction command, as shown in FIG. Based on the fact that each of the area Ly, the middle notice area Cy, and the right notice area Ry is redisplayed at the same initial position as when all the figure change start commands are received, the notice linked area Y becomes the left notice area Ly to the right notice area Ry. The video divided into three is displayed.

  When the CPU 71 proceeds to step S627 in FIG. 90, the process timer setting value for the symbol element erasure command is detected from the process data # 40 or the process data # 41, and the detection result of the process timer setting value for the symbol element erasure command is changed. It compares with the addition result of timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process element set value for the symbol element deletion command, the process proceeds to step S628, and the symbol element deletion command is transmitted to the display control circuit 80. This symbol element erasure command is transmitted in a video display state in which the preview linked area Y is divided into three parts. The display control circuit 80 receives the symbol element erasure command as shown in (h) of FIG. In this case, the symbol elements in the left variation region Lm, the symbol elements in the middle variation region Cm, and the symbol elements in the right variation region Rm are erased in the variation state.

  When the CPU 71 proceeds to step S629 in FIG. 90, the process timer setting value for the all area movement command is detected from the process data # 40 or the process data # 41, and the detection result of the process timer setting value for the all area movement command is changed. It compares with the addition result of timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the whole area movement command, the process proceeds to step S630, and the whole area movement command is transmitted to the display control circuit 80. This all-region movement command is transmitted in a state where the symbol elements in each column and the notice elements in each column are erased. When the display control circuit 80 receives the all-region movement command, it displays the left variation region Lm and Each of the left notice area Ly is moved and displayed in a direction approaching each other based on movement data pre-recorded in RON, and each of the middle fluctuation area Cm and the middle notice area Cy is based on movement data pre-recorded in RON. The right moving area Rm and the right notice area Ry are moved and displayed in the directions approaching each other based on the movement data recorded in advance in the RON.

  When moving to step S631 in FIG. 90, the CPU 71 detects the process timer setting value for the all area erase command from the process data # 40 or the process data # 41, and changes the detection result of the process timer setting value for the all area erase command. It compares with the addition result of timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the all area erase command, the process proceeds to step S632, and the all area erase command is transmitted to the display control circuit 80. This all area deletion command is transmitted during the movement of each of the left change area Lm, the middle change area Cm, the right change area Rm, the left notice area Ly, the middle notice area Cy, and the right notice area Ry. The circuit 80 erases each of the left change area Lm, the middle change area Cm, the right change area Rm, the left notice area Ly, the middle notice area Cy, and the right notice area Ry when receiving the all area erase command.

  When the CPU 71 proceeds to step S633 in FIG. 90, it detects the process timer setting value for the linked area display command from the process data # 40 or the process data # 41, and changes the detection result of the process timer set value for the linked area display command. It compares with the addition result of timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the linked area display command, the process proceeds to step S634, and the linked area display command is transmitted to the display control circuit 80. This connected area display command is transmitted in a state where each of the left change area Lm to the right change area Rm and the left notice area Ly to the right notice area Ry is erased. As shown in i), when a connected area display command is received, each of the left connected area Lc, the middle connected area Cc, and the right connected area Rc is displayed at a display position recorded in advance in the ROM. In other words, the display control circuit 80 generates the left connection region Lc based on the connection between the left change region Lm and the left notice region Ly, and based on the connection between the medium change region Cm and the medium notice region Cy. Then, the middle connected area Cc is generated, and the video in which the right connected area Rc is generated based on the connection between the right variation area Rm and the right notice area Ry is displayed.

  When the CPU 71 proceeds to step S635 in FIG. 91, the process timer setting value for the large effect element variation start command is detected from the process data # 40 or the process data # 41, and the process timer setting value for the large effect element variation start command is detected. The detection result is compared with the addition result of the variation timer ST1. If it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the large effect element variation start command, the process proceeds to step S636, and the large effect element variation start command is transmitted to the display control circuit 80. This large effect element variation start command is transmitted in a state where the left connected region Lc, the middle connected region Cc, and the right connected region Rc are displayed, and the display control circuit 80 displays the result in (j) of FIG. As shown in the figure, based on the reception of the large production element change start command, the large production elements in the left column are set to “1”, “2”, “3”, “4”, “5”, “6”, “7” in the left connected region Lc. "8", "Head A", "Head B", "Head C", "1", ... in a cyclically varying manner, and the middle stage large production element "1" in the middle connection area Cc. “2” “3” “4” “5” “6” “7” “8” “Body A” “Body B” “Body C” “1”... In the right connected area Rc, the large stage elements in the right column are “1”, “2”, “3”, “4”, “5”, “6”, “7”, “8”, “leg A”, “leg B”, “leg”. Circulation in the order of part C "" 1 "... Change the display to.

  When the CPU 71 proceeds to step S637 in FIG. 91, the process timer setting value for the large effect element stop command in the left column is detected from the process data # 40 or the process data # 41, and the process for the large effect element stop command in the left column is detected. The detection result of the timer set value is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the large effect element stop command in the left column, the process proceeds to step S638, and the large effect element in the left column is transferred from the large effect element storage unit 159. Detect the setting result. Then, the detection result of the large effect element in the left column is transmitted to the display control circuit 80, and the large effect element stop command in the left column is transmitted to the display control circuit 80 in step S639. Then, the display control circuit 80 stops the fluctuation display of the large effect elements in the left column at the reception result, and displays the reception results of the large effect elements in the left column in a stationary state at the center in the vertical direction in the left connection region Lc. . FIG. 93 (a) shows an image in which the large effect elements in the left column are stopped.

  When the CPU 71 proceeds to step S640 in FIG. 91, the process timer setting value for the large effect element stop command in the right column is detected from the process data # 40 or the process data # 41, and the process for the large effect element stop command in the right column is detected. The detection result of the timer set value is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the large effect element stop command in the right column, the process proceeds to step S641, and the large effect element in the right column is transferred from the large effect element storage unit 159. Detect the setting result. Then, the detection result of the large effect element in the right column is transmitted to the display control circuit 80, and the large effect element stop command in the right column is transmitted to the display control circuit 80 in step S642. Then, the display control circuit 80 stops the fluctuation display of the large effect elements in the right column at the reception result, and displays the reception results of the large effect elements in the right column in a stationary state at the center in the vertical direction in the right connection region Rc. . When setting process data # 40, the large production symbol is set to the combination of outlier reach or the combination of completion failure, and when setting process data # 41, the large production symbol is set to the probability variation big hit combination, the normal big hit combination, or the completed combination. In the state where each of the large effect elements in the left column and the large effect elements in the right column is stopped variably, the large effect symbol becomes a combination of reach as shown in FIG.

  When the CPU 71 proceeds to step S643 in FIG. 92, the CPU 71 detects the process timer setting value for the low-speed fluctuation command in the middle row from the process data # 40 or the process data # 41, and sets the process timer setting value for the low-speed fluctuation command in the middle row. The detection result is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the middle row low-speed variation command, the process proceeds to step S644, and the middle row low-speed variation command is transmitted to the display control circuit 80. The middle row low-speed fluctuation command is transmitted in a state where the left row large production elements and the right row large production elements are stopped and displayed in a combination of reach, and the display control circuit 80 performs the middle row low-speed fluctuation command. Based on the reception of the command, the middle stage large effect element is displayed in a low-speed fluctuation state. This low-speed fluctuation state refers to a state where the fluctuation speed is slower than the state where the fluctuation speed is variably displayed based on the large effect element fluctuation start command.

  When the CPU 71 proceeds to step S645 in FIG. 91, it detects the process timer set value for the middle stage large effect element stop command from the process data # 40 or the process data # 41, and the process for the middle stage large effect element stop command. The detection result of the timer set value is compared with the addition result of the variation timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the middle stage large effect element stop command, the process proceeds to step S646, and the large effect element storage unit 159 moves to the middle row large effect element. Detect the setting result. Then, the detection result of the middle row large effect element is transmitted to the display control circuit 80, and the middle row large effect element stop command is transmitted to the display control circuit 80 in step S647. The middle row large effect element stop command is transmitted in a state where the middle row large effect element is fluctuating at a low speed, and the display control circuit 80 is based on receiving the middle row large effect element stop command. Then, the variable display of the large stage elements in the middle row is stopped by the reception result, and the reception results of the large stage elements in the middle row are displayed in a stationary state at the center in the vertical direction in the middle connection area Cc. When the process data # 40 is set, the large production symbol is set to the combination of outlier reach or the combination of the complete collapse, and in the state where the large production elements in the middle row are variably stopped, as shown in FIG. The large design symbol is either a combination of missed reach or a combination of complete collapse. When the process data # 41 is set, the big production symbol is set to the combination of probability variation big hit, the combination of normal big hit or the combination of completion, and in the state where the large production elements in the middle row are variably stopped, as shown in FIG. As shown in the figure, the big production symbol is one of the combination of probability variation big hit, the combination of normal big hit, and the combination of completion.

  When the CPU 71 proceeds to step S648 in FIG. 91, the process timer setting value for the all-erase command is detected from the process data # 40 or the process data # 41, and the detection result of the process timer setting value for the all-erase command is changed. It compares with the addition result of timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the all figure erasure command, the process proceeds to step S649, and the all figure erasure command is transmitted to the display control circuit 80. This all figure erasure command is transmitted in a state where the large stage element in the left column, the large stage element in the middle row, and the large stage element in the right column are variably stopped, and the display control circuit 80 When the delete command is received, each of the left row large effect element, the middle row large effect element, and the right column large effect element is deleted, leaving the left connection region Lc, the middle connection region Cc, and the right connection region Rc. .

  When the CPU 71 proceeds to step S650 in FIG. 91, the process timer setting value for the all area erase command is detected from the process data # 40 or the process data # 41, and the detection result of the process timer setting value for the all area erase command is changed. It compares with the addition result of timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the all area erase command, the process proceeds to step S651, and the all area erase command is transmitted to the display control circuit 80. This all area deletion command is transmitted in a state in which each of the large production element in the left column, the large production element in the middle row, and the large production element in the right column is erased. As shown in (d) and (h), when the all area deletion command is received, each of the left connection area Lc, the middle connection area Cc, and the right connection area Rc is deleted.

  When the CPU 71 proceeds to step S652 in FIG. 91, the process timer setting value for the variable region reproduction command is detected from the process data # 40 or the process data # 41, and the detection result of the process timer setting value for the variable region reproduction command is changed. It compares with the addition result of timer ST1. If it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the variation region reproduction command, the process proceeds to step S653, and the variation region reproduction command is transmitted to the display control circuit 80. This variable region reproduction command is transmitted in a state where each of the left connected region Lc to the right connected region Rc is erased, and the display control circuit 80, as shown in (e) and (i) of FIG. When the variation region reproduction command is received, the left variation region Lm, the middle variation region Cm, and the right variation region Rm are redisplayed at the same initial position as when the all-view variation start command is received.

  When the CPU 71 proceeds to step S654 in FIG. 91, the process timer setting value for the warning area reproduction command is detected from the process data # 40 or the process data # 41, and the detection result of the process timer setting value for the warning area reproduction command is changed. It compares with the addition result of timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the notice area reproduction command, the process proceeds to step S655, and the notice area reproduction command is transmitted to the display control circuit 80. This notice area reproduction command is transmitted in a state where each of the left fluctuation area Lm to the right fluctuation area Rm is redisplayed, and the display control circuit 80 is shown in FIGS. 93 (e) and (i). In addition, when the notice area reproduction command is received, each of the left notice area Ly, the middle notice area Cy, and the right notice area Ry is displayed again at the same initial position as when the all-view variation start command is received.

  When the CPU 71 proceeds to step S656 in FIG. 91, the process timer setting value for the notice symbol display command is detected from the process data # 40 or the process data # 41, and the detection result of the process timer setting value for the notice symbol display command is changed. It compares with the addition result of timer ST1. When it is determined that the addition result of the variable timer ST1 has reached the process timer set value for the notice symbol display command, the process proceeds to step S657, and the notice element setting result in the left column is detected from the notice symbol storage unit 157. To the display control circuit 80. Then, in step S658, the setting result of the middle row notification element is detected from the notification symbol storage unit 157 and transmitted to the display control circuit 80. In step S659, the setting result of the right column notification element is detected from the notification symbol storage unit 157. Then, the data is transmitted to the display control circuit 80. Next, the process proceeds to step S660, and a notice symbol display command is transmitted to the display control circuit 80. This notice symbol display command is transmitted in a state in which each of the left notice area Ly to the right notice area Ry is redisplayed at the initial position, and the display control circuit 80 is based on receiving the notice symbol display command. The reception result of the notice element in the left column is displayed in a stationary state in the left notice area Ly, the reception result of the notice element in the middle row is displayed in a stationary state in the middle notice area Cy, and the reception result of the notice element in the right column Is displayed in a stationary state in the right notice area Ry. When each of the process data # 40 and the process data # 41 is set, the notice symbol is set to a complete combination, and the left notice area Ly to the right notice area Ry are shown in (f) and (j) of FIG. In this way, the notice symbol is displayed in a completed combination.

  When the CPU 71 proceeds to step S661 in FIG. 91, it detects the process timer set value for the decorative symbol fixed display command from the process data # 40 or the process data # 41, and the detection result of the process timer set value for the decorative symbol fixed display command Is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the decorative symbol confirmation display command, the process proceeds to step S662, and the setting result of the symbol element in the left column is detected from the confirmed symbol storage unit 155. Then, the data is transmitted to the display control circuit 80. In step S663, the setting result of the middle row symbol element is detected from the fixed symbol storage unit 155 and transmitted to the display control circuit 80. In step S664, the setting result of the right column symbol element is detected from the fixed symbol storage unit 155. Then, the data is transmitted to the display control circuit 80. Next, the process proceeds to step S <b> 665, and a decorative symbol confirmation display command is transmitted to the display control circuit 80. This decoration symbol confirmation display command is transmitted in a state in which the left variation region Lm to the right variation region Rm are redisplayed, and the display control circuit 80 receives the decoration symbol display command and receives the decoration symbol display command. The reception result of the symbol element is displayed in a stationary state in the left variation area Lm, the reception result of the symbol element in the middle row is displayed in a stationary state in the middle fluctuation region Cm, and the reception result of the symbol element in the right column is changed to the right. The image is displayed in a stationary state in the region Rm. When the process data # 40 is set, the decorative design is set to the combination of outreach, and the left design change region Lm to the right change region Rm have the combination of the design symbol out of reach as shown in FIG. 93 (f). Is displayed. At the time of setting process data # 41, the decorative symbol is set to a combination of probability variation big hit or normal big hit, and in the left variation region Lm to the right variation region Rm, as shown in FIG. 93 (j), the decorative symbol is set. Is displayed in either of the probable jackpot combination or the normal jackpot combination.

  94 and 95 show the processing contents of the CPU 71 when the process data # 50 for outreach and the process data # 51 for jackpot are respectively set. The process data # 50 is shown in FIG. As shown in FIG. 4, the process is the same for each of the process data # 40 and the process data # 41 in that all the figure change start commands to the large production element change start commands are set. It differs from each of process data # 40 and process data # 41 in that each of the symbol confirmation display commands is set. Both the same and different points are the same for the process data # 51.

  When each of the process data # 50 and the process data # 51 is set, the CPU 71 transmits a full-image variation start command to the display control circuit 80 in step S513 in FIG. 94, and transmits a notice area movement command in step S582. In step S584, a notification element deletion command is transmitted, and in step S586, a notification area deletion command is transmitted. Next, in step S588, a notice linked area display command is transmitted, and in step S590, an effect element change start command is transmitted. That is, when the process data # 50 and the process data # 51 are set, the symbol elements are variably displayed in the left fluctuation area Lm, the middle fluctuation area Cm, and the right fluctuation area Rm, respectively. The notice elements are variably displayed in the notice area Cy and the right notice area Ry. As shown in FIGS. 96A to 96D, the process data # 30, the process data # 31, and the process data # 40 are displayed. The notice linked area Y is displayed in the same development as when each of the process data # 41 is set, and the effect elements are displayed in a variably displayed manner in the notice linked area Y.

  When the CPU 71 transmits the effect element change start command to the display control circuit 80 in step S590 of FIG. 94, the effect element deletion command is transmitted in step S622, and the notice linked area deletion command is transmitted in step S624. Then, a notice area reproduction command is transmitted in step S626, a symbol element deletion command is transmitted in step S628, and an all area movement command is transmitted in step S630. In step S632, an all area deletion command is transmitted. In step S634, a connected area display command is transmitted. In step S636, a large effect element variation start command is transmitted. That is, when each of the process data # 50 and the process data # 51 is set, if the effect element is variably displayed in the notice linked area Y, the effect element is stopped as shown in (e) to (j) of FIG. The left connected area Lc, the middle connected area Cc, and the right connected area Rc are generated in the same development as when each of the process data # 40 and the process data # 41 is set without being displayed. A large effect element is displayed in a variable state in each of the middle connection area Cc and the right connection area Rc.

  When the CPU 71 proceeds to step S671 in FIG. 95, it detects the process timer setting value for the connected area movement command from the process data # 50 or the process data # 51, and changes the detection result of the process timer setting value for the connected area movement command. It compares with the addition result of timer ST1. If it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the linked area movement command, the process proceeds to step S672, and the linked area movement command is transmitted to the display control circuit 80. The connected area movement command is transmitted in a state where the large effect elements are variably displayed in the left connected area Lc, the middle connected area Cc, and the right connected area Rc. When the area movement command is received, as shown in (j) of FIG. 96, each of the left connection area Lc and the right connection area Rc is moved and displayed toward the middle connection area Cc. Each of the movement display of the left connection area Lc and the movement display of the right connection area Rc is performed in a changing state of the large effect element, and the large effect element in the left connection area Lc moves together with the left connection area Lc, The large effect element in the right connection region Rc moves together with the right connection region Rc.

  When the CPU 71 proceeds to step S673 in FIG. 95, the process timer setting value for the large effect element deletion command is detected from the process data # 50 or the process data # 51, and the detection result of the process timer setting value for the large effect element deletion command is detected. Is compared with the addition result of the variation timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the large effect element deletion command, the process proceeds to step S674, and the large effect element deletion command is transmitted to the display control circuit 80. The large effect element erasure command is transmitted in a state where each of the left connected region Lc to the right connected region Rc is moving together with the large effect element, and when the display control circuit 80 receives the large effect element erasure command, Each of the large effect element in the left connection region Lc, the large effect element in the middle connection region Cc, and the large effect element in the right connection region Rc is erased in a fluctuating state.

  When the CPU 71 proceeds to step S675 in FIG. 95, it detects the process timer set value for the linked area erase command from the process data # 50 or the process data # 51, and changes the detection result of the process timer set value for the linked area erase command. It compares with the addition result of timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the linked area erase command, the process proceeds to step S676, and the linked area erase command is transmitted to the display control circuit 80. This connected region deletion command is transmitted in a state where each of the large effect elements in the left connected region Lc to the large effect elements in the right connected region Rc is deleted, and the display control circuit 80 is shown in FIG. As shown in k), when the connected region deletion command is received, each of the left connected region Lc, the middle connected region Cc, and the right connected region Rc is deleted.

  When the CPU 71 proceeds to step S677 in FIG. 95, it detects the process timer set value for the extra large connected area display command from the process data # 50 or the process data # 51, and the detection result of the process timer set value for the extra large connected area display command. Is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the extra large connected area display command, the process proceeds to step S678, and the extra large connected area display command is transmitted to the display control circuit 80. This extra large connected area display command is transmitted in a state where each of the left connected area Lc to the right connected area Rc is erased. When the display control circuit 80 receives the extra large connected area display command, As shown in l), the extra large connection area B is displayed at the display position recorded in advance in the ROM. That is, when the process data # 50 or the process data # 51 is set, the left connection region Lc and the right connection region Rc are moved by moving the left connection region Lc and the right connection region Rc toward the middle connection region Cc. The middle connection area Cc is connected to each other, and an image in which the extra large connection area B is generated is displayed.

  When the CPU 71 proceeds to step S679 in FIG. 95, the process timer setting value for the oversized effect element variation start command is detected from the process data # 50 or the process data # 51, and the process timer set value for the oversized effect element variation start command is detected. The detection result is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the oversized effect element variation start command, the process proceeds to step S680, and an oversized effect element variation start command is transmitted to the display control circuit 80. This oversized effect element variation start command is transmitted in a state where the oversized connection region B is displayed, and the display control circuit 80 receives the oversized effect element variation start command as shown in FIG. 97 (a). The extra large production elements in the extra large connected area B are “1” “2” “3” “4” “5” “6” “7” “8” “preliminary symbol A” “preliminary symbol B” “ Displayed cyclically in the order of notice symbol C "" 1 ".

  When the CPU 71 proceeds to step S681 in FIG. 95, the process timer setting value for the oversized effect element stop command is detected from the process data # 50 or the process data # 51, and the detection result of the process timer set value for the oversize effect element stop command is detected. Is compared with the addition result of the variation timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the oversized effect element stop command, the process proceeds to step S682, and the setting result of the oversized effect element storage unit 160 is detected. . Then, the detection result of the oversized effect element is transmitted to the display control circuit 80, and an oversized effect element stop command is transmitted to the display control circuit 80 in step S683. Then, the display control circuit 80 stops the fluctuation display of the oversized effect element with the reception result, and displays the reception result of the oversized effect element in a stationary state in the center portion in the oversized connection area B. At the time of setting process data # 50, the extra large production element is set to any one of “notice symbol A”, “notice symbol B”, and “notice symbol C”. As shown in the figure, any one of “preliminary symbol A” to “preliminary symbol C” is displayed as an oversized production element. When the process data # 51 is set, the oversized effect design is set to any one of “1” to “8”. As shown in FIG. Any one of “1” to “8” is displayed.

  When the CPU 71 proceeds to step S684 in FIG. 95, the process timer setting value for the oversized effect element command is detected from the process data # 50 or the process data # 51, and the detection result of the process timer setting value for the oversized effect element deletion command is detected. It compares with the addition result of fluctuation timer ST1. If it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the oversized effect element deletion command, the process proceeds to step S685, and the oversized effect element deletion command is transmitted to the display control circuit 80. This oversized effect element erasure command is transmitted in a state where the oversized effect element has been fluctuated and stopped, and the display control circuit 80 deletes the oversized effect element when receiving the oversized effect element erasure command.

  When the CPU 71 proceeds to step S686 in FIG. 95, it detects the process timer setting value for the extra large connected area erase command from the process data # 50 or the process data # 51, and the detection result of the process timer set value for the extra large connected area erase command. Is compared with the addition result of the variation timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the oversized linked area erase command, the process proceeds to step S687, and the oversized linked area erase command is transmitted to the display control circuit 80. This extra large connected area deletion command is transmitted in a state where the extra large production element is erased. As shown in FIGS. 97 (c) and 97 (g), the display control circuit 80 executes the extra large connected area erase command. When it is received, the extra large connected area B is deleted.

  When the CPU 71 proceeds to step S688 in FIG. 95, it detects the process timer setting value for the variable region reproduction command from the process data # 50 or the process data # 51, and changes the detection result of the process timer setting value for the variable region reproduction command. It compares with the addition result of timer ST1. When it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the variation region reproduction command, the process proceeds to step S689, and the variation region reproduction command is transmitted to the display control circuit 80. This variable region reproduction command is transmitted in a state where the oversized connected region B is erased, and the display control circuit 80 receives the variable region reproduction command as shown in FIGS. 97 (d) and (h). When this is done, the left variation region Lm, the middle variation region Cm, and the right variation region Rm are re-displayed at the same initial position as when the all diagram variation start command is received.

  When the CPU 71 proceeds to step S690 in FIG. 95, the process timer setting value for the warning area reproduction command is detected from the process data # 50 or the process data # 51, and the detection result of the process timer setting value for the warning area reproduction command is changed. It compares with the addition result of timer ST1. If it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the advance notice area reproduction command, the process proceeds to step S691, and the advance notice area reproduction command is transmitted to the display control circuit 80. This notice area reproduction command is transmitted in a state where each of the left fluctuation area Lm to the right fluctuation area Rm is redisplayed, and the display control circuit 80 is shown in FIGS. 97 (d) and (h). In addition, when the notice area reproduction command is received, each of the left notice area Ly, the middle notice area Cy, and the right notice area Ry is displayed again at the same initial position as when the all-view variation start command is received.

  When the CPU 71 proceeds to step S692 in FIG. 95, the process timer setting value for the notice symbol display command is detected from the process data # 50 or the process data # 51, and the detection result of the process timer setting value for the notice symbol display command is changed. It compares with the addition result of timer ST1. When it is determined that the addition result of the variable timer ST1 has reached the process timer set value for the notice symbol display command, the process proceeds to step S693, and the notice element setting result of the left column is detected from the notice symbol storage unit 157. To the display control circuit 80. Then, in step S694, the setting result of the notice element in the middle row is detected from the notice symbol storage unit 157 and transmitted to the display control circuit 80. In step S695, the result of setting the notice element in the right column is detected from the notice symbol storage unit 157. Then, the data is transmitted to the display control circuit 80. Next, the process proceeds to step S696, and a notice symbol display command is transmitted to the display control circuit 80. This notice symbol display command is transmitted in a state in which each of the left notice area Ly to the right notice area Ry is redisplayed at the initial position, and the display control circuit 80 is based on receiving the notice symbol display command. The reception result of the notice element in the left column is displayed in a stationary state in the left notice area Ly, the reception result of the notice element in the middle row is displayed in a stationary state in the middle notice area Cy, and the reception result of the notice element in the right column Is displayed in a stationary state in the right notice area Ry. When each of the process data # 50 and the process data # 51 is set, the notice symbol is set to a complete combination, and the left notice area Ly to the right notice area Ry are shown in FIGS. 97 (e) and (i). In this way, the notice symbol is displayed in a completed combination.

  When the CPU 71 proceeds to step S697 in FIG. 95, it detects the process timer set value for the decorative symbol fixed display command from the process data # 50 or the process data # 51, and the detection result of the process timer set value for the decorative symbol fixed display command Is compared with the addition result of the variation timer ST1. Here, when it is determined that the addition result of the variation timer ST1 has reached the process timer set value for the decorative symbol fixed display command, the process proceeds to step S698, and the setting result of the symbol element in the left column is detected from the fixed symbol storage unit 155. Then, the data is transmitted to the display control circuit 80. In step S699, the setting result of the middle row symbol element is detected from the fixed symbol storage unit 155 and transmitted to the display control circuit 80. In step S700, the setting result of the right row symbol element is detected from the fixed symbol storage unit 155. Then, the data is transmitted to the display control circuit 80. Next, the process proceeds to step S <b> 701, and a decoration symbol confirmation display command is transmitted to the display control circuit 80. This decoration symbol confirmation display command is transmitted in a state in which the left variation region Lm to the right variation region Rm are redisplayed, and the display control circuit 80 receives the decoration symbol display command and receives the decoration symbol display command. The reception result of the symbol element is displayed in a stationary state in the left variation area Lm, the reception result of the symbol element in the middle row is displayed in a stationary state in the middle fluctuation region Cm, and the reception result of the symbol element in the right column is changed to the right. The image is displayed in a stationary state in the region Rm. When the process data # 50 is set, the decorative design is set to the combination of outliers, and the decorative pattern is set to the combination of outliers in the left variation region Lm to the right variation region Rm as shown in FIG. 97 (i). Is displayed. At the time of setting process data # 51, the decorative symbol is set to the combination of probability variation big hit or the combination of normal big hit, and in the left variation region Lm to the right variation region Rm, as shown in FIG. Is displayed in either of the probable jackpot combination or the normal jackpot combination.

  Process data # 20 for outreach is set when the fluctuation start command # 20 for outreach is selected, and is set with a probability of “25/101” when outreach is determined. . The big hit process data # 21 is set when the big hit change start command # 21 is selected, and is set with a probability of “15/101” when the big hit is determined. Each of the process data # 20 and the process data # 21 does not generate any of the notice connection area Y, the left connection area Lc, the middle connection area Cc, the right connection area Rc, and the extra large connection area B. That is, when the total of six change display areas of the left change area Lm, the middle change area Cm, the right change area Rm, the left notice area Ly, the middle notice area Cy, and the right notice area Ry have not decreased, “37.5% With a low probability of (= 15 * 100/25 + 15), the decorative symbol becomes either a combination of probability variation big hit or a combination of normal big hit.

  Process data # 30 for outreach is set when the fluctuation start command # 30 for outreach is selected, and is set with a probability of “20/101” when outreach is determined. . The big hit process data # 31 is set when the big hit change start command # 31 is selected, and is set with a probability of “20/101” when the big hit is determined. Each of the process data # 30 and the process data # 31 connects the left notice area Ly, the middle notice area Cy, and the right notice area Ry to each other, so that the notice connection area Y is displayed, and the production elements are included in the notice connection area Y. The effect image 1 to be displayed in order in the variation state and the variation stop state is generated. That is, a total of six change display areas, that is, the left change area Lm, the middle change area Cm, the right change area Rm, the left notice area Ly, the middle notice area Cy, and the right notice area Ry are the left change area Lm and the middle change area Cm. When it is reduced to four variable display areas, the right variable area Rm and the notice linked area Y, the decoration pattern has a medium probability of “50% (= 20 * 100/20 + 20)”. It becomes.

  The process data # 40 for outreach is set when the fluctuation start command # 40 for outreach is selected, and is set with a probability of “15/101” when the outreach is determined. . The big hit process data # 41 is set when the big hit change start command # 41 is selected, and is set with a probability of “25/101” when the big hit is determined. Each of the process data # 40 and the process data # 41 displays the left connected region Lc, the middle connected region Cc, and the right connected region Rc without stopping the effect elements in the effect video 1, and within the left connected region Lc to the right. An effect image 2 is generated in which the large effect elements are sequentially displayed in the change state and the change stop state in each of the connected regions Rc. That is, a total of six change display areas, that is, the left change area Lm, the middle change area Cm, the right change area Rm, the left notice area Ly, the middle notice area Cy, and the right notice area Ry are the left change area Lm and the middle change area Cm. The right change area Rm and the notice connection area Y are reduced to four change display areas, and the left change area Lm, the middle change area Cm, the right change area Rm, and the notice change connection area Y are four change display areas. When it is reduced to three variable display areas of Lc, middle connection area Cc, and right connection area Rc, the decorative pattern is a combination of the probability variation big hit and the normal big hit with a high probability of “62.5% (= 25 * 100/15 + 25)” One of the combinations.

Process data # 50 for outreach is set when the fluctuation start command # 50 for outreach is selected, and is set with a probability of “6/101” when outreach is determined. . The big hit process data # 51 is set when the big hit change start command # 51 is selected, and is set with a probability of “36/101” when the big hit is determined. Each of the process data # 50 and the process data # 51 displays the effect image 2 in the effect image 1 without stopping and displaying the effect element, and in the effect image 2 without stopping and displaying the large effect element. An effect image 3 is generated in which extra large effect elements are displayed in order in a variable state and a variable stop state. That is, a total of six change display areas, that is, the left change area Lm, the middle change area Cm, the right change area Rm, the left notice area Ly, the middle notice area Cy, and the right notice area Ry are the left change area Lm and the middle change area Cm. The right change area Rm and the notice connection area Y are reduced to four change display areas, and the left change area Lm, the middle change area Cm, the right change area Rm, and the notice change connection area Y are four change display areas. It is reduced to three variable display areas of Lc, middle connection area Cc and right connection area Rc, and three variable display areas of left connection area Lc, middle connection area Cc and right connection area Rc are one extra large connection area. When it is reduced to B, the decorative symbol becomes either a combination of a probable big hit or a combination of a normal big hit with an extremely high probability of “85.7% (= 36 * 100/6 + 36)”.
[13-3-3] Decoration Symbol Game Stop Processing FIG. 98 shows details of the decoration symbol game stop processing in step S280, and the CPU 71 transmits a reproduction stop command to the display control circuit 80 in step S711. In step S712, the fluctuation stop command in the command storage unit 151 is cleared. In step S713, the symbol information command in the command storage unit 151 is cleared. In step S714, the fluctuation start command in the command storage unit 151 is cleared. Then, the display control circuit 80 stops the reproduction process of the video data for the decorative symbol game based on the reception of the reproduction stop command.

When the CPU 71 clears the change start command in the command storage unit 151 in step S714, the left column symbol element setting result, the middle column symbol element setting result, and the right column symbol element setting result are stored in the determined symbol storage unit 155 in step S715. Each of the setting results is cleared, and in step S716, the setting result of the symbol element in the left column, the setting result of the symbol element in the middle column, and the setting result of the symbol element in the right column are cleared from the temporary symbol storage unit 156. Then, in step S717, the setting result of the left-hand notice element, the setting result of the middle-row notice element, and the setting result of the right-hand notice element are cleared from the notice symbol storage section 157, and the effect element storage section in step S718. From 158, the effect element setting result is cleared. Next, in step S719, the large effect element setting result in the left column, the large effect element setting result in the middle row, and the large effect element setting result in the right column are cleared from the large effect element storage unit 159, and in step S720. The setting result of the oversized effect element is cleared from the oversized effect element storage unit 160, and the variable timer ST1 of the timer storage unit 153 is reset to “0” in step S721.
[13-4] Jackpot Game Processing FIG. 99 shows details of the jackpot game processing in step S215, and the CPU 71 determines the setting state of the jackpot round flag in the flag storage unit 152 in step S731. If it is determined that the big hit round flag in the flag storage unit 152 is set to the on state, the process proceeds to step S732, and the big hit round flag in the flag storage unit 152 is reset to the off state. Then, the process proceeds to the big hit round process of step S733, and an image corresponding to the current big hit round number is displayed on the decorative symbol display 33.

If the CPU 71 determines in step S731 that the big hit round flag in the flag storage unit 152 has been reset to an off state, the CPU 71 determines the setting state of the interval flag in the flag storage unit 152 in step S734. Here, when it is determined that the interval flag of the flag storage unit 152 is set to the on state, the process proceeds to step S735, and the interval flag of the flag storage unit 152 is reset to the off state. Then, the process proceeds to the interval process in step S736, and the video reproduction process corresponding to the current big hit round number is stopped.
[13-4-1] Jackpot Round Process FIG. 100 shows details of the jackpot round process in step S733, and the CPU 71 detects the reception result of the jackpot round command from the command storage unit 151 in step S741. In step S742, the EXT data is detected from the detection result of the big hit round command, and in step S743, the video data number corresponding to the detection result of the EXT data is detected from the video data table for the big hit game shown in FIG. Next, in step S744 in FIG. 100, the detection result of the video data number for the big hit game is transmitted to the display control circuit 80, and a reproduction start command is transmitted to the display control circuit 80 in step S745.

When receiving the video data number for the big hit game, the display control circuit 80 detects the video data for the big hit game according to the reception result of the video data number for the big hit game from the VROM. When the playback start command is received from the CPU 71, the detection result of the video data for the big hit game is played, and the effect image corresponding to the EXT data of the big hit round command is displayed on the decorative symbol display 33. A symbol of the number of jackpot rounds is set in each effect video, and the player can recognize how many times the current jackpot round is from the symbol of the number of jackpot rounds.
[13-4-2] Interval Processing FIG. 101 shows the details of the interval processing in step S736, and the CPU 71 transmits a playback stop command to the display control circuit 80 in step S751. When the display control circuit 80 receives the playback stop command, the display control circuit 80 stops the processing for playing the video data for the big hit game. That is, when the first big hit round to the fifteenth big hit round are finished, an image corresponding to the video data for the previous big hit game is displayed as a still image.

According to the said Example 1, there exists the following effect.
The process data # 51 is selected with high probability when it is determined that it is a probable big hit or normal big hit, and the process data # 50 is selected with low probability when it is determined that it is out of reach, so the left fluctuation region Lm When the effect image 3 in which the six display areas of the right change area Rm and the left notice area Ly to the right notice area Ry are reduced to one extra large connected area B is generated, the reliability of the big hit is increased. When it is determined that the probability big hit or the normal big hit is determined, the process data # 41 is selected with a lower probability than the process data # 51, and when it is determined that it is out of reach, the process data # 40 is selected as the process data # 50. Therefore, the six display areas of the left change area Lm to the right change area Rm and the left notice area Ly to the right notice area Ry are the left connected area Lc, the middle connected area Cc, and the right connected area Rc. When the effect image 2 that decreases in the three display areas is generated, the reliability of the jackpot is lower than that of the effect image 3. Process data # 21 is selected with a lower probability than process data # 41 when it is determined that it is a probable big hit or normal big hit, and process data # 20 is compared with process data # 40 when outlier reach is determined. Since the selection is made with a high probability, the reliability of the jackpot is lower when neither the effect image 2 nor the effect image 3 occurs than when the effect image 2 occurs. That is, it is possible to accurately generate an effect image in which the reliability of the jackpot is actually increased as the total number of the left change area Lm to the right change area Rm and the left notice area Ly to the right notice area Ry decreases. it can. Therefore, the player can grasp the actual big hit reliability from the reduced state of the total number of the left change area Lm to the right change area Rm and the left notice area Ly to the right notice area Ry. The player's expectation for becoming a combination of the above or a normal jackpot is really increased. Moreover, one large effect element is stopped and displayed in each of the left connected area Lc, the middle connected area Cc, and the right connected area Rc, and one extra large effect element is stopped and displayed in the extra large connected area B. For this reason, as the number of display areas decreases, it becomes easier to visually recognize the type of effect element, so as the number of display areas decreases, the decorative pattern finally becomes a combination of probability variation big hit or normal big hit. An impression that increases the probability can be given even on the video.

  In the first embodiment, the same number of random counters are provided for each of the jackpot variation start command # 21, the jackpot variation start command # 31, the jackpot variation start command # 41, and the jackpot variation start command # 51. MR3 is assigned, and the selection probabilities of the big hit process data # 21, the big hit process data # 31, the big hit process data # 41, and the big hit process data # 51 may be set to be the same. . In the case of this configuration, the reliability of the video in which the left notice area Ly, the middle notice area Cy, the right notice area Ry, the left change area Lm, the middle change area Cm, and the right change area Rm are connected to one of the extra large effect areas B. Becomes the second highest, and the reliability of the image connected to the three of the left connection region Lc, the middle connection region Cc, and the right connection region Rc is the second highest, and the left variation region Lm, the middle variation region Cm, and the right The reliability of the four images of the change area Rm and the notice linked area Y is the third highest, and the reliability of the remaining six videos is the fourth.

  In the first embodiment, the same number is included in each of the variation start command # 20 for outreach, the variation start command # 30 for outreach, the variation start command # 40 for outreach, and the variation start command # 50 for outreach. Random counters MR3 are assigned, and the selection probabilities of process data # 20 for outreach, process data # 30 for outreach, process data # 40 for outreach reach, and process data # 50 for outreach reach each other. May be set to the same.

  In the first embodiment, the left connected region Lc, the middle connected region Cc, and the right connected region Rc are caused to appear without displaying the preview connected region Y when the process data # 40 and the process data # 41 are set. The large effect elements may be sequentially displayed in the variation state and the variation stop state in each of the left connection region Lc, the middle connection region Cc, and the right connection region Rc.

  In the first embodiment, when the process data # 50 and the process data # 51 are set, the oversized connection area is displayed without displaying the notice connection area Y, the left connection area Lc, the middle connection area Cc, and the right connection area Rc. B may appear, and the oversized effect element may be displayed in the oversized connection region B in the variation state and the variation stop state in order.

  In the first embodiment, when each of the process data # 20 and the process data # 21 is set, as in the case where each of the process data # 30 and the process data # 31 is set, The video of the reach action in any of FIGS. 87 to 89 may be displayed based on selecting the video data number according to the type and displaying the background video according to the selection result of the video data number. The reach action image starts to be displayed at the timing of (i) in FIG. 84 when the middle row of the symbol elements are redisplayed in the low speed fluctuation state, and the middle row of the graphic elements stops changing from the low speed fluctuation state in FIG. The display may be stopped in accordance with the timings (j) and (k).

  In the first embodiment, when each of the process data # 40 and the process data # 41 is set, the reach action image shown in FIG. 87 is generated when the large effect design is set to the combination of the notice design A. 88. When the video data is selected, the video data for generating the reach action video of FIG. 88 is selected when the large effect design is set to the preview design B, and the combination of the large design design becomes the preview design C 89, the video data for generating the video of the reach action of FIG. 89 is selected, and the background video according to the selection result of the video data is displayed, and the reach action of any of FIGS. May be displayed. The reach action image starts displaying at the timing of (h) in FIG. 93 when the large effect symbol stopped and displayed in any combination of the notice symbols A to C is deleted, and the decorative symbol is fixedly displayed. The display should be stopped in accordance with the timing of (j) 93.

  In the first embodiment, when each of the process data # 50 and the process data # 51 is set, the video data for generating the reach action image of FIG. 87 when the oversized effect design is set to the preview design A. When the oversized effect design is set to the preview design B, the video data for generating the reach action image of FIG. 88 is selected, and when the oversize design design is set to the preview design C, FIG. The video of the reach action in any of FIGS. 87 to 89 may be displayed based on selecting video data for generating a video of reach action and displaying a background video according to the selection result of the video data. The reach action video starts in accordance with the timing of FIG. 97 (g) when the oversized effect symbol stopped and displayed in any of the notice symbols A to C is deleted, and the decorative symbol is fixedly displayed in FIG. The display should be stopped at the timing of (i).

The figure which shows Example 1 (the perspective view which shows the whole structure of a pachinko game machine) Front view showing game board Block diagram showing electrical configuration A figure showing an image of a decorative pattern game A diagram showing the array of symbol elements and the array of notice elements A figure showing the notice symbol in a completed combination The figure which shows the production | presentation image 1 displayed by a decoration pattern game Diagram showing the arrangement of production elements The figure which shows the production | presentation image 2 displayed by a decoration design game Diagram showing the arrangement of large production elements The figure which shows the production | presentation image 3 displayed by a decoration design game Diagram showing the arrangement of extra large production elements The figure which shows the list of the control command which is transmitted from the main control circuit The figure which shows the list of the random counter which the main control circuit updates The figure which shows the control data for jackpot determination recorded on the main control circuit The figure which shows the control data for the special symbol selection recorded in the main control circuit The figure which shows the control data for the variable display time selection recorded on the main control circuit The figure which shows the control data for the change start command selection recorded on the main control circuit The figure which shows the control data storage area of the main control circuit The figure which shows the control data for process data selection recorded on the production control circuit The figure which shows the process data recorded on the production control circuit The figure which shows the process data recorded on the production control circuit The figure which shows the process data recorded on the production control circuit The figure which shows the process data recorded on the production control circuit The figure which shows the process data recorded on the production control circuit The figure which shows the process data recorded on the production control circuit The figure which shows the control data for the video data selection recorded in the production control circuit (for the decoration design game) The figure which shows the control data for video data selection recorded in the production control circuit (for big hit game) The figure which shows the list of the random counter which the production control circuit updates The figure which shows the control data for symbol element selection recorded on the production control circuit The figure which shows the control data for symbol element selection recorded on the production control circuit The figure which shows the control data for symbol element selection recorded on the production control circuit The figure which shows the control data for notice element selection recorded on the production control circuit The figure which shows the control data for notice element selection recorded on the production control circuit The figure which shows the control data for notice element selection recorded on the production control circuit The figure which shows the control data for presentation element selection recorded on the presentation control circuit The figure which shows the control data for large production element selection recorded on the production control circuit The figure which shows the control data for large production element selection recorded on the production control circuit The figure which shows the control data for extra-large effect element selection recorded on the effect control circuit The figure which shows the production control data storage area of the production control circuit Flow chart showing main processing of main control circuit Flow chart showing timer interrupt processing of main control circuit Flow chart showing input processing of main control circuit The flowchart which shows the counter update process 2 of the main control circuit Flow chart showing data acquisition processing of main control circuit Flow chart showing special symbol process of main control circuit The flowchart which shows the big hit judgment processing of the main control circuit Flow chart showing the special symbol variation start process of the main control circuit Flow chart showing special symbol variation processing of main control circuit Flow chart showing special symbol fluctuation stop processing of main control circuit Flow chart showing wait processing of main control circuit The flowchart which shows the big hit game processing of the main control circuit Flow chart showing interval processing of main control circuit Diagram showing the transmission timing of jackpot round command and interval command Flow chart showing main process of effect control circuit Flow chart showing timer interrupt processing of production control circuit Flow chart showing command analysis processing of effect control circuit Flow chart showing counter update processing 2 of the effect control circuit Flow chart showing hold command processing of effect control circuit Flow chart showing decoration symbol game processing of effect control circuit Flow chart showing decoration symbol game start processing of effect control circuit Flow chart showing decoration symbol game start processing of effect control circuit Flow chart showing decoration symbol game start processing of effect control circuit The flowchart which shows the probability variation big hit symbol setting processing of the production control circuit Flow chart showing normal jackpot symbol setting processing of the production control circuit Flow chart showing outlier reach design setting process of effect control circuit Flow chart showing complete out symbol design processing of the production control circuit The flowchart which shows the notice symbol setting process 1 of an effect control circuit The flowchart which shows the notice symbol setting process 2 of an effect control circuit The flowchart which shows the notice symbol setting process 3 of an effect control circuit Flow chart showing effect element setting process of effect control circuit Flow chart showing large effect symbol setting process 1 of the effect control circuit Flow chart showing large effect symbol setting process 2 of the effect control circuit Flow chart showing large effect symbol setting process 3 of the effect control circuit The flowchart which shows the oversized effect design setting process 1 of an effect control circuit Flow chart showing extra large effect symbol setting process 2 of the effect control circuit Flow chart showing extra large effect symbol setting processing 3 of the effect control circuit Flow chart showing processing during decoration symbol game of effect control circuit A figure showing an image of a decorative pattern game Flow chart showing processing during decoration symbol game of effect control circuit Flow chart showing processing during decoration symbol game of effect control circuit A figure showing an image of a decorative pattern game Flow chart showing processing during decoration symbol game of effect control circuit A figure showing an image of a decorative pattern game Flow chart showing processing during decoration symbol game of effect control circuit A figure showing an image of a decorative pattern game Diagram showing reach action video Diagram showing reach action video Diagram showing reach action video Flow chart showing processing during decoration symbol game of effect control circuit Flow chart showing processing during decoration symbol game of effect control circuit A figure showing an image of a decorative pattern game A figure showing an image of a decorative pattern game Flow chart showing processing during decoration symbol game of effect control circuit Flow chart showing processing during decoration symbol game of effect control circuit A figure showing an image of a decorative pattern game A figure showing an image of a decorative pattern game The flowchart which shows the decoration symbol game stop processing of the production control circuit The flowchart which shows the big hit game processing of the production control circuit The flowchart which shows the big hit round processing of the production control circuit The flowchart which shows the interval process of the production control circuit

Explanation of symbols

  18 is a game board, 22 is a game area, 24 is a start opening, 26 is a special prize opening, 33 is a decorative symbol display, 50 is a main control circuit, 70 is an effect control circuit, and 80 is a display control circuit.

Claims (1)

A game board having a game area in which a game ball can roll;
A variable entrance opening provided in the game board, wherein a game ball that rolls in a game area of the game board is switched between a closed state in which the game ball cannot enter and an open state in which the game ball can enter;
A start opening provided in the game board and capable of entering a game ball rolling in a game area of the game board;
Provided on the game board, a plurality of types of identification elements that are variably displayed in a predetermined order, and a plurality of types of pattern elements that are different from any of the plurality of identification element display areas and the identification elements are variable in a predetermined order. An image having a plurality of displayed pattern element display areas and displaying an identification element in a variable state in each of the plurality of identification element display areas, and a pattern element in each of the plurality of pattern element display areas A symbol display on which a video of a symbol game including both of the images to be displayed in a variable state is displayed;
A jackpot determining means for determining whether the game ball is a jackpot for opening the variable ball slot based on the ball entering the starting slot;
When the jackpot determining means determines that it is a big hit, a plurality of discriminating elements are set to a predetermined jackpot combination, and when the jackpot determining means determines that the jackpot is not a big hit, the plurality of discriminating elements are set to a big hit. An identification symbol setting means for setting a combination different from the combination;
Pattern setting means for setting a combination of a plurality of pattern elements based on the game ball entering the start opening;
Variable information for setting the effect contents of the image of the symbol game is selected from a plurality of predetermined variable information, and the first variable is determined when the big hit determining means determines that the big hit is determined. information and come off when the jackpot determination means determines that it is not a big hit with select variable information from among the variable information for the jackpot including a second variable information including a third variable information and the fourth variable information of Variable information selecting means for selecting variable information from variable information for use,
Based on the game ball entering the start opening, the game display video is displayed on the symbol display from the game start process to the variable stop state according to the selection result of the variable information selection means. It is one that displays made up game stop process, a plurality when said variable information selection means has selected the respective first variable information and the second variable information and the third variable information and fourth variable information a plurality of processing that displays a picture element in a variable state to each of the picture element display region, and a plurality of identification elements are the identification symbols with the respective identification element identification element display region of the display in a variable state The identification element is displayed in a variable stop state in each of the plurality of identification element display areas so as to be a combination according to the setting result of the setting means, and the plurality of picture elements are included in the setting result of the picture setting means. It includes a symbol gaming device which performs processing that displays each variable stop state picture elements in the plurality of picture element display region such that the combination Flip was,
The variable information selection means includes
Second second variable information selected with high probability the first variable information in the first among the first variable information and the second variable information when said jackpot determination means determines that the big win Select with high probability ,
When the big hit determining means determines that the big hit is not big hit, the fourth variable information is selected with the first highest probability among the third variable information and the fourth variable information , and the third variable information is the second highest. Select by probability ,
The symbol game means is:
When the variable information selection means selects each of the first variable information for jackpot and the third variable information for loss, a process of eliminating each of the plurality of identification element display areas together with the identification elements; The process of erasing each of the pattern element display areas together with the pattern elements, one effect area that is larger than each of the identification element display areas and each of the pattern element display areas, and displaying the pattern within one effect area A variable display within a single effect region is displayed as any one of a plurality of types of effect elements after a plurality of predetermined effect elements consisting of valid combinations of elements and identification elements are variably displayed in a predetermined order. each of the processing stops at One performed from the game start processing within a period of at the game stop treatment Lima,
Wherein when the variable information selection means has selected the respective fourth variable information for the second variable information and off for jackpot includes a process for extinguishing the respective plurality of identification elements display area together with the identification element, a plurality Each of the design element display areas is erased together with the design elements, and two or more effect areas larger than each of the identification element display areas and the design element display areas are displayed in the identification element display area and the design element display area. Only a small number compared to the total number are displayed, and two or more types of effect elements that are made up of a part of an effective combination of pattern elements and an identification element in each of two or more effect areas are determined in advance. wherein either game start processing the respective processing to stop each of the variable display of two or more of the effect in the area at any one of a plurality of types of direction elements after variably displayed in the order Pachinko game machine which is characterized in that within a period of at the game stop processing Lima.

Images