JP2018068903A - Pinball game machine - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a pinball game machine that does not have insufficient fun during a period in which a type of a movable pattern is not turned out, that is, even when in a period till movement is finished, in a configuration where a different expectation level can be suggested by a type of movable pattern of a movable object.SOLUTION: If a winning is determined by a winning/failure lottery, and if a super ready-to-win A or B is to be performed, various types of presentation pattern selection tables to be referred to in presentation pattern setting processing is set to determine to cause a form change from an initial form via an intermediate form to a final form at a higher probability than a probability to determine to cause a form change from the initial form to only the intermediate form. If a second form change sound is outputted by a loudspeaker while the super ready-to-win A or B is being performed, a shield accessory 101 is set to perform a form change from an initial form via an intermediate form to a final form at a higher probability than if a first form change sound is outputted.SELECTED DRAWING: Figure 25

Description

  The present invention relates to a ball game machine typified by a pachinko machine, and particularly to a ball game machine equipped with a stage movable accessory.

  In a conventional pachinko machine (pachinko machine), a random number (numerical data) is extracted when the launched game ball enters the start port, and whether the winning or losing is determined by lottery based on the extracted random value Then, the lottery result has been notified by the display contents of the special symbol confirmation display.

  Also, with current pachinko machines, special symbols are displayed small at the edge of the game area, and pseudo symbols (also referred to as decorative symbols or decorative symbols) provided corresponding to the special symbols are displayed as variable symbols. The pseudo effect that is executed by the variable display accompanying it is configured to be displayed large on the effect symbol display device provided in the center of the game area, and the player draws a lottery result in the pseudo effect (pseudo symbol). It is set as the structure which grasps.

  In addition, as a method for giving a player a sense of expectation with respect to the lottery result, not only an effect display by the effect symbol display device but also a movable object (also referred to as an effect movable object), By moving it, the player is given a sense of expectation for the lottery result.

  In addition, with the recent pachinko machines equipped with movable objects as described above, the movable objects are not only made to move simply and uniformly with a fixed movable pattern, but also with multiple types of movable patterns, each movable pattern A pachinko machine (for example, Patent Document 1) that provides an interest to a player by varying the degree of expectation that is a big hit for each type is widely known.

JP 2006-230549 A

  Certainly, in the pachinko gaming machine (Pachinko machine) described in Patent Document 1, by providing a plurality of types of movable patterns of movable objects, the player can have different expectations according to each movable pattern. I can do it.

  However, the expectation degree suggested by each movable pattern cannot be recognized by the player unless the movement is completed and the type of the movable pattern is determined.

  Therefore, the player's psychology in the period until the end of the movement is uniformly limited to a uniform feeling that the movement should have a highly expected movement pattern. The lack was a problem.

  The present invention has been made in view of such problems, and is a period in which the type of the movable pattern is not known, i.e., the period until the end of the movement, in the configuration that can suggest different expectations depending on the type of the movable pattern of the movable object. However, an object is to provide a ball game machine that does not lack fun.

  The invention according to claim 1 made in view of the above-mentioned problems is whether or not to win a special game occurrence opportunity based on the numerical data extracted due to the game ball entering the start opening A determination design determining unit, a special symbol display device for variably displaying a special symbol indicating the determination result by the determination unit, an effect display device for displaying a pseudo effect corresponding to the variation display of the special symbol, and output effect sound The present invention relates to a bullet ball game machine that includes a speaker that performs, and at least an effect movable accessory that changes its form while a predetermined pseudo effect is being performed.

  This ball and ball machine changes the form of the movable effector from the initial form to the final form through the intermediate form or changes from the initial form to the intermediate form when a predetermined pseudo-production is performed. Morphological change determining means for determining whether or not to perform, and morphological change sound output means for outputting a morphological change sound as an effect sound related to the morphological change by a speaker when a predetermined pseudo effect is performed, As the form change sound, a first form change sound and a second form change sound are provided, and the form change determining means determines that the winning form is determined by the success / failure determining means and a predetermined pseudo effect is performed. It is set to be determined to change the form from the initial form to the final form through the intermediate form with a higher probability than to determine that only the form changes from the intermediate form to the intermediate form, and a predetermined pseudo-production is performed. When the second form change sound is output by the speaker in the middle, the production movable accessory is from the initial form to the final form through the intermediate form with a higher probability than the case where the first form change sound is output. Set to change shape.

  By configuring in this way, in the configuration where the expectation that the special game is generated is higher in the case where the movable movable object is changed to the final form than in the case where only the intermediate form is formed. When the movable accessory changes its form, one of the first form change sound and the second form change sound is output from the speaker. And the probability that a production movable accessory will change form to the last form changes with kinds of this outputted form change sound. Thereby, the player can presume from the form change sound type the form change type of the effect movable accessory, and further, the expectation that the special game is generated.

  In addition, since the morphological change sound is output before the form change type of the production movable accessory is determined, the player can use the type of the morphological change sound that has already been output as an index to determine the expected degree of occurrence of the special game. Until the form change type of the production movable accessory is confirmed, it is possible to obtain the interest of inferring. Specifically, before the morphological change of the production movable actor ends, this morphological change sound was output this time, so it can be expected that the morphological change will occur until the final form, or this time Because this morphological change sound is output, it ends with the morphological change up to the intermediate form, and it is discouraged that the morphological change will not occur until the final form, or the player has emotions based on multiple types of predictions I can do it. Furthermore, even after the morphological change of the production movable accessory is finished, compare the morphological change type predicted from the morphological change sound type with the actual morphological change type, and try to score the accuracy of the prediction, Unprecedented preferences such as trying to devise more accurate predictions will improve.

  Further, as described in claim 2, in the bullet ball game machine according to claim 1, the effect movable accessory is in the initial form due to the change display of the special symbol in the bullet ball game machine according to claim 1. If the initial form determining means and the initial form determining means determine that the effect movable accessory is not in the initial form, return control for returning the effect movable accessory to the initial form is performed. And an initial form return control means for performing, when the form change sound output means performs the return control by the initial form return control means, the movable movable for production does not return to the initial form. Even if it exists, you may make it output the same morphological change sound as a morphological change sound output when returning by a speaker.

  By configuring in this way, even if it is a case where the form movable actor becomes unable to change its form due to a trouble such as a failure, that is, even if the form change of the stage movable actor cannot be performed, Since the output of the morphological change sound corresponding to the morphological change type is executed, even if the player does not change the morphing effect due to a failure, the player can change the type of the morphological change sound that is output. Based on this, the expected degree of occurrence of the special game can be estimated. In addition, the player and the store clerk at the amusement store have failed in the movable movable accessory by visually recognizing that the movable movable component has not changed in form even though the change sound is output. This can be easily understood at a glance.

  Further, as described in claim 3, the ball game machine is the ball ball game machine according to claim 1 or 2, immediately before the power supply to the ball game machine is stopped. A backup means for holding the stored numerical data even when the power supply is cut off, and the effect movable accessory due to the supply of power to the ball game machine. A form changing means at the time of power-on for changing the form, and the form changeable means at the time of turning on the power changes the effect movable accessory from the initial form to the final form through the intermediate form. The change sound may not be output.

  By comprising in this way, by providing backup means, even if the power supply to the ball game machine is stopped due to a power failure or the like, the extracted numerical data (random value) Can be prevented from disappearing, so there is no disadvantage to the player. Moreover, it is possible to confirm whether or not the change in form of the effect movable accessory is normal due to the start of power supply to the bullet ball game machine.

  Also, when the movable movable form is changed to the final form by the power-on form changing means, unlike the form change during the pseudo production, the form change sound is not output from the speaker. Thereby, even if the player sees the test form change in the configuration in which the memory immediately before the power cut-off is retained by the backup means and the test form change of the effect movable accessory is executed at the start of power supply, In other words, even if the form movable actor changes its form until the final form, the player does not output the form change sound when the form movable actor changes its form at the start of power supply. It is possible to prevent misunderstanding that a special game may occur later and having a wrong expectation.

Front view of the pachinko machine 50 according to the first embodiment of the present invention. Front view of game board 1 of pachinko machine 50 in the first embodiment Rear view of the pachinko machine 50 in the first embodiment Electrical configuration diagram of pachinko machine 50 in the first embodiment Flowchart of power-on processing executed by the main controller 80 of the pachinko machine 50 in the first embodiment. The flowchart which shows the outline | summary of the main routine performed with the main controller 80 of the pachinko machine 50 in 1st Example. Flow chart of start winning confirmation process performed by main controller 80 in the first embodiment. Flowchart 1 of the success / failure determination process executed by the main controller 80 in the first embodiment. Flowchart 2 of the success / failure determination process executed by the main controller 80 in the first embodiment. Flowchart 3 of the success / failure determination process executed by the main controller 80 in the first embodiment. Flowchart 4 of the success / failure determination process executed by the main controller 80 in the first embodiment. Flowchart of movable accessory test process executed by the sub integrated control device 83 in the first embodiment. Flowchart of effect pattern setting processing executed by the sub integrated control device 83 in the first embodiment. Flowchart of movable accessory driving start process executed by the sub integrated control device 83 in the first embodiment. Flowchart of movable accessory driving end process executed by the sub integrated control device 83 in the first embodiment. Explanatory drawing which shows the drive mechanism of the title accessory in 1st Example. (A) a table of sound types and output contents controlled by the sub integrated control device 83 in the first embodiment, and (b) a winning effect pattern selection table A when Super Reach A is selected. Lost effect pattern selection table A when Super Reach A is selected in the first embodiment Hit effect pattern selection table B when super reach B in the first embodiment is selected Lost effect pattern selection table B when Super Reach B is selected in the first embodiment (A) Effect pattern selection table C when winning when super reach C is selected, (b) Loss effect pattern selecting table C when super reach C is selected (A) State diagram when the title combination is displaced to the intermediate position in the first embodiment, (b) State diagram when the title combination is displaced to the final position Front view of game board 1 of pachinko machine 50 in the second embodiment Electrical configuration diagram of pachinko machine 50 in the second embodiment (A) a table of sound types and output contents controlled by the sub integrated control device 83 in the second embodiment, and (b) a winning effect pattern selection table A when Super Reach A is selected. Lost effect pattern selection table A when Super Reach A is selected in the second embodiment Hit effect pattern selection table B when super reach B in the second embodiment is selected Lost effect pattern selection table B when Super Reach B in the second embodiment is selected (A) Effect pattern selection table C when winning when super reach C is selected in the second embodiment, (b) Loss effect pattern selecting table C when super reach C is selected (A) State diagram when the shield is changed to the intermediate form in the second embodiment, (b) State diagram when the shield is changed to the final form Front view of game board 1 of pachinko machine 50 in the third embodiment Electrical configuration diagram of pachinko machine 50 in the third embodiment (A) a table of sound types and output contents to be output controlled by the sub integrated control device 83 in the third embodiment, (b) a winning effect pattern selection table A when Super Reach A is selected. Lost effect pattern selection table A when Super Reach A is selected in the third embodiment Hit effect pattern selection table B when super reach B in the third embodiment is selected Lost effect pattern selection table B when Super Reach B in the third embodiment is selected (A) Effect pattern selection table C when winning when super reach C is selected in the third embodiment, (b) Loss effect pattern selecting table C when super reach C is selected State diagram when only the first sword object 41 is displaced in the third embodiment State diagram when the first sword object 41 and the second sword object 42 are displaced in the third embodiment

  Hereinafter, preferred embodiments of the present invention will be described. The embodiments of the present invention are not limited to the following examples, and can take various forms belonging to the technical scope of the present invention, and the contents described in the respective examples are appropriately combined. It goes without saying that it is possible.

[First embodiment]
As shown in FIG. 1, a pachinko machine 50, which is a kind of ball game machine, has a structure in which each part of the configuration is held by an outer frame 51 that forms a vertically long fixed outer frame. A hinge 53 is provided on the left and upper sides of the outer frame 51, and an inner frame 70 shown in FIG. 3 is attached to the other side of the hinge 53. The inner frame 70 opens and closes with respect to the outer frame 51. It has a possible configuration. A plate glass 61 is detachably provided on the front frame 52, and the game board 1 shown in FIG. 2 is attached to the inner frame 70 at the back of the plate glass 61.

  Speakers 66 are provided on the upper left and right sides of the front frame 52, and the game sound generated from the pachinko machine 50 is output to improve the player's preference. In addition, in order to improve the player's preference, a plurality of frame side decorative lamps 65 that emit light according to the gaming state are provided in the front frame 52. An upper plate 55 and a lower plate 63 are integrally formed below the front frame 52. A launching handle 64 is attached to the right side of the lower plate 63, and the launching device (not shown) is operated by rotating the firing handle 64 in the clockwise direction. Is fired toward the game board 1.

  In the upper center of the upper plate 55, an effect button 67 that can be operated by the player is provided. The pachinko machine 50 is a so-called CR machine and includes a prepaid card unit (CR unit) 56 for reading and writing a prepaid card. The pachinko machine 50 includes a lending button 57 and a checkout button 58. And a CR settlement display device having a balance display 59.

  FIG. 2 is a front view of the game board 1 of the pachinko machine 50 according to the first embodiment. In addition, since the whole structure of this pachinko machine 50 is based on a well-known technique, illustration and description are abbreviate | omitted. As shown in FIG. 2, the game board 1 is provided with a substantially circular game area 3 surrounded by known guide rails 2a and 2b. A large number of game nails 4 are nailed in the game area 3.

  A center case 5 is disposed at a substantially central portion of the game area 3. The center case 5 includes a warp entrance, a warp passage, a stage, and a window 5a for facing a screen 6a of an effect symbol display device 6 (which is a liquid crystal display device and displays an effect symbol), as in the known case. Yes. A first start port 11 and a second start port 12 are disposed below the center case 5, and a gate 17 is disposed on the left side of the center case 5. The second starting port 12 includes a normal electric accessory provided with a wing piece that can be opened and closed. The game ball cannot enter the second starting port 12 unless the wing piece is opened.

  In the lower right part of the game area 3, a normal symbol display device 7 composed of a plurality of LEDs, a normal symbol hold number display device 8, a first special symbol hold number display device 18, and a second special symbol hold number display device. 19 and a first special symbol display device 9 and a second special symbol display device 10 each including a 7-segment display device are arranged.

  An attacker type big winning opening 14 is arranged below the second start opening 12. Further, on the left side of the first start port 11, a first left winning port 31, a second left winning port 32, a third left winning port 33, and a fourth left winning port 34 are provided. Note that the first left winning port 31, the second left winning port 32, the third left winning port 33, and the fourth left winning port 34 are normal winning ports in which the winning rate does not always change.

Note that the game board 1 of the present embodiment is provided with a title combination 100 as a displaceable effect movable combination. The title accessory 100 is disposed at an upper portion of the center case 5 and a substantially horizontal center position as an initial position.
Here, a specific configuration of the title accessory 100 will be described with reference to FIG. The title accessory 100 is formed in a substantially thin plate shape having a horizontally long rectangular shape, and has a logo representing the model title of the pachinko machine 50 on the front surface thereof. In addition, a drive mechanism is provided on the back side of the title accessory 100 as a configuration that allows the title accessory 100 to be displaced (lifted) in the vertical direction. More specifically, as shown in FIG. 16, the title accessory 100 is driven by the pinion 100c being rotated by using the title accessory motor 100a fixedly attached to a predetermined position of the center case 5 as a power source. The rack 100d fixedly attached at a predetermined position on the back side of the title accessory 100 moves in parallel, thereby moving the title accessory 100 up and down. The title accessory sensor 100b detects that the rack 100d is in the initial position (the title accessory 100 is stored as shown in FIG. 2).
Furthermore, the title accessory 100 is driven and controlled by the sub-integrated control device 83 described later, so that the title combination 100 can be displaced downward in two types with the position shown in FIG. 2 as the initial position. ing. That is, it is configured to perform the downward displacement to the lowest position where it has descended the most and the downward displacement to an intermediate position located between the final position and the initial position. The descending displacement to the final position is such that the title accessory 100 starts displacement from the initial position and moves to the final position via the intermediate position. In this case, it may be paused at an intermediate position or may pass without stopping. It is only necessary that an intermediate position is provided on the path of displacement from the initial position to the final position. In addition, after any of the descending displacements, a return displacement to the initial position is performed after a predetermined time has elapsed. The specific action of the title accessory 100 will be described in detail later.

  As shown in FIG. 3, the inner frame 70 on which the above-described game board 1 is detachably attached is housed in the aforementioned outer frame 51 on the back surface of the pachinko machine 50. The inner frame 70 is provided with a ball tank 71, a tank rail 72, and a dispensing device 73 from above. With this configuration, if there is a winning game ball at the winning slot on the game board 1, a predetermined number of gaming balls can be discharged from the ball tank 71 via the tank rail 72 to the above-described upper plate 55 by the payout device 73. . Also, on the back side of the pachinko machine 50 (see also FIG. 4), a main control device 80, a payout control device 81, a production symbol control device 82, a sub integrated control device 83, a launch control device 84, and a power supply board 85 are provided. It has been. Although not shown, the power supply board 85 is provided with a power switch for performing a power on / off operation and a RAM clear switch for performing a RAM clear process described later.

  The main control device 80, the production symbol control device 82, and the sub integrated control device 83 are provided on the game board 1, and the payout control device 81, the launch control device 84, and the power supply board 85 are provided on the inner frame 70. In FIG. 3, the launch control device 84 is not drawn, but the launch control device 84 is provided below the payout control device 81. Further, an external connection terminal 78 is provided on the right side of the ball tank 71, and a signal indicating a game state and a game result is sent from the external connection terminal 78 to a hall computer (not shown). Conventionally, the external connection terminal 78 for transmitting a signal to the hall computer includes a board (a terminal for outputting a signal output from the game board side to the hall computer) and a frame (the frame side (front frame). 52, a terminal for outputting a signal output from the inner frame 70 and the outer frame 51) to the hall computer). In this embodiment, the hall computer is connected via one external connection terminal 78. A signal indicating a game state and a game result is transmitted to.

  As shown in the block diagram of FIG. 4, the electrical configuration of the pachinko machine 50 is configured with a main controller 80 as a center. In this block diagram, a so-called relay board and power supply circuit for merely relaying signals are not described. Although not shown in detail, all of the main control device 80, the payout control device 81, the production symbol control device 82, and the sub integrated control device 83 include a CPU, ROM, RAM, input port, output port, and the like. However, in this embodiment, the launch controller 84 is not provided with a CPU, ROM, or RAM. However, the present invention is not limited to this, and the launch control device 84 may be provided with a CPU, ROM, RAM, and the like.

  The main controller 80 includes a first start port switch 11a that detects a game ball that has entered the first start port 11, a second start port switch 12a that detects a game ball that has entered the second start port 12, and a normal A normal symbol operation switch 17a for detecting a game ball that has entered the gate 17 that activates the symbol, a count switch 14a for counting the game balls that have entered the big winning port 14, a first left winning port 31, a second left winning game Detection signals such as a left winning port switch 31a for detecting a game ball that has entered the mouth 32, the third left winning port 33, and the fourth left winning port 34 are input.

  The main control device 80 operates in accordance with the installed program, generates various commands related to the progress of the game based on the above-described detection signals and outputs them to the payout control device 81 and the sub integrated control device 83.

  The main controller 80 also displays the first special symbol display device 9, the second special symbol display device 10, and the normal symbol display device 7 connected via the symbol display device relay terminal board 90, and the first special symbol hold. The lighting of the number display device 18, the second special symbol hold number display device 19, and the normal symbol hold number display device 8 is controlled.

  Further, the main controller 80 controls the opening / closing of the special winning opening 14 by controlling the special winning opening solenoid 14b, and controls the ordinary electric accessory solenoid (denoted as a general electric accessory solenoid in FIG. 4) 12b. Thus, the opening and closing of the second start port 12 is controlled.

  In addition to being output to the test signal terminal, an output signal from the main controller 80 is also output to the external connection terminal 78 for management signals such as symbol fluctuations and jackpots (also called special games). ) 87. The main control device 80 and the payout control device 81 can perform bidirectional communication.

  The payout control device 81 operates the payout motor 20 in accordance with a command sent from the main control device 80 and pays out a prize ball. In this embodiment, the detection signal of the payout switch 21 for counting game balls to be paid out as prize balls is input to the payout control device 81, and the payout control device 81 counts the prize balls. In addition, it is also conceivable to use a configuration in which the detection signal of the payout switch 21 is input to the main control device 80 and the payout control device 81 and both the main control device 80 and the payout control device 81 count the prize balls.

  The payout control device 81 receives signals from the glass frame opening switch 35, the inner frame opening switch 36, the full switch 22, and the ball break switch 23, and a signal indicating that the lower plate 63 is full by the full switch 22. And when a signal indicating that there are few or no game balls in the ball tank is input by the ball break switch 23, the payout motor 20 is stopped and the payout operation of the prize ball is stopped. Note that the full switch 22 and the ball break switch 23 are also configured to continue outputting signals until the state is cleared, and the payout control device 81 causes the payout motor 20 to stop being output. Restart the drive.

  Also, the payout control device 81 operates the payout motor 20 by communicating with the prepaid card unit via the CR unit terminal plate 24, and discharges the rental balls. The paid-out lending ball is detected by the payout switch 21, and the detection signal is input to the payout control device 81. The CR unit terminal board 24 is also connected to a clearing display device (checkout display board) 25 so as to be capable of two-way communication. The checkout display board 25 has a lending button (ball lending switch) for requesting lending of game balls. ) 57, a settlement button (clearing switch) 58 for requesting settlement, and a balance display 59 (not shown in FIG. 4, refer to FIG. 1).

  Further, the payout control device 81 transmits information relating to the winning ball, information indicating the open / closed state of the frame (inner frame, front frame), etc. to the hall computer 87 via the external connection terminal 78, and also to the launch control device 84. To send a fire stop signal.

  In this embodiment, the game balls are paid out. However, the game balls generated in accordance with winnings or the like may be stored without being paid out.

  The launch controller 84 controls the launch motor 30 to launch a game ball into the game area 3. In addition to the payout control device 81, the launch control device 84 receives a rotation amount signal from the launch handle, a touch signal from the touch switch 28, and a launch stop signal from the launch stop switch 29.

  The rotation amount signal is output when the player operates the launch handle, the touch signal is output when the player touches the launch handle, and the launch stop switch signal is generated when the player presses the launch stop switch 29. Is output. If the touch signal is not input to the launch control device 84, the game ball cannot be launched, and if the launch stop switch signal is input, the game ball cannot be launched even if the player touches the launch handle. It has become.

  The sub-integrated control device 83 receives data and commands transmitted from the main control device 80, distributes them to data for effect display control, sound control, and lamp control, and so on. Is transmitted to the production symbol control device 82, and the sound control and lamp control are distributed to each control part (function unit as a sound control device and a lamp control device) included in itself. Then, the function unit as the sound control device controls the sound output from the speaker 66 by operating the sound LSI based on the data for sound control, and the function unit as the lamp control device converts the data for the lamp control. Based on the operation of the lamp driver, various LEDs and the lamp 26 are controlled.

  Note that the speaker 66 of this embodiment generates and outputs various sounds based on the control of the sub integrated control device 83. In particular, the present embodiment is configured to output at least sounds 1 to 5 (see FIG. 17A described later) as performance sounds.

  In addition, an effect button 67 is connected to the sub integrated control device 83, and when the player operates the effect button 67, a signal is input to the sub integrated control device 83.

  Bi-directional communication is possible between the sub integrated control device 83 and the production symbol control device 82.

  The effect symbol control device 82 displays the effect symbol display based on the data and commands received from the sub integrated control device 83 (both those transmitted from the main control device 80 and those generated by the sub integrated control device 83). The device 6 is controlled to display effect images such as effect symbols (also called pseudo symbols, pseudo symbols, decorative symbols, decorative symbols) on the screen 6 a of the effect symbol display device 6.

  Note that the effect symbol is a symbol for effect that performs a variable display corresponding to the special symbol and indicates the result of the determination of success or failure to the player. In the present embodiment, a display effect is provided as a pseudo effect, in which the result of the determination of success / failure is accompanied with the change display of the effect symbol.

  In addition, as a main part of the present invention, a title combination motor 100a and a title combination sensor 100b are connected to the sub-integrated control device 83, and depending on the detection result of the sensor and the command from the main control device 80, The motor is driven to perform the production operation.

  Further, as the main part of the present invention, the speaker 66 described above outputs game sound by voice control performed by the sub-integrated control device 83. The game sound includes a displacement sound related to the displacement of the title accessory (effect movable accessory) 100 in the present invention, which will be described in detail later, including the effect sound in the pseudo-effect corresponding to the change display of the special symbol. It is voice. The description regarding the type of displacement sound will be described later. The game sound in the second embodiment to be described later is a sound including a form change sound related to the form change of the shield object (direction movable object) 101, and the game sound in the third embodiment to be described later. In the case where only the first sword actor (directing movable accessory) 41 is displaced, or following the first sword accessory (directing movable accessory) 41, the second sword actor (directing movable accessory) 42 is displaced. In this case, the sound includes a displacement sound related to the displacement of the first sword combination (production movable combination) 41.

  With reference to FIG. 5, the power-on process by the main controller 80 of the pachinko machine 50 according to the present embodiment will be described. FIG. 5 is a flowchart of the power-on process.

  When the power of the pachinko machine 50 is turned on, the main controller 80 sets the point value of the stack pointer to 8000H (S500), sets the interrupt mode (S505), and permits access to the built-in RAM (S510). Then, a process of clearing the power-off flag is executed (S515), and the process proceeds to S520.

Although these processes are not shown in the figure, the process at the time of power-off occurrence, more specifically, the process of setting a power-off flag, the process of calculating and storing the RAM judgment value, the process of saving the generated information at the time of power-off, This is a power-on process corresponding to a “power-off occurrence process” configured by a prohibition process or the like.
“Processing upon occurrence of power interruption” is a process for retaining the numerical data stored immediately before the power supply to the pachinko machine 50 is stopped even when the power supply is interrupted.

  In S520, main controller 80 determines whether or not the RAM clear switch is ON. If an affirmative determination is obtained (S520: Yes), the process proceeds to S560, and if a negative determination is obtained (S520: No), the process proceeds to S525.

  In S525, main controller 80 determines whether or not the information generated when the power is turned off is normal. If an affirmative determination is obtained (S525: Yes), the process proceeds to S530, and if a negative determination is obtained (S525: No), the process proceeds to S560.

  In S530, the main controller 80 calculates the RAM determination value of the main RAM, and the process proceeds to S535.

  In S535, the main controller 80 determines whether or not the RAM determination value of the main RAM is normal. If an affirmative determination is obtained (S535: Yes), the process proceeds to S540, and if a negative determination is obtained (S535: No), the process proceeds to S560.

  In S540, main controller 80 clears the information generated when the power is turned off, and shifts the process to S545.

  In S545, main controller 80 executes command transmission processing at the time of power recovery, and shifts the processing to S550.

  In S560, the process proceeds to the case of an affirmative determination in S520 and a negative determination in S525 or S535. In S560, as a process for returning to the initial state, the main control device 80 stores the information of the main side RAM as the information immediately before the power-off. All are cleared to 0, and the process proceeds to S565.

  In S565, main controller 80 sets initial values of various random numbers, and proceeds to S570.

  In S570, the main controller 80 performs initial setting of the main RAM, and the process proceeds to S550.

  In S550, main controller 80 executes a process of setting the movable accessory test flag to 1, and shifts the process to S555. The movable accessory test flag is a flag that becomes an execution condition of the test drive of the movable accessory performed when the power is turned on when 1 is set. It is determined that the flag is set in “each output process” (S60) of the main routine described later. A process of transmitting a command to instruct execution to the sub integrated control device 83 is performed.

  Next, in S555, the main controller 80 executes the interrupt permission setting, whereby the pachinko machine 50 is restored to the state immediately before the power is turned off, or the stored information immediately before the power is turned off for the pachinko machine 50 is cleared. The process is terminated, and the process proceeds to the main routine.

  A main routine executed by the main controller 80 will be described with reference to FIG. The main routine is periodically executed by a hardware interrupt about every 2 ms. In the present embodiment, the process that is executed only once from S10 to S65 is referred to as “main process”, and the process of S70 that is repeatedly executed as long as time is allowed within the remaining time after executing this main process. This is referred to as “residual processing”. The “main process” is periodically executed by the interrupt.

  When a hardware interrupt is executed by the microcomputer, it is first determined whether or not the interrupt is a normal interrupt (S10). This determination process is performed by determining whether or not the value of a predetermined area of the RAM as a memory is a predetermined value. When the process executed by the microcomputer shifts to this process, the normal process is executed. It is for judging whether it is okay. If the interrupt is not normal, microcomputer runaway due to noise or the like may be considered when power is turned on. However, microcomputer runaway may be considered to be almost impossible due to recent technological improvements, and is most often when power is turned on. When the power is turned on, the value of the predetermined area of the RAM is different from the predetermined value.

  If it is determined that the interrupt is not normal (S10: no), initial settings (for example, writing a predetermined value to the predetermined area of the memory and setting a special symbol and a normal symbol as an initial symbol to each initial to the work area of the memory) Value is written (S15), and the process proceeds to the remaining process (S70).

  If a positive determination is made that the interrupt is normal (S10: yes), an initial value random number update process is executed (S20). This process is an increment process that increments the initial random number value by 1 each time this process is executed. The initial random number value before this process is incremented by +1, but the random number value before this process is executed is the maximum. When the value is “3966”, it returns to the initial value “0” in the next processing, and 3967 integers from “0” to “3966” are repeatedly generated in ascending order.

  The big hit determination random number update process (S25) following S20 is an increment process that is incremented by 1 each time the process is executed, similar to the initial value random number update process. When the maximum value is "3966", the next process starts. Is returned to “0”, and 3967 integers from “0” to “3966” are repeatedly generated in ascending order. Note that the initial value of the jackpot determination random number is the value set in the initial value random number setting process. If this value is 250, the big hit determination random number is updated as “250” “251” “252”... “3966” “0” “1”.

  When the big hit determination random number is updated once (3967 times), the initial random number value at that time is used as the initial value of the big hit determination random number, and the big hit determination random number is +1 from the initial value. Increment processing is performed. Then, when the big hit determining random number makes one round again, the initial value random number at that time is changed to the initial value of the big hit determining random number. That is, this series of operations is repeated. In the above example, when the big hit determination random number reaches “249”, it is one round, so the next value after “249” is the value of the initial value random number. If the value of the initial random number is “87”, “249” “87” “88”... “3966” “0” “1”. Next to is a new initial random number value. The number of values determined to be a big hit in the normal probability state is 10, and the values are “775” to “777”, “1775” to “1777”, “2774” to “2777”. The number of values determined as 100 is “758” to “777” “1314” to “1333” “1758” to “1777” “2758” to “2777” “3314” to “3333”. .

  The jackpot symbol determination random number update process (S30) is configured as a counter that repeatedly creates 100 integers from “0” to “99”. Each time this process is incremented by 1 and exceeds the maximum value, the initial value is “0”. Return to.

  The hit determination random number update process (S35) following S30 is configured as a counter that repeatedly creates 997 integers from “0” to “996”, and is incremented by 1 every time this process is exceeded. Return to a certain “0”. The values to be won are 31 to 40 in the normal probability state and 31 to 996 in the high probability state. This winning determination random number update process is used for lottery of normal symbols, and other initial value random numbers, big hit determination random numbers, big hit symbol determination random numbers, reach determination random numbers, and fluctuation pattern determination random numbers are drawn special symbols. Used for.

  The reach determination random number update process (S40) is configured as a counter that repeatedly generates 229 integers from “0” to “228”, and is incremented by +1 for each process and the initial value is “0”. Return to. In the normal probability state, the number of values that reach when the variable time reduction function is not activated is 21, and the values are “0” to “20”, and reach when the variable time reduction function is activated in the normal probability state. The number of values is 5, the values are “0” to “4”, the number of values that reach in the high probability state is 6, and the values are “0” to “5”.

  The variation pattern determination random number update process (S45) is configured as a counter that repeatedly creates 1021 integers from “0” to “1020”, and is incremented by 1 for each process and is the first value when the maximum value is exceeded. Return to "0".

  In the subsequent winning confirmation process (S50), confirmation of winning in the first starting port 11 and the second starting port 12 and input processing of each switch provided in the pachinko machine 50 and connected to the main controller 80 are executed.

  In this embodiment, when the game ball wins the first start port 11 and the second start port 12, a plurality of random numbers such as a big hit determination random number, a big hit symbol determination random number, a variation pattern determination random number, a reach determination random number, etc. are acquired. However, the number that can be reserved is limited to 4 at the first start port 11 and the second start port 12, respectively, and when the reserved memory is full, the game ball is stored in the first start port 11 or the second start port 11. (2) Even if a winning is made at the start port 12, only a prize ball is paid out, and the plurality of random numbers are not stored on hold.

Subsequently, a success / failure determination process (S55) is performed as condition establishment determination means for determining whether or not a big hit. When this success / failure determination process (S55) ends, each output process (S60) such as an image output process is subsequently executed.
In each output process (S60), as the game progresses, the main control device 80 controls the production symbol control device 82, the payout control device 81, the launch control device 84, the sub integrated control device 83, the big prize opening solenoid 14b, and the like. Each output process is executed. That is, when it is detected by the winning confirmation process (S50) that there is a winning game ball in each winning slot on the game board 1, the winning ball data is output to the payout control device 81 so as to pay out the gaming ball as the winning ball. In the process of outputting sound data corresponding to the gaming state to the sub-integrated control device 83, an error signal is output to the production symbol control device 82 to notify that there is an error when the pachinko machine 50 is abnormal. Each process is executed.

  In addition, in each output process (S60) of the present embodiment, although not shown, in addition to the above process, a determination process for determining whether or not the movable accessory test flag is set to 1 is executed. In the case where the determination is made, a process is performed in which an instruction command related to the test drive of the movable accessory scheduled to be executed only at the first interruption at the time of power-on is transmitted to the sub integrated control device 83. Yes. In addition to the process of transmitting an instruction command related to the test drive of the movable accessory to the sub-integrated control device 83, the main controller 80 performs a process of setting the movable accessory test flag to 0 and clearing it. . As a result, the transmission of the instruction command related to the test drive of the movable accessory and the test drive of the movable accessory described later executed by the sub-integrated control device based on the command can be executed only once when the power is turned on. Has been.

  In the subsequent fraud monitoring process (S65), it is monitored whether or not fraud is performed on the normal winning award (the first left winning port 31, the second left winning port 32, the third left winning port 33, the fourth left winning port 34). It is a process to determine whether or not the number of game balls entering the winning opening within a predetermined time is greater than a predetermined number. It is processing to do.

  The above-described remaining process following this process is composed of the initial value random number update process (S70), but is exactly the same process as S20 described above. This process forms an infinite loop and is repeated as long as time is allowed until the next interrupt is executed. The time required to execute this processing from S10 to S65 described above differs for each interrupt depending on whether or not to execute the jackpot processing, the difference in the display mode of special symbols, and the like. As a result, the number of times the remaining process is executed is different for each interrupt, and the value updated to the initial random number is not uniform when the interrupt process shown in FIG. 6 is executed once. Thereby, the possibility that the initial value random number is synchronized with the big hit determination random number becomes extremely small. If the value of the initial random number (3967 from 0 to 3966) when the big hit determination random number is made one round, the probability of synchronization is only 1/3967. The hit determination random number update process (S35) described above may also be executed in the remaining process.

  The winning confirmation process (start winning confirmation process) of S50 provided in the above main routine will be described with reference to FIG. FIG. 7 is a flowchart of the start winning confirmation process executed by the main controller 80. The main controller 80 determines whether or not a game ball has entered the first start port 11 based on the detection signal of the first start port switch 11a (S100). If the determination is affirmative (S100: yes), the jackpot determination random number, the jackpot symbol determination random number, the reach determination random number, the variation pattern determination random number, etc. are read from the corresponding counters, and the first reserved memory is full (this embodiment) It is determined whether the number is 4) (S105).

  If the first reserved memory is not full (S105: no), each random number is stored as the first reserved memory, and the lighting number of the first special symbol reserved number display device 18 is increased by 1 (S110). If there are already four first reserved memories (S105: yes), the process does not store, and the process proceeds to S115 without increasing the number of lighting of the first special symbol reserved number display device 18.

  When it is determined that the game ball is not in the first start port 11 (S100: no), the process also proceeds to S115, and the game ball is input to the second start port 12 based on the detection signal of the second start port switch 12a. It is determined whether or not a ball has entered. If the determination is affirmative (S115: yes), the jackpot determination random number, the jackpot symbol determination random number, the reach determination random number, the fluctuation pattern determination random number, etc. are read from the corresponding counters, and the second reserved memory is full (this embodiment) (S120).

  If the second reserved memory is not full (S120: no), the above random numbers are stored as the second reserved memory, and the lighting number of the second special symbol reserved number display device 19 is increased by 1 (S125). If there are already four second hold memories (S120: yes), the second hold is not stored, and the present process is terminated (returned) without increasing the number of lighting of the second special symbol hold number display device 19. Moreover, this process is complete | finished also when the game ball has not entered into the 2nd starting port 12 (S115: no).

  8 to 11, the main controller 80 determines whether or not the special electric accessory is operating based on the big hit flag (S200). If the determination in S200 is negative, the special symbol is not changing (S205: no), and the confirmed symbol is not being displayed (S210: no), the process proceeds to S250 in FIG. It is determined whether or not there is a hold storage by (S250).

  If there is this reserved memory (S250: yes), the second reserved memory number is decremented (S255), and the process proceeds to S270. If there is no second reserved memory (S250: no), it is determined whether there is a first reserved memory (the above-mentioned reserved memory in S110) (S260). If there is the first reserved memory (S260: yes), the first reserved memory number is decremented (S265), and the process proceeds to S270.

  In S270, the oldest one of the second reserved memories (the first reserved memory if the process is shifted from S265) is read (the reserved memory is erased), and the probability variation flag is set (ie, 1) or not. Determine. Here, the probability variation flag of 1 means that the current pachinko machine 50 is in a high probability gaming state. If the determination is affirmative (S270: yes), the read big hit determination random number is collated with the hit value recorded in the probability variation table (S275). Here, the number of hit values is 100, which are 758 to 777, 1314 to 1333, 1758 to 1777, 2758 to 2777, and 3314 to 3333. That is, the hit probability is 1 / 39.67. If the determination is negative (S270: no), the read big hit determination random number is collated with the hit value recorded in the normal table (S280). Here, the number of hit values is 10, which is 775 to 777, 1775 to 1777, and 2774 to 2777. That is, the hit probability is about 1/397.

  Based on the determination in S275 or S280, it is determined whether or not the game is a big hit (S285). If the determination is affirmative (S285: yes), the winning symbol is determined by the big hit symbol determining random number (S290). When the jackpot symbol is determined in this way, the variation pattern is determined by the random number for determining the variation pattern (S295), and the jackpot setting process is performed (S300). The jackpot setting process is based on the determined jackpot design, the game status after jackpot (such as whether there is a probability change or opening extension) and information about the jackpot game (opening time, opening pattern, jackpot ending time, number of rounds, etc.) It is a process to acquire. Note that the opening time and ending time in the case of two rounds probable big hit or two round normal big hits are set according to the number of reserved symbols stored in special symbols. Hereinafter, the 2-round probability jackpot and the 2-round normal jackpot are collectively referred to as a 2-round jackpot.

  If it is determined in S285 that the player has come off, it is determined whether or not a small hit is made (S305). The small hit means that the maximum winning opening 15 is opened twice for a maximum of 0.5 seconds. After the completion, none of the probability variation function, the time shortening function, and the opening extension function is activated. However, this means that these functions will not be triggered by the occurrence / termination of a small hit, and the state at the start of fluctuation of the special symbol that caused the small hit is maintained. . That is, when the change is started in the probability change state, the gaming state after the small hit is the probability change state, and when the change is started in the time reduction state, the game is in the time reduction state, and the change in the open extension state. When is started, it is in an open extension state. Here, when the big hit determining random numbers are 301 to 313, the big hit is determined. That is, the small hit probability is about 1/305. If the determination is affirmative, a small hit symbol is determined (S310), and a variation pattern is determined by a variation pattern determination random number (S315). The determination of the small hit symbol is performed by a random symbol for determining the small hit symbol acquired when the ball enters the first start port 11 or the second start port 12. This random number takes a value of 0 to 9, and is updated when the jackpot symbol determining random number is updated. When the small hit is also out (S305: no), the variation pattern is determined based on the reach determination random number and the variation pattern determination random number (S320). When the variation pattern is set in S315 or S320 in this way, a loss setting process is performed (S325). In the lose setting process, if the number of time reductions or the number of times of probability change is positive, -1 is respectively set.

  Subsequent to S300 or S325, the data indicating the lottery result described above, specifically, the normal big hit, the probable big hit, the number of rounds, out of reach (with out of reach but with reach display), out of small hit with no reach display. A change start command (display control command) including data indicating either one and change pattern data specifying the change time is output to the sub integrated control device 83 (S330), and special game processing is performed. Although the effect symbol display device 6 starts the variation display of the effect symbol by the process of S330, the main controller 80 also starts the variation of the special symbol almost simultaneously.

  If it is determined in S205 of FIG. 8 that the special symbol is changing (S205: yes), the process proceeds to S350 of FIG. 10, and the symbol change time (based on the change pattern of S295, S315, or S320) has elapsed. It is determined whether or not. In the case of negative determination (S350: no), special game processing is performed. If the determination is affirmative (S350: yes), a setting for displaying a confirmed symbol is performed (S355), and it is determined whether or not the special symbol that has been confirmed and displayed is a symbol that is a big hit (S360). If an affirmative determination is made (S360: yes), it is determined whether or not the probability variation flag is 1 (S365). If the probability variation flag is 1 (S365: yes), the probability variation flag is set to 0 in S370, and the process proceeds to S375. If the probability variation flag is not 1 (S365: no), the process proceeds to S375. In S375, it is determined whether or not the time reduction flag is 1. When the time reduction flag is 1, it indicates that the special symbol and normal symbol time reduction functions are operating. If the time reduction flag is 1 (S375: yes), the time reduction flag is set to 0 in S380, and the process proceeds to S385. If the time reduction flag is not 1 (S375: no), the process proceeds to S385 as it is.

  In S385, the big hit flag is set by the condition device operation start processing. In step S390, the accessory continuous operation device is operated, and in step S395, a big hit start effect process is performed. In the jackpot start effect process, a command for starting the jackpot game and information related to the jackpot game (such as the jackpot opening time, release pattern, jackpot ending time, number of rounds, etc.) are transmitted to the sub integrated control device 83. When the big hit start effect process ends, a special game process is performed.

If it is determined in S360 that the special symbol that has been confirmed and displayed is not a big win (S360: no), it is determined whether the probability variation flag is 1 (S400) or 1 (S400: yes). Then, it is determined whether or not the probability variation number is 0 (S405). If the probability variation count is 0 (S405: yes), the probability variation flag is set to 0 in S410, and the process proceeds to S415. When the probability variation flag is not 1 (S400: no) or when the probability variation number is not 0 (S405: no), the processing proceeds to S415 as it is.
In S415, it is determined whether or not the time reduction flag is 1. If it is 1 (S415: yes), it is determined whether or not the number of time reductions is 0 (S420). If the number of time reductions is 0 (S420: yes), the time reduction flag is set to 0 in S425 and the process proceeds to S430. When the time reduction flag is not 1 (S415: no) or when the time reduction count is not 0 (S420: no), the process proceeds to S430 as it is.

  In S430, it is determined whether or not the special symbol that is confirmed and displayed is a symbol that is a small hit. If the symbol is a small hit (S430: yes), a special electric accessory activation start process (S435) is performed, and a small hit start effect process is performed in S440. In the small hit start effect process, a command for starting the small hit game and information related to the small hit game (opening time for the small hit, ending time for the small hit, etc.) are transmitted to the sub integrated control device 83. When the small hit start effect process ends, the special game process is executed. If it is determined in S430 that the symbol is not a small winning symbol (S430: no), the special game process is executed as it is.

  If it is determined in S210 in FIG. 8 that the confirmed symbol is being displayed, the process proceeds to S450 in FIG. 11 to determine whether or not the display time of the confirmed symbol has ended. If the determination is negative (S450: no), the special game process is performed. If the determination is affirmative (S450: yes), the confirmed symbol display process (S455) is performed, and then the special game process is performed. In the confirmed symbol display process, a command for displaying a confirmed symbol (symbol confirmed command) is output to the sub-integrated control device 83, and the command is output to the special symbol display devices 9 and 10 to stop at the confirmed symbol.

  As described above, the “whether or not determination process” by the main controller 80 of the present embodiment is based on the numerical data (random number value) extracted due to the ball entering the first start port 11 or the second start port 12. Thus, it is a process of determining whether or not to win (winning or jackpot) that is an opportunity for executing the jackpot game.

  Further, the determination result by the success / failure determination process is displayed in the variable display mode or the fixed display mode that is the result of the variable display in the first special map display device 9 and the second special map display device 10 described above. It has become.

  In addition, the effect symbol display device 82 displays a pseudo symbol corresponding to the special symbol (also referred to as a decorative symbol or a decorative symbol) in a variable manner so that the player is informed and notified of the result of the lottery. is there.

[Moving accessory test processing]
Next, the movable accessory test process will be described with reference to FIG. The movable accessory test process is a process of transmitting a movable accessory that is transmitted based on the determination that the movable accessory test flag is set to 1 in each output process (S60) by the main controller 80 described above. This is a process for the sub-integrated control device 83 to perform test driving of the effect movable accessory (title accessory 100 in this embodiment) when an instruction command related to test driving is received.

  In S580, the sub-integrated control device 83 executes a determination process of whether or not an instruction command related to the test drive of the effect movable accessory has been received from the main control device 80, and if it is a positive determination (S580: yes), The process proceeds to S585, and if a negative determination is made (S580: no), this process ends.

  In S585, the sub-integrated control device 83 executes a test drive process for the effect movable accessory, and ends this process. By performing S585 of the first embodiment, the title accessory 100 performs test driving that is displaced to the final position via the intermediate position.

  Note that the movable accessory test process of the present embodiment is configured to execute the test drive only when an instruction command related to the test drive that is transmitted only when the power is turned on as described above.

  Further, when the test drive process is executed in S585, even if the predetermined drive process is performed on the effect movable accessory, the sub integrated control device 83 is different from the execution of the effect drive described later. Is configured not to perform a process of outputting a displacement sound corresponding to the predetermined drive from the speaker 66.

[Direction pattern setting processing]
Next, the effect pattern setting process will be described with reference to FIG. The effect pattern setting process of the present embodiment is performed when the change start command for starting the change display of the pseudo symbol corresponding to the special symbol is received from the main control device 80 described above, the type of the effect pattern related to the so-called pseudo effect. And performing preparations prior to driving, such as confirming the position of the movable movable agent that is driven when the pseudo-rendering is performed, and performing pseudo-rendering, driving the movable movable agent, and audio output corresponding to the driving This is the process of starting the production such as.

  First, in S700, the sub integrated control device 83 determines whether or not a change start command has been received from the main control device 80. If the determination is affirmative (S700: yes), the process proceeds to S705, and the result is negative. If it is determined (S700: no), this process is terminated. The variation start command is a display control command that is output from the main control device 80 to the sub integrated control device 83 in S330 of the above-described success / failure determination processing (FIG. 9). The apparatus 6 starts the variable display of the pseudo symbol (effect symbol) corresponding to the special symbol, and in addition, displays a character or the like on the effect symbol display device 6 and executes the pseudo effect that visually confirms the determination result. .

  In S705, the sub integrated control device 83 executes a process of determining the type of effect pattern to be executed, and the process proceeds to S710. The sub integrated control device 83 includes a plurality of types of effect patterns, and selects and determines one of the effect patterns in S705. The sub integrated control device 83 according to the present embodiment includes, for example, various selection tables shown in FIGS. 17 to 21 described later as an effect pattern selection table composed of a plurality of types of effect patterns. An effect pattern is determined with reference to any selection table according to the type of time, the result of the determination of success / failure, and the type of super reach to be executed). The contents of the effect pattern of the present embodiment selected at this time are displayed on the effect symbol display device 6 (for example, aspects relating to the shape, size, color, etc. of the displayed characters and characters). In addition, it includes whether or not the movable movable accessory (title accessory 100 in this embodiment) can be displaced, the type of displacement, and the type of displacement sound. In step S705, the contents of the effect pattern are set as the contents of the effect to be executed later. This will be described in detail later with reference to FIGS.

  In step S710, the sub-integrated control device 83 performs a process for confirming whether or not the effect movable accessory (title accessory 100) is at a predetermined initial position (see FIG. 2), and the process proceeds to step S715.

In step S715, the sub-integrated control device 83 performs processing for returning the effect movable accessory (title accessory 100) to the predetermined initial position, that is, the origin, when it is confirmed that it is not at the predetermined initial position based on the confirmation result of S710. The process proceeds to S720, and when it is at the predetermined initial position, the process proceeds to S720 as it is.
In the process of returning to the origin, if the title accessory motor 100a is driven to return to the origin and normal detection cannot be obtained by the title accessory sensor 100b, a predetermined number (for example, three times) is set as the upper limit. As above, the title accessory motor 100a is driven repeatedly. In spite of the driving of the title accessory motor 100a for a predetermined number of times, if normal detection is not obtained by the title accessory sensor 100b, it is assumed that the title accessory 100 has an abnormality, for example, 1 is set in the “object abnormality flag”. Perform the setting process.

  In S720, the sub integrated control device 83 confirms whether or not 1 is set in the “object abnormality flag”, that is, whether or not there is an abnormality in the accessory, and if it is a positive determination (S720: yes), the process proceeds to S730. If the determination is negative (S720: no), the process proceeds to S725.

  In the present embodiment, the processes in S710 and S715 are started based on the fact that the change start command is received in S700, that is, regardless of the change pattern type, regardless of the change pattern type. It is executed every time a command is received.

  In the present embodiment, the processes of S710 and S715 are executed every time the variable display is started based on the fact that the variable start command is received in S700. However, the present invention is not limited to the start of change, and may be executed at the end of change display, for example. As a result, each time the variable display ends, whether or not the driven production movable accessory is at the initial position, or if there is not, the origin return process is executed.Therefore, preparation is made with a margin before the start of the next variable display. it can. Further, when an abnormal state occurs, it is possible to execute notification of the abnormal state and processing for the abnormal state with a margin before the next variable display is started.

  In S725, the sub integrated control device 83, other than the displacement type (displacement mode) of the effect movable accessory (title accessory 100) among the contents of the effect pattern already set in S705 described above, that is, the pseudo effect Limiting only the content and the content of the displacement sound, a setting process is performed for setting again as an execution target of the effect, and the process proceeds to S730.

  In S730, the sub integrated control device 83 restricts the contents of the effect pattern determined in S705 if there is no accessory abnormality, and restricts the effects (sound and light emission) other than the accessory driving in S725 if there is an accessory abnormality. The process of starting the production is executed with the contents thus completed, and this process is terminated. In S730, the contents of the effect to be executed are changed as described above depending on the presence / absence of an accessory abnormality. Specifically, even if the state where the effect movable accessory (title accessory 100) does not return to the origin occurs. However, the effect by the effect means other than the accessory driving is configured to be executed.

When S730 is executed, the production starts based on the production contents of the production pattern set or reset in S705 and S725.
When based on the setting content of S705, a pseudo effect is started, and in this embodiment, a predetermined displacement sound is output after a predetermined time (for example, 500 ms) from the start of the pseudo effect, and at the same timing, It is configured to start the displacement of the object (title object 100).
When based on the setting contents of S725, a pseudo effect is started, and in this embodiment, a predetermined displacement sound is only output after a lapse of a predetermined time (for example, 500 ms) from the start of the pseudo effect. ing.
In addition, it is good also as a structure by which the light emission effects by the various light emission members provided in the pachinko machine 50 are also performed for such an effect.

  Thus, in the “effect pattern setting process” by the sub integrated control device 83 of the present embodiment, when the super reach A or the super reach B is executed with reference to various effect pattern selection tables described later in S705. Then, the possibility of displacement, the displacement type, and the displacement sound type of the production movable combination (title combination 100 in this embodiment) are determined. That is, whether the title accessory 100 is displaced from the initial position through the intermediate position to the final position, or is displaced only from the initial position to the intermediate position, and further, the sound from sound 1 is generated as a displacement sound related to the displacement at that time. 5 is output.

  Further, in S730 of the “effect pattern setting process” by the sub integrated control device 83 of the present embodiment, the displacement sound is used as an effect sound related to the displacement of the title accessory 100 based on the displacement sound type determined in S705. 66.

[Moving accessory drive start processing]
Next, the movable accessory driving start process will be described with reference to FIG. The movable accessory driving start process of the present embodiment is a process executed based on the execution of S730 in the above-described effect pattern setting process (FIG. 13). However, in this case, the process is executed when an abnormality in the accessory based on the setting content in S705 is not recognized.

  First, in S600, the sub integrated control device 83 determines whether or not the variation effect to be executed this time is a predetermined reach, that is, the super reach A or the super reach B in this embodiment. If (S600: yes), the process proceeds to S605. If the determination is negative (S600: no), this process ends.

  In S605, the sub-integrated control device 83 determines whether or not it is the drive start timing of the effect movable accessory (title accessory 100). If the determination is affirmative (S605: yes), the process proceeds to S610. If the determination is negative (S605: no), this process ends. As described above, in this embodiment, the drive start timing is configured to arrive after a predetermined time (for example, 500 ms) has elapsed from the start of the pseudo effect. In addition, in order to time the arrival of the timing, a special counter is provided as a reference for determining that the timing has arrived based on the fact that the counter value has reached 0 based on the countdown starting from the start of the pseudo effect. Also good. The drive start timing in the present embodiment is the same regardless of whether the super reach A or the super reach B is executed. However, the drive start timing is not limited to this, and the drive start is performed according to the type of super reach. The timing may be different. In this case, it is preferable that a special counter for measuring the drive start timing is provided separately for the super reach A and the super reach B. Thereby, it is possible to reliably measure the individual drive start timing. In addition, it is desirable that the timing of the individual special counters be timed from the start of the pseudo effect. However, the invention is not limited to this, and the time measurement may be started at different timings.

  In S610, the sub integrated control device 83 starts the drive process of the effect movable accessory (title accessory 100) according to the contents of the current effect pattern, and ends this process. Specifically, the title accessory motor 100a is driven and displaced to the intermediate position or the final position according to the contents of the effect pattern, and after the displacement, waits until the “predetermined driving time” ends.

[Moving accessory drive end processing]
Next, the movable accessory driving end process will be described with reference to FIG. The movable accessory drive end process of the present embodiment is a process for ending the drive process started by executing S610 of the movable accessory drive start process (FIG. 14) described above.

  First, in S650, the sub integrated control device 83 determines whether or not the end timing of the driving process has arrived, that is, whether or not the “predetermined driving time” has ended. When the determination is negative (S650: no), the process is terminated.

  In S655, the sub integrated control device 83 ends the driving process of the effect movable accessory (title accessory 100), and ends this processing. Specifically, the title combination motor 100a is driven to execute a process of returning the effect movable combination (title combination 100) to the initial position, and the process ends.

[Effects of the movable movable object of the first embodiment]
With reference to FIG. 22, the effect | action of the production movable combination (title combination 100) of a present Example is demonstrated. That is, the effect movable accessory (title accessory 100) of this embodiment is intermediate from the initial position (origin) shown in FIG. 2 by the control processing of the movable accessory drive start process and the movable accessory drive end process described above. Displace to position or to final position. In other words, according to the displacement type indicated in the content of the effect pattern that has been selected and determined, displacement is made to either the intermediate position or the final position, and when the end time of the predetermined driving time comes, the return displacement to the initial position is changed. Do.

  When the displacement to the intermediate position is performed, the effect movable accessory (title accessory 100) is displaced downward from the initial position and displaced to the position shown in FIG. 22A, that is, the intermediate position. The broken line in the figure indicates the initial position. In the case of displacement to the intermediate position of the present embodiment, the downward displacement amount is approximately a distance of about 1/3 of the height dimension of the effect movable accessory (title accessory 100).

  When the displacement to the final position is performed, the effect movable accessory (title accessory 100) is similarly displaced downward from the initial position to the position shown in FIG. 22B, that is, the final position. The broken line in the figure indicates the initial position. In the case of displacement to the final position of the present embodiment, the downward displacement amount is approximately a distance of about 2/3 of the height dimension of the effect movable accessory (title accessory 100).

  The intermediate position is set on the displacement route from the initial position to the final position. Therefore, in other words, the sub integrated control device 83 refers to the content of the production pattern, and when the content includes information that moves to the final position as the displacement type, The downward displacement is started from the initial position, and is displaced to the final position via the intermediate position. The configuration of displacement via the intermediate position may be either temporarily stopped or passed without stopping when the intermediate position is reached in the course of displacement. Both of them may be selected as appropriate by, for example, lottery to generate a case of temporarily stopping or not stopping. By doing in this way, whether the current displacement is a displacement up to an intermediate position while temporarily stopped, or whether it is a displacement that starts once again after stopping and then moves to the final position. And can improve the fun of the game.

  Further, when stopping once, a plurality of stop times for temporarily stopping may be provided, and it may be determined by lottery which one is selected. Further, whether or not to stop once, and whether or not the stop time when stopping once may be set according to the degree of expectation of the jackpot corresponding to the result of the lottery. Thereby, since the player predicts the degree of expectation for the big hit depending on whether or not to stop once and the length of the stop time when stopping once, the interest is improved.

  It should be noted that the effect movable accessory (title accessory 100) of the present embodiment is configured such that the displacement from the initial position to the intermediate position and the final position is lowered. The displacement is not limited to this, and may be upward displacement, leftward or rightward, obliquely upward, or obliquely downward displacement. Any displacement may be used as long as it has an intermediate position on the process up to the final position.

[Various production patterns of the first embodiment]
With reference to FIGS. 17-21, the various production patterns of the above-described embodiment will be described. FIG. 17A is a chart showing sound types and output contents that are output corresponding to the displacement of the production movable accessory. FIG. 17B shows a case where a big hit and Super Reach A is executed. It is the hit effect pattern selection table A showing the type and effect content of the effect pattern to be selected and determined. FIG. 18 is an effect pattern selection table A for losing showing the types and effects of effect patterns that are selected and determined when Super Reach A is executed. FIG. 19 is a hit effect pattern selection table B showing the types and effect contents of effect patterns that are selected and determined when the big hit and Super Reach B is executed. FIG. 20 is an effect pattern selection table B at the time of losing showing the type and effect content of the effect pattern that is selected and determined when Super Reach B is executed. FIG. 21 (a) is a hit effect pattern selection table C showing the types and effects of effect patterns that are selected and determined when a big hit and Super Reach C is executed, and FIG. This is a loss-time effect pattern selection table C showing the effect pattern type and effect content that are selected and determined when the super reach C is executed.

(1) About the sound type and output contents of the first embodiment As shown in FIG. 17A, in this embodiment, whether or not the result of the determination is a big hit or lost when executing the pseudo effect. Depending on the reach type scheduled for the event, an effect pattern distributed at a predetermined distribution rate is selected and executed with reference to various effect pattern tables to be described later. In this effect pattern, as described above, the display form of the pseudo effect displayed on the effect symbol display device 6 in advance as the contents of the effect pattern (for example, the shape and size of the displayed characters and characters, and the like) Aspects relating to color and the like), whether or not the movable movable object (title object 100 in this embodiment) can be displaced, displacement type, and displacement sound type. The displacement sound type of this embodiment will be described.

  In the present embodiment, as shown in FIG. 17 (a), the sound types output prior to finally determining (determining) the type of displacement of the title accessory 100 are sounds 1 to 5. It is set with 5 types of sounds. Specifically, the sound contents to be output are “pylon” for sound 1, “dawn” for sound 2, “chichichi” for sound 3, “gogogo” for sound 4, and “shaken” for sound 5. When sound 1 is the first displacement sound, sound 2 is the second displacement sound, and when sound 3 is the first displacement sound, sound 4 is the second displacement sound, and sound 1 or sound 3 is the first displacement sound. In the case of the displacement sound, the sound 5 becomes the second displacement sound.

  When sounds 1 to 4 are output, as set in each effect pattern table described later, the type of displacement of the title accessory 100 is displaced to the intermediate position and to the final position. In any case, it is set to be displaced to the final position whenever the sound 5 is output.

(2) About the hit effect pattern selection table A of the first embodiment As shown in FIG. 17 (b), the super reach A selects the execution of the variable display in which the result of the internal lottery, that is, the lottery result is a big hit. If it is, the production pattern A-1 to 5, the production pattern B-1 to 5, the production pattern C-1 to 5, and the production pattern D-1 to 5 are selected by the super reach A as shown in the figure. The distribution is performed at a predetermined distribution rate. Further, the displacement type of the title accessory 100 and the displacement sound type are set in advance in each effect pattern.

  For example, the production pattern A-1 will be described. When the effect pattern A-1 is selected, a pseudo effect is started, and a sound 1 (“pylon”) is output after a predetermined time (for example, 500 ms) has elapsed. In conjunction with the output, the title accessory 100 starts displacement to the intermediate position in S610 of the movable accessory drive start process (FIG. 14). The production pattern A-1 is a big hit internally and is distributed by lottery at 3% when Super Reach A is selected.

  In the “hit effect pattern selection table A” that is referred to when a big hit is made internally, the distribution ratio of each effect pattern in which the title accessory 100 is displaced to the intermediate position and each effect pattern that is displaced to the final position The total of each is set to 68% when moving to the final position, while 32% is moving to the middle position. That is, in the winning effect pattern selection table A, when it is determined that the winning combination is determined to be a big hit and the super reach A is performed, the probability that the title accessory 100 is determined to be displaced only from the initial position to the intermediate position ( 3% of production pattern A-1, 5% of production pattern A-2, 3% of production pattern A-3, 5% of production pattern A-4, 3% of production pattern B-1, and production pattern B-2 Of 5% of the production pattern B-3, 5% of the production pattern B-4, and 32%) (4% of the production pattern A-5, production of the production pattern B-5) 4%, 5% of production pattern C-1, 7% of production pattern C-2, 5% of production pattern C-3, 7% of production pattern C-4, 6% of production pattern C-5, production pattern 5% of D-1, production pattern D- 7% of the production pattern D-3, 7% of the production pattern D-4, 6% of the production pattern D-5, 68%). It is set to be displaced to the position.

  In the “winning effect pattern selection table A”, when the title object 100 is eventually displaced to the final position, the distribution is performed when the displacement is caused by the output of the sound 2 (second displacement sound) at the start of the displacement. The total rate is 14% (7% of the production pattern C-2, 7% of the production pattern D-2), whereas the displacement is caused by the output of the sound 1 (first displacement sound). The total of the distribution rates is 10% (5% of the effect pattern C-1 and 5% of the effect pattern D-1), and the former is set higher than the latter in the table.

Further, the ratio when the title accessory 100 is displaced to the final position among all the cases where the sound 1 (first displacement sound) is output in the “hit effect pattern selection table A” is calculated as the ratio A. To do. When sound 1 (first displacement sound) is output, 3% of effect pattern A-1, 3% of effect pattern B-1, 5% of effect pattern C-1, and 5% of effect pattern D-1 The total of 16%. Among them, when the title accessory 100 is displaced to the final position, the ratio is 10% and the ratio A is 10/16.
Similarly, the ratio of the case where the title accessory 100 is displaced to the final position among all the cases where the sound 2 (second displacement sound) is output in the “hit effect pattern selection table A” is defined as a ratio B. calculate. When sound 2 (second displacement sound) is output, 5% of effect pattern A-2, 5% of effect pattern B-2, 7% of effect pattern C-2, and 7% of effect pattern D-2 The total of 24%. Among them, when the title accessory 100 is displaced to the final position, the ratio is 14% and the ratio B is 14/24.
Therefore, the ratio A (10/16 = 60/96) is set to have a higher allocation rate than the ratio B (14/24 = 56/96). That is, in the setting of the “hit effect pattern selection table A”, when sound 1 (first displacement sound) is output, with a higher probability than when sound 2 (second displacement sound) is output, The title accessory 100 is set so as to be displaced from the initial position to the final position via the intermediate position.

  The relationship between the sound 2 and the sound 1 is the same as the relationship between the sound 4 and the sound 3, as is clear from the setting state of the distribution rate shown in the figure. Furthermore, the same applies to the setting relationship between sound 5 and sound 1 or sound 3. That is, when the sound 1 is the first displacement sound, the sound 2 is the second displacement sound. When the sound 3 is the first displacement sound, the sound 4 is the second displacement sound. Or it is the same as the relationship which makes the sound 5 the 2nd displacement sound when the sound 3 is made into the 1st displacement sound, and a present Example is provided with multiple types of 1st displacement sound and 2nd displacement sound. This also applies to other effect pattern selection tables described later.

(3) Loss-time effect pattern selection table A of the first embodiment As shown in FIG. 18, Super Reach A is selected with respect to the execution of variable display in which the result of the lottery is lost internally, that is, the result of the lottery determination. In the case where the production pattern a-1 to 5, the production pattern b-1 to 5, the production pattern c-1 to 5, and the production pattern d-1 to 5 are lost and the super reach A is selected as shown in the figure. Are distributed at a predetermined distribution rate. Further, the displacement type of the title accessory 100 and the displacement sound type are set in advance in each effect pattern.

  For example, the production pattern a-1 will be described. When the effect pattern a-1 is selected, a pseudo effect is started, and a sound 1 (“pylon”) is output after a predetermined time (for example, 500 ms) has elapsed. In conjunction with the output, the title accessory 100 starts displacement to the intermediate position in S610 of the movable accessory drive start process (FIG. 14). The production pattern a-1 is internally lost, and is assigned by lottery at 7% when Super Reach A is selected.

  In the “losing effect pattern selection table A” that is referred to when an internal loss occurs, the distribution ratio of each effect pattern in which the title accessory 100 is displaced to the intermediate position and each effect pattern that is displaced to the final position. The total of each of the cases is 64% when moving to the intermediate position, whereas it is set to 36% when moving to the final position. In other words, in the lost effect pattern selection table A, contrary to the above-mentioned hit effect pattern selection table A, when it is determined that the game has been lost in the lottery and the super reach A is performed, the title combination 100 is selected. Probability of deciding to move only from the initial position to the intermediate position (7% of effect pattern a-1, 9% of effect pattern a-2, 7% of effect pattern a-3, 9% of effect pattern a-4, Probability (effect) is lower than 7% of effect pattern b-1, 9% of effect pattern b-2, 7% of effect pattern b-3, 9% of effect pattern b-4, 64%) 8% of pattern a-5, 8% of production pattern b-5, 1% of production pattern c-1, 3% of production pattern c-2, 1% of production pattern c-3, production pattern c-4 3%, production pattern c- 2%, production pattern d-1 1%, production pattern d-2 3%, production pattern d-3 1%, production pattern d-4 3%, production pattern d-5 2% It is set to be displaced from the initial position to the final position via the intermediate position at 36%).

  In the “effect pattern selection table A for losing”, when the title object 100 is eventually displaced to the final position, the distribution when the displacement is caused by the output of the sound 2 (second displacement sound) at the start of the displacement. The total rate is 6% (3% of the production pattern c-2, 3% of the production pattern d-2), whereas the displacement is caused by the output of the sound 1 (first displacement sound). The total of the distribution rates is 2% (1% of the effect pattern c-1 and 1% of the effect pattern d-1), and the former is set higher than the latter in the table.

Furthermore, in “the effect pattern selection table A at the time of losing”, among all cases where the sound 1 (first displacement sound) is output, the ratio when the title accessory 100 is displaced to the final position is calculated as the ratio C. To do. When sound 1 (first displacement sound) is output, 7% of effect pattern a-1, 7% of effect pattern b-1, 1% of effect pattern c-1, and 1% of effect pattern d-1 The total of 16%. Among them, when the title accessory 100 is displaced to the final position, it is 2%, and the ratio C is 2/16.
Similarly, in “Lose effect pattern selection table A”, among all cases where the sound 2 (second displacement sound) is output, the ratio when the title accessory 100 is displaced to the final position is defined as a ratio D. calculate. When sound 2 (second displacement sound) is output, 9% of effect pattern a-2, 9% of effect pattern b-2, 3% of effect pattern c-2, and 3% of effect pattern d-2 The total of 24%. Among them, when the title accessory 100 is displaced to the final position, the ratio is 6% and the ratio D is 6/24.
Therefore, the ratio C (2/16 = 12/96) is set to be lower than the ratio D (6/24 = 24/96).
However, if the “hit effect pattern selection table A” described above is also considered, that is, including the ratio A and the ratio B, the total of the distribution ratios of the ratio A and the ratio C is (60 + 12) / 96 = 72. On the other hand, the sum of the distribution ratios of the ratio B and the ratio D is (56 + 24) / 96 = 80/96. Therefore, when Super Reach A is executed regardless of the determination result, the sound 2 (second displacement sound) is output more than the sound 1 (first displacement sound) is output. The title combination 100 is set to be displaced from the initial position to the final position through the intermediate position with a high probability.

(4) About the hit effect pattern selection table B of the first embodiment As shown in FIG. 19, the super reach B is selected with respect to the execution of the variable display in which the result of the lottery is internal, that is, the lottery result. In the case where the production patterns E-1 to 5, the production patterns F-1 to 5, the production patterns G-1 to 5, and the production patterns H-1 to 5 are selected with a big hit as shown in the figure, the super reach B is selected. Are distributed at a predetermined distribution rate. Further, the displacement type of the title accessory 100 and the displacement sound type are set in advance in each effect pattern.

  In the “hit stage effect pattern selection table B” that is referred to when a big hit is made internally, the distribution ratio of each stage pattern in which the title object 100 is displaced to the intermediate position and each stage pattern that is displaced to the final position. The total of each is set to 68% when moving to the final position, while 32% is moving to the middle position. That is, in the winning effect pattern selection table B, when it is determined that the winning combination is determined to be a big hit and the super reach B is performed, the probability that the title accessory 100 is determined to be displaced only from the initial position to the intermediate position ( 2% of production pattern E-1, 6% of production pattern E-2, 2% of production pattern E-3, 6% of production pattern E-4, 2% of production pattern F-1, and production pattern F-2 6% of the production pattern, 3% of the production pattern F-3, and 6% of the production pattern F-4, 32%) (4% of the production pattern E-5, production of the production pattern F-5) 4%, production pattern G-1 4%, production pattern G-2 8%, production pattern G-3 4%, production pattern G-4 8%, production pattern G-5 6%, production pattern 4% of H-1, production pattern H- 8% of the production pattern H-3, 8% of the production pattern H-4, 6% of the production pattern H-5, 68%), and finally through the intermediate position from the initial position. It is set to be displaced to the position.

  In the “winning effect pattern selection table B”, when the title object 100 is eventually displaced to the final position, the distribution is performed when the displacement is caused by the output of the sound 2 (second displacement sound) at the start of the displacement. The total rate is 16% (8% of the production pattern G-2, 8% of the production pattern H-2), whereas the displacement is caused by the output of the sound 1 (first displacement sound). The total of the distribution rates is 8% (4% of the effect pattern G-1 and 4% of the effect pattern H-1), and the former is set higher than the latter in the table.

Further, in the “attendance effect pattern selection table B”, the ratio when the title accessory 100 is displaced to the final position among all the cases where the sound 1 (first displacement sound) is output is calculated as the ratio E. To do. When sound 1 (first displacement sound) is output, 2% of effect pattern E-1, 2% of effect pattern F-1, 4% of effect pattern G-1, and 4% of effect pattern H-1 The total of 12%. Among them, when the title accessory 100 is displaced to the final position, it is 8% and the ratio E is 8/12.
Similarly, the ratio of the case where the title accessory 100 is displaced to the final position among all the cases where the sound 2 (second displacement sound) is output in the “hit effect pattern selection table B” is defined as a ratio F. calculate. When sound 2 (second displacement sound) is output, 6% of effect pattern E-2, 6% of effect pattern F-2, 8% of effect pattern G-2, and 8% of effect pattern H-2 In total, it becomes 28%. Among them, when the title accessory 100 is displaced to the final position, it is 16%, and the ratio F is 16/28.
Therefore, the ratio E (8/12 = 56/84) is set to have a higher allocation rate than the ratio F (16/28 = 48/84). That is, in the setting of the “hit effect pattern selection table B”, when sound 1 (first displacement sound) is output, the probability is higher than when sound 2 (second displacement sound) is output, The title accessory 100 is set so as to be displaced from the initial position to the final position via the intermediate position.

(5) Loss-time effect pattern selection table B of the first embodiment As shown in FIG. 20, the super reach B is selected with respect to the execution of the variable display internally, that is, the result of the lottery determination is lost. In the case where the production patterns e-1 to 5, the production patterns f-1 to 5, the production patterns g-1 to 5 and the production patterns h-1 to 5 are lost as shown in FIG. Are distributed at a predetermined distribution rate. Further, the displacement type of the title accessory 100 and the displacement sound type are set in advance in each effect pattern.

  In the “losing effect pattern selection table B” that is referred to when an internal loss occurs, the distribution ratio of each effect pattern in which the title accessory 100 is displaced to the intermediate position and each effect pattern that is displaced to the final position. The total of each of the cases is 56% in the case of displacement to the intermediate position, whereas 44% in the case of displacement to the final position. That is, in the effect pattern selection table B at the time of losing, contrary to the above-mentioned effect pattern selection table B at the time of hitting, when it is determined that the game is lost in the lottery and the super reach B is performed, the title accessory 100 is displayed. Probability of deciding to move only from the initial position to the intermediate position (5% of effect pattern e-1, 9% of effect pattern e-2, 5% of effect pattern e-3, 9% of effect pattern e-4, Probability (effect) is lower than 5% of effect pattern f-1, 9% of effect pattern f-2, 5% of effect pattern f-3, and 9% of effect pattern f-4. 7% of pattern e-5, 7% of production pattern f-5, 1% of production pattern g-1, 5% of production pattern g-2, 1% of production pattern g-3, production pattern g-4 5%, production pattern g- 3%, production pattern h-1 1%, production pattern h-2 5%, production pattern h-3 1%, production pattern h-4 5%, production pattern h-5 3% The total is set to 44%) and is displaced from the initial position to the final position via the intermediate position.

  When the title combination 100 is eventually displaced to the final position in the “effect pattern selection table B at the time of losing”, the distribution is performed when the displacement is caused by the output of the sound 2 (second displacement sound) at the start of the displacement. The total rate is 10% (5% of the production pattern g-2, 5% of the production pattern h-2), whereas the displacement is caused by the output of the sound 1 (first displacement sound). The total of the distribution rates is 2% (1% of the effect pattern g-1 and 1% of the effect pattern h-1), and the former is set higher than the latter in the table.

Furthermore, in the “effect pattern selection table B at the time of losing”, the ratio when the title accessory 100 is displaced to the final position among all cases where the sound 1 (first displacement sound) is output is calculated as the ratio G. To do. When sound 1 (first displacement sound) is output, 5% of the production pattern e-1, 5% of the production pattern f-1, 1% of the production pattern g-1, and 1% of the production pattern h-1. The total of 12%. Among them, when the title accessory 100 is displaced to the final position, the ratio is 2%, and the ratio G is 2/12.
Similarly, in the “effect pattern selection table B for losing”, among all cases where the sound 2 (second displacement sound) is output, the ratio when the title accessory 100 is displaced to the final position is defined as a ratio H. calculate. When sound 2 (second displacement sound) is output, 9% of effect pattern e-2, 9% of effect pattern f-2, 5% of effect pattern g-2, and 5% of effect pattern h-2 In total, it becomes 28%. Among them, when the title accessory 100 is displaced to the final position, it is 10% and the ratio H is 10/28.
Therefore, the ratio G (2/12 = 14/84) is set to be lower than the ratio H (10/28 = 30/84).
However, if the “hit effect pattern selection table B” described above is also considered, that is, including the ratio E and the ratio F, the total of the distribution ratios of the ratio E and the ratio G is (56 + 14) / 84 = 70. On the other hand, the sum of the ratio F and the ratio H is (48 + 30) / 84 = 78/84. Therefore, when Super Reach B is executed regardless of the determination result, the sound 2 (second displacement sound) is output more than the sound 1 (first displacement sound) is output. The title combination 100 is set to be displaced from the initial position to the final position through the intermediate position with a high probability.

(6) About the hit effect pattern selection table C and the lost effect pattern selection table C of the first embodiment FIG. 21A shows a case where a big hit is made internally and the super reach C is selected. Is the “hit-effect production pattern selection table C”. That is, when the super reach C is selected for the execution of the variable display in which the result of the lottery result is a big hit, the production patterns I-1 to 5 are the big hit and the super reach C is shown in the figure. The distribution is performed at a predetermined distribution rate when selected. However, when the “hit effect pattern selection table C” is referred to, the execution of the displacement of the title accessory 100 and the output of the displacement sound are not performed for any effect pattern. Is set.
FIG. 21B is a “lacking effect pattern selection table C” that is referred to when a loss occurs internally and when the super reach C is selected. That is, when the super reach C is selected regarding the execution of the variable display in which the result of the lottery result is lost, the production patterns i-1 to 5 are lost as shown in FIG. The distribution is performed at a predetermined distribution rate when selected. However, when the “losing effect pattern selection table C” is referred to, the displacement of the title accessory 100 is executed in any effect pattern as in the “hit effect pattern selection table C”. , And the output of the displacement sound are set not to be performed.

  In the first embodiment, when a high-expected pseudo-effect, i.e., super reach A or B, is selected according to the settings of the various effect pattern selection tables, an effect is produced when the game is internally a big hit. If the movable accessory is easy to displace to the final position and it is lost, it is set so that it is difficult to displace to the final position and only to the intermediate position. The degree of expectation that is a big hit can be estimated, and the displacement type can be estimated according to the displacement sound type that is output before the displacement type is determined. Thereby, the player can obtain the fun of predicting the type of displacement and the expected degree of jackpot by the displacement sound output prior to the displacement of the effect movable accessory.

[Second Embodiment]
Next, a second embodiment will be described. The second embodiment has a part of the same configuration as that of the first embodiment described above, and the drawings and description relating to the same configuration are omitted by using the first embodiment. Specifically, FIG. 23, FIG. 24, FIG. 25 to FIG. 30 of the second embodiment are shown in FIG. 2, FIG. 4, FIG. 17 to FIG. The point will be described. However, with respect to FIGS. 12 to 15, the description in accordance with the contents specific to the second embodiment will be appropriately made while referring to the drawings of the first embodiment as they are.

  FIG. 23 is a front view of the game board 1 of the pachinko machine 50 according to the second embodiment. The various devices and the like provided in the game board 1 are substantially the same as those in FIG. 2 of the first embodiment, and therefore are not given reference numerals and will not be described. Further, the title combination 100 described as being provided in the game board 1 in the first embodiment is not provided in the present embodiment. That is, although a similar configuration is shown in the figure, this will be described as a configuration that does not function as a production movable accessory. Based on this assumption, the configuration of the present embodiment will be described below.

  The game board 1 of the present embodiment is provided with a shield object 101 as an effect movable object whose form can be changed. The shield object 101 is disposed as shown in the figure at a position where the upper right portion of the screen 6a of the effect symbol display device 6 is shielded. Note that the form of the shield object 101 shown in FIG. 23 is still an initial form before the form change.

  Although not shown, a schematic configuration of the shield object 101 will be described here. The shield object 101 is formed of a substantially flat plate and is arranged in a posture inclined downward from the upper right portion of the screen 6a toward the lower left. Furthermore, the shield member 101 includes a movable piece (left) (right) formed in a pair of left and right substantially bowl-like shapes on the front surface portion thereof.

  Further, description will be made with reference to FIG. Each of the movable piece (left) and the movable piece (right) is pivoted at the upper part thereof by a rotating shaft (not shown), and each rotating shaft has a shield member left movable piece which is an individual driving source. The motor 101a for the shield and the right movable piece motor 101b for the shield member are configured so that the rotary shaft is connected to be rotatable. The shield object left movable piece motor 101a and the shield object right movable piece motor 101b employ a so-called stepping motor, and can rotate the rotation shaft by an arbitrary rotation angle. The left) or the movable piece (right) can be displaced in an arbitrary displacement manner. Further, the shield object left movable piece motor 101a and the shield accessory right movable piece motor 101b rotate in mutually opposite rotation directions, and in addition, the rotation angle is controlled to be the same angle. Therefore, when one side is rotated by 15 degrees from the initial form, the other is also rotated by 15 degrees, and when the initial form is set to 0 degree in total, the form opened 30 degrees (the intermediate shown in FIG. 30 (a)) (Refer to the form). Furthermore, when one side is rotated by 30 degrees from the initial form, the other is also rotated by 30 degrees, and when the initial form is set to 0 degree in total, the form opened by 60 degrees (shown in FIG. 30B) (See the final form).

  In addition, the shield object 101 changes its shape by driving the movable piece (left) and the movable piece (right), but detects whether or not it has returned to the initial form after the shape change. Sensor 101c and shield object left movable piece sensor 101d. By detecting that the shield member left movable piece sensor 101c is in the position shown in FIG. 23 and the shield piece left movable piece sensor 101d is in the position shown in FIG. This is an index for confirming that the initial form has been restored.

  When the shield object left movable piece motor 101a and the shield object right movable piece motor 101b are driven and controlled by the sub-integrated control device 83, the shield object 101 has the form shown in FIG. It is possible to change the form into two types with different degrees of opening. That is, the form change up to the most open final form as shown in FIG. 30 (b) and the form change up to the intermediate form as shown in FIG. 30 (a) existing between the final form and the initial form are shown. Is configured to do. In the form change up to the final form, the shield object 101 starts the form change from the initial form and changes the form through the intermediate form to the final form. In this case, it may be paused in the intermediate form or may pass without stopping. It is only necessary to provide an intermediate form on the process of changing the form from the initial form to the final form. In addition, after any form change, any form change returns to the initial form after a lapse of a predetermined time. The specific action of the shield object 101 will be described in detail later.

[Moving accessory test processing]
Next, with reference to FIG. 12, the movable accessory test process in 2nd Example is demonstrated. The movable accessory test process is a process of transmitting a movable accessory that is transmitted based on the determination that the movable accessory test flag is set to 1 in each output process (S60) by the main controller 80 described above. This is a process for the sub-integrated control device 83 to perform test drive of the effect movable accessory (the shield accessory 101 in this embodiment) when an instruction command related to test drive is received.

  In S580, the sub-integrated control device 83 executes a determination process of whether or not an instruction command related to the test drive of the effect movable accessory has been received from the main control device 80, and if it is a positive determination (S580: yes), The process proceeds to S585, and if a negative determination is made (S580: no), this process ends.

  In S585, the sub-integrated control device 83 executes a test drive process for the effect movable accessory, and ends this process. By executing S585 of the second embodiment, the shield object 101 performs test driving that changes the form to the final form via the intermediate form.

  Note that the movable accessory test process of the present embodiment is configured to execute the test drive only when an instruction command related to the test drive that is transmitted only when the power is turned on as described above.

  Further, when the test drive process is executed in S585, even if the predetermined drive process is performed on the effect movable accessory, the sub integrated control device 83 is different from the execution of the effect drive described later. Is configured not to perform the process of outputting the morphological change sound corresponding to the predetermined drive from the speaker 66.

[Direction pattern setting processing]
Next, an effect pattern setting process in the second embodiment will be described with reference to FIG. The effect pattern setting process of the present embodiment is performed when the change start command for starting the change display of the pseudo symbol corresponding to the special symbol is received from the main control device 80 described above, the type of the effect pattern related to the so-called pseudo effect. And make preparations prior to driving to confirm the form of the movable movable object (position of shield object left movable piece and shield actor right movable piece) that is driven when the pseudo production is performed, This is a process for starting effects, such as driving of effects movable driving (form change) and outputting voice (form change sound) corresponding to the drive.

  First, in S700, the sub integrated control device 83 determines whether or not a change start command has been received from the main control device 80. If the determination is affirmative (S700: yes), the process proceeds to S705, and the result is negative. If it is determined (S700: no), this process is terminated. The variation start command is a display control command that is output from the main control device 80 to the sub integrated control device 83 in S330 of the above-described success / failure determination processing (FIG. 9). The apparatus 6 starts the variable display of the pseudo symbol (effect symbol) corresponding to the special symbol, and in addition, displays a character or the like on the effect symbol display device 6 and executes the pseudo effect that visually confirms the determination result. .

  In S705, the sub integrated control device 83 executes a process of determining the type of effect pattern to be executed, and the process proceeds to S710. The sub integrated control device 83 includes a plurality of types of effect patterns, and selects and determines one of the effect patterns in S705. The sub integrated control device 83 of the present embodiment includes various selection tables shown in FIGS. 25 to 29 described later as an effect pattern selection table composed of a plurality of types of effect patterns. An effect pattern is determined with reference to any selection table according to the type of time, the result of the determination of success / failure, and the type of super reach to be executed). The contents of the effect pattern of the present embodiment selected at this time are displayed on the effect symbol display device 6 (for example, aspects relating to the shape, size, color, etc. of the displayed characters and characters). , Whether or not the form movable combination (the shield combination 101 in this embodiment) can be changed, the form change type, and the form change sound type are included. In step S705, the contents of the effect pattern are set as the contents of the effect to be executed later. This will be described in detail later with reference to FIGS.

  In S710, the sub-integrated control device 83 executes a confirmation process to determine whether or not the effect movable accessory (the shield accessory 101) is in a predetermined initial form (see FIG. 23), and the process proceeds to S715.

In S715, the sub-integrated control device 83 determines that the effect movable accessory (shielding object 101) is left in the predetermined initial form, ie, the shield object left, when it is confirmed that it is not in the predetermined initial form based on the confirmation result in S710. Processing is performed to return the position of the movable piece and the right movable piece of the shield object to the origin, and the process proceeds to S720. If it is a predetermined initial form, the process proceeds to S720 as it is.
In the process of returning to the origin, the shield object left movable piece motor 101a and the shield object right movable piece motor 101b are driven to return to the origin, and the shield object left movable piece sensor 101c and the shield If normal detection is not obtained with the accessory right movable piece sensor 101d, the shield accessory left movable piece motor 101a and the shield accessory right movable piece motor 101b are repeatedly set up to a predetermined number (for example, three times) as an upper limit. To drive. Regardless of the driving of the shield member left movable piece motor 101a and the shield role right movable piece motor 101b for a predetermined number of times, the shield role left movable piece sensor 101c and the shield role right movable piece sensor 101d are used. If normal detection cannot be obtained, a process is performed in which, for example, 1 is set in the “actor abnormality flag” because there is an abnormality in the shield object 101.

  In S720, the sub integrated control device 83 confirms whether or not 1 is set in the “object abnormality flag”, that is, whether or not there is an abnormality in the accessory, and if it is a positive determination (S720: yes), the process proceeds to S730. If the determination is negative (S720: no), the process proceeds to S725.

  In the present embodiment, the processes in S710 and S715 are started based on the fact that the change start command is received in S700, that is, regardless of the change pattern type, regardless of the change pattern type. It is executed every time a command is received.

  In the present embodiment, the processes of S710 and S715 are executed every time the variable display is started based on the fact that the variable start command is received in S700. However, the present invention is not limited to the start of change, and may be executed at the end of change display, for example. As a result, each time the variation display ends, whether or not the movable movable effect whose form has changed is in the initial form, and if there is not, the origin return process is executed.Therefore, prepare with a margin before starting the next variation display. Can do. Further, when an abnormal state occurs, it is possible to execute notification of the abnormal state and processing for the abnormal state with a margin before the next variable display is started.

  In S725, the sub-integrated control device 83, other than the form change type (form change form) of the effect movable combination (shield combination 101) among the contents of the effect pattern already set in S705 described above, that is, pseudo Only the content of the effect and the content of the form change sound are limited, and a setting process is performed to set again as the execution target of the effect, and the process proceeds to S730.

  In S730, the sub integrated control device 83 restricts the contents of the effect pattern determined in S705 if there is no accessory abnormality, and restricts the effects (sound and light emission) other than the accessory driving in S725 if there is an accessory abnormality. The process of starting the production is executed with the contents thus completed, and this process is terminated. In S730, the contents of the effect to be executed are made different as described above depending on whether or not there is an abnormality in the accessory, and specifically, when the state where the effect movable accessory (the shield accessory 101) does not return to the initial form has occurred. Even so, the production by the production means other than the accessory driving is executed.

When S730 is executed, the production starts based on the production contents of the production pattern set or reset in S705 and S725.
When based on the setting contents of S705, a pseudo effect is started. In this embodiment, after a predetermined time (for example, 500 ms) has elapsed from the start of the pseudo effect, a predetermined form change sound is output and the effect is movable at the same timing. It is configured to start the form change of the combination (shield combination 101).
When based on the setting contents of S725, a pseudo effect is started, and in this embodiment, only a predetermined form change sound is output after a predetermined time (for example, 500 ms) has elapsed from the start of the pseudo effect. Has been.
In addition, it is good also as a structure by which the light emission effects by the various light emission members provided in the pachinko machine 50 are also performed for such an effect.

  Thus, in the “effect pattern setting process” by the sub integrated control device 83 of the present embodiment, when the super reach A or the super reach B is executed with reference to various effect pattern selection tables described later in S705. The changeable form, the form change type, and the form change sound type of the effect movable combination (the shield combination 101 in this embodiment) are determined. That is, whether the shield object 101 is changed in form from the initial form to the final form through the intermediate form, or is changed only from the initial form to the intermediate form, and further, as a form change sound related to the form change at that time It is determined which of sound 1 to sound 5 is output.

  In S730 of “effect pattern setting process” by the sub integrated control device 83 of the present embodiment, the form change is generated as the effect sound related to the form change of the shield object 101 based on the form change sound type determined in S705. The sound is output from the speaker 66.

[Moving accessory drive start processing]
Next, the movable accessory driving start process in the second embodiment will be described with reference to FIG. The movable accessory driving start process of the present embodiment is a process executed based on the execution of S730 in the above-described effect pattern setting process (FIG. 13). However, in this case, the process is executed when an abnormality in the accessory based on the setting content in S705 is not recognized.

  First, in S600, the sub integrated control device 83 determines whether or not the variation effect to be executed this time is a predetermined reach, that is, the super reach A or the super reach B in this embodiment. If (S600: yes), the process proceeds to S605. If the determination is negative (S600: no), this process ends.

  In S605, the sub integrated control device 83 determines whether or not it is the drive (form change) start timing of the production movable accessory (shield accessory 101). If the determination is affirmative (S605: yes), S610 If the determination is negative (S605: no), the process ends. As described above, in this embodiment, the drive start timing is configured to arrive after a predetermined time (for example, 500 ms) has elapsed from the start of the pseudo effect. In addition, in order to time the arrival of the timing, a special counter is provided as a reference for determining that the timing has arrived based on the fact that the counter value has reached 0 based on the countdown starting from the start of the pseudo effect. Also good. The drive start timing in the present embodiment is the same regardless of whether the super reach A or the super reach B is executed. However, the drive start timing is not limited to this, and the drive start is performed according to the type of super reach. The timing may be different. In this case, it is preferable that a special counter for measuring the drive start timing is provided separately for the super reach A and the super reach B. Thereby, it is possible to reliably measure the individual drive start timing. In addition, it is desirable that the timing of the individual special counters be timed from the start of the pseudo effect. However, the invention is not limited to this, and the time measurement may be started at different timings.

  In S610, the sub integrated control device 83 starts the driving process of the effect movable accessory (shield accessory 101) according to the contents of the current effect pattern, and ends this process. Specifically, the shield object left movable piece motor 101a and the shield object right movable piece motor 101b are driven to change the form to the intermediate form or the final form according to the contents of the effect pattern, and after the form change, the form The system waits until the “predetermined driving time” is completed.

[Moving accessory drive end processing]
Next, with reference to FIG. 15, the movable accessory driving end process in the second embodiment will be described. The movable accessory drive end process of the present embodiment is a process for ending the drive process started by executing S610 of the movable accessory drive start process (FIG. 14) described above.

  First, in S650, the sub integrated control device 83 determines whether or not the end timing of the driving process has arrived, that is, whether or not the “predetermined driving time” has ended. When the determination is negative (S650: no), the process is terminated.

  In S655, the sub-integrated control device 83 ends the drive process of the production movable accessory (shield combination 101), and ends this processing. Specifically, a process for returning the production movable object (shield object 101) to the initial form by driving the shield object left movable piece motor 101a and the shield object right movable piece motor 101b is executed, The process ends.

[Effect of the movable movable effect of the second embodiment]
With reference to FIG. 30, the effect | action of the production movable combination (shield combination 101) of 2nd Example is demonstrated. That is, the effect movable accessory (shield accessory 101) of this embodiment is intermediate from the initial form (origin) shown in FIG. 23 by the control processing of the movable accessory drive start process and the movable accessory drive end process described above. The form changes up to the form or the final form. In other words, according to the form change type indicated in the content of the effect pattern that is selected and determined, the form changes to either the intermediate form or the final form, and when the end time of the predetermined driving time comes, the return to the initial form Change shape.

  In the case of changing the form up to the intermediate form, the directing movable object (shielding object 101) is 15 degrees each from the initial form, with the shield moving object left movable piece and the shield moving object right movable piece both centering on the upper rotation axis. Only the rotation and separation, and the form changes to the form shown in FIG.

  When performing the form change up to the final form, the directing movable object (shielding object 101) is also the same from the initial form, the shield object left movable piece and the shield accessory right movable piece are both centered on the upper rotation axis. Rotates by 30 degrees and separates, and the form changes to the form shown in FIG. 30B, that is, the final form.

  The intermediate form is set on the process of changing the form from the initial form to the final form. Therefore, in other words, the sub-integrated control device 83 refers to the contents of the effect pattern, and when there is information that changes the form to the final form as the form change type, the effect movable accessory (shielding object 101) The shape change is started from the initial form, and the form is changed to the final form through the intermediate form. It should be noted that the configuration in which the form is changed via the intermediate form may be either temporarily stopped or passed without stopping when the intermediate form is reached in the course of the form change. . Both of them may be selected as appropriate by, for example, lottery to generate a case of temporarily stopping or not stopping. By doing in this way, whether the current form change was a form change up to an intermediate form while it was temporarily stopped, or is it a form change that starts once again and then changes to the final form? Can improve the fun of the game.

  Further, when stopping once, a plurality of stop times for temporarily stopping may be provided, and it may be determined by lottery which one is selected. Further, whether or not to stop once, and whether or not the stop time when stopping once may be set according to the degree of expectation of the jackpot corresponding to the result of the lottery. Thereby, since the player predicts the degree of expectation for the big hit depending on whether or not to stop once and the length of the stop time when stopping once, the interest is improved.

  In this embodiment, the movable movable object (shield member 101) undergoes a change in form from the initial form to the intermediate form and the final form, and both the left part of the shield part and the right movable part of the shield part rotate upward. It was set as the structure which rotated only the predetermined angle centering on the axis | shaft, and was separated. The present invention includes a configuration in which the shape of the shield object 101 is changed according to various modes without being limited thereto. Any configuration change is acceptable as long as the configuration includes an intermediate configuration on the process up to the final configuration.

[Various production patterns of the second embodiment]
With reference to FIG. 25 to FIG. 29, various effect patterns in the second embodiment described above will be described. FIG. 25A is a chart showing sound types and output contents that are output in response to a change in the form of the effect movable accessory. FIG. 25B shows a case where a big hit and Super Reach A is executed. It is a hit effect pattern selection table A showing the type and effect content of the effect pattern to be selected and determined. FIG. 26 is an effect pattern selection table A for losing showing the type and effect content of the effect pattern that is selected and determined when Super Leach A is executed. FIG. 27 is a hit effect pattern selection table B showing the types and effect contents of effect patterns that are selected and determined when the big hit and Super Reach B is executed. FIG. 28 is an effect pattern selection table B at the time of losing showing the type and effect contents of the effect pattern that is selected and determined when Super Reach B is executed. FIG. 29A is a hit effect pattern selection table C showing the type and effect contents of the effect pattern that is selected and determined when the big hit and super reach C is executed, and FIG. This is a loss-time effect pattern selection table C showing the effect pattern type and effect content that are selected and determined when the super reach C is executed.

(1) About the sound type and output contents of the second embodiment As shown in FIG. 25 (a), in the second embodiment, whether or not the result of the determination is a big hit or a loss at the time of execution of the pseudo effect, Depending on the reach type scheduled to be executed, referring to various effect pattern tables to be described later, an effect pattern distributed at a predetermined distribution rate is selected and executed. In this effect pattern, as described above, the display form of the pseudo effect displayed on the effect symbol display device 6 in advance as the contents of the effect pattern (for example, the shape and size of the displayed characters and characters, and the like) Aspects relating to color and the like), whether or not the form movable accessory (in this embodiment, the shield part 101) can be changed in form, a form change type, and a form change sound type are included. The form change sound type of the present embodiment will be described.

  In the present embodiment, the sound types output prior to finally determining (determining) the type of form change of the shield object 101 are from sounds 1 to 5 as shown in FIG. The five types of sounds are set. Specifically, the sound contents to be output are “pylon” for sound 1, “dawn” for sound 2, “chichichi” for sound 3, “gogogo” for sound 4, and “shaken” for sound 5. When sound 1 is the first form change sound, sound 2 is the second form change sound, and when sound 3 is the first form change sound, sound 4 is the second form change sound, and sound 1 or sound When 3 is the first form change sound, the sound 5 is the second form change sound.

  When sounds 1 to 4 are output, as set in each production pattern table described later, the type of form change of the shield object 101 changes to the intermediate form and the final form. Although it is set in any case where the form changes, the setting is always changed to the final form when the sound 5 is output.

(2) About the hit effect pattern selection table A of the second embodiment As shown in FIG. 25 (b), the super reach A selects the execution of the variable display which is a big hit internally, that is, the result of the lottery determination. If it is, the production pattern A-1 to 5, the production pattern B-1 to 5, the production pattern C-1 to 5, and the production pattern D-1 to 5 are selected by the super reach A as shown in the figure. The distribution is performed at a predetermined distribution rate. Furthermore, in each effect pattern, the form change type of the shield object 101 and the form change sound type are set in advance.

  For example, the production pattern A-1 will be described. When the effect pattern A-1 is selected, a pseudo effect is started, and a sound 1 (“pylon”) is output after a predetermined time (for example, 500 ms) has elapsed. In conjunction with this output, the shield object 101 starts form change up to the intermediate form in S610 of the movable object drive start processing (FIG. 14). The production pattern A-1 is a big hit internally and is distributed by lottery at 3% when Super Reach A is selected.

  In the "hit-time effect pattern selection table A" that is referred to when a big hit is made internally, each effect pattern in which the shield object 101 changes its form to the intermediate form and each effect pattern whose form changes to the final form The total of the distribution ratios is set to 32% when the form changes to the intermediate form, whereas it is set to 68% when the form changes to the final form. In other words, in the winning performance pattern selection table A, when it is determined that the winning lottery is a big hit and Super Reach A is performed, the probability that the shield object 101 is determined to change only from the initial form to the intermediate form. (3% of production pattern A-1, 5% of production pattern A-2, 3% of production pattern A-3, 5% of production pattern A-4, 3% of production pattern B-1, and production pattern B- 2%, 3% of production pattern B-3, 5% of production pattern B-4, 32%) (4% of production pattern A-5, production pattern B-5) 4%, production pattern C-1 5%, production pattern C-2 7%, production pattern C-3 5%, production pattern C-4 7%, production pattern C-5 6%, production 5% of pattern D-1, production pattern D-2 7%, 5% of effect pattern D-3, 7% of effect pattern D-4, 6% of effect pattern D-5, 68%), from initial form to final form through intermediate form It is set to change the form until.

  In the “striking effect pattern selection table A”, when the shield object 101 changes in shape as a result until the final form, the form change caused by the output of the sound 2 (second form change sound) at the start of the form change In this case, the total distribution ratio is 14% (7% of the production pattern C-2 and 7% of the production pattern D-2), whereas it is caused by the output of the sound 1 (first form change sound). In the case of a form change, the total distribution rate is 10% (5% of the effect pattern C-1 and 5% of the effect pattern D-1). In the table, the former is set higher than the latter. Yes.

Furthermore, in the “attendance effect pattern selection table A”, among all cases where the sound 1 (first form change sound) is output, the ratio when the shield object 101 changes its form to the final form is expressed as the ratio A. Calculate as When sound 1 (first form change sound) is output, 3% of effect pattern A-1, 3% of effect pattern B-1, 5% of effect pattern C-1, and 5 of effect pattern D-1 The total of 16% is 16%. Among them, when the shape of the shield object 101 changes to the final form, the ratio is 10% and the ratio A is 10/16.
Similarly, in the “hit effect pattern selection table A”, out of all cases where sound 2 (second form change sound) is output, the ratio when the shield object 101 changes its form to the final form Calculate as B. When sound 2 (second form change sound) is output, 5% of effect pattern A-2, 5% of effect pattern B-2, 7% of effect pattern C-2, and 7 of effect pattern D-2 The total of% is 24%. Among them, when the shape of the shield object 101 changes to the final form, the ratio is 14% and the ratio B is 14/24.
Therefore, the ratio A (10/16 = 60/96) is set to have a higher allocation rate than the ratio B (14/24 = 56/96). That is, in the setting of “hit effect pattern selection table A”, when sound 1 (first form change sound) is output, the probability is higher than when sound 2 (second form change sound) is output. Thus, the shield object 101 is set so that its form changes from the initial form to the final form through the intermediate form.

  The relationship between the sound 2 and the sound 1 is the same as the relationship between the sound 4 and the sound 3, as is clear from the setting state of the distribution rate shown in the figure. Furthermore, the same applies to the setting relationship between sound 5 and sound 1 or sound 3. That is, when Sound 1 is the first form change sound, Sound 2 is the second form change sound. When Sound 3 is the first form change sound, Sound 4 is the second form change sound. Or the relationship that the sound 5 is set as the second form change sound when the sound 1 or the sound 3 is set as the first form change sound, and this embodiment has a plurality of types of the first form change sound and the second form. It has a changing sound. This also applies to other effect pattern selection tables described later.

(3) Loss effect pattern selection table A of the second embodiment As shown in FIG. 26, Super Reach A is selected with respect to execution of variable display in which the result of the lottery is lost, that is, the result of the lottery. In the case where the production pattern a-1 to 5, the production pattern b-1 to 5, the production pattern c-1 to 5, and the production pattern d-1 to 5 are lost and the super reach A is selected as shown in the figure. Are distributed at a predetermined distribution rate. Furthermore, in each effect pattern, the form change type of the shield object 101 and the form change sound type are set in advance.

  For example, the production pattern a-1 will be described. When the effect pattern a-1 is selected, a pseudo effect is started, and a sound 1 (“pylon”) is output after a predetermined time (for example, 500 ms) has elapsed. In conjunction with this output, the shield object 101 starts form change up to the intermediate form in S610 of the movable object drive start processing (FIG. 14). The production pattern a-1 is internally lost, and is assigned by lottery at 7% when Super Reach A is selected.

  In the “losing effect pattern selection table A” that is referred to when an internal loss occurs, each effect pattern in which the shield object 101 changes its form to the intermediate form and each effect pattern that changes its form to the final form. The total of the distribution ratios is set to 64% when the form changes to the intermediate form, while it is set to 36% when the form changes to the final form. In other words, in the lost effect pattern selection table A, contrary to the above-mentioned hit effect pattern selection table A, when it is determined that the game has been lost in the winning lottery and Super Reach A is performed, the shield object 101 is displayed. Probability of determining that only the form from the initial form to the intermediate form is to be changed (7% of effect pattern a-1, 9% of effect pattern a-2, 7% of effect pattern a-3, 9% of effect pattern a-4 , 7% of effect pattern b-1, 9% of effect pattern b-2, 7% of effect pattern b-3, 9% of effect pattern b-4, 64%) 8% of effect pattern a-5, 8% of effect pattern b-5, 1% of effect pattern c-1, 3% of effect pattern c-2, 1% of effect pattern c-3, effect pattern c-4 3%, production pattern c-5 2%, 1% of production pattern d-1, 3% of production pattern d-2, 1% of production pattern d-3, 3% of production pattern d-4, 2% of production pattern d-5 36%), the shape is changed from the initial form to the final form through the intermediate form.

  In the “losing effect pattern selection table A”, when the shield object 101 eventually changes its form to the final form, the form change caused by the output of the sound 2 (second form change sound) at the start of the form change In this case, the total of the distribution ratio is 6% (3% of the production pattern c-2, 3% of the production pattern d-2), but is caused by the output of the sound 1 (first form change sound). In the case of a form change, the total of the distribution ratio is 2% (1% of the effect pattern c-1 and 1% of the effect pattern d-1), and the former is set higher than the latter in the table. Yes.

Furthermore, in the “Lose effect pattern selection table A”, among all cases where the sound 1 (first form change sound) is output, the ratio when the shield object 101 changes its form to the final form is expressed as the ratio C. Calculate as When sound 1 (first form change sound) is output, 7% of effect pattern a-1, 7% of effect pattern b-1, 1% of effect pattern c-1, and 1 of effect pattern d-1 The total of 16% is 16%. Among them, when the shape of the shield object 101 changes to the final form, the ratio is 2% and the ratio C is 2/16.
Similarly, in the “losing effect pattern selection table A”, out of all cases where sound 2 (second form change sound) is output, the ratio when the shield object 101 changes its form to the final form Calculate as D. When sound 2 (second form change sound) is output, 9% of effect pattern a-2, 9% of effect pattern b-2, 3% of effect pattern c-2, and 3 of effect pattern d-2 The total of% is 24%. Among them, when the shape of the shield object 101 changes to the final form, the ratio is 6/24 and the ratio D is 6/24.
Therefore, the ratio C (2/16 = 12/96) is set to be lower than the ratio D (6/24 = 24/96).
However, if the “hit effect pattern selection table A” described above is also considered, that is, including the ratio A and the ratio B, the total of the distribution ratios of the ratio A and the ratio C is (60 + 12) / 96 = 72. On the other hand, the sum of the distribution ratios of the ratio B and the ratio D is (56 + 24) / 96 = 80/96. Therefore, when Super Reach A is executed regardless of the determination result, if Sound 2 (second form change sound) is output, Sound 1 (first form change sound) is output. The shield object 101 is set to change in form from the initial form to the final form through the intermediate form with a higher probability than the case.

(4) About the hit effect pattern selection table B of the second embodiment As shown in FIG. 27, the super reach B is selected with respect to the execution of the variable display in which the result of the lottery is internal, that is, the lottery result. In the case where the production patterns E-1 to 5, the production patterns F-1 to 5, the production patterns G-1 to 5, and the production patterns H-1 to 5 are selected with a big hit as shown in the figure, the super reach B is selected. Are distributed at a predetermined distribution rate. Furthermore, in each effect pattern, the form change type of the shield object 101 and the form change sound type are set in advance.

  In the “hit-time effect pattern selection table B” that is referred to when a big hit is made internally, each effect pattern in which the shield object 101 changes its form to an intermediate form and each effect pattern whose form changes to a final form The total of the distribution ratios is set to 32% when the form changes to the intermediate form, whereas it is set to 68% when the form changes to the final form. That is, in the winning effect pattern selection table B, when it is determined that the winning combination is determined to be a big hit and Super Reach B is performed, the probability that the shield object 101 is determined to change only from the initial form to the intermediate form. (2% of production pattern E-1, 6% of production pattern E-2, 2% of production pattern E-3, 6% of production pattern E-4, 2% of production pattern F-1, and production pattern F- 2%, 2% of effect pattern F-3, 6% of effect pattern F-4, 32%) (4% of effect pattern E-5, effect pattern F-5) 4%, production pattern G-1 4%, production pattern G-2 8%, production pattern G-3 4%, production pattern G-4 8%, production pattern G-5 6%, production 4% of pattern H-1, production pattern H-2 8%, 4% of production pattern H-3, 8% of production pattern H-4, 6% of production pattern H-5, 68%), from the initial form to the final form through the intermediate form It is set to change the form until.

  In the “striking effect pattern selection table B”, when the shield object 101 eventually changes in form until the final form, the form change caused by the output of the sound 2 (second form change sound) at the start of the form change In this case, the total distribution ratio is 16% (8% of the production pattern G-2 and 8% of the production pattern H-2), whereas it is caused by the output of the sound 1 (first form change sound). In the case of a form change, the total distribution rate is 8% (4% of the effect pattern G-1 and 4% of the effect pattern H-1), and the former is set higher than the latter in the table. Yes.

Furthermore, in the “hit effect pattern selection table B”, out of all cases where sound 1 (first form change sound) is output, the ratio when the shield object 101 changes its form to the final form is expressed as the ratio E. Calculate as When sound 1 (first form change sound) is output, 2% of the production pattern E-1, 2% of the production pattern F-1, 4% of the production pattern G-1, and 4 of the production pattern H-1. The total of% is 12%. Among them, when the shape of the shield object 101 changes to the final form, it is 8% and the ratio E is 8/12.
Similarly, in the “hit effect pattern selection table B”, out of all cases where sound 2 (second form change sound) is output, the ratio when the shield object 101 changes its form to the final form Calculate as F. When sound 2 (second form change sound) is output, 6% of effect pattern E-2, 6% of effect pattern F-2, 8% of effect pattern G-2, and 8 of effect pattern H-2 The total of 28% is 28%. Among them, when the shape of the shield object 101 changes to the final form, the ratio is 16% and the ratio F is 16/28.
Therefore, the ratio E (8/12 = 56/84) is set to have a higher allocation rate than the ratio F (16/28 = 48/84). That is, in the setting of “hit effect pattern selection table B”, when sound 1 (first form change sound) is output, the probability is higher than when sound 2 (second form change sound) is output. Thus, the shield object 101 is set so that its form changes from the initial form to the final form through the intermediate form.

(5) Loss-time effect pattern selection table B of the second embodiment As shown in FIG. 28, Super Reach B is selected for the execution of the variable display in which the result of the lottery is lost internally, that is, the result of the lottery determination. In the case where the production patterns e-1 to 5, the production patterns f-1 to 5, the production patterns g-1 to 5 and the production patterns h-1 to 5 are lost as shown in FIG. Are distributed at a predetermined distribution rate. Furthermore, in each effect pattern, the form change type of the shield object 101 and the form change sound type are set in advance.

  In the “effect pattern selection table B for losing”, which is referred to when an internal loss occurs, each effect pattern in which the shield object 101 changes in form to the intermediate form and each effect pattern in which the form changes to the final form. The total of the distribution ratios is set to 56% when the form changes to the intermediate form, whereas it is set to 44% when the form changes to the final form. That is, in the effect pattern selection table B at the time of losing, contrary to the above-described effect pattern selection table B at the time of hitting, when it is determined that the game has been lost by the lottery and the super reach B is performed, the shield object 101 is displayed. Probability to determine that only the form from the initial form to the intermediate form is changed (5% of the production pattern e-1, 9% of the production pattern e-2, 5% of the production pattern e-3, 9% of the production pattern e-4 (5% of effect pattern f-1, 9% of effect pattern f-2, 5% of effect pattern f-3, 9% of effect pattern f-4, 56%) 7% of production pattern e-5, 7% of production pattern f-5, 1% of production pattern g-1, 5% of production pattern g-2, 1% of production pattern g-3, production pattern g-4 5% of production pattern g-5 3%, 1% of production pattern h-1, 5% of production pattern h-2, 1% of production pattern h-3, 5% of production pattern h-4, 3% of production pattern h-5 44%), the shape is changed from the initial form to the final form through the intermediate form.

  In the “losing effect pattern selection table B”, when the shield object 101 undergoes a form change until the final form, the form change caused by the output of the sound 2 (second form change sound) at the start of the form change In this case, the total distribution ratio is 10% (5% of the production pattern g-2 and 5% of the production pattern h-2), whereas it is caused by the output of the sound 1 (first form change sound). In the case of a form change, the total of the distribution ratio is 2% (1% of the effect pattern g-1 and 1% of the effect pattern h-1). In the table, the former is set higher than the latter. Yes.

Furthermore, in the “Lose effect pattern selection table B”, among all cases where sound 1 (first form change sound) is output, the ratio when the shield object 101 changes its form to the final form is expressed as a ratio G. Calculate as When sound 1 (first form change sound) is output, 5% of the production pattern e-1, 5% of the production pattern f-1, 1% of the production pattern g-1, and 1 of the production pattern h-1. The total of% is 12%. Among them, when the shape of the shield object 101 changes to the final form, the ratio is 2%, and the ratio G is 2/12.
Similarly, in the “losing effect pattern selection table B”, out of all cases where sound 2 (second form change sound) is output, the ratio when the shield object 101 changes its form to the final form Calculate as H. When sound 2 (second form change sound) is output, 9% of effect pattern e-2, 9% of effect pattern f-2, 5% of effect pattern g-2, and 5 of effect pattern h-2 The total of 28% is 28%. Among them, when the shape of the shield object 101 changes to the final form, the ratio is 10% and the ratio H is 10/28.
Therefore, the ratio G (2/12 = 14/84) is set to be lower than the ratio H (10/28 = 30/84).
However, if the “hit effect pattern selection table B” described above is also considered, that is, including the ratio E and the ratio F, the total of the distribution ratios of the ratio E and the ratio G is (56 + 14) / 84 = 70. On the other hand, the sum of the ratio F and the ratio H is (48 + 30) / 84 = 78/84. Therefore, when Super Reach B is executed regardless of the result of the determination, whether or not sound 2 (second form change sound) is output, sound 1 (first form change sound) is output. The shield object 101 is set to change in form from the initial form to the final form through the intermediate form with a higher probability than the case.

(6) Regarding the hit effect pattern selection table C and the loss effect pattern selection table C of the second embodiment FIG. 29A shows a case where a big hit is made internally and Super Reach C is selected. Is the “hit-effect production pattern selection table C”. That is, when the super reach C is selected for the execution of the variable display in which the result of the lottery result is a big hit, the production patterns I-1 to 5 are the big hit and the super reach C is shown in the figure. The distribution is performed at a predetermined distribution rate when selected. However, when the “hit effect pattern selection table C” is referred to, the execution of the shape change of the shield object 101 and the output of the shape change sound are not performed for any effect pattern. Is set to
Further, FIG. 29B is a “lost effect effect pattern selection table C” that is referred to when the internal loss occurs and the super reach C is selected. That is, when the super reach C is selected regarding the execution of the variable display in which the result of the lottery result is lost, the production patterns i-1 to 5 are lost as shown in FIG. The distribution is performed at a predetermined distribution rate when selected. However, when the “lost effect pattern selection table C” is referred to, as with the “hit effect pattern selection table C”, the form change of the shield object 101 changes in any effect pattern. The execution and the output of the morphological change sound are set not to be performed.

  In the second embodiment, the shield object left movable piece motor 101a and the shield object left movable piece motor 101a are respectively provided for the shield object left movable piece and the shield article right movable piece which cause the shape change of the shield object 101, and A right movable piece motor 101b is provided. However, each movable piece may be configured not to include a drive source unique to each movable piece, but to drive both movable pieces from a single drive source by a driving force transmission means such as a link. As a result, when any abnormality occurs, the pair of left and right are not driven, so that there is no problem that either one of the movable pieces is not driven and only the other is driven.

  In the second embodiment, when a high-expected pseudo effect, ie, super reach A or B, is selected according to the settings of the various effect pattern selection tables, the effect is produced when the game is internally a big hit. If the form of the movable accessory is easy to change to the final form, and if it is lost, only the intermediate form is changed and the form is difficult to change until the final form. The degree of expectation that is a big hit can be estimated according to the type, and the form change type can be estimated according to the form change sound type output before the form change type is determined. Thereby, the player can obtain the fun of predicting the form change type and the jackpot expectation by the form change sound output prior to the form change of the effect movable accessory.

[Third embodiment]
Next, a third embodiment will be described. The third embodiment has a configuration that is partially the same as that of the first embodiment described above, and drawings and descriptions relating to the same configuration are omitted by using the first embodiment. Specifically, FIG. 31, FIG. 32, and FIG. 33 to FIG. 39 of the third embodiment are shown in FIG. 2, FIG. 4, and FIG. The point will be described. However, with respect to FIGS. 12 to 15, the description according to the contents specific to the third embodiment will be appropriately made while referring to the drawings of the first embodiment as they are.

  FIG. 31 is a front view of the game board 1 of the pachinko machine 50 according to the third embodiment. Note that various devices and the like provided in the game board 1 are substantially the same as those in FIG. Further, the title combination 100 described as being provided in the game board 1 in the first embodiment is not provided in the present embodiment. That is, although a similar configuration is shown in the figure, this will be described as a configuration that does not function as a production movable accessory. Based on this assumption, the configuration of the present embodiment will be described below.

  The game board 1 according to the present embodiment is provided with a first sword combination 41 and a second sword combination 42 as displaceable effect movable combinations. Since the first sword object 41 and the second sword object 42 are located at the normal position, that is, at the initial position where they are not driven, since they are built in the left side portion of the center case 5, in FIG. A schematic arrangement position is indicated by a broken lead line. Note that, as shown in FIG. 39 described later, the first sword accessory 41 and the second sword accessory 42 of the present embodiment are configured in the shape of a sword, and correspond to each “pattern” ( A rotation shaft (not shown) provided on the left side of the center case 5 is rotatably provided. The specific operation will be described in detail later, and the configurations of the first sword object 41 and the second sword object 42 will be described in detail below with reference to FIGS. 31, 32, 38, and 39. I will explain.

  As described above, the first sword combination 41 and the second sword combination 42 of the present embodiment are both configured in the shape of a sword that is substantially the same size, and correspond to each “pattern”. The rotating shaft (not shown) provided in a portion (referred to as a handle) is pivotally provided. FIG. 39 shows the state of the first sword combination 41 and the second sword combination 42 after displacement. The first sword object 41 is in a posture in which the cutting edge is directed diagonally upward to the right, and the second sword accessory 42 is in a posture in which the cutting edge is directed diagonally to the lower right. The left side of the center case 5 incorporates a handle having a rotation axis of the first sword object 41 at its lower part, and a handle having a rotation axis of the second sword object 42 at its upper part. Built in. The first sword object 41 after the displacement is located slightly in front of the second sword object 42 (on the player side), and both are in a crossed posture as shown. Such an aspect in which the first sword combination 41 and the second sword combination 42 intersect each other is a displacement result when the number of displacement combinations in the third embodiment is two, and the number of displacements is one. In some cases, as shown in FIG. 38, only the first sword object 41 is displaced, and the second sword object 42 is not displaced. The operation of this embodiment will be described in detail later. FIG. 39 shows a state in which both the first sword object 41 and the second sword object 42 have been displaced, but the state before the displacement is the center case 5 as shown in FIG. Is housed inside the left side of the. Specifically, the first sword object 41 is stored in a state of standing from the lower left part of the center case 5 with the cutting edge facing directly upward (standing state), and the second sword object 42 has a cutting edge. The center case 5 is stored in a state of hanging from the upper left side of the center case 5 (a hanging state) toward the lower side. When these stored states are used as initial positions before displacement, when individual displacements are made, they are displaced to their respective final positions shown in FIG.

  Further, description will be made with reference to FIG. A rotary shaft (not shown) provided on the handle portion of the first sword accessory 41 is provided with a first sword accessory motor 41a as a drive source for rotationally displacing the first sword accessory 41. It is configured to be connected so as to be able to rotate. Similarly, on a rotation shaft (not shown) provided on the handle portion of the second sword object 42, a second sword object motor 42a as a drive source for rotationally displacing the second sword object 42 is provided. The rotating shaft is connected to be rotatable. The first sword accessory motor 41a and the second sword accessory motor 42a employ a so-called stepping motor and can rotate the rotation shaft by an arbitrary rotation angle. The second sword object 42 can be displaced in an arbitrary displacement manner.

  Further, the first sword accessory 41 and the second sword accessory 42 are displaced by driving the first sword accessory motor 41a and the second sword accessory motor 42a, and are displaced from the initial position to the final position. To do. A first sword object sensor 41b and a second sword object sensor 42b are provided as detection means for detecting whether or not the position has returned to the initial position again after the displacement. The first sword object 41b is built in the first sword object 41, and the second sword object sensor 42b is built in the left side of the center case 5 in FIG. Alternatively, it is used as an index for confirming that the position has returned to the initial position by detecting that the position is in the hanging state.

  The first sword accessory motor 41 a and the second sword accessory motor 42 a are individually driven and controlled by the sub integrated control device 83. As a result, when the “displacement combination number type” described later is one, the sub integrated control device 83 drives only the first sword combination motor 41a to displace only the first sword combination 41. . On the other hand, when the “displacement accessory number type” is two, the sub integrated control device 83 drives both the first sword accessory motor 41a and the second sword accessory motor 42a, so that the first sword accessory 41 and the second sword object 42 are displaced. In the third embodiment, when the “displacement combination number type” is two, the sub integrated control device 83 first drives the first sword combination motor 41a to place only the first sword combination 41 in the final position. After the change is completed, the second sword accessory motor 42a is driven to displace the second sword accessory 42 to the final position. Therefore, when the “displacement character number type” is two, the state in which the “displacement character number type” is one, that is, the state displaced to the final position of the first sword character 41, Control for displacing the second sword object 42 to the final position is performed. At this time, the first sword object 41 waits at the final position until the second sword object 42 is displaced to the final position, and a predetermined time has elapsed after the second sword object 42 is displaced to the final position. Later, the first sword combination 41 and the second sword combination 42 each return to the initial position. Specific actions of the first sword object 41 and the second sword object 42 will be described in detail later.

[Moving accessory test processing]
Next, the movable accessory test process in the third embodiment will be described with reference to FIG. The movable accessory test process is a process of transmitting a movable accessory that is transmitted based on the determination that the movable accessory test flag is set to 1 in each output process (S60) by the main controller 80 described above. When the instruction command related to the test drive is received, the sub-integrated control device 83 executes test drive of the production movable accessory (in the present embodiment, the first sword accessory 41 and the second sword accessory 42). It is processing.

  In S580, the sub-integrated control device 83 executes a determination process of whether or not an instruction command related to the test drive of the effect movable accessory has been received from the main control device 80, and if it is a positive determination (S580: yes), The process proceeds to S585, and if a negative determination is made (S580: no), this process ends.

  In S585, the sub-integrated control device 83 executes a test drive process for the effect movable accessory, and ends this process. By executing S585 of the third embodiment, the first sword object 41 is displaced from the initial position to the final position, and subsequently, the second sword object 42 is displaced from the initial position to the final position. Drive.

  Note that the movable accessory test process of the present embodiment is configured to execute the test drive only when an instruction command related to the test drive that is transmitted only when the power is turned on as described above.

  Further, when the test drive process is executed in S585, even if the predetermined drive process is performed on the effect movable accessory, the sub integrated control device 83 is different from the execution of the effect drive described later. Is configured not to perform a process of outputting a displacement sound corresponding to the predetermined drive from the speaker 66.

[Direction pattern setting processing]
Next, with reference to FIG. 13, an effect pattern setting process in the third embodiment will be described. The effect pattern setting process of the present embodiment is performed when the change start command for starting the change display of the pseudo symbol corresponding to the special symbol is received from the main control device 80 described above, the type of the effect pattern related to the so-called pseudo effect. Is set, and preparations prior to driving for confirming the positions of the movable movable objects (positions of the first sword combination 41 and the second sword combination 42) to be driven when the pseudo-direction is performed are performed, This is a process of starting production, such as production, driving (moving) of the movable movable accessory, and outputting sound (displacement sound) corresponding to the driving.

  First, in S700, the sub integrated control device 83 determines whether or not a change start command has been received from the main control device 80. If the determination is affirmative (S700: yes), the process proceeds to S705, and the result is negative. If it is determined (S700: no), this process is terminated. The variation start command is a display control command that is output from the main control device 80 to the sub integrated control device 83 in S330 of the above-described success / failure determination processing (FIG. 9). The apparatus 6 starts the variable display of the pseudo symbol (effect symbol) corresponding to the special symbol, and in addition, displays a character or the like on the effect symbol display device 6 and executes the pseudo effect that visually confirms the determination result. .

  In S705, the sub integrated control device 83 executes a process of determining the type of effect pattern to be executed, and the process proceeds to S710. The sub integrated control device 83 includes a plurality of types of effect patterns, and selects and determines one of the effect patterns in S705. The sub integrated control device 83 according to the present embodiment includes various selection tables shown in FIGS. 33 to 37, which will be described later, as an effect pattern selection table composed of a plurality of types of effect patterns. An effect pattern is determined with reference to any selection table according to the type of time, the result of the determination of success / failure, and the type of super reach to be executed). The contents of the effect pattern of the present embodiment selected at this time are displayed on the effect symbol display device 6 (for example, aspects relating to the shape, size, color, etc. of the displayed characters and characters). In addition, whether or not the production movable combination (first sword combination 41 and second sword combination 42 in this embodiment) is displaceable, the number of displacement combinations, and the type of displacement sound are included. In step S705, the contents of the effect pattern are set as the contents of the effect to be executed later. This will be described in detail later with reference to FIGS.

  In S710, the sub-integrated control device 83 determines that the production movable accessory (the first sword accessory 41 and the second sword accessory 42) is in the predetermined initial position (not shown in FIG. The process of confirming whether or not it is in the position) is executed, and the process proceeds to S715.

In S715, the sub-integrated control device 83 determines that the movable movable object (the first sword object 41 and the second sword object 42) is predetermined when it is confirmed that the position is not the predetermined initial position based on the confirmation result in S710. The process returns to the initial position, that is, the origin, and the process proceeds to S720. If it is the predetermined initial position, the process proceeds to S720 as it is.
In the process of returning to the origin, the first sword accessory motor 41a and / or the second sword accessory motor 42a is driven to return to the origin, and the first sword accessory sensor 41b and / or the second sword. If normal detection cannot be obtained by the accessory sensor 42b, the first sword accessory motor 41a and / or the second sword accessory motor 42a are repeatedly driven up to a predetermined number (for example, three times) as an upper limit. Despite the driving of the first sword object motor 41a and / or the second sword object motor 42a for a predetermined number of times, normal detection is performed by the first sword object sensor 41b and / or the second sword object sensor 42b. If it is not obtained, the first sword accessory 41 and / or the second sword accessory 42 is regarded as having an abnormality, for example, a process of setting 1 to the “object abnormality flag” is performed.

  In S720, the sub integrated control device 83 confirms whether or not 1 is set in the “object abnormality flag”, that is, whether or not there is an abnormality in the accessory, and if it is a positive determination (S720: yes), the process proceeds to S730. If the determination is negative (S720: no), the process proceeds to S725.

  In the present embodiment, the processes in S710 and S715 are started based on the fact that the change start command is received in S700, that is, regardless of the change pattern type, regardless of the change pattern type. It is executed every time a command is received.

  In the present embodiment, the processes of S710 and S715 are executed every time the variable display is started based on the fact that the variable start command is received in S700. However, the present invention is not limited to the start of change, and may be executed at the end of change display, for example. As a result, each time the variation display is finished, whether or not the displaced effect movable accessory is at the initial position, or if there is not, the origin return process is executed.Therefore, preparation is made with a margin before the start of the next variation display. it can. Further, when an abnormal state occurs, it is possible to execute notification of the abnormal state and processing for the abnormal state with a margin before the next variable display is started.

  In S725, the sub-integrated control device 83 determines the number of displacement actors of the production movable combination (first sword combination 41 and second sword combination 42) among the contents of the production pattern already set in S705. Other than the type, that is, only the content of the pseudo effect or the content of the displacement sound is limited, a setting process is performed to set again as the execution target of the effect, and the process proceeds to S730.

  In S730, the sub integrated control device 83 restricts the contents of the effect pattern determined in S705 if there is no accessory abnormality, and restricts the effects (sound and light emission) other than the accessory driving in S725 if there is an accessory abnormality. The process of starting the production is executed with the contents thus completed, and this process is terminated. In S730, the contents of the effect to be executed are made different as described above depending on the presence or absence of the abnormality of the character, and specifically, the effect movable character (the first sword character 41 and / or the second sword character 42). Even when the state where the position does not return to the initial position occurs, the effect by the effect means other than the accessory driving is executed.

When S730 is executed, the production starts based on the production contents of the production pattern set or reset in S705 and S725.
When based on the setting content of S705, a pseudo effect is started, and in this embodiment, a predetermined displacement sound is output after a predetermined time (for example, 500 ms) from the start of the pseudo effect, and at the same timing, It is comprised so that the displacement of a thing (1st sword object 41) may be started.
When based on the setting contents of S725, a pseudo effect is started, and in this embodiment, a predetermined displacement sound is only output after a lapse of a predetermined time (for example, 500 ms) from the start of the pseudo effect. ing.
In addition, it is good also as a structure by which the light emission effects by the various light emission members provided in the pachinko machine 50 are also performed for such an effect.

  Thus, in the “effect pattern setting process” by the sub integrated control device 83 of the present embodiment, when the super reach A or the super reach B is executed with reference to various effect pattern selection tables described later in S705. Determining whether or not the movable movable object (first sword object 41 and second sword object 42 or only the first sword object 41 in this embodiment) can be displaced, the number of displacement objects, and the type of displacement sound To do. That is, the first sword object 41 is displaced from the initial position to the final position, and then the second sword object 42 is displaced from the initial position to the final position, or the first sword object 41 is displaced from the initial position to the final position. It is determined whether the second sword object 42 is not displaced and whether the sound 1 to the sound 5 is output as the displacement sound related to the displacement at that time.

  In S730 of the “effect pattern setting process” by the sub integrated control device 83 of the present embodiment, the first sword object 41 and the second sword object 42 or the first sword object 42 based on the displacement sound type determined in S705. As an effect sound related to the displacement of only the sword object 41, the displacement sound is output from the speaker 66.

[Moving accessory drive start processing]
Next, the movable accessory driving start process in the third embodiment will be described with reference to FIG. The movable accessory driving start process of the present embodiment is a process executed based on the execution of S730 in the above-described effect pattern setting process (FIG. 13). However, in this case, the process is executed when an abnormality in the accessory based on the setting content in S705 is not recognized.

  First, in S600, the sub integrated control device 83 determines whether or not the variation effect to be executed this time is a predetermined reach, that is, the super reach A or the super reach B in this embodiment. If (S600: yes), the process proceeds to S605. If the determination is negative (S600: no), this process ends.

  In S605, the sub integrated control device 83 determines whether or not it is the drive (displacement) start timing of the production movable accessory (first sword accessory 41). If the determination is affirmative (S605: yes), The process proceeds to S610, and if a negative determination is made (S605: no), this process ends. As described above, in this embodiment, the drive start timing is configured to arrive after a predetermined time (for example, 500 ms) has elapsed from the start of the pseudo effect. In addition, in order to time the arrival of the timing, a special counter is provided as a reference for determining that the timing has arrived based on the fact that the counter value has reached 0 based on the countdown starting from the start of the pseudo effect. Also good. The drive start timing in the present embodiment is the same regardless of whether the super reach A or the super reach B is executed. However, the drive start timing is not limited to this, and the drive start is performed according to the type of super reach. The timing may be different. In this case, it is preferable that a special counter for measuring the drive start timing is provided separately for the super reach A and the super reach B. Thereby, it is possible to reliably measure the individual drive start timing. In addition, it is desirable that the timing of the individual special counters be timed from the start of the pseudo effect. However, the invention is not limited to this, and the time measurement may be started at different timings.

  In S610, the sub-integrated control device 83 performs the drive process of the effect movable accessory (first sword accessory 41 and second sword accessory 42 or only the first sword accessory 41) according to the contents of the current effect pattern. Start and end this process. Specifically, when this process is started, only the second sword accessory motor 42a or the first sword accessory motor 41a is driven following the first sword accessory motor 41a, and according to the contents of the production pattern, After the first sword object 41, only the second sword object 42 or the first sword object 41 is displaced to the final position, and after the displacement, the state is kept waiting until the “predetermined driving time” is completed.

[Moving accessory drive end processing]
Next, with reference to FIG. 15, the movable accessory driving end process in the third embodiment will be described. The movable accessory drive end process of the present embodiment is a process for ending the drive process started by executing S610 of the movable accessory drive start process (FIG. 14) described above.

  First, in S650, the sub integrated control device 83 determines whether or not the end timing of the driving process has arrived, that is, whether or not the “predetermined driving time” has ended. When the determination is negative (S650: no), the process is terminated.

  In S655, the sub integrated control device 83 ends the drive process of the production movable accessory (the first sword accessory 41 and the second sword accessory 42 or only the first sword accessory 41), and ends this process. . Specifically, only the first sword accessory motor 41a and the second sword accessory motor 42a, or the first sword accessory motor 41a are driven to produce the directing movable accessory (the first sword accessory 41 and the second sword The process of returning the combination 42 or only the first sword combination 41) to the initial position is executed, and this process ends.

[Action of the third embodiment of the movable movable object]
With reference to FIG. 38 and FIG. 39, the effect | action of the production movable combination (1st sword combination 41 and 2nd sword combination 42) of 3rd Example is demonstrated. That is, the movable movable object (first sword combination 41 and second sword combination 42) of this embodiment is shown in FIG. 31 by the control process of the movable combination drive start process and the movable combination drive end process described above. From the initial position (origin) indicated by a broken line, the first sword object 41 is displaced to the final position, and then the second sword object 42 is displaced to the final position, or only the first sword object 41 is Displace to the final position. In other words, it is finally performed that either two combinations are finally displaced or only one combination is displaced. In other words, only the first sword combination 41 or both the first sword combination 41 and the second sword combination 42 are final in accordance with the number of displacement actors indicated in the contents of the selected and determined performance pattern. When it is displaced to the position and the end time of the predetermined driving time comes, the return displacement to the initial position is performed.

  When the number of displacement actors is one, only the first sword actor 41 is rotated clockwise from the state shown in FIG. 31 to the final position shown in FIG. Stop. When the number of types of the displacement combination is 1, the displacement pattern is scheduled up to the state, and the second sword combination 42 is not displaced.

  In the case where the number of displacement actors is two, after the displacement of the first sword actor 41 is completed, the second sword actor 42 continues from the state shown in FIG. 31 counterclockwise around the rotation axis. To the final position shown in FIG. 39 and stop. When the number of types of the displacement combination is two, the displacement pattern up to the state is a planned displacement pattern.

  Thus, in the process of displacement by the first sword combination 41 and the second sword combination 42 when the number of the displacement combination number is two, the first sword when the number of the displacement combination number is one. It is configured to develop through the displacement of only the accessory 41. Therefore, in other words, the sub integrated control device 83 refers to the content of the effect pattern, and when the content includes the information that “the two actors are displaced” as the displacement actor number type, first, The first sword object 41 is displaced from the initial position to the final position, and then the second sword object 42 is displaced from the initial position to the final position. In this case, when the first sword object 41 is displaced from the initial position to the final position, even if the displacement start of the second sword object 42 is once delayed or immediately started without delay, It does not matter. Both of them may be selected as appropriate by, for example, lottery to generate a case where the delay is once or not delayed. By doing so, it is possible to improve whether the current displacement is delayed or whether the displacement of the second sword object 42 is not performed or whether it is performed, thereby improving the interest of the game. it can.

  Further, when delaying, a plurality of types of delay times may be provided, and which one to select may be determined by lottery. Further, whether such a delay is once or not, and whether the delay time is once delayed or not, may be set according to the degree of expectation of the big hit corresponding to the result of the lottery. Thereby, since the player predicts the degree of expectation for the big hit based on whether or not to delay once and the length of the delay time in the case of the delay, the interest is improved.

  In addition, although the example of the same structure showed the example of the same structure, the 1st sword combination 41 and the 2nd sword combination 42 which are the production movable objects of a present Example are not restricted to this, The several which becomes a mode of a completely different displacement It may be an accessory. That is, one may be a linear displacement, while the other may be a rotational displacement or a rocking displacement. With respect to the displacement of a plurality of objects, both the configuration in which one displacement is performed after the completion of one displacement and the configuration in which only the one displacement is completed are provided, and the processing ends when one displacement is completed. If it is a configuration that can give the player the expectation of whether or not it will progress, the configuration and action of the production movable accessory can be selected as appropriate.

[Various production patterns of the third embodiment]
With reference to FIGS. 33 to 37, the various effect patterns in the third embodiment will be described. FIG. 33 (a) is a chart showing the sound types and output contents that are output in response to the displacement of the production movable accessory, and FIG. 33 (b) shows a case where a big hit and Super Reach A is executed. It is the hit effect pattern selection table A showing the type and effect content of the effect pattern to be selected and determined. FIG. 34 is an effect pattern selection table A for losing showing the type and effect content of the effect pattern that is selected and determined when Super Leach A is executed. FIG. 35 is a hit effect pattern selection table B showing the types and effect contents of effect patterns that are selected and determined when the big hit and Super Reach B is executed. FIG. 36 is an effect pattern selection table B at the time of losing showing the type and effect content of the effect pattern that is selected and determined when Super Reach B is executed. FIG. 37 (a) is a hit effect pattern selection table C showing the types and effects of effect patterns that are selected and determined when a big hit and Super Reach C is executed, and FIG. This is a loss-time effect pattern selection table C showing the effect pattern type and effect content that are selected and determined when the super reach C is executed.

(1) About the sound type and output contents of the third embodiment As shown in FIG. 33 (a), in the third embodiment, whether or not the result of the determination is a big hit or a loss, Depending on the reach type scheduled to be executed, referring to various effect pattern tables to be described later, an effect pattern distributed at a predetermined distribution rate is selected and executed. In this effect pattern, as described above, the display form of the pseudo effect displayed on the effect symbol display device 6 in advance as the contents of the effect pattern (for example, the shape and size of the displayed characters and characters, and the like) Aspects related to color and the like), the movable movable object (in the present embodiment, the first sword object 41 and the second sword object 42), whether or not the displacement is possible, the number of displacement objects, and the displacement sound type are included. The displacement sound type of this embodiment will be described.

  In the present embodiment, the type of sound output prior to finally determining (determining) the types of displacement actors of the first sword actor 41 and the second sword actor 42 is shown in FIG. As shown in FIG. 5, the sound is set with five kinds of sounds from sound 1 to sound 5. Specifically, the sound contents to be output are “pylon” for sound 1, “dawn” for sound 2, “chichichi” for sound 3, “gogogo” for sound 4, and “shaken” for sound 5. When sound 1 is the first displacement sound, sound 2 is the second displacement sound, and when sound 3 is the first displacement sound, sound 4 is the second displacement sound, and sound 1 or sound 3 is the first displacement sound. In the case of the displacement sound, the sound 5 becomes the second displacement sound.

  When sounds 1 to 4 are output, as set in each effect pattern table to be described later, the type of the number of displacement actors of the first sword accessory 41 and the second sword accessory 42 is 1 Both the case where only one piece is displaced and the case where two pieces are displaced are set. However, when sound 5 is output, the setting is always made so that two pieces are displaced.

(2) About the hit effect pattern selection table A of the third embodiment As shown in FIG. 33 (b), the super reach A selects the execution of the variable display which is a big hit internally, that is, the result of the lottery determination. If it is, the production pattern A-1 to 5, the production pattern B-1 to 5, the production pattern C-1 to 5, and the production pattern D-1 to 5 are selected by the super reach A as shown in the figure. The distribution is performed at a predetermined distribution rate. Furthermore, the displacement patterns of the first sword combination 41 and the second sword combination 42 and the displacement sound type are set in advance in each effect pattern.

  For example, the production pattern A-1 will be described. When the effect pattern A-1 is selected, a pseudo effect is started, and a sound 1 (“pylon”) is output after a predetermined time (for example, 500 ms) has elapsed. In addition to the output, since the number of types of the displacement combination is 1, the displacement of only the first sword combination 41 is started in S610 of the movable combination drive start process (FIG. 14). At this time, even if the displacement of the first sword object 41 is completed, the displacement of the second sword object 42 is not started. The production pattern A-1 is a big hit internally and is distributed by lottery at 3% when Super Reach A is selected.

  In the “hit stage effect pattern selection table A” that is referred to when a big hit is made internally, “only when the number of displacement actors is one”, that is, only the first sword actor 41 is displaced to the final position. Each effect pattern, and “when the number of displacement actors is two”, that is, each effect pattern in which the first sword actor 41 is first displaced to the final position and then the second sword actor 42 is displaced to the final position. The total of each of the distribution ratios is 32% in the case of “one displacement character number type”, whereas “in the case of two displacement character number types” is set to 68%. ing. That is, in the winning effect pattern selection table A, when it is determined that the winning lottery is a big hit and Super Reach A is performed, the first sword combination is not displaced to the final position without displacing the second sword component 42. Probability of determining that only the object 41 is displaced to the final position (3% of the production pattern A-1, 5% of the production pattern A-2, 3% of the production pattern A-3, 5% of the production pattern A-4, Probability higher than 3% of production pattern B-1, 5% of production pattern B-2, 3% of production pattern B-3, and 5% of production pattern B-4 (production 32%) 4% of pattern A-5, 4% of effect pattern B-5, 5% of effect pattern C-1, 7% of effect pattern C-2, 5% of effect pattern C-3, effect pattern C-4 7%, 6% of production pattern C-5, production pattern D- 68%), 5% of the production pattern D-2, 5% of the production pattern D-3, 7% of the production pattern D-4, and 6% of the production pattern D-5. The second sword object 42 is set to be displaced to the final position after the first sword object 41 is displaced to the final position.

  In the “hit effect pattern selection table A”, “when the number of displacement actors is two”, the displacement caused by the output of the sound 2 (second displacement sound) at the start of the displacement of the first sword actor 41 In this case, the total distribution ratio is 14% (7% of the production pattern C-2 and 7% of the production pattern D-2), whereas the displacement caused by the output of the sound 1 (first displacement sound) The total of the distribution ratio is 10% (5% of the effect pattern C-1 and 5% of the effect pattern D-1), and the former is set higher than the latter in the table.

Further, in the “attendance effect pattern selection table A”, the ratio of “when the number of displacement actors is two” among all the cases where sound 1 (first displacement sound) is output is the ratio A. calculate. When sound 1 (first displacement sound) is output, 3% of effect pattern A-1, 3% of effect pattern B-1, 5% of effect pattern C-1, and 5% of effect pattern D-1 The total of 16%. Among them, “in the case where the number of displacement actors is two” is 10%, and the ratio A is 10/16.
Similarly, in the “hit effect pattern selection table A”, among all cases where sound 2 (second displacement sound) is output, the ratio of “when the number of displacement actors is two” is set as the ratio B Calculate as When sound 2 (second displacement sound) is output, 5% of effect pattern A-2, 5% of effect pattern B-2, 7% of effect pattern C-2, and 7% of effect pattern D-2 The total of 24%. Among them, “in the case where the number of displacement actors is two” is 14%, and the ratio B is 14/24.
Therefore, the ratio A (10/16 = 60/96) is set to have a higher allocation rate than the ratio B (14/24 = 56/96). That is, in the setting of the “hit effect pattern selection table A”, when sound 1 (first displacement sound) is output, with a higher probability than when sound 2 (second displacement sound) is output, After the first sword object 41 is displaced to the final position, the second sword object 42 is set to be displaced to the final position (starting displacement toward the final position).

  The relationship between the sound 2 and the sound 1 is the same as the relationship between the sound 4 and the sound 3, as is clear from the setting state of the distribution rate shown in the figure. Furthermore, the same applies to the setting relationship between sound 5 and sound 1 or sound 3. That is, when the sound 1 is the first displacement sound, the sound 2 is the second displacement sound. When the sound 3 is the first displacement sound, the sound 4 is the second displacement sound. Or it is the same as the relationship which makes the sound 5 the 2nd displacement sound when the sound 3 is made into the 1st displacement sound, and a present Example is provided with multiple types of 1st displacement sound and 2nd displacement sound. This also applies to other effect pattern selection tables described later.

(3) Loss effect pattern selection table A of the third embodiment As shown in FIG. 34, Super Reach A is selected with respect to execution of variable display in which the result of the lottery is lost, that is, the result of the lottery. In the case where the production pattern a-1 to 5, the production pattern b-1 to 5, the production pattern c-1 to 5, and the production pattern d-1 to 5 are lost and the super reach A is selected as shown in the figure. Are distributed at a predetermined distribution rate. Furthermore, the displacement patterns of the first sword combination 41 and the second sword combination 42 and the displacement sound type are set in advance in each effect pattern.

  For example, the production pattern a-1 will be described. When the effect pattern a-1 is selected, a pseudo effect is started, and a sound 1 (“pylon”) is output after a predetermined time (for example, 500 ms) has elapsed. In addition to the output, since the number of types of the displacement combination is 1, the displacement of only the first sword combination 41 is started in S610 of the movable combination drive start process (FIG. 14). At this time, even if the displacement of the first sword object 41 is completed, the displacement of the second sword object 42 is not started. The production pattern a-1 is internally lost, and is assigned by lottery at 7% when Super Reach A is selected.

  In the “Lose effect pattern selection table A”, which is referred to when an internal loss occurs, “only when the number of displacement actors is one”, that is, only the first sword actor 41 is displaced to the final position. Each effect pattern, and “when the number of displacement actors is two”, that is, each effect pattern in which the first sword actor 41 is first displaced to the final position and then the second sword actor 42 is displaced to the final position. The total of each of the distribution ratios is 64% for “when the number of displacement feature number is 1”, whereas it is set to 36% for “when the number of displacement feature number is 2”. ing. That is, in the case of the lost effect pattern selection table A, in contrast to the hit effect pattern selection table A described above, when it is determined that the game has been lost in the winning lottery and Super Reach A is performed, The probability of determining that only the first sword object 41 is displaced to the final position without displacing 42 to the final position (7% of the production pattern a-1, 9% of the production pattern a-2, and the production pattern a- 3%, production pattern a-4 9%, production pattern b-1 7%, production pattern b-2 9%, production pattern b-3 7%, production pattern b-4 9%, (8% of effect pattern a-5, 8% of effect pattern b-5, 1% of effect pattern c-1, 3% of effect pattern c-2, effect) 1% of pattern c-3, production pattern c- 3%, production pattern c-5 2%, production pattern d-1 1%, production pattern d-2 3%, production pattern d-3 1%, production pattern d-4 3%, production The second sword object 42 is set to be displaced to the final position after the first sword object 41 is displaced to the final position.

  In the “effect pattern selection table A for losing”, “when the number of displacement actors is two”, the displacement caused by the output of the sound 2 (second displacement sound) at the start of displacement of the first sword actor 41 In this case, the total distribution ratio is 6% (3% of the production pattern c-2 and 3% of the production pattern d-2), whereas the displacement caused by the output of the sound 1 (first displacement sound) In this table, the distribution ratio is 2% (1% of the effect pattern c-1 and 1% of the effect pattern d-1), and the former is set higher than the latter in the table.

Furthermore, in the “Lose effect pattern selection table A”, among all cases where the sound 1 (first displacement sound) is output, the ratio of “when the number of displacement actors is two” is the ratio C. calculate. When sound 1 (first displacement sound) is output, 7% of effect pattern a-1, 7% of effect pattern b-1, 1% of effect pattern c-1, and 1% of effect pattern d-1 The total of 16%. Among them, “in the case where the number of displacement actors is two” is 2%, and the ratio C is 2/16.
Similarly, in the “effect pattern selection table A at the time of loss”, the ratio of “in the case where the number of displacement feature number types is 2” among all cases where the sound 2 (second displacement sound) is output is the ratio D. Calculate as When sound 2 (second displacement sound) is output, 9% of effect pattern a-2, 9% of effect pattern b-2, 3% of effect pattern c-2, and 3% of effect pattern d-2 The total of 24%. Among them, “in the case where the number of displacement actors is two” is 6%, and the ratio D is 6/24.
Therefore, the ratio C (2/16 = 12/96) is set to be lower than the ratio D (6/24 = 24/96).
However, if the “hit effect pattern selection table A” described above is also considered, that is, including the ratio A and the ratio B, the total of the distribution ratios of the ratio A and the ratio C is (60 + 12) / 96 = 72. On the other hand, the sum of the distribution ratios of the ratio B and the ratio D is (56 + 24) / 96 = 80/96. Therefore, when Super Reach A is executed regardless of the determination result, the sound 2 (second displacement sound) is output more than the sound 1 (first displacement sound) is output. With a high probability, the second sword object 42 is set to be displaced to the final position after the first sword object 41 is displaced to the final position.

(4) About the hit effect pattern selection table B of the third embodiment As shown in FIG. 35, the super reach B is selected for the execution of the variable display in which the result of the lottery is internal, that is, the lottery result is a big hit. In the case where the production patterns E-1 to 5, the production patterns F-1 to 5, the production patterns G-1 to 5, and the production patterns H-1 to 5 are selected with a big hit as shown in the figure, the super reach B is selected. Are distributed at a predetermined distribution rate. Furthermore, the displacement patterns of the first sword combination 41 and the second sword combination 42 and the displacement sound type are set in advance in each effect pattern.

  In the “hit effect pattern selection table B”, which is referred to when a big hit is made internally, only “the first sword actor 41 is displaced to the final position”. Each effect pattern, and “when the number of displacement actors is two”, that is, each effect pattern in which the first sword actor 41 is first displaced to the final position and then the second sword actor 42 is displaced to the final position. The total of each of the distribution ratios is 32% in the case of “one displacement character number type”, whereas “in the case of two displacement character number types” is set to 68%. ing. That is, in the winning effect pattern selection table B, when it is determined that the winning combination is a big hit and Super Reach B is performed, the first sword combination is not displaced to the final position without displacing the second sword component 42. Probability to determine that only the object 41 is displaced to the final position (2% of the effect pattern E-1, 6% of the effect pattern E-2, 2% of the effect pattern E-3, 6% of the effect pattern E-4, (2% of production pattern F-1, 6% of production pattern F-2, 2% of production pattern F-3, 6% of production pattern F-4, 32%) 4% of pattern E-5, 4% of production pattern F-5, 4% of production pattern G-1, 8% of production pattern G-2, 4% of production pattern G-3, production pattern G-4 8%, 6% of production pattern G-5, production pattern H- 4%, production pattern H-2 8%, production pattern H-3 4%, production pattern H-4 8%, production pattern H-5 6%, 68%), The second sword object 42 is set to be displaced to the final position after the first sword object 41 is displaced to the final position.

  In “hit effect pattern selection table B”, “when the number of displacement actors is two”, the displacement caused by the output of sound 2 (second displacement sound) at the start of displacement of the first sword actor 41 In this case, the total distribution ratio is 16% (8% of the production pattern G-2 and 8% of the production pattern H-2), whereas the displacement caused by the output of the sound 1 (first displacement sound) In the table, the total of the distribution ratio is 8% (4% of the effect pattern G-1 and 4% of the effect pattern H-1), and the former is set higher than the latter in the table.

Further, in the “hit effect pattern selection table B”, the ratio of “when the number of displacement actors is two” among all the cases where the sound 1 (first displacement sound) is output is the ratio E. calculate. When sound 1 (first displacement sound) is output, 2% of effect pattern E-1, 2% of effect pattern F-1, 4% of effect pattern G-1, and 4% of effect pattern H-1 The total of 12%. Among them, “when the number of displacement actors is 2” is 8%, and the ratio E is 8/12.
Similarly, in the “hit effect pattern selection table B”, among all cases where sound 2 (second displacement sound) is output, the ratio of “when the number of displacement actors is two” is the ratio F. Calculate as When sound 2 (second displacement sound) is output, 6% of effect pattern E-2, 6% of effect pattern F-2, 8% of effect pattern G-2, and 8% of effect pattern H-2 In total, it becomes 28%. Among them, “in the case where the number of displacement actors is 2” is 16%, and the ratio F is 16/28.
Therefore, the ratio E (8/12 = 56/84) is set to have a higher allocation rate than the ratio F (16/28 = 48/84). That is, in the setting of the “hit effect pattern selection table B”, when sound 1 (first displacement sound) is output, the probability is higher than when sound 2 (second displacement sound) is output, It is set so that the second sword object 42 is displaced to the final position after the first sword object 41 is displaced to the final position.

(5) Loss effect pattern selection table B of the third embodiment As shown in FIG. 36, Super Reach B is selected with respect to the execution of the variable display in which the result of the lottery is lost internally, that is, the result of the lottery determination. In the case where the production patterns e-1 to 5, the production patterns f-1 to 5, the production patterns g-1 to 5 and the production patterns h-1 to 5 are lost as shown in FIG. Are distributed at a predetermined distribution rate. Furthermore, the displacement patterns of the first sword combination 41 and the second sword combination 42 and the displacement sound type are set in advance in each effect pattern.

  In the “Lose effect pattern selection table B” that is referred to when an internal loss occurs, “only when the number of types of displacement character is one”, that is, only the first sword character 41 is displaced to the final position. Each effect pattern, and “when the number of displacement actors is two”, that is, each effect pattern in which the first sword actor 41 is first displaced to the final position and then the second sword actor 42 is displaced to the final position. The total of each of the distribution ratios is 56% for “when the number of displacement feature types is 1”, whereas 44% is set for “when the number of displacement feature numbers is 2”. ing. In other words, in the lost effect pattern selection table B, in contrast to the hit effect pattern selection table B described above, when it is determined that the game is lost in the lottery and the super reach B is performed, the second sword object The probability of determining that only the first sword object 41 is displaced to the final position without displacing 42 to the final position (5% of the production pattern e-1, 9% of the production pattern e-2, and the production pattern e- 3, 5% of production pattern e-4, 5% of production pattern f-1, 9% of production pattern f-2, 5% of production pattern f-3, 9% of production pattern f-4, (7% of effect pattern e-5, 7% of effect pattern f-5, 1% of effect pattern g-1, 5% of effect pattern g-2, effect) 1% of pattern g-3, production pattern g- 5%, production pattern g-5, 3%, production pattern h-1 1%, production pattern h-2 5%, production pattern h-3 1%, production pattern h-4 5%, production 44%, which is a total of 3% of the pattern h-5), and the second sword object 42 is set to be displaced to the final position after the first sword object 41 is displaced to the final position.

  In the “effect pattern selection table B for losing”, “when the number of displacement actors is two”, the displacement caused by the output of the sound 2 (second displacement sound) at the start of the displacement of the first sword actor 41 In this case, the total distribution ratio is 10% (5% of the production pattern g-2, 5% of the production pattern h-2), whereas the displacement caused by the output of the sound 1 (first displacement sound) In this table, the distribution ratio is 2% (1% of the effect pattern g-1 and 1% of the effect pattern h-1), and the former is set higher than the latter in the table.

Further, in the “effect pattern selection table B at the time of losing”, the ratio of “in the case where the number of displacement actors is two” among all cases where the sound 1 (first displacement sound) is output is the ratio G. calculate. When sound 1 (first displacement sound) is output, 5% of the production pattern e-1, 5% of the production pattern f-1, 1% of the production pattern g-1, and 1% of the production pattern h-1. The total of 12%. Among them, “in the case where the number of displacement actors is two” is 2%, and the ratio G is 2/12.
Similarly, in the “effect pattern selection table B for losing”, among all cases where the sound 2 (second displacement sound) is output, the ratio of “when the number of types of displacement actors is two” is the ratio H Calculate as When sound 2 (second displacement sound) is output, 9% of effect pattern e-2, 9% of effect pattern f-2, 5% of effect pattern g-2, and 5% of effect pattern h-2 In total, it becomes 28%. Among them, “in the case where the number of displacement actors is two” is 10%, and the ratio H is 10/28.
Therefore, the ratio G (2/12 = 14/84) is set to be lower than the ratio H (10/28 = 30/84).
However, if the “hit effect pattern selection table B” described above is also considered, that is, including the ratio E and the ratio F, the total of the distribution ratios of the ratio E and the ratio G is (56 + 14) / 84 = 70. On the other hand, the sum of the ratio F and the ratio H is (48 + 30) / 84 = 78/84. Therefore, when Super Reach B is executed regardless of the determination result, the sound 2 (second displacement sound) is output more than the sound 1 (first displacement sound) is output. With a high probability, the second sword object 42 is set to be displaced to the final position after the first sword object 41 is displaced to the final position.

(6) About the hit effect pattern selection table C and the loss effect pattern selection table C of the third embodiment FIG. 37A shows a case where a big hit is made internally and Super Reach C is selected. Is the “hit-effect production pattern selection table C”. That is, when the super reach C is selected for the execution of the variable display in which the result of the lottery result is a big hit, the production patterns I-1 to 5 are the big hit and the super reach C is shown in the figure. The distribution is performed at a predetermined distribution rate when selected. However, when the “hit effect pattern selection table C” is referred to, the execution of the displacement of the first sword object 41 and the second sword object 42 and the displacement sound, regardless of the effect pattern. Are set so that they are not output.
FIG. 37 (b) shows a “lost effect effect pattern selection table C” which is referred to when the internal loss occurs and the super reach C is selected. That is, when the super reach C is selected regarding the execution of the variable display in which the result of the lottery result is lost, the production patterns i-1 to 5 are lost as shown in FIG. The distribution is performed at a predetermined distribution rate when selected. However, when the “losing effect pattern selection table C” is referred to, as in the “hit effect pattern selection table C”, regardless of the effect pattern, the first sword object 41 and the first The execution of the displacement of the two sword object 42 and the output of the displacement sound are set not to be performed.

  In the third embodiment, when a high-expected pseudo-effect, ie, super reach A or B, is selected according to the settings of the various effect pattern selection tables, if the game is internally a big hit, If the first effect movable accessory is displaced to the final position, the second effect movable accessory is likely to be displaced, and if it is lost, the first effect movable accessory is only displaced to the final position, and then the second effect. Since it is difficult to displace the movable accessory to the final position, it is possible to predict the expectation that will be a big hit according to the number of displacement features, and output before the number of displacement features is determined According to the type of displacement sound to be made, it is possible to guess the number of displacement actors. As a result, the player can obtain the fun of predicting the type of the number of displaceable characters and the expected degree of jackpot by the displacement sound output prior to the displacement of the effect movable character.

  As described above, a plurality of examples have been shown and described as embodiments according to the present invention. However, the present invention is not limited to this, and other configurations may be adopted as long as they are within the scope of the technical idea of the present invention. .

  The intermediate position in the first embodiment is not limited to the case where it means a position that is exactly in the middle (middle) between the initial position and the final position with respect to the displacement distance of the effect movable accessory. That is, for example, the movable range of the effect movable accessory may be any position as long as it is a position larger than the initial position (close to the final position) and smaller than the final position (close to the initial position). It is also possible. When such a concept is adopted, in other words, the intermediate position is an initial position on a predetermined route (the trajectory starting from the initial position and ending at the final position) on which the movable movable object is predetermined. And a predetermined position different from the final position.

  Further, in the first embodiment, the displacement to the final position via the intermediate position may be a configuration in which the effect movable accessory is temporarily stopped at the intermediate position, or a configuration in which it is not temporarily stopped. If it is configured to stop once, the player will have a sense of expectation that the current displacement will not end at the intermediate position as it is, but will move to the final position during the paused period. It can be turned on and the interest is improved. In addition, if the configuration does not stop once, it is possible to advance the performance at a good tempo without giving the students time.

  In the second embodiment, the intermediate form means a form in which the displacement amount is just intermediate (middle) between the initial form and the final form in the displacement amount that is changed by driving the effect movable accessory. It is not limited to. That is, for example, the displacement amount of the effect movable accessory may be any form as long as it is larger than the initial form and smaller than the final form. When such a concept is adopted, in other words, the intermediate form is a process in which a predetermined production movable accessory changes by driving (a constant development process starting from the initial form and ending with the final form). The above is a predetermined form different from the initial form and the final form.

  Further, in the second embodiment, changing the form through the intermediate form to the final form may be a structure in which the effect movable accessory is temporarily stopped in the intermediate form, or may be a structure in which it is not temporarily stopped. . If it is configured to temporarily stop, the player feels that the shape change of this time will not end in the intermediate form as it is, but will change to the final form during the paused period. Can be held, and interest is improved. In addition, if the configuration does not stop once, it is possible to advance the performance at a good tempo without giving the students time.

  In the third embodiment, the second effect movable accessory is displaced after the first effect movable accessory is displaced, and the second effect movable accessory is displaced after the first effect movable accessory is displaced. Even if it is the structure which delays the start of this, the structure which is not delayed may be sufficient. In the case of a delayed configuration, in the delayed period, the current displacement does not end with only the displacement of the first effect movable accessory, and does not displace to the subsequent second effect movable accessory. Can make the player have a sense of expectation, and the interest will be improved. In addition, if the configuration does not delay, it is possible to advance the performance with a good tempo without leaving any gaps.

  Of course, the displacement sound in the first and third embodiments may be different from the first displacement sound and the second displacement sound. Further, there may be a case where the displacement sound is not output even if the effect movable accessory is displaced. Thereby, it can be provided with a plurality of developments when the displacement sound is generated and when it is not generated, and the variation is enriched and the interest is improved.

  Of course, the morphological change sound in the second embodiment may be provided with different morphological change sounds other than the first morphological change sound and the second morphological change sound. In addition, there may be a case where the morphological change sound is not output even when the movable movable accessory is morphologically changed. Thereby, a plurality of developments can be provided when morphological change sound is generated and when morphological change sound is not generated, and variations are enriched and interest is improved.

  In the first embodiment and the third embodiment, a plurality of types of combinations may be provided as combinations of the first displacement sound and the second displacement sound. In such a case, it is preferable to define a plurality of types of first displacement sounds in different combinations as first displacement sounds, and similarly, a plurality of types of second displacement sounds in different combinations as second displacement sounds.

  In 2nd Example, you may provide multiple types of combination as a combination of a 1st form change sound and a 2nd form change sound. In such a case, a plurality of types of first form change sounds in different combinations are defined as first form change sounds, and similarly, a plurality of types of second form change sounds in different combinations are defined as second form change sounds. It is preferable.

  In the first embodiment, the displacement sound output by the displacement sound output means is an effect output when the effect movable accessory is displaced from the initial position to the intermediate position during execution of the predetermined pseudo effect. If it is sound. Therefore, even if the production movable accessory is output from before the displacement, the production movable accessory is continuously output in a state where it is stopped at the intermediate position, or from the intermediate position to the final position. Even if it is displaced or continuously output, all are within the range of “displacement sound” without any problem. In addition, it is preferable that the output of the displacement sound is started before the displacement is performed to the intermediate position at the latest.

  Similarly, in the first embodiment, the second displacement sound may be constituted by a sound including the first displacement sound. That is, the second displacement sound is a synthesized voice of the first displacement sound and other sounds, a sound output by overlapping the first displacement sound and other sounds, or a chord with the first displacement sound, It may be configured as. Therefore, the second displacement sound configured as described above is output at the beginning as the same sound as the first displacement sound, and the other sound different from the first displacement sound is overlapped with the first displacement sound in the middle. Is output. In addition, as a specific output method of the second displacement sound, other sound that is not included in the first displacement sound is generated before the effect movable accessory starts displacement from the initial position and reaches the intermediate position. A configuration that is output in addition is preferable.

  In the second embodiment, the morphological change sound output by the morphological change sound output means is output when the moving movable accessory changes its form from the initial form to the intermediate form during execution of the predetermined pseudo-effect. If it is the production sound that is. Therefore, even if the production movable actor is output before the form change, even if the production movable actor is continuously output in the state of being stopped in the intermediate form, or from the intermediate form to the final form Even if the morphological change has been made, even if it is continuously output, all are in the range of “morphological change sound” without any problem. It is preferable that the output of the morphological change sound is started before the displacement is performed to the intermediate position at the latest.

  Similarly, in the second embodiment, the second form change sound may be constituted by a sound including the first form change sound. That is, the second form change sound is a synthesized voice of the first form change sound and another sound, a sound output by overlapping the first form change sound and another sound, or the first form change sound. As a chord. Therefore, the second morphological change sound configured in this way outputs the same sound as the first morphological change sound at the beginning of output, and the other sound different from the first morphological change sound in the middle of the first morphological change sound. Duplicate sound is output. In addition, as a specific output method of such a second form change sound, there is no other in the first form change sound before the stage movable actor starts the form change from the initial form and reaches the intermediate form. A configuration in which the above sound is added and output is preferable.

  In the third embodiment, the displacement sound output by the displacement sound output means is output when the first effect movable accessory is displaced from the initial position to the intermediate position during execution of the predetermined pseudo effect. If it is the production sound which is. Therefore, even if the first effect movable accessory is output before the displacement, the first effect movable accessory is stopped at the final position and the second effect movable accessory has not yet started the displacement. Even if the second effect movable accessory is continuously output from the initial position to the final position, it is all in the range of “displacement sound” without any problem. . It is preferable that the output of the displacement sound is started before the first effect movable accessory finishes the displacement at the latest.

  Similarly, in the third embodiment, the second displacement sound may be constituted by a sound including the first displacement sound. That is, the second displacement sound is a synthesized voice of the first displacement sound and other sounds, a sound output by overlapping the first displacement sound and other sounds, or a chord with the first displacement sound, It may be configured as. Therefore, the second displacement sound configured as described above is output at the beginning as the same sound as the first displacement sound, and the other sound different from the first displacement sound is overlapped with the first displacement sound in the middle. Is output. In addition, as a specific output method of such a second displacement sound, before the first effect movable accessory starts displacement from the initial position and reaches the final position, there is another method that is not included in the first displacement sound. A configuration in which audio is added and output is preferable.

  In the first embodiment, the displacement range determining means (effect pattern setting process) is configured not to determine that the displacement is determined from the initial position to the final position through the intermediate position only when it is determined that the winning determination means has won. Also good. Thereby, the expectation in the case of displacing to the final position becomes high. Similarly, when the second displacement sound is determined, it may be configured to always be displaced from the initial position to the final position via the intermediate position. This increases the degree of expectation when the second displacement sound is output. However, even when the first displacement sound is determined, a configuration in which a case of displacement to the final position is provided is preferable.

  Similarly, in the first embodiment, even if the displacement sound is determined according to the determination after the displacement range is determined, the displacement range is determined according to the determination after the displacement sound is determined. The displacement range and the displacement sound may be determined together. In any configuration, there is no difference in the operational effects of the present invention.

  In the second embodiment, the form change determining means (effect pattern setting process) is configured not to determine that the form change is made from the initial form to the final form only when it is determined to be winning by the success / failure determining means. May be. Thereby, the expectation in the case of a form change until the final form becomes high. Similarly, when the second form change sound is determined, the form may be changed from the initial form to the final form through the intermediate form. This increases the degree of expectation when the second form change sound is output. However, even when the first form change sound is determined, a configuration that provides a case where the form changes to the final form is preferable.

  Similarly, in the second embodiment, even if the morphological change sound is determined according to the determination after the morphological change is determined, the morphological change occurs according to the determination after the morphological change sound is determined. The configuration may be determined, or the configuration change and the configuration change sound may be determined together. In any configuration, there is no difference in the operational effects of the present invention.

  In the third embodiment, the displacement effect item number determining means (effect pattern setting process) only moves the second effect movable character after displacing the first effect movable character only when it is determined that the winning determination means has won. You may make it the structure which is not determined if a thing is displaced. Thereby, the expectation degree when two of the first effect movable accessory and the second effect movable accessory are displaced increases. Similarly, when the second displacement sound is determined, the first effect movable accessory and the second effect movable accessory may always be displaced. This increases the degree of expectation when the second displacement sound is output. However, even when the first displacement sound is determined, a configuration in which two cases of the first effect movable accessory and the second effect movable accessory are displaced is preferable.

  Similarly, in the third embodiment, even if the displacement sound is determined according to the determination after the number of the displacement characters is determined, the displacement character is determined according to the determination after the displacement sound is determined. The configuration may be such that the number is determined, or the configuration in which the number of displacement actors and the displacement sound are determined together. In any configuration, there is no difference in the operational effects of the present invention.

  In the first embodiment and the third embodiment, the initial position determination means is configured to determine whether or not the initial position is present in the detection state of the sensor, regardless of whether the effect movable accessory is displaced, A configuration in which determination is made at the start of all fluctuations is preferable. Moreover, it is good also as a structure which is not limited at the time of a fluctuation | variation start, and determines at the time of a fluctuation | variation stop. As a result, the abnormality of the initial position is always determined every time the variable display is performed, so that stable performance can be maintained.

  In the second embodiment, the initial form determination means is configured to determine whether or not the sensor is in the initial position in the detection state, and all fluctuation starts regardless of whether or not the form of the effect movable accessory is changed. A configuration that is sometimes determined is preferred. Moreover, it is good also as a structure which is not limited at the time of a fluctuation | variation start, and determines at the time of a fluctuation | variation stop. As a result, the abnormality of the initial form is always determined every time the display is changed, so that stable performance can be maintained.

  In the first embodiment and the third embodiment, if the stage movable accessory does not return to the initial position despite the control that returns the stage movable actor to the initial position by the initial position return control means, the cause is Failure is expected with high probability. At this time, the displacement sound output means is configured to determine the displacement sound on the assumption that the effect movable accessory is not displaced due to a failure or the like. Therefore, a special displacement sound category may be provided and a displacement sound selected only in such a situation may be output.

  In the second embodiment, when the movable movable agent does not return to the initial form despite the control of returning the movable movable object to the initial form by the initial form return control means, the cause is a failure with a high probability. is expected. At this time, the displacement sound output means is configured to determine the morphological change sound on the premise that it is assumed that the morphing effect for returning the production movable accessory due to a failure or the like will not occur. Therefore, a special form change sound category may be provided, and form change sounds selected only in such a situation may be output.

  In the first embodiment to the third embodiment, as the effect movable accessory, the accessory having only the function of displacing or changing the form is illustrated, but not limited to this, other functions, that is, the displacement A configuration provided with other functions in addition to the function of changing the form may be employed. For example, a configuration such as a so-called movable sub liquid crystal may be employed as an example of the effect movable accessory of the present invention. As a result, before the function of changing the conventional movable sub liquid crystal or changing the form is activated, the corresponding sound is output, so that the result of the displacement or the form change of the movable sub liquid crystal is determined. In the period up to this point, the player can enjoy the pleasure of predicting the degree of expectation of the special game by referring to the type of sound. Furthermore, before the result of displacement or form change is determined, the expected effect of the result can be configured to be displayed by the movable sub-liquid crystal by itself, and an unprecedented interest can be provided.

[Correspondence with Claims]
The correspondence between the terms used in the description of the above embodiment and the terms used in the description of the claims is shown.

The first start port 11 and the second start port 12 correspond to an example of the start port.
A jackpot game (a jackpot game state) corresponds to an example of a special game.
The validity determination process (FIGS. 8 to 11) executed by main controller 80 corresponds to an example of the validity determination means.
The first special figure display device 9 and the second special figure display device 10 correspond to an example of a special symbol display device.
The effect symbol display device 82 corresponds to an example of an effect display device.
Super reach A and super reach B correspond to examples of predetermined pseudo effects.

The shield object 101 corresponds to an example of a production movable object.
The pachinko machine 50 corresponds to an example of a ball game machine.

The effect pattern setting process (FIG. 13) corresponds to an example of a form change determining unit.
S730 in the effect pattern setting process (FIG. 13) corresponds to an example of a form change sound output unit.
Sound 1 corresponds to an example of a first form change sound, and sound 2 when sound 1 is a first form change sound corresponds to an example of a second form change sound.
The sound 3 corresponds to an example of the first form change sound, and the sound 4 when the sound 3 is the first form change sound corresponds to an example of the second form change sound.
Sound 1 or sound 3 corresponds to an example of the first form change sound, and sound 5 when sound 1 or sound 3 is the first form change sound corresponds to an example of the second form change sound.

S710 of the effect pattern setting process (FIG. 13) corresponds to an example of the initial form determination means.
S715 of the effect pattern setting process (FIG. 13) corresponds to an example of the initial form return control means.

The process at the time of power-off occurrence (not shown) corresponds to an example of backup means.
The movable accessory test process (FIG. 12) corresponds to an example of a form changing means at power-on.

11: 1st starting port 12: 2nd starting port 66: Speaker 80: Main control device 83: Sub integrated control device 101: Shield role

Claims (3)

Based on the numerical data extracted due to the game ball entering the start opening, whether or not to determine whether or not to win a special game generation opportunity,
A special symbol display device that variably displays a special symbol indicating a determination result by the determination unit,
An effect display device that displays a pseudo effect corresponding to the variation display of the special symbol,
A speaker that outputs a production sound;
At least a ballistic gaming machine provided with a movable movable accessory that changes its form during the execution of the predetermined pseudo-production,
When the predetermined pseudo-effect is performed, the effect movable accessory is changed from the initial form to the final form through the intermediate form, or the form is changed only from the initial form to the intermediate form, Morphological change determining means for determining
A morphological change sound output means for outputting a morphological change sound as the narrative sound related to the morphological change by the speaker when the predetermined pseudo-effect is performed;
As the form change sound, a first form change sound and a second form change sound are provided,
The form change determining means has a higher probability than the probability of determining that the form change only from the initial form to the intermediate form is performed when the success / failure determining means determines that the winning is performed and the predetermined pseudo-effect is performed. Then, it is set to decide to change the form from the initial form to the final form through the intermediate form,
When the second form change sound is output by the speaker while the predetermined pseudo effect is being performed, the effect is movable with a higher probability than when the first form change sound is output. The accessory is set to change from the initial form to the final form through the intermediate form,
A ball game machine characterized by In the ball game machine according to claim 1,
Due to the change display of the special symbol, initial form determination means for determining whether or not the effect movable accessory is in the initial form;
An initial form return control means for performing return control for returning the effect movable accessory to the initial form when the initial form determining means determines that the effect movable accessory is not in the initial form; Further comprising
The form-changing sound output means is provided even when the effect movable accessory has not returned to the initial form even though the return control has been performed by the initial form return control means. That the same morphological change sound as the output morphological change sound is output by the speaker;
A ball game machine characterized by In the ball game machine according to claim 1 or claim 2,
Backup means for holding the numerical data stored immediately before the power supply to the ball game machine is stopped, even when the power supply is shut off;
A power-on form changing means for changing the form of the effect movable accessory due to the supply of power to the ball game machine,
The effect movable accessory is changed from the initial form to the final form through the intermediate form by the form changing means at power-on, but the form change sound is not output by the speaker when the form is changed. What
A ball game machine characterized by

Images