JP5754675B2 - Game machine - Google Patents

Description

  The present invention relates to a gaming machine capable of producing a turning effect by a rotating reel.

  Conventionally, as this type of gaming machine, a slot machine that performs a game in which a plurality of rotating reels are rotated and then stopped by a stop switch is generally known. In this slot machine, a plurality of symbols are arranged around each rotary reel, and a part of the front side of the symbols arranged on each rotary reel is visible through the display window. Then, when the player inserts a medal and operates the start switch, each rotating reel starts rotating, and after each rotating reel starts rotating, the player operates the stop switch to operate each rotation. The reel stops. In addition, inside the slot machine, in principle, lottery is performed on the condition that the medal is inserted and the start switch is operated. As a result of the lottery, a predetermined combination is won (a winning flag is established), and A predetermined number of medals can be paid out or a special game advantageous to the player can be made on condition that the symbol of the winning combination is stopped and displayed on a preset active line. Etc. are granted. Then, in order to enhance the fun of the game, in response to the result of the lottery through a liquid crystal display device, a number of lamps, a notification means such as a speaker, etc. Various effects by sound and light are performed.

  Here, in recent years, as such effects, various effects based on the behavior of the rotating reel, so-called spinning effects, have been studied. For example, as shown in Patent Document 1, a predetermined symbol (for example, a combination of symbols 7, 7, and 7) between the time when the rotating reel starts rotating and the pressing operation of the stop switch becomes possible. It is like parallel rotation and then steady rotation.

JP 2010-51642 A

However, the spinning effect that aligns the predetermined symbol during the rotation described above is because the predetermined symbol is rotated in a state where the predetermined symbol is parallel, although there is a heightened expectation that the predetermined symbol may be aligned. As it is, there is a possibility that it will become a so-called assisting aid. By rotating in a state in which the predetermined symbols are in parallel, it becomes easier to recognize the rotating symbols compared to the normal eye-pressing, so that some skilled players will be able to assist in such a pressing. Some of them were half the fun.
In addition, it is not preferable to intentionally modify the game result (outcome) displayed based on the skill of the player and to resume the game as it is by controlling the game machine (rotation effect). In this case, it can be formed to return to the original appearance after the spinning effect, but not only is the control complicated, but the reel is re-rotated after returning to the original stop position, It will also force the player to spend ineffective time.

  Therefore, the present invention improves the fun of the game so as not to assist in the push after the revolving effect, and resets the displayed symbol arrangement by a simple method as a result of the revolving effect. Objective.

The present invention has been made to achieve the above-described object, and features of the present invention will be described below with reference to embodiments of the invention shown in the drawings.
In addition, the code | symbol in parenthesis shows the code | symbol used in embodiment of invention, and does not limit the technical scope of this invention.
(Claim 1)
According to the first aspect of the present invention, there are provided a plurality of rotating reels (40) each having a plurality of symbols displayed thereon, a start switch (30) for starting the rotation of the rotating reel (40), and the rotating reel. In a gaming machine comprising at least a stop switch (50) for stopping the rotation of (40), a rotation effect control means capable of executing a predetermined rotation effect of the plurality of rotary reels (40) for a predetermined time (170) and the arrangement of the symbols of the plurality of rotating reels (40) at the time of the end of the spinning effect, in order to randomly rearrange until the stop operation by the stop switch (50) becomes possible Relocation control means, and
The rearrangement control means (170) randomly sets a delay time until the rotation reel (40) that starts rotating first after the execution of the predetermined time of the spinning effect is ended , The plurality of rotating reels (40) are formed so as to sequentially start rotating randomly by setting a delay time from the start of rotating the rotating reel to the start of the next rotating reel at random. It is characterized by being.

(Function)
In the present invention, the spinning drum effect control means (170) operates the rotating reel (40) in a predetermined manner, so that the predetermined symbol is arranged according to the arrangement form of the symbols (61) of the plurality of rotating reels (40). The spinning effect in which the combination is displayed may be executable, or the spinning effect of another aspect may be executable. In the present invention, the number of rotating reels (40) may be two or more.

  Here, the `` one rotation reel (40) '' is any rotation reel (40) of the plurality of rotation reels (40), and the rotation reel (40) that is set to start rotating first ( 40) and a rotating reel (40) that is set to start rotating after the rotating reel (40) that starts rotating first is also included. The “next rotation reel (40)” is one of the rotation reels (40) that has not yet started rotating, and is rotated next to the first rotation reel (40). The second and subsequent rotating reels (40) to be started are included, and this includes the rotating reel (40) to start rotating last. The rotary reel (40) set to start rotating first (next or last) may be determined in advance or may be determined each time by lottery or the like.

In the present invention, after the end of the spinning effect, among the plurality of rotating reels (40) in a stopped state, after one rotating reel (40) starts to rotate, a delay time set at random has elapsed. Later, the next rotating reel (40) starts to rotate.
According to the present invention, after the end of the turning effect, the plurality of rotating reels (40) are sequentially rotated until the stop operation is enabled for each rotating reel (40) after the end of the turning effect. The stop symbols can be arranged differently. For this reason, in the game after the end of the spinning effect, the stop symbol does not become an aid to the game, and the interest of the game can be improved.

(Function)
According to the present invention, after the end of the spinning effect, after a lapse of a randomly set delay time, among the plurality of rotating reels (40) in a stopped state, the rotation is set to start first. The rotation of the rotary reel (40) is started, the rotation of the first rotary reel (40) is started, and then the rotation of the second rotary reel (40) is started after a delay time set at random.
In the present invention, the rearrangement control means (180) includes a random number generator for delay time (182) for generating random numbers at a predetermined cycle, and a random value generated by the random number generator for delay time (182). Random value storage means (183) for storing while updating the random number value setting means for setting the random value stored in the random value storage means (183) for each rotating reel (40) at a predetermined timing ( 184) and counting means (185) for measuring the delay time by counting a predetermined numerical value based on the random value set by the random value setting means (184), the random value setting The means (184) sets a random value for the one rotating reel (40) when all the rotating reels (40) are stopped after the end of the spinning effect, and the counting means (185) The random value set by the random value setting means (184) for the one rotating reel (40) If it is not 0, the numerical value is subtracted at regular intervals, and the random value set by the random value setting means (184) for the one rotating reel (40) is 0, or the set random value Can be formed such that the random value setting means (184) sets a random value for the next rotating reel (40). By forming in this way, the delay time can be set at random, and the delay time can be measured rationally.
(Claim 2 )
The invention of claim 2, wherein, in addition to the feature point of the invention of claims 1 Symbol placement above said provided corresponding to the rotating reel (40), for detecting a rotational position of said rotary reel (40) An index (47) provided at a predetermined position of the rotary reel (40) and an index detection device (48) provided corresponding to each rotary reel (40) for detecting the passage of the index (47). ) And rotation position determination means (161) for grasping the current position of the rotary reel (40) by detecting the index (47) notification by the index detection device (48), and the rotation effect control The means (170) is characterized in that the spinning effect is performed by referring to the current position of each rotating reel (40) that is being rotated, which is grasped by the rotational position determining means (161).
(Claim 3 )
According to a third aspect, in addition to the feature point of the invention of claims 1 Symbol placement above said provided corresponding to the rotating reel (40), a stepping motor for driving the rotary reel (40) (64), motor drive control means (63) for outputting a pulse signal for driving each stepping motor (64), and each stepping motor (64) output by the motor drive control means (63). A pulse counter (320) that counts the number of pulses of the pulse signal, and is provided corresponding to each of the rotating reels (40), and is provided at a predetermined position of the rotating reel to detect the rotating position of the rotating reel (40). An index (47) provided and an index detection device (48) for detecting the passage of the index (47) provided for each of the rotary reels (40), and the rotation of the rotary reel (40) From the start, each index detection device (48) Rotation amount detection means (330) capable of detecting the number of pulses of the pulse signal of each stepping motor (64) counted by the pulse counter (320) until the index (47) is detected, and the rotation amount detection means (3) and a rotation-prevention rotation mode calculation means (340) for calculating a stop mode before the start of rotation of all the rotary reels (40) based on the number of pulses detected by (330). The means (170) is characterized in that the turning effect is performed with reference to the stop mode before the rotation start calculated by the pre-rotation stop mode calculation unit (340).

  The invention of the present application is configured as described above, so that after the turning effect, it is not an aid to the eyeball, and the fun of the game is improved, and the displayed symbol arrangement as a result of the turning effect, It can be reset by a simple method.

1 is an external front view showing a gaming machine according to a first embodiment of the present invention. 1 is an external perspective view illustrating a part of a reel unit according to a first embodiment. It is 1st embodiment, Comprising: It is a longitudinal cross-sectional view which shows a part of reel unit. 1 is a block diagram showing input, control and output of a gaming machine according to a first embodiment. FIG. FIG. 3 is a schematic diagram showing a part of a design of a reel tape of a rotary reel according to the first embodiment. It is 1st embodiment, Comprising: It is the schematic which shows the content of the combination. It is 1st embodiment, Comprising: It is an external appearance front view which shows an effective line. It is 1st embodiment, Comprising: It is an external appearance front view which shows an effective line. It is 1st embodiment, Comprising: It is a conceptual diagram which shows the rotation aspect in the rotation effect of three rotation reels. This is the first embodiment and is a normal game flow. It is 1st embodiment, Comprising: It is a flow of a rotation effect production process. It is a first embodiment and is a flow of rearrangement processing. FIG. 6 is a conceptual diagram showing a rotation mode in the rearrangement process of three rotary reels according to the first embodiment. It is 2nd embodiment of this invention, Comprising: It is the flow of a rearrangement process. FIG. 10 is a conceptual diagram illustrating a rotation mode in the rearrangement process of three rotary reels according to the second embodiment. It is a third embodiment of the present invention, and is a conceptual diagram showing a rotation mode in a rearrangement process of three rotary reels. It is a third embodiment and is a flow of rearrangement processing. It is a modification of 3rd embodiment, Comprising: It is a conceptual diagram which shows the rotation aspect in the rearrangement process of three rotation reels. It is a modification of the third embodiment and is a flow of rearrangement processing. It is a 4th embodiment of the present invention, and is a key map showing a rotation mode in rearrangement processing of three rotation reels. It is a fourth embodiment and is a flow of rearrangement processing. It is a time chart which shows the outline of the rotation effect process and rearrangement process in 1st embodiment. It is a time chart which shows the outline of the spinning drum effect process and rearrangement process in 2nd embodiment. It is a time chart which shows the outline of the rotation effect production process and rearrangement process in 3rd embodiment. It is a time chart which shows the outline of the spinning effect process and rearrangement process in 4th Embodiment. It is the modification 1 of the rotation effect process in 1st thru | or 4th embodiment, Comprising: It is a conceptual diagram which shows the rotation aspect in the rotation effect of three rotation reels. It is the modification 2 of a spinning effect production | generation process, Comprising: It is a conceptual diagram which shows the rotation aspect in the spinning production effect of three rotation reels. It is the modification 3 of a rotation effect process, Comprising: It is a conceptual diagram which shows the rotation aspect in the rotation effect of three rotation reels. It is the modification 4 of a spinning effect production | generation process, Comprising: It is a conceptual diagram which shows the rotation aspect in the spinning production effect of three rotation reels. It is the modification 5 of a spinning effect production | generation process, Comprising: It is a conceptual diagram which shows the rotation aspect in the spinning production effect of three rotation reels. FIG. 10 is a block diagram illustrating a rearrangement control unit according to a fifth embodiment of the present invention. It is 5th Embodiment, Comprising: It is a table | surface which shows the generation method of the random weight for random weights. FIG. 10 is a display showing a random weight random number according to a fifth embodiment. It is a fifth embodiment and is a flow of rearrangement processing. It is a time chart which shows the outline of the rotation effect production process and rearrangement process in 5th Embodiment. It is a reference example of 1st embodiment, Comprising: It is the flow of a rearrangement process. It is a reference example of 2nd embodiment, Comprising: It is the flow of a rearrangement process. It is a reference example of 2nd embodiment, Comprising: It is the flow of a rearrangement process.

Hereinafter, modes for carrying out the present invention will be described based on the drawings, divided into first to fifth embodiments.
(First embodiment)
(Outline of gaming machine 10)
In this specification, the “front” refers to the surface that the player faces when playing a game in the gaming machine, and the “back” is the surface opposite to the “front” when viewed from the player, The left and right directions such as “left” and “right” also mean the left side and the right side when viewed from the person facing the front of the gaming machine.

As shown in FIG. 1, a slot machine as a gaming machine according to the present embodiment, which has a square box-like casing 11 having a front opening that opens toward the front, and a front opening of the casing 11. And a front door 14 for closing and opening the part. The front door 14 includes an upper door 3 that covers an upper part of the front opening so as to be opened and closed, and a lower door 4 that covers a lower part of the front opening so as to be opened and closed.
Further, the upper part of the front door 14 is provided with the upper panel 12a, the lower part of the front door 14 is provided with the lower panel 12b, and the front panel 14 has a front panel between the upper panel 12a and the lower panel 12b. An operation portion 12c protruding forward is provided.
The upper door 3 is formed with an upper panel 12a having a substantially rectangular window shape facing the player side. A display window 13 through which a symbol 61 on the reel tape 42 affixed to the circumference of the three rotary reels 40, that is, a so-called stop symbol 61, is formed substantially at the center of the upper panel 12a. The display window 13 is formed to show the player a total of nine symbols arranged in three rows and three rows when the rotation of all three rotary reels 40 stops.

A reel unit 60 for rotating a rotary reel 40 as a symbol display means by three stepping motors 64 is disposed in the back of the display window 13. The rotating reel 40 includes a left reel 43 positioned on the left end side, a right reel 45 positioned on the right end side, and a middle reel 44 positioned between the left reel 43 and the right reel 45.
A predetermined number of lines are formed on the front side of the gaming machine 10 to connect the stop positions of the three predetermined symbols of the three rotary reels 40 in the horizontal direction and the oblique direction. In the present embodiment, the upper line L1 that passes through the three upper symbols, the middle line L2 that passes through the three middle symbols, the lower line L3 that passes through the three lower symbols, and the lower left, An upper right line L4 that passes through the three symbols at the center and the upper right, and a right downward line L5 that passes through the three symbols at the upper left, the center, and the lower right are provided.

The front door 14 is formed with notifying means 66 for notifying the player of winning of the lottery by sound, light or video, and the notifying means 66 includes upper and lower speakers 67 and upper panel 12a. A liquid crystal display device 68 disposed at the upper center and a notification lamp 69 disposed at the peripheral edge of the upper panel 12a are provided.
The lower door 4 has a medal slot 18 for inserting medals located on the right side of the operation unit 12c, and a bet switch 16 that is positioned on the left side of the operation unit 12c and reduces the number of stored medals to replace medal insertion. And a checkout switch 17 for paying out the credited medal located on the left side of the bet switch 16, and a rotary switch 40 on the left side of the operation unit 12c on condition that the medal is inserted or the bet switch 16 is inserted. A start switch 30 as a fluctuation display start means 31 for starting rotation, and a stop as a fluctuation display stop means 51 for stopping the rotation of the corresponding rotating reel 40 located at the approximate center of the operation portion 12c by operation. And a switch 50.

The stop switch 50 for accommodating the left reel 43 is the left stop switch 50a, the stop switch 50 for accommodating the middle reel 44 is the middle stop switch 50b, and the stop switch for accommodating the right reel 45 Reference numeral 50 denotes a right stop switch 50c.
The gaming machine 10 is configured to be able to store (credit) up to 50 medals in the gaming machine 10 when a medal is inserted from the medal slot 18. Then, the stored (credit) medal can be replaced with medal insertion as a game start condition by pressing the bet switch 16.
Behind the lower door 4 is a so-called hopper unit that can store medals and can store and pay out medals, and can be operated to turn on or shut off power. A power supply device 5 having a power switch 6 and supplying power to each component is disposed.

In the lower part of the lower door 4, a payout port 32 through which a medal is paid out from the storage payout means 65 when a symbol of a predetermined combination is displayed on the active line is formed, below the payout port 32 In order to store medals paid out from the payout port 32, a dish-like payout tray 33 that opens upward is formed.
In principle, the gaming machine 10 according to the present embodiment starts the rotation of the rotary reel 40 by depressing the start switch 30 after the bet switch 16 is operated or the medal is inserted, and performs a lottery drawing. Based on the timing of pressing the stop switch 50 and the result of the lottery, the rotation of the rotary reel 40 is stopped so as to match the result of the role lottery, and the predetermined symbol of the winning combination is an effective line depending on the combination of symbols at the time of stoppage. This is a slot machine that gives a player a predetermined privilege (profit) such as paying out a predetermined number of medals when stopped and displayed above.

The gaming machine 10 is in a so-called game start preparation state in which a game can be started by operating the bet switch 16 or betting a game medium by inserting a medal. When the start switch 30 is pressed during the game start preparation state, the game is started and the rotation of the rotary reel 40 is started. Then, when a process of paying out medals after the subsequent stop display of the rotary reel 40 is finished, one game is finished. It should be noted that the period from the end of this game to the betting of the game medium relating to the next game is a so-called inter-game (inter-game) state.
(Reel unit 60)
As shown in FIGS. 2 and 3, the reel unit 60 is for rotating three rotary reels 40 arranged side by side and each rotary reel 40, and corresponds to each rotary reel 40. A stepping motor 64 as a driving motor, a motor driver 62 for rotating the stepping motor 64 by inputting a pulse signal from the game control device 21, and a rotation for detecting the rotational position of the rotary reel 40 A position detection device 46 and a support member 49 for supporting them are provided.

The rotary reel 40 has a cylindrical shape in which 21 symbols are evenly arranged around the periphery. Each rotating reel 40 includes a rotating drum made of synthetic resin, and a tape-shaped reel tape 42 that is affixed around the rotating drum and displays a plurality (21) of symbols 61. ing.
The rotational position detecting device 46 is provided corresponding to each rotary reel 40 and a protruding piece-like index 47 protruding laterally from the rotary drum of the rotary reel 40, and from the support member 49 around the rotary reel 40. An index detecting device 48 for projecting and detecting the passage of the index 47 by blocking the optical sensor is provided.

  Then, after starting the rotation by the stepping motor 64, by recognizing the rotation angle after the index 47 is detected by the index detection device 48, the current position is specified by the rotation position determination means 161 described later, It is possible to stop at a predetermined angle. This index detection device 48 has an optical sensor inside, and the overall shape is substantially U-shaped. A light emitting element (LED) is arranged at one end and a light receiving element (phototransistor) is arranged at the other end. The protruding piece-shaped index 47 moves through the U-shaped interior, so that the light from the light emitting element is blocked and the timing at which the index 47 passes can be detected.

The motor driver 62 is configured to rotationally drive the stepping motor 64 when a pulse signal as a signal from the game control device 21 is input.
More specifically, the stepping motor 64 is set to rotate 360 degrees, that is, one round in 504 steps. Then, when one pulse signal is input from the motor drive control means 63 described later to the motor driver 62, the stepping motor 64 is set to rotate by one step angle (specifically, 360/504 degrees). Has been. That is, when a signal of 504 pulses is input to the motor driver 62, the stepping motor 64 rotates 360 degrees, that is, one rotation. Since 21 symbols are arranged around the rotating reel 40, when a 24 pulse signal is input from the motor drive control means 63 to the motor driver 62, the stepping motor 64 moves 24 steps, and 1 symbol It is set to rotate by the minute.

In this embodiment, the rotation speed of the rotary reel 40 is changed. This is because the rotation speed of the rotary reel 40 is adjusted by the rotation control means 150 described later by changing the number of steps per unit time. It is made possible.
(Control device 20)
As shown in FIG. 4, a control device 20 for controlling the overall operation of the gaming machine 10 is formed inside the gaming machine 10. Although not shown, the control device 20 is configured around a CPU and includes a ROM and a RAM. The RAM is configured to be operable by reading data and programs stored in the ROM.

The above-mentioned bet switch 16, start switch 30, stop switch 50 and settlement switch 17 are connected to the input stage of the control device 20, and the above-mentioned storage and dispensing means 65, reel unit 60 and notifying means 66 are connected to the output stage. Is connected.
The control device 20 controls a game control device 21 (main board 23) that controls the game state by advancing the game, and controls the effect state in order to produce a game in response to a signal from the game control device 21 And an effect control device 22 (sub-board 24). Here, transmission / reception of signals between the game control device 21 and the effect control device 22 is formed so as to be one-way in order to ensure the reliability of internal data such as data relating to the role lottery in the game control device 21. ing. That is, a signal is output only from the game control device 21 toward the effect control device 22, and no signal is output from the effect control device 22 toward the game control device 21.

(Game control device 21)
The game control device 21 performs random number lottery by the player's operation of the start switch 30, and controls the rotation and stop of the rotary reel 40 reflecting the lottery result by operating the stop switch 50. It is.
The game control device 21 includes a game control means 27, a role lottery means 110, a spinning effect lottery means 120, a rotation control means 250, a motor drive control means 63, a weight control means 190, and a stop control means 130. Stop symbol determination means 140, timing means 150, pulse counter 320, rotation position determination means 161, rotation amount detection means 330, stop rotation pre-rotation calculation means 340, and rotation effect data storage means 210, In addition, a rotating effect control means 170 and a rearrangement control means 180 are provided.

Although not specifically shown, the gaming machine 10 is provided with a door sensor that detects the open / closed state of the front door 14, and the game control device 21 opens the front door 14 based on a detection signal from the door sensor. It is formed to be detectable.
Further, the gaming machine 10 is provided with a plurality of set values that determine the payout rate, and the game control device 21 is configured to be able to change the set values by operating predetermined setting change operation means (not shown). Has been.
The game played with this slot machine is larger than the normal game when compared with a normal game played in a normal (ordinary) game period, which is called a bonus game and is based on the same number of games. Special games that can give profits. This special game shifts by displaying a predetermined role symbol on the active line during a normal game, and the number of medals that can be acquired per unit time can be larger than that of a normal game. Is formed. Specifically, the special game includes a BB game (big bonus game) and an RB game (regular bonus game) capable of acquiring up to a predetermined number of medals.

Here, the “combination” is composed of a combination of symbols in principle, and means a predetermined combination of symbols. For example, the stop symbols of the left, middle and right rotating reels 40 are As shown in FIGS. 7, 7, and 7, a shape in which three symbols displayed on a rotating reel are usually arranged is a basic shape. However, the cherry symbols stop on a specific rotating reel, such as the left reel 43, and the remaining two rotating reels 40 may have any symbol even if the three are not arranged, such as cherry. . The composition of the combination is displayed on the front side (not shown) of the gaming machine 10.
The normal game control means 70 performs control related to a normal game in order to perform a normal game, and the special game control means 80 performs control related to a special game in order to perform a special game.

(Normal game control means 70)
The normal game control means 70 controls normal games.
Hereinafter, the normal game in the gaming machine 10 will be described. It is possible to bet three medals as game media for one game. If you bet 3 medals, all 5 lines will be valid. In addition, it can also be set as the 3 sheet exclusive machine which becomes effective only by 3 sheet insertion. The activated line is hereinafter referred to as an “effective line”. In addition, the medal bet includes a bet by inserting a medal from the medal insertion slot 18 and a bet of credited medal by operating the bet switch 16. In the re-game, the same number of medals as the bet in the previous game are automatically bet. In addition, the game can be started on the condition that a bet of three medals is operated. When the start switch 30 is operated, a winning lottery of winning or losing one of a plurality of winning combinations is performed. All the rotating reels 40 start to rotate. After that, when the rotation of all three rotary reels 40 reaches a predetermined steady rotation speed and the regular rotation starts, all the three stop switches 50 are enabled, and the operation of the stop switch 50 is enabled. When one of the three stop switches 50 is operated, the rotation of the rotary reel 40 corresponding to the stop switch 50 is stopped. When all the three stop switches 50 have been operated, the rotation of all three rotary reels 40 is stopped. At this time, if a combination of symbols corresponding to the winning combination in the winning combination lottery is displayed on any active line, the number of medals corresponding to the winning combination can be obtained. The acquired medals are credited, and when the number of credits reaches the upper limit value, the storage / dispensing means 65 is driven, and the amount exceeding the upper limit value is paid out from the payout port 32. In addition, a predetermined profit may be given to the player instead of the medal acquisition or along with the medal acquisition.

Here, the combination of a predetermined symbol combination on the active line is stopped and displayed on the active line, and the small combination on which the medal is paid out and the predetermined symbol combination on the active line is stopped and displayed on the medal. The combination of a replay that can be played again under the same conditions as the previous game without inserting a new medal, and a combination of predetermined symbols on the active line is stopped and displayed. There is a bonus role that does not pay out but shifts to special games.
Specifically, as shown in FIG. 6, the small roles include a plum role, a bell role, a cherry role, an advantageous game transition role, a so-called three-choice role (a three-choice role, a blue seven role, and a three-choice role). White 7 roles, 3 choice roles red 7 roles). For example, among the role of plum, the role of bell, and the role of cherry, the role of plum is constituted by a combination of symbols of “plum”, “plum” and “plum”, and for example, the role of cherry is “cherry” “ANY” “ANY” ”(“ ANY ”means any symbol may be used). Then, the combination of symbols constituting the combination is stopped and displayed on one of the active lines, whereby a predetermined number of medals corresponding to the combination are paid out. For example, a combination of symbols “bell”, “bell”, and “bell” is stopped and displayed on one of the active lines, so that a predetermined number (for example, 15) of medals according to the bell combination is paid out.

  In addition, the advantageous game transition combination is determined to shift to the advantageous game described later by winning the combination by the combination lottery by the combination lottery means 110 described later, and a combination of predetermined symbols on the active line is determined. The medal is paid out by the stop display. As shown in FIG. 6, the advantageous game transition combination is constituted by a combination of symbols of “red 7”, “replay”, and “replay”. The replay symbol consists of a capital letter R in a double circle. Then, by winning the winning combination by winning the winning lottery by the winning lottery means 110, it is determined to shift to the advantageous game, and the combination of symbols is stopped and displayed on the active line. Nine) medals are paid out. The advantageous game transition combination is a combination that is drawn by lottery only during the big bonus game described later. Of course, when an advantageous game is awarded, the game is not limited to this, and it may be various, such as a predetermined number of games after the end of the BB game or a winning combination.

Further, as shown in FIG. 6, the re-game player is constituted by a combination of symbols of “replay”, “replay”, and “replay”. Then, the combination of symbols is stopped and displayed on any active line, so that the game can be played again under the same conditions as the previous game without newly inserting medals.
Further, as shown in FIG. 6, the bonus combination includes a BB combination and an RB combination. The BB combination is configured by a combination of symbols of “red 7”, “red 7”, and “red 7”. Then, when the symbol combination is stopped and displayed on the active line, the game proceeds to a big bonus game described later. The RB combination is configured by a combination of symbols “BAR”, “BAR”, and “BAR”. Then, when the symbol combination is stopped and displayed on the active line, the game proceeds to a regular bonus game described later.

In this embodiment, the bonus combination is shifted to a special game without paying out medals. However, after a predetermined number (for example, 15) of medals has been paid out, the bonus combination is shifted to a special game. You may set to do.
(Special game control means 80)
The special game means a game that is more advantageous to the player than the normal game, and the special game control means 80 controls the special game.
Special games include a big bonus game (BB game) and a regular bonus game (RB game). A BB game is a game in which a game having a predetermined winning combination winning probability higher than that of a normal game can be executed a plurality of times, and is ended by paying out a predetermined number of medals (for example, 369). In addition, the RB game is a game that can execute a game having a higher probability of winning a predetermined role than a normal game a plurality of times, as in the BB game, and has a predetermined number (for example, 99) of medals less than the BB game. It is a game that ends by paying out.

In the present embodiment, the special game control means 80 has a payout number counter that counts the payout number of medals in the special game (BB game and RB game).
Specifically, in the normal game, when winning the BB role by winning a lottery, a combination of symbols of “Red 7”, “Red 7”, and “Red 7” corresponding to the BB role is won on any active line. When the combination of symbols “Red 7”, “Red 7”, and “Red 7” is complete and displayed in a stopped state, the game shifts to the BB game.
When the game shifts to the BB game, the probability of winning a predetermined role in the role lottery becomes higher than that in the normal game, and the game can be started by betting with two medals. As shown in FIG. Only line. When a combination of symbols corresponding to the winning combination is stopped and displayed on the active line, a predetermined number of medals corresponding to the combination are paid out and the number of medals paid out by the payout number counter is counted. Is done.

Then, when the cumulative payout number of medals in the BB game reaches a predetermined number (for example, 369), the BB game ends and the game shifts to a normal game or an advantageous game described later.
Also, in a normal game, when the RB role is won by the role lottery, a combination of symbols “BAR”, “BAR”, and “BAR” corresponding to the RB role can be arranged on any active line. When the symbols “BAR” and “BAR” are combined and stopped, the RB game is entered.
When shifting to the RB game, a game similar to the BB game is performed. When a combination of symbols corresponding to the winning combination is stopped and displayed on the active line, a predetermined number of medals corresponding to the combination are paid out and the number of medals paid out by the payout number counter is counted. Is done.

Then, when the cumulative payout number of medals in the RB game reaches a predetermined number (for example, 99), the RB game is ended and the game shifts to a normal game.
In the present embodiment, the special game (BB game and RB game) ends when a predetermined number of medals are paid out, but other conditions (for example, the number of games) are set as the special game end condition. You can also
Further, the counting by the payout number counter may be a count-up method or a count-down method.
(Role lottery 110)
The role lottery means 110 performs a lottery for winning or losing a plurality of roles in response to the operation of the start switch 30. The role lottery means 110 includes a random number generation means, a random number extraction means, a role lottery table, and a determination means.

The random number generation means generates a random number for lottery within a predetermined range (for example, 0 to 65535 in decimal number). The random number extraction means extracts the random number generated by the random number generation means at a predetermined opportunity (for example, operation of the start switch 30). Since the random number generating means is constituted by a counter circuit or the like, the numerical value generated by the random number generating means is not strictly a random number. However, since the timing at which the start switch 30 is operated is considered to be random, the numerical value extracted by the random number extraction means can be practically handled as a random number.
In addition, the combination lottery table predefines whether each of the random numbers within the range generated by the random number generation means is won or lost in any of a plurality of combinations. In the present embodiment, the role lottery tables include a general role lottery table used in normal games and advantageous games described later, and a special role lottery table used in BB games and RB games. In those lottery tables, a winning area and a lost area are set. Note that, as the winning area, in addition to the single winning area where only one combination is won, an overlapping winning area where a plurality of winning combinations are simultaneously won can be set. In the case where such overlapping winning area is set, when a plurality of winning combinations are won in the winning lottery by the winning lottery means 110, winning flags corresponding to the plurality of winning combinations are established. When the combination of symbols corresponding to the winning combination in the winning lottery is stopped and displayed on any active line while this flag is established, the player can pay out medals, special games, etc. Benefits.

In addition, the determination unit compares the random number extracted by the random number extraction unit with the combination lottery table and determines whether one of the plurality of combinations is won or lost. Specifically, when the determination means determines whether one of a plurality of winning combinations is won or lost, the determining means appropriately uses a winning lottery table corresponding to the gaming state at that time. It has become.
Then, when any of the winning combinations is won by the winning lottery means 110, a winning flag corresponding to the winning combination is established.
Here, in the winning flag, the winning combination flag (plum winning flag, bell winning flag, cherry winning flag, 3 winning combination blue 7) that is established when the result of the lottery by the winning lottery means 110 is the winning of the small role. Winning flag, 3 option white 7 winning flag, 3 option red 7 winning flag, and advantageous game transition winning flag) and the result of the lottery by the winning lottery means 110 is a re-game winning There are a game winning flag and a bonus winning flag (BB winning flag and RB winning flag) which is established when the result of the lottery by the winning lottery means 110 is winning of a bonus winning combination.

Although the small role winning flag and the re-game winning flag are valid only in the established game, the bonus winning flag can be carried over to the next game and corresponds to the winning bonus combination. The combination of symbols is erased by stopping and displaying on one of the effective lines.
(Circulation effect lottery means 120)
The reeling effect lottery means 120 performs a lottery on whether or not to execute the spinning effect by the rotary reel 40 when the start switch 30 is operated. The spinning effect lottery means 120 includes a random number generation means, a random number extraction means, a spinning effect lottery table, and a determination means. The random number generation means and the random number extraction means are the same as the role lottery means 110. The rotation effect lottery table is a table in which whether or not the rotation effect is executed is determined in advance for each random number within the range generated by the random number generation means. In addition, the determination unit compares the random number extracted by the random number extraction unit with the rotation effect lottery table, and determines whether it is a win or a loss for executing the rotation effect.

  In the present embodiment, lottery by lottery effect lottery means 120 is performed in order to enable the reeling effect by the reeling effect control means 170 in a predetermined case during a normal game. Only when the lottery effect lottery means 120 wins the lottery effect, the reeling effect control means 170 executes the spinning effect. As the lottery probability at that time, variously changed lottery probabilities are used in accordance with the lottery result of the role lottery means 110. Specifically, the lottery probability in the case of winning the BB combination is set to a high probability, and the lottery is set not to be performed when other combinations are won or lost. In addition, it is said that the spinning effect can be generated only at the time of winning the BB role, but it is not particularly limited to this, and it may be generated at the time of other role or loss, and it is not a normal game, It may be possible to generate a spinning effect during another predetermined game such as an advantageous game or when a winning combination is won. It should be noted that a numerical value set separately and independently in advance may be used for the lottery probability regardless of the lottery result of the winning lottery means 110.

(Rotation control means 250)
The rotation control means 250 starts rotation of all three rotary reels 40 when the start switch 30 is operated, and controls the rotational drive of all three rotary reels 40. Specifically, the rotation control means 250 starts the rotation of all three rotary reels 40 in response to the operation of the start switch 30 as a general rule when the rotation effect or the like is not performed. The speed is increased until a predetermined steady rotational speed is reached. Then, when the rotation speed of the rotary reel 40 reaches a predetermined steady rotation speed, the rotation control means 250 performs a constant speed process for rotating the rotary reel 40 at a constant steady rotation speed.

Further, in the present embodiment, the rotation control means 250 starts the rotation of the rotary reel 40 when a signal to start the rotation effect is input from the rotation effect control means 170 described later. The start of the process for increasing the rotation speed is temporarily suspended. Then, the rotation control means 250 adjusts the rotation speed of the rotary reel 40 to a predetermined steady rotation speed when the signal indicating the end of the rotation effect is input from the rotation effect control means 170. Start processing.
Specifically, when starting the speed adjustment process, the rotation control means 250 performs a speed adjustment process for starting the rotation and increasing the speed for the rotating reel 40 that has stopped rotating, and thereafter Perform constant speed processing. In addition, when starting the speed adjustment process, for the rotating reel 40 that is rotating at a speed slower than the predetermined steady rotation speed, the speed is increased until the rotation speed reaches the predetermined steady rotation speed, and then Then, constant speed processing for maintaining a predetermined steady rotational speed is performed. When the steady rotational speed is set to be lower than the previous rotational speed, the speed until the rotational speed reaches a predetermined steady rotational speed is reduced.

In the present embodiment, the operation of the stop switch 50 is made effective after the transition process for rotating the rotary reel 40 at a predetermined steady rotational speed, that is, the so-called steady rotational process (speed adjustment process) is completed. Is formed.
(Motor drive control means 63)
The motor drive control means 63 is for outputting a pulse signal (step signal) for driving each stepping motor 64. This motor drive control means 63 receives various signals from the rotation control means 250, the spinning drum effect control means 170, etc., and outputs a pulse signal to the motor driver 62 that drives and controls the stepping motor 64.

(Weight control means 190)
The weight control means 190 controls so that the game time in one game does not become less than a predetermined time (hereinafter referred to as “wait time”). In the present embodiment, the wait time is set to 4.1 seconds. In the present embodiment, the weight control means 190 measures the wait time by the time measuring means 150. Specifically, the weight control means 190 causes the time measuring means 150 to start measuring when the rotation of the rotary reel 40 is started by the rotation control means 250 in one game. Then, in the next game, when the rotation of the rotary reel 40 is started by the rotation control means 250, the time measurement by the time measurement means 150 is reset and time measurement is started again. Similarly, in the games thereafter, when the rotation of the rotary reel 40 is started by the game and rotation control means 250, the time measurement by the time measurement means 150 is reset and the time measurement is started again.

Then, the weight control means 190 uses the rotation control means 250 when the time measured by the time measuring means 150 when the start switch 30 relating to the start of the game is operated is 4.1 seconds or less. The start of the process for starting the rotation of all the three rotary reels 40 is temporarily suspended, and after the counted time of 4.1 seconds, the process by the reserved rotation control means 250 is started.
Further, in the present embodiment, when the start switch 30 relating to the start of the game is operated, the progress of the game is delayed by the spinning drum effect control means 170 described later, and the effect using the rotary reel 40 during that time There is a case where a spinning drum effect (rotary reel effect) is executed. In such a case, the weight control means 190 determines whether or not the time measured by the time measuring means is 4.1 seconds or less, triggered by the operation of the start switch 30. When the timed time is 4.1 seconds or less, the weight control unit 190 temporarily holds the start of the process of starting the rotation of all three rotary reels 40 by the rotation control unit 250. And after the time measured for 4.1 seconds has elapsed, the suspended rotation control means 250 can start the process. At this time, the rotation effect control means 170 executes the rotation effect after 4.1 seconds have elapsed. That is, after 4.1 seconds have elapsed, the progress of the game is delayed, and the spinning effect is executed during that time. However, the present invention is not limited to this, and when the rotation effect is performed by the rotation effect control means 170, if the set time is sure to clear the limit of 4.1 seconds, As described above, the spinning effect is not executed after 4.1 seconds have passed, but the spinning effect is executed even if 4.1 seconds have not passed when the start switch 30 is operated. May be.

Further, in the present embodiment, when the spinning effect is executed, the weight control means 190 is triggered by the fact that the spinning effect is finished and the rotation control means 250 starts the rotation of the rotary reel 40. Then, the timing means starts timing. In other words, the weight control means 190 indicates that the rotation control means 250 has started the rotation of the rotary reel 40 when a signal indicating that the rotation effect is finished is input from the rotation effect control means 170 to the rotation control means 250. In response, the timing means starts timing.
The weight control unit 190 causes the timing unit to start timing when the rotation of the rotary reel 40 is started by the rotation control unit 250, but is not limited thereto. For example, when the spinning effect is executed, the weight control unit 190 may cause the timing unit to start timing from any timing from the start to the end of the spinning effect.

(Stop control means 130)
The stop control means 130 stops the rotation of each rotary reel 40 based on the lottery result of the combination lottery means 110 and the rotation position of the corresponding rotary reel 40 when each stop switch 50 is operated. is there.
Specifically, the stop control means 130 indicates the rotational position of the corresponding rotary reel 40 when each stop switch 50 is operated until the corresponding stop switch 50 is operated after the corresponding index is detected. Rotating from this design with reference to the design that can be immediately stopped on the active line (ie, the rotational position of the rotating reel 40) when the stop switch 50 is operated, while specifying the number of steps of the corresponding stepping motor in between The corresponding rotary reel 40 is stopped within a range up to a symbol that has been moved in a predetermined number (the maximum number of smooth frames, for example, 4 frames).

When the lottery result of the winning lottery means 110 is won for any of the winning combinations, the stop control means 130, when stopping the rotation of each rotary reel 40, the combination of symbols corresponding to the winning combination, With regard to combinations of symbols corresponding to a role other than the winning role as much as possible on any active line, pull-in control and kicking control are performed so that they do not align on any active line. In the case where the lottery result of the combination lottery means 110 is lost, when stopping the rotation of each rotary reel 40, on any effective line, so that the combination of symbols corresponding to any combination is not aligned, Perform kick-off control.
In this embodiment, as a general rule, a single winning flag is established independently, but a plurality of winning flags may be established simultaneously (double winning). In such a case, the stop control means 130 presets which of the plurality of winning combinations is to be preferentially drawn in the pull-in control. Specifically, the stop control means 130 sets the pull-in priority order as “re-game combination”> “bonus combination”> “small combination”. Note that the priority order of pulling in may be set in the order of “re-playing combination”> “small combination”> “bonus combination”.

Further, in the present embodiment, the stop control means 130 includes a stop table in which the stop position of the symbol is determined in advance, and performs the above-described pull-in control and kick-off control using this stop table.
Specifically, the stop control means 130 includes one stop table for each flag state. Here, the flag state is, for example, a state where a plum winning flag is established or a state where a bell winning flag is established.
And, for example, in the `` Plum winning table '' which is a stop table used in the state where the plum winning flag is established, the combination of symbols corresponding to the plum role can be preferentially aligned on the active line, In addition, combinations of symbols corresponding to roles other than the plum role are set so as not to be aligned on the effective line.

The stop control means 130 may include one stop table for each flag state and gaming state. Here, the gaming state is a normal game in which a bonus winning flag is established (internal winning state), or a normal game in which a bonus winning flag is not established (internal non-existing state). Winning state) and RB games.
Further, the stop control means 130 may perform the pull-in control and the kick-off control by program control that performs control while determining whether or not to stop a predetermined symbol.
(Stop symbol judging means 140)
The stop symbol determination means 140 determines whether or not a combination of symbols corresponding to any of the combinations is displayed on any effective line when all the rotation reels 40 have stopped rotating. Control based on the determination result is performed. In other words, when a combination of symbols constituting a predetermined combination is displayed in a stopped state, a signal corresponding to the combination displayed in a stopped state is output.

Specifically, the stop symbol determination means 140 outputs a signal to each control means. Then, for example, the game control means 27 to which the signal relating to the small combination is inputted controls the stored paying means 65 to pay out a predetermined number of medals. In addition, for example, the game control means 27 to which a signal relating to the re-game player is inputted controls the game again. Further, for example, the special game control means 80 to which a signal related to the bonus combination is input starts a special game. More specifically, for example, the special game control means 80 to which a signal related to the BB combination is input starts the BB game.
(Time measuring means 150)
The time measuring means 150 is a so-called timer means for measuring a predetermined time, for measuring various times in carrying out the present embodiment, and having a plurality of timer mechanisms. . For example, a time limit of 4.1 seconds, which is a game limit time, is also measured, and the execution time of the rotation effect by the rotation effect control means 170 and a state where predetermined symbols are arranged in the rotation effect (maintaining a predetermined mode) In this state, the time for the rotation is also measured. Further, it is for counting or counting other various times. The method is based on counting up to a predetermined time, but is not limited thereto, and may be based on counting down from a predetermined time.

Further, the time measuring means 150 as the timer means is formed so as to be able to count a phase shift waiting time and a delay time, which will be described later.
(Pulse counter 320)
The number of pulses (step number) of the pulse signal (step signal) for driving each stepping motor 64 output from the motor drive control means 63 is counted.
The pulse counter 320 is configured to be able to count the number of pulses from the start of rotation of each rotary reel 40 and the number of pulses after the index detection device 48 detects the index 47.

Further, the pulse counter 320 is configured to be able to count the number of pulses from the start of rotation of each rotary reel 40 until the index detection device 48 of each rotary reel 40 detects the index 47. Then, the pulse counter 320 sequentially sends the counted data to the rotation amount detection unit 330 described later as count data.
(Rotation position determination means 161 (rotation position detection means 160))
The rotational position determining means 161 is based on the timing at which the index 47 from the rotational position detecting device 46 passes through the index detecting device 48 and the number of input pulse signals for driving the stepping motor 64 from that point. This is for grasping the current rotational position of the rotary reel 40. The rotational position determination means 161 and the rotational position detection device 46 (index 47 and index detection device 48) constitute a rotational position detection means 160 that detects the rotational position of the rotary reel 40. This makes it possible to recognize in real time the symbols currently passing in the upper and lower upper and lower stages around the predetermined reference position, for example, the middle position of the display window 13, in real time. It will be. The data is formed to be updated to the latest accurate data every time the index 47 passes the index detection device 48. Then, the rotation position data during rotation of the three rotary reels 40 detected by the rotation position determination means 161 is formed so as to be sent to the rotation position determination means 161 during the spinning effect every time it is updated. ing. Here, the data update means that every time the index 47 passes through the index sensor 48, the count of the number of steps based on the number of input pulse signals in the rotational position determination means 161 is reset to 0, and the reference position based on it It means that various data such as are appropriate.

(Rotation amount detection means 330)
The rotation amount detection means 330 can detect the number of pulses for driving each stepping motor 64 counted by the pulse counter 320 from the start of rotation of each rotary reel 40 until each index detection device detects each index 47. It is.
Specifically, the rotation amount detection means 330 calculates the total number of pulses from the start of rotation of each rotary reel 40 counted by the pulse counter 320 until the index detection device 48 detects the index 47 for each rotary reel 40. The amount of rotation is detected.
That is, the rotation amount detection means 330 detects the number of pulses counted by the pulse counter 320 from the start of rotation of each rotary reel 40 to the timing when the index detection device 48 cuts the index 47, and the detected number of pulses is Each rotary reel 40 is stored and maintained as rotation amount data from the start of rotation.

The rotation amount detection means 330 is formed so that a signal notifying the timing of the start of rotation is input to each rotation reel 40 from the rotation control means 250, and the index detection device 48 detects the index 47. A signal for informing the timing is input.
(Pre-rotation stop mode calculation means 340)
The pre-rotation stop mode calculation means 340 is for calculating the stop mode before the rotation of all the rotary reels 40 based on the number of pulses detected by the rotation amount detection means 330.
Pre-rotation stop mode calculation means 340 stores, for each rotating reel 40, symbol data predetermined for each predetermined range of the number of pulses (number of steps) from when index detecting device 48 detects index 47. It has a storage table. That is, the pre-rotation stop mode calculation means 340 stores 21 symbol data predetermined for every 24 pulses (steps) from a predetermined position related to the position of the index 47. This symbol data corresponds to the symbol position drawn on the reel tape 42 used for each rotary reel 40.

  The pre-rotation stop mode calculation means 340 calculates the rotation reel 40 based on the number of pulses counted by the pulse counter 320 from the start of rotation from the rotation amount detection means 330 until the index detection device 48 first detects the index 47. In addition, the stop mode before the start of rotation is calculated. As a result, the stopping mode of all the rotating reels 40 becomes clear, and the relative positions of the three rotating reels 40 (for example, the symbol number X of the middle reel 44, next to the symbol number 1 of the left reel 43, The positional relationship (e.g., the state in which the symbol of symbol number Y of the right reel 45 is arranged) becomes clear. Accordingly, each rotating reel 40 such as the stopping mode stopped in the display window 13 before the rotation starts, and the relative positional relationship (how many frames are shifted) of the symbol “red 7” of each rotating reel 40, etc. All the data regarding the phase difference between them can be grasped.

(Cylinder effect data storage means 210)
The rotation effect data storage unit 210 stores the rotation effect data in which the time of the rotation effect by the rotation effect control unit 170 and the execution contents of the rotation effect are predetermined.
Specifically, data such as the rotation speed of each rotating reel in the spinning effect and the time at the rotation speed are stored in advance.
(Cylinder effect control means 170)
The spinning effect control means 170 delays the progress of the game when it is decided to execute the spinning effect as a result of the lottery effect lottery means 120, and in the effect using the rotary reel 40 in the meantime. A certain spinning effect (rotary reel effect) is executed. The “delay of game progress” at this time is generally called “freeze effect” or the like.

Further, in the present embodiment, the rotation effect control means 170 performs the rotation effect by the rotation effect data obtained from the rotation effect data storage means 210 based on the lottery result of the rotation effect lottery means 120. Shaped to perform.
The rotating effect control means 170 is the position of the symbol “red 7” which is the specific symbol 61a detected by the rotation position detection means 160 (the rotation position determination means 161 and the rotation position detection device 46 (index detection device 48, index 47)). The rotation mode of the predetermined rotary reel 40 is changed so that the specific symbol 61a rotates in the predetermined arrangement mode configured by the plurality of rotary reels 40 when the rotary reels 40 are compared with each other. Thereafter, a rotating effect is produced in which the plurality of rotating reels 40 maintaining the predetermined arrangement are rotated at the same rotational speed. In the present embodiment, the rotation speed of the rotary reel 40 is changed as the rotation mode.

Specifically, the rotating effect control means 170 executes the rotating effect during the times A, B, C, and D in FIGS. 9A and 9B. Here, the first, second, and third rotating reels 40 shown in FIG. 9A are set in order as a left reel 43, a middle reel 44, and a right reel 45, and the middle reel 44 with reference to the left reel 43. The rotation speed of the right reel 45 is changed. However, the present invention is not limited to this, and the right reel 45 and the middle reel 44 may be used as a reference.
Normally, when the spinning reel 40 does not perform the spinning effect, the rotation reel 40 starts rotating from the rotation stop state, increases the rotation speed, and then passes the predetermined time, and then the rotation speed Becomes constant and stable (speed adjustment processing). Such a stable rotation speed is defined as a steady rotation speed, and in this embodiment, the steady rotation speed is set as V1.

First, as shown in FIGS. 9A and 9B, by time T1, the rotational speed of the left reel 43 becomes V3, which is a half of the steady rotational speed, and the rotational speed of the middle reel 44 is The output of the pulse signal is controlled so that the rotation speed of the right reel 45 is V2. Then, the rotational speed of each rotary reel 40 is maintained at the set rotational speed.
Then, the spinning effect control means 170 determines the interval between the specific symbols 61a of the left reel 43 and the right reel 45 (specifically, “Red 7” of the BB role) from the rotational position data from the rotational position determination means 161. The time B until the specific symbol 61a rotates side by side in parallel is calculated from the rotation speed difference (V2-V3) between the left reel 43 and the right reel 45, and is rotated by that time. Then, the spinning effect control means 170 decelerates the rotation speed of the right reel 45 from V2 to V3, and when the time T2 is reached, the symbols “red 7” of the left reel 43 and the right reel 45 are arranged side by side. The pulse signal is controlled so as to rotate in a state where it is disposed in the position. Then, the spinning drum effect control means 170 performs control such that the left reel 43 and the right reel 45 maintain their rotational speed V3 and rotate at the same rotational speed V3 until time T4.

  On the other hand, the rotation effect control means 170 determines the interval between the specific symbols 61a (specifically, “Red 7” of the BB role) of the left reel 43 and the middle reel 44 shown in FIG. Sampled from the rotational position data, the time (B + C) until the specific symbol 61a rotates side by side in parallel is calculated from the rotational speed difference (V3-V4) between the left reel 43 and the middle reel 44. B + C) is rotated at such a speed difference. Then, the rotation effect control means 170 increases the rotation speed of the middle reel 44 from V4 to V3, and when the time T3 is reached, the symbol “red 7” of the left reel 43 and the middle reel 44 is reached. The pulse signal is controlled so as to be rotated in a state where they are arranged side by side. The spinning drum effect control means 170 controls the left reel 43 and the middle reel 44 to rotate at the same rotation speed V3 until the time T4 while maintaining the rotation speed V3.

As a result, the spinning drum effect control means 170 can perform the spinning drum effect of rotating the symbols “red 7” of the three rotary reels 40 side by side from time T3 to T4.
The rotation effect control means 170 is based on the rotation position data of the rotary reel 40 from the rotation position determination means 161 and data such as the rotation speed and the maintenance time stored in the rotation effect data storage means 210. The time etc. are calculated by The calculation calculation is executed while the calculation result is corrected each time the latest rotation position data is updated from the rotation position determination means 161. In other words, the rotation effect control means 170 controls the rotation reel 40 with time lapse information such as a predetermined time calculated from the rotation position and the rotation speed, and the rotation reel 40 input from the rotation position determination means 161. The rotary reel 40 is controlled by both the rotational position information. Note that the rotation effect control means 170 is not limited to this, and may control the rotary reel 40 mainly with predetermined time lapse information, or may control the rotary reel 40 mainly with rotational position information. Good.

For example, the rotating reel 40 is first rotated, and when the index 47 is detected, the current position of the rotating reel 40 is specified, and then only the current symbol position information during rotation is determined, and the determination result is a predetermined symbol position. It is possible to control so as to continue the predetermined rotational speed until it reaches the predetermined position, and to change the rotational speed when the predetermined symbol position is reached.
Alternatively, the stop position in the previous game may be stored, and the amount of rotation until reaching a predetermined symbol position may be calculated with reference to the stop position. However, in this case, the memory of the stop position of the previous game is reset by turning off the power, changing the setting, or operating the reset switch, or the rotating reel 40 is manually moved when the front door 14 is opened, In view of the fact that there may be a situation where the stop mode before the start of rotation of the game differs from this time, the power is cut off, the setting is changed, the front door is opened, or a predetermined error (for example, hopper empty, medal clogging, overflow, It is desirable to set so that the spinning effect is not performed in a game immediately after a backup abnormality in the game control device 21).

Also, for example, the spinning effect control means 170 sets the rotation reel 40 to rotate at a predetermined rotational speed for a predetermined time at the start of the rotating effect. Then, when the timer means of the time measuring means 150 is up, the next process (rotation process at the rotation speed V3) is performed. Therefore, a timer by the timer means of the time measuring means 150 is set, and when a predetermined time elapses (time up) in that state (rotational speed V3) and the time is reached, the process proceeds to speed adjustment processing and the like from there. As described above, the control may be performed mainly by simply determining the passage of time.
Note that, as described above, the rotation effect control means 170 controls the rotation of the rotary reel 40 by the internal calculation means based on the collected various data, but it is not particularly limited to this. Instead, from the first stop position data, a data table in which all the position data and the rotation speed calculated from the position data and the maintenance time thereof are recorded in advance is provided in the rotating effect data storage means 210, The rotating reel 40 may be controlled based on the stop position data and prestored data.

  In addition, here, the state in which the symbols “red 7” of the three rotary reels 40 are arranged side by side at the same rotational speed in order to correspond to the upper stage line L1, the middle stage line L2, and the lower stage line L3 is a predetermined arrangement mode. However, the present invention is not limited to this. For example, in order to correspond to the upper right line L4, the pattern “red 7” that is shifted one by one in the upper right direction may be rotated as a predetermined arrangement mode. Further, in order to correspond to the right-down line L5, a pattern “red 7” arranged in a state of being shifted one by one diagonally down to the right may be rotated as a predetermined arrangement mode. In addition, in the case where other polygonal lines are set, the pattern “red 7” is arranged in an arrangement mode that can recall (correspond to) such polygonal lines. Is also good.

In the present embodiment, the turning effect is performed during the so-called freeze effect period, but a freeze control means is provided separately from the turning effect control means 170 to perform the above-described turning effect. You may form so that only the freeze production which does not perform and delays progress of a game may be implemented.
In the present embodiment, as described above, the rotation speeds of the three rotary reels 40 are different from each other. However, the present invention is not particularly limited to this, and the three rotary reels 40 are in a normal steady rotation operation. The number of pulses until the index detection device 48 cuts the index 47 may be detected by rotating the rotation speed V1 simultaneously at the same rotational acceleration as usual.

(Relocation control means 180)
The rearrangement control means 180 is a symbol “red 7” arranged in a predetermined manner by the spinning effect before the stop operation by the stop switch 50 after the spinning effect by the spinning effect control means 170 is completed. Are to be rearranged randomly. The rearrangement control means 180 in the present embodiment stops all the rotating reels 40 when the spinning effect processing is finished. Then, after a predetermined delay time set for each rotating reel 40 has elapsed, the rotating reels 40 are started to rotate at different timings.
The rearrangement control means 180 includes a delay time lottery means 181 as shown in FIG. The delay time lottery means 181 is for determining a predetermined delay time by lottery. Here, the delay time means the rotation start time of each rotating reel 40 that is stopped in order to disperse the arrangement of symbols arranged in a predetermined manner so that the rotation effect does not assist in pushing. Adjustment time to make it different. The delay time is set to 60 / x [sec] (that is, the time for which the rotating reel 40 makes one rotation) as a maximum value when the number of rotations of the rotating reel 40 at the time of steady rotation is x rotations per minute. be able to. For example, when the number of rotations per minute of the rotating reel 40 is 80, 60/80 = 0.75 [sec] is the maximum delay time. Alternatively, if the number of rotations of the rotating reel 40 during normal rotation is x rotations per minute and the number of symbols displayed on the rotating reel 40 is y, 60 / (x · y) [sec] (that is, The number obtained by multiplying the number of symbols of the rotating reel 40 by the time during which the rotating reel 40 rotates by one symbol) can be set as the maximum value. Also in this method, when the number of rotations of the rotating reel 40 is 80 rotations and the number of symbols is 21, 60/80 · 21 = about 0.0357 (rounded off) multiplied by 21 75 (rounded off) [sec] is the maximum delay time.

The maximum delay time can be set longer or shorter than the above-mentioned time, but the arrangement of the specific symbols can be destroyed, and in order not to unnecessarily lengthen the game time, the rotating reel 40 is set to one time. It is optimal to set the time required for rotation.
Then, the delay time lottery means 181 determines the delay time for each rotating reel 40 by lottery within the range of 0 to 0.75 [sec]. The lottery timing may be a predetermined timing during the game before the rearrangement, for example, when a lottery effect lottery performed in response to an operation of the start switch 30 is won. Or it is good also as a time when a turning effect is completed. Similarly to the role lottery unit 110, the lottery is performed by the random number extraction unit extracting the random number generated by the random number generation unit and comparing the extracted random number value with a predetermined time lottery table. The random number generation means may be shared with that used for the role lottery, or may be provided with random time generation means for delay time lottery.

  The time lottery table is an area in which the range of random numbers generated by the random number generation means is defined as the entire area, and the above-described time of 0 to 0.75 [sec] is divided every predetermined unit time, for example, 0.05 [sec]. Can be defined. As a specific example, an area with a delay time of “0”, an area of “0.05”, an area of “0.1”, an area of “0.15”, an area of “0.75” Are set in an area corresponding to a predetermined random number value. Here, in order to disperse the symbols arranged in a predetermined manner so as not to assist in pushing, the rotation stopped when the symbol of the rotating rotating reel 40 has moved one or more frames. The reel 40 is preferably started to rotate. Therefore, the predetermined unit time described above is the time (0.0357 [sec]) required for the symbol to move by one frame in steady rotation in consideration of the acceleration time from the start of rotation until reaching the steady rotation speed (80 rpm). ) Is set to a longer time.

Then, the delay time lottery means 181 determines the unit time to which the extracted random number value belongs as the delay time of the corresponding rotating reel 40. Specifically, the random number extraction means extracts random numbers corresponding to each of the left reel 43, the middle reel 44, and the right reel 45 at different timings, and compares each extracted random number value with the time lottery table to determine each reel. The delay time corresponding to is specified. The extracted random numbers may be extracted at different timings without being distinguished from those for the left reel 43 and the right reel 45.
Here, in the present embodiment, predetermined measures are taken so that a plurality of delay times determined by lottery do not become the same time. For example, each unit time area of the time lottery table is divided into a plurality of portions and distributed on the table so that the lottery results are different as much as possible even when the extracted random numbers are close. Alternatively, when a plurality of delay times are equal, a lottery result may be corrected by adding or subtracting a predetermined unit time. Alternatively, the table is sequentially compared for the three acquired random numbers, and the area on the table corresponding to the already determined delay time is excluded from the determination symmetry (a table having no determined delay time area is used). May be. As a result of the lottery, since it is rare that the same delay time is set for the plurality of rotating reels 40, the delay time may be simply set for each reel without consideration as described above.

When the delay time for each rotating reel 40 is determined as described above, the result is stored in a predetermined storage unit as delay time data.
Then, the rearrangement control means 180 starts execution of rearrangement control when the turning effect is ended. Specifically, time measurement by the timer of the time measuring means 150 is started for each rotating reel 40, and the timer of the time measuring means 150 measures the time determined for the rotating reel 40 stored in the storage unit. When completed, acceleration processing for the rotating reel 40 is started. As a result, the timing of entering the acceleration process differs for the plurality of rotating reels 40, and as a result, the arrangement of symbols arranged in a predetermined manner is dispersed.

The acceleration process is performed by executing a predetermined acceleration program (acceleration sequence) at the start of rotation that is normally performed, and a constant speed process (maintenance of the steady rotation speed) is performed after the acceleration.
Also, the delay time lottery method is not limited to the one described above. For example, each of the three rotating reels 40 is provided with a plurality of delay time pattern tables in which different delay times are associated, and the delay time is set in any pattern. Whether or not to do so may be determined by lottery. The delay time calculation method and the lottery method can also be applied to the second and fourth embodiments.
(Advantageous game control means 220)
The advantageous game control means 220 controls advantageous games. The advantageous game control means 220 according to the present embodiment displays the information indicating the result of the lottery of the combination lottery means 110 on the display device 68 as an advantageous game, thereby giving the winning small role to the player. A game in which notification is given is performed. Such an advantageous game is called assist time (AT) or the like. This advantageous game is formed so that it can be executed a predetermined number of times by stopping and displaying the advantageous game transition combination on the active line. The player looks at the information displayed on the display device 68 and operates the stop switch 50 at a timing so that the combination of symbols corresponding to the selected small role is stopped on any active line, Compared to the case where there is no notification, a combination of symbols corresponding to a larger number of small roles can be stopped and displayed on the active line, so that a larger number of medals can be obtained. Thereby, the assist time (AT) as an advantageous game is a game that is more advantageous to the player than the normal game.

  Specifically, as shown in FIG. 6, the three-choice role blue 7 (blue 7, plum, plum), the three-choice white 7 (white 7, plum, plum), and the three-choice red 7 ( Red 7, plum, plum). As shown in FIG. 5, in the left reel 43, the symbol “blue 7”, the symbol “white 7”, and the symbol “red 7” have, for example, a maximum retractable range that can be stopped or pulled into the display window 13. In the range of 7 frames, there is only one. For this reason, if any of the three-choice role blue 7, the three-choice role white 7, and the three-choice role red 7 as a small role is elected, the skill is excellent. However, when it is not notified which winning combination is won, the pull-in probability is one third. On the other hand, during AT, it is specified which one of the three-choice role blue 7, the three-choice white 7, and the three-choice red 7 as such a small role is identified and notified to the player. . Thereby, the possibility that the winning symbol can be stopped on the active line is dramatically increased, and the number of medals that can be acquired can be increased.

In this embodiment, the turning effect by the turning effect control means 170 is formed so that it can be executed only during the normal game, and is not executed during the special game and the advantageous game. However, the present invention is not limited to this, and it may be formed so that the turning effect is produced by the turning effect control means 170 even during an advantageous game. Thereby, the notification by the spinning effect is also added, and it is possible to give the player an opportunity to further notify the winning information.
(Production data storage means 230)
The effect data storage means 230 stores effect data of an effect to be executed and execution probability data in which an execution probability that is a probability of executing the effect is predetermined. The execution contents of the effect are configured by display on the display device 68, lighting / flashing of the effect lamp 17, sound generation from the speaker, and the like.

(Production control means 240)
The effect control means 240 executes the effect. In the present embodiment, the effect control means 240 executes the corresponding effect based on the effect data from the effect data storage means 230 based on the result lottery result by the role lottery means 110 based on the result of the effect lottery. It is formed to be possible.
(Operation of gaming machine 10)
The outline of the operation of the gaming machine 10 according to the present embodiment will be described below based on the flowcharts shown in FIGS.

First, the flow of a normal game for the main control process, which is a process in the game control device 21 of the gaming machine 10, will be described.
In step 110 shown in FIG. 10, it is determined whether or not the symbol of the re-gamer is stopped and displayed on the active line in the previous game. Then, if it is determined that the symbol of the re-gamer is stopped and displayed, the process proceeds to step 111, and if it is determined that the stop game is not displayed, the process proceeds to step 112.
In step 112, it is determined whether or not a predetermined number of medals have been bet. If it is determined that a bet has been made, the process proceeds to step 113, where a bet process is performed. If it is determined that a bet has not been made, the process returns to step 112.

In step 111, a replay bet process is performed. Specifically, the medal as a condition for starting the game is automatically inserted without being inserted by the player without reducing the number of credits by the internal control of the gaming machine 10. Then, the process proceeds to step 114.
In step 114, it is determined whether or not the start switch 30 has been operated. If it is determined that the operation has been performed, the process proceeds to the next step 115. If it is determined that the operation has not been performed, the process proceeds to step 114. Return.
In step 115, the role lottery means 110 performs a role lottery process. Then, the process proceeds to the next step 116.

In step 116, the spinning effect lottery process is performed by the spinning effect lottery means 120. In this spinning effect lottery process, the actual lottery is executed only when a predetermined condition is satisfied, and the lottery is not executed when the predetermined condition is not satisfied. Of course, the lottery probability when the condition is not satisfied may be set to 0 and the lottery may be executed in all cases. Then, the process proceeds to next Step 117.
In step 117, the weight control means 190 determines whether or not the time measured by the time measuring means for measuring the wait time is 4.1 seconds or less. If it is determined that the time is 4.1 seconds or less, the process proceeds to step 118. On the other hand, if it is determined that it is not less than 4.1 seconds, that is, it exceeds 4.1 seconds, the process proceeds to step 119.

In step 118, the weight control unit 190 performs weight processing. Then, the process proceeds to next Step 119.
In step 119, based on the lottery result of the reeling effect lottery means 120, it is determined whether or not to perform the spinning effect. If it is determined that the spinning effect is to be performed, the process proceeds to the next step 120. If it is determined that the spinning effect is not to be performed, the process proceeds to step 121.
In step 120, the spinning effect production process is performed by the spinning drum production control means 170. Then, the process proceeds to the next step 121.
In step 121, rearrangement processing is performed by the rearrangement control means 180. Then, the process proceeds to the next step 122.

In step 122, the operation of the stop switch 50 is validated on condition that the index detection device 48 has detected the indexes 47 of all the rotary reels 40. Then, the process proceeds to the next step 123.
In step 123, it is determined whether or not the stop switch 50 has been operated. If it is determined that the stop switch 50 has been operated, the process proceeds to the next step 124. If it is determined that the stop switch 50 has not been operated, the process returns to step 123.
In step 124, stop control of the rotary reel 40 corresponding to the operated stop switch 50 is performed by the stop control means 130. Then, the process proceeds to the next step 125.

In step 125, the game control means 27 determines whether or not all the rotation reels 40 have stopped rotating. Here, if it is determined that the rotation of all the reels 40 has stopped, the process proceeds to step 126. On the other hand, if it is determined that the rotation of all the rotating reels 40 has not stopped, the process returns to step 123.
In step 126, the stop symbol determination means 140 determines whether or not a combination of symbols corresponding to any combination has been stopped and displayed on any effective line. Here, if it is determined that the display is stopped, the process proceeds to step 127. On the other hand, when it is determined that the stop display is not performed, the process ends.

In step 127, the game control means 27 performs a process corresponding to the combination corresponding to the combination of symbols that are stopped and displayed. For example, when a combination of symbols corresponding to any small combination is stopped and displayed, the number of medals corresponding to the combination is paid out. Then, the process ends.
The spinning effect processing in step 120 of FIG. 10 will be described based on the flow of FIG.
In step 211 shown in FIG. 11, the rotation effect control means 170 causes the three rotary reels 40 to start rotating at different rotation speeds, and the timer (freeze timer) of the time measuring means 150 determines a predetermined rotation effect execution time. Start measurement at (freeze time). The rotation effect execution time is set in advance to a time sufficient for executing the rotation effect processing described below. Then, the process proceeds to the next step 212.

In step 212, the rotation start operation is executed in all the reels 40, and the number of pulses until the index 47 passes the index detector 48 is stored in each reel 40. The rotation amount detection means 330 detects and stores the number of pulses counted by the pulse counter 320 from the start of rotation of each rotary reel 40 until each index detection device 48 detects each index 47. Then, the process proceeds to the next step 213.
In step 213, the stop position of the previous game is calculated from the stored number of pulses by the pre-rotation stop mode calculation means 340. Then, the process proceeds to the next step 214.
In step 214, it is determined whether or not the left reel 43 (left cylinder) and the right reel 45 (right cylinder) are designated symbol positions (arrangement modes). Specifically, it is determined whether or not the symbols “red 7” of the left reel 43 and the right reel 45 are rotated side by side based on predetermined time-lapse information and symbol position information. is there. And when it is judged that it is such a symbol position (arrangement mode), it proceeds to the next step 215. On the other hand, if it is determined that the symbol position is not such, the process returns to step 214.

In step 215, the rotation speeds of the left reel 43 and the right reel 45 are adjusted to the same rotation speed V3. Then, the process proceeds to next Step 216.
In step 216, it is determined whether or not the left reel 43 (left cylinder) and the middle reel 44 (middle cylinder) are in the designated symbol position (arrangement mode). Specifically, it is determined whether or not the symbols “red 7” of the left reel 43 and the middle reel 44 are rotated side by side based on predetermined time-lapse information and symbol position information. is there. And when it is judged that it is such a symbol position (arrangement mode), it proceeds to the next step 217. On the other hand, if it is determined that the symbol position is not such, the process returns to step 216.

In step 217, the rotation speeds of the left reel 43 and the middle reel 44 are adjusted to the same rotation speed V3. Then, the process proceeds to next Step 218.
In step 218, as a result, the rotational speed of all the reels 40 becomes a rotational speed V3 that is a half of the steady rotational speed V1. Then, the process proceeds to the next step 219.
In step 219, it is determined whether or not the spinning performance execution time has elapsed. If the rotation effect execution time has elapsed, the rotation effect processing is terminated, and if the rotation effect execution time has not elapsed, the process returns to step 219.

Here, the pattern “red 7” is aligned at the rotational speeds V2, V3, V4 (see FIG. 9), but is not particularly limited to this and is aligned by various rotational speed differences. Is possible.
Although the speed is adjusted in the order of the right reel 45 and the middle reel 44, the order of the rotating reels 40 to be matched is not limited to this, and the speed is adjusted in the order of the middle reel 44 to the right reel 45. May be. This also applies to the case where the reference rotation reel 40 is not the left reel 43 but another rotation reel 40, and the order in which the speeds are adjusted is any of the remaining two rotation reels 40. It can also be formed. Specifically, for example, FIG. 10 is made possible by making the right reel 45 maintain the rotational speed V2 until time T3 and the middle reel 44 maintain the rotational speed V4 until time T2. Further, for example, in FIGS. 9A and 9B, the graph of the right reel 45 and the middle reel 44 are interchanged (the graph of the right reel 45 becomes the middle reel 44, and the graph of the middle reel 44 becomes (It becomes the right reel 45).

  Next, the rearrangement process in step 121 of FIG. 10 will be described based on the flow of FIG. 12 with reference to FIGS. 13 and 22. Here, in the figure, the “first delay time” is the shortest (early) time among the delay times based on the lottery result of the delay time lottery means 181, and the “third delay time” is the longest (late). ) Time, and the “second delay time” is an intermediate time. As described above, since the delay times are adjusted to be different times, the first to third delay times are not equal. The “first cylinder” is the rotating reel 40 to which the first delay time is assigned, and the “second cylinder” and the “third cylinder” are the second delay time and the first delay time, respectively. It is a rotating reel 40 to which three delay times are assigned.

In step 300 shown in FIG. 12, the rotation of all cylinders (all rotating reels 40) is stopped. Then, the process proceeds to the next step 301.
In step 301, a delay time is set. Specifically, delay time data stored in a predetermined storage unit as a lottery result is read and set as measurement times of three timers corresponding to each rotating reel 40 (delay time circle numbers 1 to 3 in FIG. 22). reference). Then, the process proceeds to next Step 302.
In step 302, the three timers of the time measuring means 150 start timing simultaneously.
Then, the process proceeds to next Step 303.

In step 303, the first delay time (the time E in FIG. 13, the time indicated by the circled number 1 in FIG. 22) has ended, that is, the timer measuring the first delay time among the three timers has timed out. It is determined whether or not. When the first delay time has expired, the process proceeds to the next step 304, and when the first delay time has not expired, the process returns to step 303.
In step 304, steady rotation processing of the first cylinder is performed. In the example of FIGS. 13 and 21, the first cylinder is a left cylinder (left reel 43). The steady rotation process is the same as the process at the start of normal rotation, and after the predetermined acceleration program is finished, the steady rotation speed is maintained (constant speed process). These processes are executed by the motor drive control means 63 separately from the subsequent steps (the same applies hereinafter). Then, the process proceeds to the next step 305.

In step 305, it is determined whether or not the second delay time (time F in FIG. 13, time 3 in FIG. 22) has ended. If the second delay time has expired, the process proceeds to the next step 306, and if the second delay time has not expired, the process returns to step 305.
In step 306, steady rotation processing of the second cylinder, specifically, the right cylinder (right reel 45) in the example of FIGS. 13 and 21 is performed. At this time, the specific design (red 7) of the spinning cylinder (left reel 43) that has started rotating earlier and the specific design of the spinning cylinder (right reel 45) on which acceleration processing is performed are at a position one frame or more apart. ing. Then, the process proceeds to next Step 307.
In step 307, it is determined whether or not the third delay time (time G in FIG. 13, time 2 in FIG. 22) has ended. If the third delay time has expired, the process proceeds to the next step 306, and if the third delay time has not expired, the process returns to step 305.

In step 306, steady rotation processing of the third cylinder, specifically, the middle cylinder (middle reel 44) in the example of FIGS. 13 and 22 is performed. At this time, the specific design of the spinning cylinder (left reel 43, right reel 45) that has started rotating earlier and the specific design of the spinning cylinder (middle reel 44) on which acceleration processing is performed are at a position one frame or more apart. ing. Then, the rearrangement process ends.
When the rearrangement process is completed, as described above, the operation of the stop switch 50 is validated on the condition that the indexes are detected for all the rotating reels 40 and the steady rotation is performed.
In the present embodiment, the spinning reel 40 is formed so that the spinning effect is finished while rotating, so that all the rotating reels 40 are stopped in the above-described step 300. When the aspect of the spinning effect is to end with all reels stopped, this step is omitted.

(Action / Effect)
According to the present embodiment, when the spinning effect control means 170 decides to execute the spinning effect as a result of the lottery effect lottery means 120 during the normal game, the stop switch 50 can be operated. During the spinning effect of the rotating reel 40 before the rotation, the speed of the three rotating reels 40 is changed so as to rotate in the predetermined arrangement form in which the symbols “red 7” are arranged side by side in parallel. Specifically, during the time (B + C) between times T1 and T3, the symbols “red 7” of the three rotary reels 40 are aligned. Then, during the time D from the time T3 to the time T4, the three rotary reels 40 are rotated at the rotation speed V3 that is the same rotation speed while maintaining the predetermined arrangement mode. As a result, in the three rotating reels 40, the symbol “red 7”, which is a symbol of the BB role that can shift to the BB game that can give more profits of the player than the normal game, is in a parallel state. It can be rotated in a state aligned with the arrangement mode. In addition, since the rotational speed V3 is a half of the normal rotational speed V1, it can be confirmed more clearly than usual. As a result, a sense of expectation for giving predetermined profits can be obtained.

After that, the rearrangement control means 180 sets the rotation start timing of the three rotary reels 40 so that the rotating rotary reels 40 are stopped from the arrangement mode in which the symbols “Red 7” are arranged in parallel. Change randomly. As a result, the arrangement mode in which the symbols “red 7” are arranged in parallel is destroyed by the sequential rotation of the rotary reel 40, and thus does not assist in pushing. Therefore, even for a player who is skilled in the skill of pressing, the fun of the pressing is not halved and the interest of the game can be improved.
(Second embodiment)
14 and 15 show a second embodiment of the present invention. Note that the basic configuration of the gaming machine 10 in the present embodiment is the same as that in the first embodiment, and therefore will be omitted, and only the feature points of the present embodiment will be described.

(Relocation control means 180)
Similar to the first embodiment, the rearrangement control means 180 in the present embodiment includes a delay time lottery means 181 and can determine a predetermined delay time by lottery. When the spinning effect processing is finished, after all the rotating reels 40 are stopped, the rotating reels 40 are sequentially turned on after waiting for the elapse of a predetermined delay time set for each rotating reel 40. , Start to rotate.
In the present embodiment, the acceleration process for the next rotation reel 40 is started on the condition that a predetermined delay time elapses after the acceleration process for one rotation reel 40 is completed. The order in which the rotating reels start to rotate may be determined in advance or may be determined by lottery.

  In the present embodiment, the delay time may be the same for two or all of the rotating reels 40. This is because even if a uniform delay time is set for all the rotating reels 40, the timing of starting rotation is different, so that the arrangement of specific symbols can be dispersed. Since the delay time itself is set at random, it cannot be predicted how much the symbols of each reel will deviate. However, if it is formed so as to always set the same delay time, the three rotating reels 40 can be determined by determining the degree of symbol misalignment between the first rotating reel 40 that starts rotating and the second rotating reel 40 that starts rotating. It is preferable not to set the same delay time because it is possible to know how many frames the specific symbol is rotated and to measure the timing.

The rearrangement processing by the rearrangement control means 180 in the present embodiment will be described based on the flow of FIG. 14 with reference to FIGS. Here, in the figure, the “first cylinder” is the rotary reel 40 that is set to start rotating first, and the “second cylinder” and “third cylinder” are the second reel, respectively. The rotary reel 40 is set to start rotation third. The first delay time is a time until the second cylinder is started to rotate, and the second delay time is a delay time set as a time until the third cylinder is started to rotate. The delay time is a delay time set as a time until the stop operation is validated.
In step 400 of FIG. 14, the rotation of all the cylinders (all the rotating reels 40) is stopped. Then, the process proceeds to the next step 401.

In step 401, a delay time is set. Specifically, the delay time data stored in a predetermined storage unit as a lottery result is read and set as a timer measurement time (see delay time circle numbers 1 to 3 in FIG. 23). In this embodiment, the timer may be independent. Then, the process proceeds to the next step 402.
In step 402, acceleration processing is performed for the first cylinder, specifically, the left cylinder (left reel 43) in the examples of FIGS. Then, the process proceeds to next Step 403.
In step 403, when the acceleration process ends, the process shifts to a constant speed process, and the timer starts time measurement. Then, the process proceeds to next Step 404.

In step 404, it is determined whether or not the first delay time (the time E in FIG. 15 and the time indicated by the circled number 1 in FIG. 23) has ended. If the first delay time has expired, the process proceeds to the next step 405. If the first delay time has not expired, the process returns to step 404.
In step 405, acceleration processing of the second cylinder, specifically, the intermediate cylinder (medium reel 44) in the example of FIGS. 15 and 23 is performed. At this time, the specific symbol (red 7) of the rotating cylinder (left reel 43) that has started rotating earlier and the specific symbol of the rotating cylinder (middle reel 44) on which acceleration processing is performed are at a position one or more frames away. ing. Then, the process proceeds to next Step 406.
In step 406, when the acceleration process ends, the process shifts to the constant speed process, and the timer starts measuring time. Then, the process proceeds to next Step 407.

In step 407, it is determined whether or not the second delay time (time F in FIG. 15, time 2 in FIG. 23) has ended. If the second delay time has expired, the process proceeds to the next step 408. If the second delay time has not ended, the process returns to step 407.
In step 408, acceleration processing of the third cylinder, specifically, the right cylinder (right reel 45) in the examples of FIGS. 15 and 23 is performed. At this time, the specific design of the spinning cylinder (left reel 43, middle reel 44) that has started rotating earlier and the specific design of the spinning cylinder (right reel 45) on which acceleration processing is performed are at a position one frame or more apart. ing. Then, the process proceeds to next Step 409.
In step 409, when the acceleration process ends, the process shifts to the constant speed process, and the timer starts time measurement. Then, the process proceeds to next Step 410.

In step 410, it is determined whether or not the third delay time (G time in FIG. 15, time 3 in FIG. 23) has ended. When the third delay time is over, the rearrangement process is finished, and when the third delay time is not over, the process returns to step 410.
The measurement start at step 409 and the determination at step 410 may be omitted. In other words, no delay time is provided for the third cylinder, and when all the three rotating reels 40 have reached steady rotation (acceleration processing has been completed for all cylinders), the rearrangement process is immediately terminated. It may be formed. However, for example, when the rotation start order after stopping the rotation is fixed to the left, middle, and right, and it is set to perform normal acceleration processing after the rearrangement, For example, if the condition to be performed is when winning the role of “ANY / ANY / Cherry” (only the right reel 45 needs to be pressed), by providing the third delay time as described above, The time from when the right reel 45 starts accelerating until the cherry symbol enters the effective line pull-in range can be made unpredictable. Therefore, it is optimal to set a delay time after the final stop in order to make sure that the rotation effect does not serve as an aid.

(Action / Effect)
Also according to this embodiment, the same effect as that of the first embodiment can be obtained. In addition, in the present embodiment, the delay time of the rotating reel 40 to be rotated next is measured after the acceleration processing of the rotating reel 40 that has started to rotate first is completed. Even if it is shorter than the time for moving the frame (even if it is 0), the position of the specific symbol of the rotating reel 40 that has started to rotate first can always be one or more frames away (it must be 1 before the acceleration process is completed). Rotate more than a frame).
Note that the measurement start timing of the delay time may be set simultaneously with the acceleration process (that is, when the rotation of the rotary reel 40 is started). In this case, the delay time needs to be set longer than the time required for the acceleration process (acceleration time). In this case, the delay time lottery is performed within the range from the acceleration time to a predetermined maximum delay time (0.75 [sec]), or the time measuring means 150 determines the delay time determined by the lottery. + It can be formed to measure acceleration time.

(Third embodiment)
16, 17 and 24 show a third embodiment of the present invention. Note that the basic configuration of the gaming machine 10 in the present embodiment is the same as that in the first embodiment, and therefore will be omitted, and only the feature points of the present embodiment will be described.
(Relocation control means 180)
In the present embodiment, the rearrangement control means 180 is before the rotation start calculated by the stop rotation calculation means 340 before rotation after the rotation effect by the rotation effect control means 170 and before the stop operation by the stop switch 50 is enabled. The rotation of the rotary reel 40 is stopped so that the stop mode is displayed on the display window 13. Then, again, the rearrangement control means 180 rotates all the rotating reels 40.

Then, the gaming machine 10 according to the present embodiment stops the rotation of the rotary reel 40 so that the stop state before the rotation start is displayed on the display window 13 by the rearrangement control means 180, and then, again, all the rotations After the reel is rotated, the stop switch 50 can be used to perform a stop operation (see FIG. 24).
Specifically, as shown in FIG. 16, the rearrangement control unit 180 is configured to stop the rotation before starting the rotation after the rotation effect by the rotation effect control unit 170 and before the stop operation by the stop switch 50 is enabled. Is temporarily stopped in order so that is displayed on the display window 13.
Then, the rearrangement control means 180 then rotates all the rotating reels 40 again at a steady rotational speed (see FIG. 24). As shown in FIG. 16, the temporary stop time E is a time from when the rotation of all the rotary reels 40 is stopped until the rotation is started again, and this time is returned to the stop mode before the start of the rotation. It can be set so that the player can recognize (for example, 1 second). For example, it may be set by lottery, or may be always set to the same preset time every time. In the present embodiment, the time E for stopping once is set in advance.

The gaming machine 10 according to the present embodiment temporarily displays the stop mode before the start of rotation on the display window 13 after the spinning effect, and then rotates all the rotating reels 40 so as to reach the steady rotational speed again. After that, the stop operation by the stop switch 50 is made possible. The timing at which the operation of the stop switch 50 is validated may be the time when the index detection device 48 detects the index 47 after all the rotating reels 40 have started to rotate again and have reached the steady rotational speed.
The rearrangement control means 180 in the present embodiment stops the left reel 43 first, then stops the middle reel 44, and finally stops the right reel 45 after the turning effect by the turning effect control means 170. .

The rearrangement control means 180 first determines the rotation of the left reel 43 calculated by the pre-rotation stop mode calculation means 340 based on the current rotation position of the left reel 43 at the end of the spinning effect specified by the rotation position determination means 161. The number of steps until the stop position (stop mode) before the start of rotation is specified.
Then, the rearrangement control unit 180 stops the rotation of the left reel 43 when the left reel 43 is rotated by the specified number of steps.
Next, when the left reel 43 is stopped, the rearrangement control means 180 is set to the current rotation position of the middle reel 44 at the end of the turning effect specified by the rotation position determination means 161, as with the left reel 43. Based on this, the number of steps up to the stop position before the start of rotation of the middle reel 44 calculated by the stop mode calculation means 340 before rotation is specified, and the rotation of the middle reel 44 is performed when the middle reel 44 rotates by the specified number of steps. Stop.

Finally, with the stop of the middle reel 44, the rearrangement control unit 180, as with the left reel 43, sets the current rotation position of the right reel 45 at the end of the turning effect specified by the rotation position determination unit 161. Based on this, the number of steps up to the stop position before the start of rotation of the right reel 45 calculated by the stop mode calculation means 340 before rotation is specified, and when the right reel 45 rotates by the specified number of steps, the rotation of the right reel 45 Stop.
Then, the rearrangement control means 180 starts all the rotating reels 40 simultaneously after all the rotating reels 40 are temporarily stopped and a preset time for temporarily stopping has elapsed (see FIG. 24).

The rearrangement control means 180 calculates the time until the rotating reel 40 is stopped based on the identified number of steps until the stop position before the start of rotation. You may make it stop.
Further, the order of stopping is not limited to this. For example, it may be determined by lottery. Further, for example, the rearrangement control means 180 specifies the number of steps to the stop position before the start of rotation for each rotary reel 40 at the end of the spinning effect, and the specified number of steps is small (the stop position before the start of rotation). May be stopped in order from the rotary reel 40.

Further, the rearrangement control means 180 stops each rotary reel 40 at the stop position before the start of rotation based on the stop position before the start of rotation (before the start of the spinning effect) calculated by the stop mode calculation means 340 before the rotation. However, it is not limited to this. For example, the amount of rotation (number of steps or number of pulses) of each rotating reel 40 rotated until the end of the spinning effect is stored, and based on the stored amount of rotation of each rotating reel 40, before the rotation starts. Each rotary reel 40 may be stopped at the stop position.
Further, the relocation control means 180 may start rotation in order, for example, when rotating the rotary reel 40 again after the time to temporarily stop has elapsed.

Further, the rearrangement control means 180, like the spinning drum effect control means 170, is time-lapse information such as a predetermined time calculated from the rotational position and rotational speed for controlling the rotary reel 40, and rotational position determination means. The rotary reel 40 may be controlled with both the rotational position information of the rotary reel 40 that enters from 161.
Further, as described above, the rearrangement control means 180 controls the rotation of the rotary reel 40 by the internal calculation means based on the collected various data, but is not particularly limited to this. A data table in which all the position data and the rotation speed calculated from the position data and the maintenance time thereof are recorded in advance is provided in the rotating effect data storage means 210, and the initial stop position data and pre-stored data are provided. The rotary reel 40 may be controlled based on the above.

(Relocation processing by the relocation control means 180)
Hereinafter, the rearrangement process according to the present embodiment will be described based on the flowchart shown in FIG.
In step 500 shown in FIG. 17, the current rotation position of the left reel 43 is specified by the pre-rotation stop mode calculation means 340. Then, the process proceeds to the next step 501.
In step 501, the rearrangement control means 180 specifies the number of steps up to the stop position before the left reel 43 starts to rotate. Then, the process proceeds to the next step 502.
In step 502, it is determined whether or not the left reel 43 has rotated by the specified number of steps. If it has rotated by the specified number of steps, it proceeds to the next step 503, and if it has not rotated, it returns to step 502.

In step 503, the rotation of the left reel 43 is stopped. Then, the process proceeds to the next step 504.
In step 504, the current rotation position of the middle reel 44 is specified by the pre-rotation stop mode calculation means 340. Then, the process proceeds to the next step 505.
In step 505, the rearrangement control means 180 specifies the number of steps up to the stop position before the rotation of the middle reel 44. Then, the process proceeds to next Step 506.
In step 506, it is determined whether the middle reel 44 has rotated by the specified number of steps. If it has rotated by the specified number of steps, it proceeds to the next step 507, and if it has not rotated, it returns to step 506.

In step 507, the rotation of the middle reel 44 is stopped. Then, the process proceeds to the next step 508.
In step 508, the current rotation position of the right reel 45 is specified by the pre-rotation stop mode calculation means 340. Then, the process proceeds to the next step 509.
In step 509, the rearrangement control means 180 specifies the number of steps to the stop position before the right reel 45 starts to rotate. Then, the process proceeds to next Step 510.
In step 510, it is determined whether or not the right reel 45 has rotated by the specified number of steps. If it has rotated by the specified number of steps, it proceeds to the next step 511, and if it has not rotated, it returns to step 510.

In step 511, the rotation of the right reel 45 is stopped. Then, the process proceeds to next Step 512.
In step 512, the time for temporarily stopping is set. Specifically, the stored time data is read out and set as a timer measurement time, and the timer starts time measurement. Then, the process proceeds to next Step 513.
In step 513, it is determined whether or not the set time for temporary stop has elapsed. If it has elapsed, the process proceeds to the next step 514, and if it has not elapsed, the process returns to step 513.

In step 514, a steady rotation process is performed on all the reels 40. Then, the process ends.
In the above flow, the rotary reels 40 are stopped in the order of left, middle, and right. However, the current rotational position of each rotary reel 40 is specified (steps 500, 504, and 508) and stopped before the rotation starts. Each process of specifying the number of steps to the position (steps 501, 505, 509), determining the number of rotation steps (steps 502, 506, 510), and stopping the rotation (steps 503, 507, 511) is performed simultaneously. May be. When formed in this way, the rotation is sequentially stopped from the rotating reel 40 whose rotation amount has reached a predetermined number of steps.

(Action / Effect)
According to the present embodiment, the rearrangement control means 180 changes the rotating reel 40 during rotation from the arrangement mode in which the symbols “red 7” are arranged in parallel to the stop mode before starting the rotation after the rotation effect. Then, the rotation of all the rotating reels 40 is temporarily stopped as displayed in the display window 13. This allows the player to recognize that the stop position of the rotary reel 40 has returned to the stop mode before the start of rotation.
Then, the rearrangement control means 180 rotates all the rotating reels 40 again after being temporarily stopped.

As a result, the arrangement mode in which the symbols “red 7” are arranged in parallel is collapsed during the rotation of the rotary reel 40 and becomes a stop mode before the start of rotation, so that there is no assistance for pushing. Therefore, even for a player who is skilled in the skill of pressing, the fun of the pressing is not halved and the interest of the game can be improved.
Furthermore, in the present embodiment, the stop mode before the start of rotation is detected by grasping the amount of rotation from the start of rotation of the rotary reel 40 of the current game. Therefore, the front door 14 is opened or the power switch 6 of the power supply device 5 between the end of the previous game and the start of the game of the current game, as compared to storing the stop mode of the previous game. Even if a situation in which the stop mode of the previous game differs from the stop mode before the start of rotation of the current game occurs due to various operations such as operating the reset switch or operating the reset switch, the rotation of the current game starts. It is not affected at all by the spinning effect using the previous stop mode. Thereby, a natural spinning effect can be implemented.

  In this embodiment, after the spinning effect, all the rotating reels 40 are temporarily stopped, and after that, all the rotating reels 40 start to rotate again and rotate at the steady rotational speed V1. The operation of the stop switch 50 may be validated after the delay time has elapsed. Here, the delay time is for preventing the rotation effect from assisting the eyeball. Specifically, after the rotation effect, all the rotating reels 40 are temporarily stopped, and then again, After rotating all the rotating reels 40, the time from when all the rotating reels 40 are rotated at the steady rotational speed V1 until the operation of the stop switch 50 becomes effective is different every time the spinning effect is performed. It is for doing so.

The delay time calculation method and the lottery method can be performed in the same manner as in the first embodiment, or can be performed differently. For example, the maximum delay time can be arbitrarily set, and each time a lottery is performed, the maximum delay time can be arbitrarily set (for example, by lottery).
In this way, since the time until the stop operation by the stop switch becomes possible after the rotation effect is random every time the rotation effect is performed, the rotation effect is more reliable as an aid to the crowd. It can be avoided.
Further, in the present embodiment, stop mode storage means for storing the stop mode at the end of the previous game is provided, and the rearrangement control means 180 is stopped by the stop switch 50 after the rotation effect by the rotation effect control means 170. Before the operation becomes possible, the rotation of the rotary reel 40 is stopped so that the stop mode at the end of the previous game stored in the stop mode storage means is displayed in the display window 13, and then all rotations are performed again. The reel 40 may be rotated.

The stop mode at the end of the previous game can be specified based on the determination by the stop symbol determination means 140, the stop control by the stop control means 130, or the like.
(Modification of the third embodiment)
18 and 19 show a modification of the third embodiment of the present invention. Note that the basic configuration of the gaming machine 10 in the present embodiment is the same as that in the first embodiment, and therefore will be omitted, and only the feature points of the present modification will be described.
(Relocation control means 180)
In the present embodiment, the rearrangement control means 180 is before the rotation start calculated by the stop rotation calculation means 340 before rotation after the rotation effect by the rotation effect control means 170 and before the stop operation by the stop switch 50 is enabled. The rotation mode of the predetermined rotary reel 40 is changed so that the stop mode rotates in a state where it can be displayed on the display window 13. Thereafter, the rearrangement control means 180 simultaneously stops the rotation of all the rotary reels 40 so that the stop mode before the start of rotation is displayed on the display window 13. Thereafter, again, the rearrangement control means 180 rotates all the rotating reels 40.

Then, the gaming machine 10 according to the present embodiment stops the rotation of all the rotating reels at the same time so that the stop mode before starting the rotation is displayed on the display window 13 by the rearrangement control means 180, and then all again After the rotating reel is rotated, a stop operation by the stop switch 50 is made possible.
Specifically, the rearrangement control means 180 is configured so that the rotation reels 40 are partially or wholly rotating after the rotation effect by the rotation effect control means 170 and before the stop operation by the stop switch 50 is enabled. When comparing the position of the specific symbol 61a at a predetermined timing with each other, the interval from the position of the specific symbol 61a of the predetermined rotating reel 40 to the position of the specific symbol 61a of the other rotating reel 40 is equal to or more than the predetermined number of symbols, By being in the separated position, the rotation mode of a part or all of the rotary reels 40 is changed so that the stop mode before the start of rotation rotates in a state in which the display mode can be displayed.

The rearrangement control means 180 then temporarily stops the rotation of all the rotating reels 40 that are rotating in a rearranged manner so that the stop mode before the start of rotation is displayed on the display window 13, and thereafter Again, all the rotating reels 40 are rotated so as to have a steady rotational speed.
The rearrangement control unit 180 rotates the symbol “red 7” so that the stop mode before the rotation calculated by the stop mode calculation unit 340 before rotation can be displayed on the display window 13 in a state where it can be displayed on the display window 13. Calculate how many frames of “Red 7” need to be shifted between the rotating reels 40. Specifically, for the relationship between the left reel 43 and the middle reel 44, it is calculated how many frames need to be shifted by changing the rotation speed during rotation, or how many frames are required for so-called phase shift. Similarly, regarding the relationship between the middle reel 44 and the right reel 45, it is calculated how many frames need to be shifted or how many so-called phase shifts are necessary by changing the rotation speed during rotation. Then, the rotational speed difference between the two rotating reels 40 to be compared, specifically, in the present embodiment, the rotational speed difference when rotating at the steady rotational speed V1 and the half rotational speed V3 is A time for generating a phase difference of one frame at a certain time is calculated in advance.

As an outline of the calculation method, the phase shift waiting time between the left reel 43 and the middle reel 44 is the product of the time for generating a phase difference of one frame and the number of frames to be shifted (number of phase shift frames). It is approximately calculated. Similarly, the phase shift waiting time between the middle reel 44 and the right reel 45 is calculated in the same manner.
Note that the calculation time may be calculated by dividing the number of frames to be shifted by the difference between the rotational speeds (V1−V3) of the two rotating reels 40 to be examined.
As shown in FIGS. 9A, 9B, and 18, the rotational speed of the left reel 43 is increased at time T4 to a rotational speed V1 that is a steady rotational speed. Then, this state is maintained for the time E of the phase shift between the left reel 43 and the middle reel 44 described above. That is, the rotational speed difference (V1−V3) state is maintained for the phase shift time E, which is the time for the symbol “red 7” between the left reel 43 and the middle reel 44 to be separated by a predetermined number of frames (n frames). become. At time T5, the symbol “red 7” has a phase shift of n frames between the left reel 43 and the middle reel 44.

  Then, as shown in FIG. 18, at time T5, the rotation speed of the middle reel 44 is increased from V3 to V1. In this state, this state is maintained for the phase shift time F between the middle reel 44 and the right reel 45 described above. That is, the rotational speed difference (V1-V3) state is maintained for the phase shift time F, which is the time for the symbol “red 7” between the middle reel 44 and the right reel 45 to be separated by a predetermined number of frames (m frames). As a result, at time T6, the symbol “red 7” of the middle reel 44 and the right reel 45 is in a state of being separated by m frames, which is the number of frames shifted in phase. At time T6, the rotation speed of the right reel 45 is increased from V3 to V1. As a result, all the rotation reels 40 can be rotated in a state in which the stop mode before the start of rotation can be displayed on the display window 13.

Thereafter, all the rotating reels 40 are simultaneously stopped so that the stop mode before the start of rotation is displayed in the display window 13. This can be done by specifying the number of steps from the current rotation position of the rotary reel 40 to the stop position before the rotation starts, as in the third embodiment.
Here, when the symbol “red 7” of the two rotating reels 40 is separated by n frames, the state where the two rotating reels 40 are arranged side by side and the symbol “red 7” is counted as 0 frames, and one is 1 When it rotates by one frame, it counts as one frame apart, and when one rotates by two frames, it counts as two frames apart, and repeats similarly, and when one rotates n frames, two reels Forty symbols “Red 7” count as n frames away. In other words, in the state where n frames are separated, compared to the state where both symbols “red 7” are arranged side by side, the symbol “red 7” moved from the symbol “red 7” in which the symbols are arranged side by side, It means a state where n-1 symbols exist.

Here, the rearrangement control means 180 mainly controls the rotating reel 40 with predetermined time lapse information, but is not limited thereto, and may control the rotating reel 40 mainly with rotational position information. Further, the rearrangement control means 180, like the spinning drum effect control means 170, is time-lapse information such as a predetermined time calculated from the rotational position and rotational speed for controlling the rotary reel 40, and rotational position determination means. The rotary reel 40 may be controlled with both the rotational position information of the rotary reel 40 that enters from 161.
As described above, the rearrangement control unit 180 controls the rotation of the rotary reel 40 by the internal calculation unit based on the collected various data, but is not particularly limited to this. A data table in which all the position data and the rotation speed calculated from the position data and the maintenance time thereof are recorded in advance is provided in the rotating effect data storage means 210, and the initial stop position data and pre-stored data are provided. The rotary reel 40 may be controlled based on the above.

(Relocation processing by the relocation control means 180)
Hereinafter, the rearrangement process according to the present embodiment will be described based on the flowchart shown in FIG.
In step 600 shown in FIG. 19, the rearrangement control means 180 causes the phase difference between the left reel 43 and the middle reel 44 at the end of the spinning effect and the stop mode before the rotation calculated by the pre-rotation stop mode calculation unit 340. To set the phase shift waiting time. This is because the number of frames to be shifted is determined by the data of the current phase difference and the stop mode before the start of rotation, and the time for generating a phase corresponding to one frame at a predetermined rotational speed difference in the number of frames to be shifted. By multiplying, the phase shift waiting time is calculated. Then, the process proceeds to Step 601.

In step 601, the left reel 43 is rotated at a steady rotation speed. Then, the process proceeds to the next step 602.
In step 602, the rearrangement control means 180 determines whether or not the phase shift waiting time has ended. When the phase shift waiting time has ended, the process proceeds to the next step 603, and when the phase shift waiting time has not ended, the process returns to step 602.
In step 603, the rearrangement control means 180 uses the phase difference between the middle reel 44 and the right reel 45 at the end of the spinning effect and the stop mode before the rotation calculated by the stop mode calculation unit 340 before the rotation. Set the shift waiting time. This is because the number of frames to be shifted is determined by the data of the current phase difference and the stop mode before the start of rotation, and the time for generating a phase corresponding to one frame at a predetermined rotational speed difference in the number of frames to be shifted. Is applied to calculate the phase shift waiting time. Then, the process proceeds to Step 604.

In step 604, the middle reel 44 is rotated at a steady rotational speed. Then, the process proceeds to the next step 605.
In step 605, the rearrangement control means 180 determines whether or not the phase shift waiting time has ended. When the phase shift waiting time has ended, the process proceeds to the next step 606, and when the phase shift waiting time has not ended, the process returns to step 605.
In step 606, the right reel 45 is rotated at a steady rotational speed. Then, the process proceeds to Step 607.
In step 607, the rotation of all the rotary reels 40 is stopped. Then, the process proceeds to Step 608.

In step 608, a time for temporarily stopping is set. Specifically, the stored time data is read out and set as a timer measurement time, and the timer starts time measurement. Then, the process proceeds to next Step 609.
In step 609, it is determined whether or not the set time for temporary stop has elapsed. If it has elapsed, the process proceeds to the next step 610, and if it has not elapsed, the process returns to step 609.
In step 610, the steady rotation processing of all the rotary reels 40 is performed. Then, the process ends.

Even with such a configuration, the same operational effects as the third embodiment can be obtained.
In the present embodiment, as in the third embodiment, after the spinning effect, all the rotating reels 40 are temporarily stopped, and then all the rotating reels 40 start to rotate again. The operation of the stop switch 50 may be validated after a delay time has elapsed since the rotation at the rotation speed V1.
Further, the rearrangement control means 180 temporarily stops all the rotating reels 40 simultaneously after the spinning effect, but is not limited to this, and temporarily stops one or two rotating reels 40 at a time. May be.

Further, in the present embodiment, stop mode storage means for storing the stop mode at the end of the previous game (stop position of each rotary reel 40) is provided, and the rearrangement control means 180 is operated by the rotation effect control means 170. After the trunk effect, before the stop operation by the stop switch 50 is enabled, the stop mode at the end of the previous game stored in the stop mode storage means is rotated so that it can be displayed on the display window 13. The rotation mode of the rotary reels 40 is changed, and then the rotation of all the rotary reels 40 is stopped at the same time so that the stop mode before the start of rotation is displayed in the display window 13. You may make it rotate.
(Fourth embodiment)
20, FIG. 21 and FIG. 25 show a fourth embodiment of the present invention. Note that the basic configuration of the gaming machine 10 in the present embodiment is the same as that in the first embodiment, and therefore will be omitted, and only the feature points of the present embodiment will be described.

(Relocation control means 180)
In the present embodiment, the rearrangement control means 180 is before the rotation start calculated by the stop rotation calculation means 340 before rotation after the rotation effect by the rotation effect control means 170 and before the stop operation by the stop switch 50 is enabled. The rotation mode of the predetermined rotary reel 40 is changed so that the stop mode rotates in a state where it can be displayed on the display window 13. After that, the rearrangement control means 180 rotates the plurality of rotary reels 40 at the steady rotational speed V1 in a state where the stop mode before the start of rotation can be displayed on the display window 13.
Then, the gaming machine 10 according to the present embodiment delays after the rotation reel 40 is rotated at the steady rotation speed V1 in a state where the stop mode before the rotation can be displayed on the display window 13 by the rearrangement control means 180. After the elapse of time, the stop switch 50 can be used to perform a stop operation (see FIG. 25).

The rearrangement control means 180 in the present embodiment changes the rotational speeds of all the rotary reels 40 so as to be different from each other so that the stop mode before the rotation starts can be displayed in the display window 13.
As shown in FIG. 20, when the rotational speeds of the three rotary reels 40 that have been rotated at the same rotational speed V3 are rotated from time T4, respectively, and when time T5 is reached, When the symbol “red 7” between the middle reel 44 indicated by the alternate long and short dash line and the left reel 43 indicated by the solid line is separated by a predetermined number of frames as in the stop mode before the start of rotation, The symbol “red 7” between the right reel 45 indicated by the dotted line and the middle reel 44 indicated by the alternate long and short dash line is in a state of being separated by a predetermined number of frames as in the stop mode before the start of rotation. Then, all three rotary reels 40 simultaneously increase in rotational speed from time T6, and reach steady rotational speed V1 at time T7. And when time G (delay time) passes and time T8 is reached | attained, it is formed so that operation of the stop switch 50 becomes effective. The mode of changing the rotation speed is not limited to this, and the arrangement mode in which the pattern “red 7” is aligned is separated by a predetermined number of frames or more in the same manner as the stop mode before starting the rotation. As long as it can be rearranged, other rotational speed changes may be used.

The delay time lottery means 181 in the present embodiment determines one delay time within the range of the maximum delay time.
Here, the delay time in the present embodiment is for keeping the time from the start of the rotation effect until the stop operation becomes effective, specifically, after the rotation effect, Every time a rotation effect is performed until the operation of the stop switch 50 becomes effective after the plurality of reels 40 are rotated at the steady rotation speed V1 in a state in which the stop mode before the start of rotation can be displayed on the display window 13. It is intended to be different.
The delay time calculation method and the lottery method can be performed in the same manner as in the first embodiment, or can be performed differently. For example, the maximum delay time can be arbitrarily set, and each time a lottery is performed, the maximum delay time can be arbitrarily set (for example, by lottery).

(Relocation processing by the relocation control means 180)
Hereinafter, the rearrangement processing according to the present embodiment will be described based on the flowchart shown in FIG.
In step 700 shown in FIG. 21, the rearrangement control means 180 causes the phase difference between the left reel 43 and the middle reel 44 at the end of the spinning effect and the stop mode before the rotation calculated by the pre-rotation stop mode calculation unit 340. To set the phase shift waiting time. This is because the number of frames to be shifted is determined by the data of the current phase difference and the stop mode before the start of rotation, and the time for generating a phase corresponding to one frame at a predetermined rotational speed difference in the number of frames to be shifted. Is applied to calculate the phase shift waiting time. Then, the process proceeds to step 701.

In step 701, the rearrangement control means 180 determines the phase according to the phase difference between the middle reel 44 and the right reel 45 at the end of the spinning effect and the stop mode before the rotation calculated by the stop mode calculation unit 340 before the rotation. Set the shift waiting time. This is because the number of frames to be shifted is determined by the data of the current phase difference and the stop mode before the start of rotation, and the time for generating a phase corresponding to one frame at a predetermined rotational speed difference in the number of frames to be shifted. Is applied to calculate the phase shift waiting time. Then, the process proceeds to step 702.
In step 702, the rotational speeds of all the rotary reels 40 are changed to be different from each other. Then, the process proceeds to next Step 703.

In step 703, the rearrangement control means 180 determines whether or not the phase shift waiting time has ended. When the phase shift waiting time has ended, the process proceeds to the next step 704, and when the phase shift waiting time has not ended, the process returns to step 703.
In step 704, the rotational speed of the middle reel 44 for which the phase shift waiting time has ended is decreased, and the left reel 43 and the middle reel 44 are rotated at a rotational speed V2 that is lower than the rotational speed V1, which is the steady rotational speed. It may be rotated at a steady rotational speed. Then, the process proceeds to Step 705.
In step 705, the rearrangement control means 180 determines whether or not the remaining phase shift waiting time has ended. When the phase shift waiting time has ended, the process proceeds to the next step 706, and when the phase shift waiting time has not ended, the process returns to step 705.

In step 706, the rotational speed of the right reel 45 whose phase shift waiting time has ended is decreased, and all the rotational reels 40 are rotated at the rotational speed V2. Then, the process proceeds to Step 707.
In step 707, a delay time is set. Specifically, delay time data stored in a predetermined storage unit as a lottery result is read and set as a timer measurement time. Then, the process proceeds to next Step 708.
In step 708, acceleration processing of all the rotating reels 40 is performed. Then, the process proceeds to next Step 709.

In step 709, when the acceleration process ends, the process shifts to a constant speed process, and the timer starts time measurement. Then, the process proceeds to next Step 710.
In step 710, it is determined whether the delay time has expired. Here, when the process is finished, the process is finished. When the process is not finished, the process returns to Step 710.
(Action / Effect)
According to the present embodiment, the rearrangement control means 180 changes the rotating reel 40 that is rotating after the rotation effect from the arrangement mode in which the symbols “red 7” are arranged in parallel to the stop mode before starting the rotation. The rotational speed of the three rotary reels 40 is changed. Then, while maintaining that state, the vehicle is accelerated and rotated at a constant rotational speed at a steady rotational speed. Then, after the delay time has elapsed since the rotation at the constant speed, the operation of the stop switch 50 is enabled.

In the present embodiment, even if no delay time is provided, the arrangement mode in which the symbols “red 7” are arranged in parallel is collapsed during the rotation of the rotary reel 40 until the operation of the stop switch 34 becomes effective. Since it becomes a stop mode before the start of rotation, there is no assistance in pushing. However, by providing the delay time, the time from the start of the spinning effect until the stop operation becomes valid can be made random, which is more effective.
In the present embodiment, the rearrangement control unit 180 may temporarily stop the rotation of the rotary reel 40 so as to be in the stop mode before starting the rotation, and then rotate again. In this case, it can be stopped for a predetermined time so that the player can recognize that he has returned to the stop mode before the start of rotation, and so that the player cannot recognize that he has returned to the stop mode before the start of rotation. You can also stop for a moment. In addition, the stop mode before the start of rotation can be stopped and displayed on the display window.

Further, in the present embodiment, stop mode storage means for storing the stop mode at the end of the previous game (stop position of each rotary reel 40) is provided, and the rearrangement control means 180 is operated by the rotation effect control means 170. After the trunk effect, before the stop operation by the stop switch 50 is enabled, each rotating reel is set so that the stop mode at the end of the previous game stored in the stop mode storage means can be displayed on the display window 13. The relative position of 40 may be changed.
(Partial modification of the rotation mode of the rotating reel 40 in the spinning effect)
In the embodiment described above, when the position of the symbol “red 7”, which is the specific symbol 61a detected by the rotational position detecting means 160, is compared between the rotating reels 40 that are rotating, the symbol “red 7” has a plurality of symbols. The rotation mode of the all-rotation reel 40 is changed so as to rotate in a state where it can be displayed on the display window 13 in a state where the predetermined arrangement mode configured by the rotation reel 40 is maintained, that is, in a state where the pattern “red 7” is aligned, Thereafter, the plurality of rotary reels 40 are rotated at the same rotational speed while maintaining the predetermined arrangement.

Here, various partial modifications can be considered for the “rotation mode in the spinning effect” performed at times A, B, C, and D in FIG. 9B. The contents of various rotation modes will be described below. In the following partial modification, as in the description of FIG. 9A, in the drawing, the left reel 43 is indicated by a solid line, the middle reel 44 is indicated by a one-dot chain line, and the right reel 45 is indicated by a two-dot chain line.
(Rotation mode in the spinning effect (1))
First, as shown in FIG. 26, the rotational speed of the rotary reel 40 is changed to be different. Here, FIG. 13 is an enlarged view of the initial rotation start portion of the conceptual diagram showing the change in the rotational speed of the three rotary reels 40 of FIG. Here, as the rotation starts, the three rotary reels 40 are rotated at different rotational accelerations, and when the time T1 is reached, the rotational speeds of the three rotary reels 40 reach V2, V3, and V4. doing. Thereafter, as described above, by changing the rotational speed of the three rotary reels 40 as described above, the symbol “red 7” of the left reel 43, the middle reel 44, and the right reel 45 is being rotated. The relative positions are aligned. The “changing the rotation mode” by the rotating effect control means 170 is not limited to the above.

(Rotation mode in the rendition effect (2))
For example, as shown in FIG. 27, the rotation acceleration may be set to be the same for the three rotary reels 40 as the three rotary reels 40 start to rotate. Each of the rotating reels 40 keeps rotating at each speed when reaching the respective rotating speeds V2, V3, and V4, and rotates for a predetermined time due to the rotating speed difference from the left reel 43, whereby the symbol “red 7” is displayed. During rotation, the display windows 13 can be relatively aligned so that they can be displayed.
(Rotation mode in the swivel effect (3))
Further, since the stop mode before the start of rotation can be calculated by the pre-rotation stop mode calculating means 340, the rotation of the three rotary reels 40 is not started simultaneously, but as shown in FIG. By shifting the start timing, the predetermined symbol “red 7” can be relatively aligned during rotation. Specifically, as shown in FIG. 15, first, rotation of the left reel 43 (solid line in FIG. 28) is started, and the rotational speed is increased at a constant rotational acceleration. At that time, the middle reel 44 and the right reel 45 remain stopped. The left reel 43 reaches the rotational speed V3 when the time M1 is reached and maintains the rotation at a constant speed V3. Then, after the rotation of the right reel 45 (two-dot chain line in FIG. 27) is started at time M2, the rotation of the middle reel 44 (one-dot chain line in FIG. 28) is started at time M3. By shifting the rotation start timing, the rotation is maintained at the rotation speed V3 while the symbols “red 7” of the left reel 43 and the right reel 45 are aligned side by side at the time M4. At time M5, the left reel 43 and the middle reel 44 are kept rotating at the rotational speed V3 with the symbols "red 7" being aligned side by side. As a result, the three rotary reels 40 are The rotation is maintained in a state where the red 7 ”is maintained side by side. The operation of the rotation mode of the rotating reel 40 after the time M5 is the same as that after the time T3 in FIG.

Thus, by shifting the rotation start timing of the rotary reel 40, the rotational acceleration and rotational speed of the rotary reel 40 can be set to be the same for all three rotary reels 40. As a result, in the production of the rotation control programming of the rotary reel 40, the parameter to be changed can be set only for the time, and the rotation acceleration and the rotation speed can all be made common, and the control programming can be facilitated. it can.
(Rotation mode in spinning effect (4))
In addition, as shown in FIG. 29, with respect to the rotation of the three rotary reels 40, a normal steady rotation operation is first executed. That is, all the reels 40 are started simultaneously and rotate at the same rotational acceleration and the same rotational speed (steady rotational speed V1). Thereafter, by shifting the stop timing of the three rotating reels 40, the symbols “red 7” can be stopped. At time N3, the two rotating reels 40 are stopped when the symbols “red 7” are aligned, and at time N4, the three rotating reels 40 are stopped when the symbols “red 7” are aligned. . Then, from the state where the symbols “Red 7” are stopped, the three rotary reels 40 start to rotate at the same time, and have the same rotational acceleration and the same rotational speed (one half of the steady rotational speed V1). It is rotated at a speed V3) and rotated as an effect while showing the state in which the symbols “red 7” are aligned after time N5. The subsequent steps are the same as those after time T3 in FIG. Note that the order of the rotating reels 40 to be temporarily stopped can be changed as appropriate.

(Rotation mode in the spinning effect (5))
In addition, as shown in FIG. 30, among the three rotary reels 40, a predetermined rotary reel 40 is reversely rotated so that the symbols “red 7” are aligned, and thereafter, the three are all rotated forward. “Red 7” is in a state of being aligned. In the rotation mode shown in FIG. 30, only the right reel 45 shown by a two-dot chain line starts reverse rotation of the other rotation reel 40 and reversely rotates it to increase the reverse rotation speed until time P1, and after time P1, Decrease the reverse rotation speed. Then, at time P2, the rotational speed is 0, that is, a stop state, and thereafter, the rotational speed is increased by forward rotation from time P2 to P4. At time P4, the rotation speed V3 becomes a constant rotation speed in a state where it can be displayed on the display window 13 so as to be aligned with the pattern “red 7” of the left reel 43. Then, the middle reel 44 also starts to rotate at time P3, and at the time P5, it is in a state where the symbols “red 7” of the other two rotating reels 40 are aligned. As a result, the symbols “red” of the three rotating reels 40 are aligned. Rotate in a state where it can be displayed on the display window 13 in a state where 7 ”is aligned. Here, the predetermined rotation reel 40 to be reversely rotated is only one of the right reel 45, but is not particularly limited to this, and may be another rotation reel 40, or two or all of them. The rotary reel 40 may be reversely rotated.

  Here, whether or not to reversely rotate is determined by determining the reference reel 40 (the left reel 43) and the reel 40 which is intended to align the symbol “red 7” by changing the speed thereof. The relative positions of the two symbols “Red 7” may be determined. Rather than calculating the degree of separation of the positions of both symbols “red 7” in the stopped state and trying to make the relative positional relationship in a predetermined arrangement mode with all the forward rotations, combining forward rotation and reverse rotation Thus, the reverse rotation may be determined to be adopted when the predetermined arrangement mode can be realized in an earlier time. Specifically, for example, when the left reel 43 is set to rotate before the middle reel 44, the symbol “of the middle reel 44 by one frame than the symbol“ red 7 ”of the left reel 43 is set. If “Red 7” is positioned upstream of the forward rotation (opposite to the rotation direction), when all the forward rotations are adopted, the left reel 43 is not rotated approximately one turn for 20 frames, and the symbol “ Cannot align to “Red 7”. However, if the left reel 43 can be rotated one frame in the reverse direction, the left reel 43 and the middle reel 44 can be rotated with a rotation amount smaller than that of the left reel 43 by approximately one turn, “red 7”. It is possible to align both symbols “red 7” in a shorter time than in the case of all rotations.

Further, the rotation modes (1) to (5) in the above-described spinning drum effect can be used in combination as appropriate. Further, the reference rotation reel 40 is not particularly limited to the left reel 43, and the order of rotation start and the magnitude of the rotation speed may be appropriately changed for each rotation reel 40.
In addition, with respect to the rotation mode of the rotary reels 40 in the rearrangement after the above-described rotation effect, some rotary reels 40 are temporarily stopped, the timing of the rotation start is changed by each rotary reel 40, By changing the direction of rotation, a stop mode before the start of rotation can be achieved.

(Other partial variations)
In the above-described embodiment, the spinning effect can be generated only when winning the BB game, but the spinning effect is performed when winning the right to play advantageous games, such as when winning the transitional role of advantageous games. You may form in. Alternatively, when a predetermined symbol combination (not limited to a symbol combination constituting a combination) is displayed in the previous game, or in a spinning effect execution lottery performed when a predetermined combination is won in the game In the case of winning, it can also be formed so as to produce a spinning effect.
In the above-described embodiment, as an advantageous game, the assist time (AT) for notifying the player of the selected small role is executed. However, the assist time (AT) is not limited to the AT. For example, (a) BB (B) the winning combination is displayed on the active line, (c) the bonus game is stopped, (d) the predetermined symbol is displayed on the active line during normal games, (e) the above End of a predetermined number of games from the trigger of either c or d,
You may make it perform the replay time (RT) set so that the winning probability of a re-game may be changed and a game start or end may be triggered at any one of the above-mentioned (a) to (e).

Further, an assist replay time (ART) game in which AT can be executed simultaneously during RT may be performed. Further, for example, by setting the number of smooth frames of any of the rotating reels 40 to 0 or 1 frame, a challenge time (CT) that enables so-called pressing may be executed.
In the above-described embodiment, the assist time (AT) is a game for notifying the player of the selected small role, but is not limited thereto. As the assist time (AT), for example, a type in which an operation order (so-called “push order”) of the stop switch 50 in which the selected small combination can be stopped and displayed may be notified.

(Fifth embodiment)
31 to 35 show a fifth embodiment of the present invention. Note that the basic configuration of the gaming machine 10 in the present embodiment is the same as that in the first embodiment, and therefore will be omitted, and only the feature points of the present embodiment will be described.
(Relocation control means 180)
The rearrangement control means 180 in the present embodiment stops all the rotating reels 40 after the turning effect by the turning effect control means 170 and before the stop operation by the stop switch 50 is enabled. After the elapse of a predetermined delay time set for 40, control is performed to automatically and sequentially start each rotary reel 40.

As shown in FIG. 31, the rearrangement control unit 180 includes a delay time random number generation unit 182, a random number storage unit 183, a random value setting unit 184, and a count unit 185.
(Delay time random number generator 182)
The delay time random number generating means 182 is for generating a software random number for determining the delay time set for each rotating reel 40 in the rearrangement process, and the random number generating means of the winning lottery means 70 Are separate.
The delay time random number generating means 182 uses a recurrence formula shown in FIG. 32A for each of the three rotating reels 40 to determine a random number used for measuring the delay time (hereinafter referred to as a random weight random number). ) Is generated. Here, the random weight random number is set for each rotating reel 40, and the “random weight random number 0” is a random value used for the first rotating reel 40 (first cylinder). , “Random weight random number 1” is a random value used for the second rotary reel 40 (second cylinder), and “random weight random number 2” is the third rotary reel 40 (third This is a random value used for the drum. The first to third drums can be preset with the first drum as the left reel 43, the second drum as the middle reel 44, and the third drum as the right reel 45, for example. It is not limited to this. For example, the first drum may be the right reel 45 and the third drum may be the left reel 43, or may be determined each time by lottery.

“Random weight random number 0” is a remainder obtained by dividing “Random weight random number 0” generated previously by adding “17” by “22”. “17” may be any other numerical value as long as it is a prime number.
"Random weight for random weight 1" is obtained by adding "17" to "random random number for random weight 0" generated last time and dividing it by "22". This is a remainder numerical value obtained by adding the integer value of the quotient and dividing the value by “22”.
“Random Weight Random Number 2” is obtained by adding “17” to “Random Weight Random Number 0” generated last time and dividing “22” by “Random Weight Random Number 1” generated last time. Add the integer value of the quotient, add the last generated "random weight random number 2" to the remainder value divided by "22", and divide the value by "22" It is.

The random weight random number generated as described above is any numerical value from 0 to 21, as shown in FIG. FIG. 33 shows a part of the generated random weight random numbers.
Here, as a random number generation method, a 2-byte random number may be divided and used. That is, as shown in FIG. 32 (B), the value obtained by adding 113 to the previous random weight random number is divided by 10648 as the “random weight random number” used in common for the three rotating reels 40. Set to the remainder. The random number for the first cylinder is the remainder obtained by dividing the “random random number” by “22”, and the random number for the second cylinder is “random random number” divided by “22”. The random number for the third cylinder is the remainder of dividing the "random weight random number" by the square of "22" and further dividing by "22". It is a numerical value. Although a specific example of the calculation is omitted, even when formed in this way, the generated random number value for each cylinder is any numerical value from 0 to 21, as shown in FIG. .

(Random value storage means 183)
The random value storage unit 183 is a storage unit for storing the random value generated by the delay time random number generation unit 182. The delay time random number generation means 182 updates the random number values of the “random weight random numbers 0 to 2” each time it is called from the timer interrupt process (for example, every 1.496 ms). Stored in a 1-byte buffer. Specifically, the random number for random weight 0 or the random number for the first cylinder is stored in a first random number storage unit that stores a random number for setting the first cylinder delay time. The random weight random number 1 ”or the random number for the second cylinder is stored in the second random number storage unit for storing the random number for setting the second cylinder delay time, and“ random random number 2 ”is stored. Alternatively, the random number value for the third cylinder is stored in a third random number storage unit that stores a random value for setting the delay time for the third cylinder.

(Random value setting means 184)
The random value setting means 184 is for setting the random value stored in the random value storage means 183 for each rotary reel 40.
Specifically, the random value setting means 184 picks up the random number value stored in the random value storage means 183 at a predetermined opportunity, and the picked-up random value is provided for each rotating reel 40 in an acceleration process. Store in a 1-byte buffer to manage the start. This storage unit is called a random timer. Here, except for the case where the picked-up random number value is “0”, the value of the random timer is reduced with the passage of time by the subtraction process of the counting means 185 described later, and finally becomes zero. In the present embodiment, a random timer is provided for each rotating reel 40, and when it is determined that all the rotating reels 40 have stopped rotating after the end of the spinning effect, “random” is stored in the first random number storage unit. A value of “waiting random number 0” (or a random number for the first cylinder, hereinafter omitted) is picked up and set in a random timer for the first cylinder. Also, when it is determined that the value of the first drum random timer has reached 0, “random weight random number 1” in the second random number storage unit is picked up and set as the second drum random timer. . Then, when it is determined that the value of the second cylinder random timer has reached 0, the “random weight random number 2” in the third random number storage unit is picked up and set in the third cylinder random timer. .

(Counting means 185)
The counting means 185 is for performing a predetermined count based on the random value set in the random timer and measuring the delay time set in each rotary reel 40.
Specifically, the counting means 185 decrements the numerical value by 1 each time the timer interrupt is executed 24 times when the numerical value set in the random timer is not “0”. That is, the counting means 185 includes a pulse counter (not shown), counts the number of timer interruptions (number of pulse transmissions), and after counting up to 24, performs a process of subtracting 1 from the numerical value set in the random timer. Note that “24” is the number of pulses transmitted to the stepping motor 64 to rotate the rotary reel 40 by one symbol.

Here, the maximum value of the number of timer interruptions until the value of the random timer becomes 0 is 21 × 24 = 504, and if the generation period of the timer interruption process is 1.496 ms, it can be measured by counting by the counting means 185. The maximum time is 504 × 1.496 = 753.984 ms. That is, the counting means 185 measures the time from 0 to 753.984 ms (about 0.75 sec) as the delay time.
Further, when the value of the random timer becomes “0”, acceleration processing of the corresponding rotating reel 40 is started. For example, in the case where the first drum random timer is associated with the left reel 43, when the value of the first drum random timer becomes “0”, the stepping of the left reel 43 from the motor drive control means 63 is performed. A pulse signal is output to the motor 64.

  When a random value is set in the first drum random timer, if the set numerical value is not “0”, the counting means 185 starts time counting (decrementing the set value based on the timer interrupt). When it is determined that the value of the first drum random timer is “0” (including when it is “0”), a random value is set in the second drum random timer, The first cylinder acceleration process is started. Further, when a random number value is set in the second cylinder random timer, the counting means 185 starts time counting, and when it is determined that the value of the second cylinder random timer is “0”, A random value is set in the rotating drum random timer, and acceleration processing of the second drum is started. Similarly, when it is determined that the value of the third cylinder random timer is “0”, the third cylinder acceleration process is started. In this way, the three rotary reels 40 start to rotate sequentially with a random time difference.

(Relocation processing by the relocation control means 180)
Hereinafter, the rearrangement processing according to the present embodiment will be described based on the flowchart shown in FIG. 34 with reference to the time chart of FIG.
Here, in the following description, the “first cylinder” is the left cylinder (left reel 43), the “second cylinder” is the middle cylinder (middle reel 44), and the “third cylinder” is the right cylinder. It is assumed that the right reel 45 is set (see FIG. 35).
First, in step 800 of FIG. 34, it is determined whether or not all the rotating reels 40 have stopped rotating. If it is determined that all the rotating reels 40 have stopped rotating, the process proceeds to the next step 801.

In step 801, “random random number 0” is set in the first cylinder random timer. That is, the random number value stored in the first random number storage unit is picked up and set in the first drum random timer. At this time, if the value of “random weight random number 0” is not “0”, the counting means 185 starts the counting process. Specifically, as described above, the timer interrupt count is started, and every time 24 times, the value of the first cylinder random timer is decremented by 1 (hereinafter, step 803, The same at 806). Then, the process proceeds to next Step 802.
In step 802, it is determined whether or not the first cylinder random timer is zero. If the first cylinder random timer is not 0, the process returns to step 802. If the first cylinder random timer is 0, the process proceeds to the next step 803.

In step 803, "random random number 1" is set in the second cylinder random timer, and the counting means 185 starts the counting process. Then, the process proceeds to next Step 804.
In step 804, acceleration processing of the first cylinder is started. Then, the process proceeds to next Step 805.
In step 805, it is determined whether or not the second cylinder random timer is zero. If the second cylinder random timer is not 0, the process returns to step 805. If the second cylinder random timer is 0, the process proceeds to the next step 806.

In step 806, “random random number 2” is set in the third cylinder random timer, and the counting means 185 starts the counting process. Then, the process proceeds to next Step 807.
In step 807, the acceleration process of the second cylinder is started. Then, the process proceeds to next Step 808.
In step 808, it is determined whether or not the third cylinder random timer is zero. If the third cylinder random timer is not 0, the process returns to step 808. If the third cylinder random timer is 0, the process proceeds to the next step 809.

In step 809, acceleration processing of the third cylinder is started. Then, the rearrangement process ends.
In steps 801, 803, and 806, when each random weight random number is “0”, the count process is not performed. That is, the rotating reel 40 having the set random weight random number “0” starts rotating without a delay time.
In the above-described flow, the counting process is started immediately after the random timer random number is set in the random timer. However, the start timing of the counting process is not limited to the above-described timing, and the acceleration of the rotating reel 40 is accelerated. It may be at the start. The acceleration process of the rotating reel 40 is started when the random weight random number is set. In any case, the delay time set for the rotating reel 40 to start rotating first becomes “0”. Then, when the measurement of the delay time is completed, the measurement of the delay time set for the next rotating reel 40 is started.

(Action / Effect)
As described above, in the present embodiment, after the rotation effect is finished, the rearrangement control means 180 randomly stops the rotation start timings of the three rotation reels 40 after stopping all the rotation reels 40. Let As a result, the pattern arrangement pattern of the three rotating reels 40 at the end of the spinning effect is destroyed when the rotating reels 40 start to rotate sequentially and randomly. For example, even if a pattern that rotates all the rotating reels 40 at the same speed with a specific symbol, for example, “7” in a parallel state, is adopted as the pattern of the spinning effect, Since the stop operation can be performed in a state where the parallel state of “7” is scattered, there is no assistance for pushing. Therefore, even for a player who is skilled in the skill of pressing, the fun of the pressing is not halved and the interest of the game can be improved.

Further, in the present embodiment, the random number generated by the delay time random number generating means 182 corresponding to each rotating reel 40 is picked up by the random value setting means 184 and set in the random timer, and is set in the random timer. The delay time is measured by the counting means 185 performing a predetermined count based on the numerical value. For this reason, the delay time can be set almost certainly at random, and the delay time can be measured rationally.
(Modification)
In the above-described embodiment, after the rotation effect is finished, all the rotation reels 40 are stopped based on the control of the rearrangement control means 180, but the rotation effect rotation data is finally set to all rotations. In the case where only the pattern for stopping the reels 40 is used, it is not necessary for the rearrangement control means 180 to perform a process for stopping all the rotating reels 40. In such a case, the rearrangement control unit 180 may not be able to execute the process of stopping all the rotating reels 40. In short, it is only necessary that the rearrangement process for sequentially starting the stopped rotating reels is performed on the condition that all the rotating reels 40 have stopped rotating.

  In the above-described embodiment, the random weight 0 for the first cylinder is acquired when all reels are stopped, and the random number for the second cylinder is acquired when the first cylinder random timer reaches 0. When the random number for weight 1 is acquired and the random timer for the second cylinder becomes 0, the random weight for random weight 2 for the third cylinder is acquired. Not limited to. For example, when the first cylinder random timer reaches 0, the first cylinder acceleration process is started, and when the first cylinder acceleration process is started, a random weight random number 1 for the second cylinder is started. When the acceleration process of the second cylinder is started, the random weight random number 2 for the third cylinder may be acquired. Alternatively, three random weight random numbers are acquired (set in each random timer) when all reels are stopped (see steps 900 to 903 in FIG. 36), and in steps 801, 803, and 806 in FIG. The counting process may be started based on the set random weight random value.

Further, the present invention includes a case where the first drum random timer is not provided. That is, the acceleration process of the first cylinder may be started immediately after all reels are stopped.
(Other examples of relocation processing)
Various modes are conceivable as the rearrangement process using the present embodiment. A control example of rearrangement processing other than the above rearrangement processing will be described.
(Reference Example 1)
FIG. 36 is a flow showing Reference Example 1 of the rearrangement process. FIG. 36 corresponds to the time chart of FIG. 22 showing the rearrangement process in the first embodiment. In FIG. 36, “first cylinder”, “second cylinder”, and “third cylinder” are the first rotating reel 40, the second rotating reel 40, and the third rotating cylinder, respectively. This means the reel 40, and there is no particular limitation as to which of the left, middle and right rotating reels 40 corresponds to each. That is, it may be set in advance or determined by lottery (hereinafter the same in Reference Examples 2 and 3).

In Reference Example 1, when it is determined in step 900 that all the rotating reels 40 have stopped rotating, in steps 901 to 903, random weight random numbers 0 to 2 are respectively set in the random timers for each cylinder. The In step 904, the counting process is started simultaneously for each random timer for each cylinder. Also in this control example, the count means 185 decrements the value of the random timer by 1 each time the timer interrupt count is counted 24 times.
In step 905, it is determined whether or not the first cylinder has started acceleration. If it is determined that the first cylinder has not started acceleration, the process proceeds to the next step 906.

In step 906, it is determined whether or not the first cylinder random timer is zero. If it is determined that the first drum random timer is 0, the process proceeds to the next step 907.
In step 907, the first cylinder acceleration process is started. Then, the process proceeds to next Step 908.
If it is determined in step 905 that the first cylinder has already started acceleration, in other words, if the first cylinder has already started rotating, and in step 906, the first cylinder random timer. If it is determined that is not 0, in other words, if the delay time set for the first cylinder has not elapsed, the routine proceeds to step 908.

In step 908, it is determined whether or not the second cylinder has started acceleration. If it is determined that the second cylinder has not started acceleration, the process proceeds to the next step 909.
In step 909, it is determined whether or not the second cylinder random timer is zero. If it is determined that the second drum random timer is 0, the process proceeds to the next step 910.
In step 910, the acceleration process of the second cylinder is started. Then, the process proceeds to next Step 911.
If it is determined in step 908 that the second cylinder has started acceleration, and if it is determined in step 909 that the second cylinder random timer is not 0, the process proceeds to step 911.

In step 911, it is determined whether the third cylinder has started acceleration. If it is determined that the third cylinder has not started acceleration, the process proceeds to the next step 912.
In step 911, it is determined whether or not the third cylinder random timer is zero. If it is determined that the third cylinder random timer is 0, the process proceeds to the next step 913.
In step 913, the third cylinder acceleration process is started. Then, the process proceeds to next Step 914.
If it is determined in step 911 that the third cylinder has started acceleration, and if it is determined in step 912 that the third cylinder random timer is not 0, the process proceeds to step 914.

In step 914, it is determined whether or not acceleration of all the cylinders has started. If it is determined that all the cylinders have not started acceleration, the process returns to step 905. If it is determined that all the cylinders have started acceleration, the rearrangement process ends.
According to this control example, the rotation time of each rotary reel 40 is different, so that the plurality of rotary reels 40 start rotating in a random order. Even if it forms in this way, the same effect as embodiment mentioned above can be acquired.
(Reference Example 2)
FIG. 37 is a flowchart showing Reference Example 2 of the rearrangement process. FIG. 37 corresponds to the time chart of FIG. 23 showing the rearrangement process in the second embodiment. That is, in Reference Example 2, after the rotation of the rotating reel 40 is stopped, first, the acceleration process of the first rotating reel 40 is started, and the delay until the rotation of the next rotating reel 40 is started when the acceleration process is completed. Time is to be set. Also in this control example, the count means 185 decrements the value of the random timer by 1 every time the timer interrupt count is counted 24 times.

That is, if it is determined in step 1000 that all the rotation reels 40 have stopped rotating, in step 1001, the acceleration process of the first cylinder is started immediately. Then, the process proceeds to the next step 1002, where it is determined whether or not the acceleration of the first cylinder has been completed, that is, whether or not a predetermined acceleration sequence has been completed. If it is determined that the acceleration of the first cylinder has not been completed, the process returns to step 1002, and if it is determined that the acceleration of the first cylinder has been completed, the process proceeds to the next step 1003.
In step 1003, “random random number 0” is set in the first cylinder random timer, and the counting means 185 starts the counting process. Then, the process proceeds to next Step 1004.

In step 1004, it is determined whether or not the first cylinder random timer is zero. If it is determined that the first cylinder random timer is not 0, the process returns to step 1004. If it is determined that the first cylinder random timer is 0, the process proceeds to the next step 1005.
In step 1005, acceleration processing of the second cylinder is started. Then, the process proceeds to the next step 1006, and it is determined whether or not the acceleration of the second cylinder has been completed. If it is determined that the acceleration of the second cylinder has not been completed, the process returns to step 1006. If it is determined that the acceleration of the second cylinder has been completed, the process proceeds to the next step 1007.

In step 1007, “random weight random number 1” is set in the second cylinder random timer, and the counting means 185 starts the counting process. Then, the process proceeds to next Step 1008.
In step 1008, it is determined whether or not the second cylinder random timer is zero. If it is determined that the second cylinder random timer is not 0, the process returns to step 1008. If it is determined that the second cylinder random timer is 0, the process proceeds to the next step 1009.
In step 1009, the third cylinder acceleration process is started. Then, the process proceeds to the next step 1010, and it is determined whether or not the acceleration of the third cylinder has been completed. If it is determined that the acceleration of the third cylinder is not completed, the process returns to step 1010. If it is determined that the acceleration of the third cylinder is completed, the process proceeds to the next step 1011.

In step 1011, "random random number 2" is set in the third cylinder random timer, and the counting means 185 starts the counting process. Then, the process proceeds to next Step 1012.
In step 1012, it is determined whether or not the third cylinder random timer is zero. If it is determined that the third cylinder random timer is not 0, the process returns to step 1012, and if it is determined that the third cylinder random timer is 0, the rearrangement process is terminated.
In this control example, since the random timer is set after the rotation of the rotating reel 40 is completed, even if the random weight random number is 0, that is, even when there is no delay time, one rotating reel After the 40 acceleration processing is completed, the next rotating reel 40 starts to rotate. Therefore, there is an advantage that the arrangement of the symbols of the rotating reel 40 that starts rotating first and the symbols of the rotating reel 40 that starts rotating next can be distorted.

In addition, you may abbreviate | omit the process of the said steps 1010-1012. In other words, the third cylinder is not provided with a delay time and may be formed so that the rearrangement process is immediately finished when all the three reels 40 start to rotate. However, in the same way as described in the second embodiment, it is optimal to set a delay time after the final stop in order to make sure that the turning effect is not assisted.
(Reference Example 3)
FIG. 38 is a flowchart showing Reference Example 3 of the rearrangement process. FIG. 38 corresponds to the time chart of FIG. 23 showing the rearrangement process in the second embodiment. In the third reference example, the random value setting unit 184 adds a value obtained by adding 96 to the value obtained by multiplying the random value (random weight random number value) stored in the random value storage unit 183 by 24. And the count means 185 subtracts the value of the random timer by 1 each time the timer interrupt count is counted once.

Here, “96” is added because the time from the start of the rotation of the rotary reel 40 until reaching the steady rotational speed (until acceleration is completed) is 119.680 ms (1.496 × 80 (Rotation)), so that “96”, which is 80 or more and a multiple of 24, is included in the delay time as the acceleration time. Therefore, in the control of Reference Example 3, it is not determined whether or not the acceleration of the rotating reel 40 that has started acceleration is completed. The reason why the random weight for random weight is multiplied by 24 is to match the subtraction process of the random timer by the counting means 185 with the addition of “96”.
In the control according to the reference example 3, the minimum value set in the random timer is 0 × 24 + 96 = 96, and the maximum value is 21 × 24 + 96 = 600. Therefore, the minimum time that can be measured by counting by the counting means 185 is 96 × 10496 = 143.616 ms, and the maximum time is 600 × 1.496 = 897.600 ms. That is, the counting means 185 measures the time from about 0.14 sec to about 0.89 sec as the delay time.

Furthermore, in Reference Example 3, the random timer for setting the random weight for random weight is single, and the delay times of the first to third cylinders are sequentially set in this one random timer (rotor cylinder random timer). It has come to be.
That is, if it is determined in step 1100 of FIG. 38 that all the rotating reels 40 have stopped rotating, in step 1101, 96 is set to a value obtained by multiplying the random weight random number 0 by 24. The added value is set and count processing is started. As described above, the count process here is a process of decrementing the value of the rotating random timer by one for each timer interrupt. In the next step 1102, acceleration processing of the first cylinder is started. Then, the process proceeds to next Step 1102.

In step 1102, it is determined whether or not the rotating random timer is 0. If the rotating random timer is not 0, the process returns to step 1103, and if the rotating random timer is 0, the next Proceed to step 1104.
In step 1104, a value obtained by adding 96 to the value obtained by multiplying the random weight random number 1 by 24 is set in the rotating random timer, and the count process is started. Then, in the next step 1105, acceleration processing of the second cylinder is started. Then, the process proceeds to next Step 1106.
In step 1106, it is determined whether or not the rotating random timer is 0. If the rotating random timer is not 0, the process returns to step 1106, and if the rotating random timer is 0, the next The process proceeds to step 1107.

In step 1107, a value obtained by adding 96 to the value obtained by multiplying the random weight random number 2 by 24 is set in the rotating random timer, and the counting process is started. Then, in the next step 1108, acceleration processing of the third cylinder is started. Then, the process proceeds to next Step 1109.
In step 1109, it is determined whether or not the rotation random timer is 0. If the rotation random timer is not 0, the process returns to step 1109. If the rotation random timer is 0, the rotation random timer is restarted. The placement process ends.
As described above, according to the reference example 3, it is not necessary to determine whether or not the acceleration is completed, and only the monitoring of the rotating random timer is sufficient, so that there is an advantage that the control can be simplified.

In the fifth embodiment and Reference Example 2 described above, as in Reference Example 3, a method is adopted in which random numbers for random weights for each spinning cylinder are sequentially set in a single random timer for spinning cylinders. You may do it.
The present invention is not limited to the above-described embodiments, but includes modifications and improvements as long as the object of the present invention can be achieved. Further, the present invention can be appropriately combined or rearranged with the above-described embodiments and modifications.

10 gaming machine 16 bet switch
20 Control device 30 Start switch
40-reel 47 index
48 Index detector 50 Stop switch
110 Role lottery means 161 Rotational position judgment means
170 Cylinder direction control means 180 Relocation control means

Claims (3)

A plurality of rotating reels with a plurality of symbols displayed around them;
A start switch for starting rotation of the rotating reel;
In a gaming machine comprising at least a stop switch for stopping the rotation of the rotating reel,
A turning effect control means capable of executing a predetermined turning effect of the plurality of rotating reels for a predetermined time, and an arrangement mode of the symbols of the plurality of rotating reels at the end of the turning effect by the stop switch A rearrangement control means for rearranging at random until the stop operation becomes possible,
The rearrangement control unit randomly sets a delay time until the rotation reel to start rotating first after completion of execution of the predetermined time for the spinning effect, and starts to rotate the first rotation reel. A gaming machine, wherein a delay time from the start of rotation to the start of rotation of the next rotation reel is set at random, whereby the plurality of rotation reels are sequentially started to rotate at random. An index provided corresponding to each of the rotating reels, and an index provided at a predetermined position of the rotating reel to detect the rotating position of the rotating reel;
An index detecting device provided corresponding to each of the rotating reels for detecting passage of the index;
Rotational position determination means for grasping the current position of the rotating reel by detecting the index notification by the index detection device;
Wherein the reel-performance control unit, the rotational position determination means according to claim 1 Symbol placement of the gaming machine wherein during rotation grasped with reference to the current position of the reels and performing the reel-effect by . A stepping motor provided corresponding to each of the rotating reels for driving the rotating reels;
Motor drive control means for outputting a pulse signal for driving each stepping motor;
A pulse counter for counting the number of pulses of the pulse signal of each stepping motor output by the motor drive control means;
An index provided corresponding to each of the rotating reels, and an index provided at a predetermined position of the rotating reel to detect the rotating position of the rotating reel;
An index detecting device provided corresponding to each of the rotating reels for detecting passage of the index;
Rotation amount detection means capable of detecting the number of pulses of the pulse signal of each stepping motor counted by the pulse counter from the start of rotation of the rotating reel until each index detection device detects the index;
Pre-rotation stop mode calculation means for calculating a stop mode before the start of rotation in all the rotary reels based on the number of pulses detected by the rotation amount detection unit,
Wherein the reel-performance control unit, the gaming machine according to claim 1 Symbol placement and performing the reel-effect with reference to the stop mode before rotation start of the pre-rotation stop mode calculating means is calculated.

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