JP5317241B2 - Game machine - Google Patents

Abstract

<P>PROBLEM TO BE SOLVED: To provide a game machine that prevents display of information from being hindered even when multiple types of states for prohibiting information from being displayed to a player are set. <P>SOLUTION: In a sub control circuit, when an input prohibition performance such as continuous performance is selected by a performance lottery (step S304, YES), when it is determined that a special game is executed (step S305, YES), the selected input prohibition performance is not executed (step S308). <P>COPYRIGHT: (C)2013,JPO&amp;INPIT

Description

  The present invention relates to a gaming machine that performs a unit game in which a result is determined according to a combination of symbols displayed when a reel on which a plurality of symbols is drawn is stopped.

  Conventionally, slot machines are widely known as one of gaming machines. In this type of slot machine, when the player inserts a prescribed number of game media such as medals and game balls, the operation of the start switch becomes effective. As a result, when the player operates the start switch, the game is started, the lottery is performed, and a plurality of reels each having a plurality of symbols are rotated. When the rotation speed of the reel reaches a certain speed, the operation of the stop switch provided corresponding to each reel becomes effective, and every time the player operates the stop switch, in accordance with the result of the role lottery, The corresponding reel is stopped, and when all reels stop, one game result is determined. If the combination of symbols displayed along the active line defined in the display window of the reel corresponds to any combination, it means that the combination has won a prize, and the privilege corresponding to that combination Is given to the player, and one game is completed. On the other hand, when the winning combination is not won, one game is finished without a privilege being given. In the following, one game described above is referred to as a unit game.

  Further, in this type of slot machine, in order to improve the interest of the game, for example, as in the slot machine described in Patent Document 1, when a predetermined gaming state is entered, a mission is given to the player. Presents the conditions related to the unit game (for example, “align the cherry pattern on the left reel within 30 games”, “align 7 on the active line within 10 games”, etc.). When the player satisfies the presented conditions, it is notified that the mission has been completed, and points according to the difficulty level of the accomplished mission are awarded. The given points are accumulated, and the notification pattern for notifying the winning combination in the winning lottery is changed according to the accumulated point value.

JP 2009-055989 A

  By the way, the above-described mission is performed as a part of the story production. In other words, when the story production is started, a series of stories (for example, around the Yamanote Line) will be developed each time the mission is cleared, and when the final mission is completed, the story production will also be terminated. The notification pattern is changed according to the accumulated points. In addition, this type of slot machine includes a game control unit that performs control related to slot machine games, such as the above-mentioned lottery drawing, reel rotation / stop control, and the provision of profits by winning, and the story effect described above. The control of the production according to the progress and situation of the game and the production control unit that controls the change of the notification pattern, etc. are configured separately, and the information transmission direction is limited to one direction from the game control unit to the production control unit doing. Therefore, conventionally, the game control unit could not grasp the control status in the effect control unit.

  For this reason, conventionally, even when the content of the mission during the story effect is related to the control related to the slot machine game, the game control unit cannot grasp whether or not the story effect is being executed. Therefore, for example, the game control related to the mission is changed only during the story production, and the difficulty level of the mission cannot be adjusted.

  The present invention has been made in view of the above problems, and even if the game control unit has a configuration in which the control status in the effect control unit cannot be directly known, control related to the game according to the control status of the effect control unit. It aims at providing the gaming machine which can change.

In order to solve the above-described problems, the present invention provides a game control unit that performs control related to a game in response to an operation from the outside, an effect control unit that performs control for performing an effect according to the game situation, An input means for inputting information based on an external operation, and a gaming machine comprising:
Information transmission between the game control means and the effect control means is performed only in one direction from the game control means to the effect control means,
The production control means includes
If the information input from the input means includes history storage instruction information that instructs to store history information based on at least one of the history of the game and the effect executed during the game, Including history information storage means for storing the history information relating to the game performed in
The game control means includes
Game control switching means for determining whether or not to switch the control content related to the game to be performed in response to the operation to a different control content when operated from the outside and switching the control content related to the game according to the determination; ,
Input information determination means for determining whether information including the history storage instruction information is input from the input means;
Based on the fact that the information including the history storage instruction information has been input by the input information determination means, the switching probability of changing the probability of determining to switch the control content related to the game in the game control switching means Variable means,
It is characterized by including.

  Here, the “information including history storage instruction information” includes, for example, a personal history of a player, a password that is input in order to record the type of effect executed during the game, and the like. That is, in a gaming machine that can be played by an unspecified number of people, in order to record history information about a game executed by a specific player, there is information (that is, a password) that can distinguish the person who played that game from others. Necessary. In other words, the fact that a password has been input can be considered to have a willingness to record a game that will be played thereafter, and thus it can be said that the password corresponds to “information including history storage instruction information”.

  Further, “control content related to the game” includes, for example, reel rotation control in accordance with the operation of the start switch. Normally, when the start switch is operated, the rotation of the reels is started. On the other hand, in the case of “different control contents”, each reel is not rotated for a certain time even if the start switch is operated (so-called (Freeze state), rotate once in the opposite direction to normal time, and then rotate in the same direction as normal time. The time (acceleration) required to reach a predetermined rotational speed from the stopped state is different from normal time. Or the control content of these etc. can be considered. Further, the “control content related to the game” includes a reel stop control according to the operation of the stop switch. For example, when the stop switch is operated during normal operation, the reel stop control corresponding to the operated stop switch is started. When “different control contents” are selected, the corresponding reel is stopped for a certain time even if operated. Control contents such as making the so-called bound stop when the reel is stopped, making the stop mode at the normal time different, making the deceleration at the time of stopping different from the normal time, or a combination thereof can be considered. Further, the “control content relating to the game” includes acceptance control according to the medal insertion operation, medal payout control at the time of winning the small role, and the like. In the case of “different control contents” for these controls, it is conceivable that the timing for performing these controls is different from the normal time.

  According to the above-described invention, when information including history storage instruction information is input, history information relating to a game executed after that is stored in the effect control means, and input information included in the game control means. Since it is determined whether or not information including history storage instruction information has been input by the determination means, the probability that the control content related to the game is switched can be changed. Thereby, even if it is the structure where the game control means cannot know the control condition in an effect control means directly, the control regarding a game can be changed according to the control condition of an effect control means.

Further, in the above-described invention, a plurality of types of symbols are attached and a plurality of reels provided rotatably,
A plurality of stop instruction means provided corresponding to each of the plurality of reels;
Reel stop control means for stopping rotation of the reel corresponding to the stop instruction means operated from the outside among the plurality of stop instruction means,
The game is a game in which a unit game, which is displayed when the plurality of reels rotate and all the plurality of rotated reels stop, is determined by the combination of symbols, is repeated,
The production control means includes
On the condition that information including the history storage instruction information is input from the input means, the operation mode of the plurality of stop instruction means is notified to the outside,
The input information determination means includes
Based on whether or not the operation mode notified to the outside by the effect control unit and the operation mode from the outside for the plurality of stop instruction units match, the history storage instruction It is determined that information including information is input from the input means.

  Here, the “operation mode” includes, for example, the order of operating each of the “plurality of stop instruction means”, the operation timing, and the like. Moreover, when notifying the timing to operate, you may alert | report the symbol to press, for example. When notifying the symbol to be pressed in this way, the fact that the “stop instruction means” is operated is notified at a timing at which the symbol can be stopped on the winning line.

  According to the above-described invention, when information including history storage instruction information is input, the operation mode of the plurality of stop instruction means is notified to the player from the effect control means, and the input information determination included in the game control means is performed. Whether the information including the history storage instruction information is input based on whether the notified operation mode matches the operation mode performed by the player with respect to the plurality of stop instruction units. Is judged. Thus, even if the game control means cannot acquire information directly from the effect control means, it can be determined whether or not information including history storage instruction information has been input.

In the above-described invention, the effect control means includes
A plurality of events that can occur in the course of playing the game each weighted, and a cumulative means for accumulating the weights of the events that have occurred among the plurality of events,
When information including the history storage instruction information is input from the input means and the cumulative value calculated by the cumulative means exceeds a predetermined value, the operation mode of the plurality of stop instruction means is notified to the outside. And
The input information determination means includes
Based on whether or not the operation mode notified to the outside by the effect control unit and the operation mode from the outside for the plurality of stop instruction units match, the history storage instruction Determining that information including information is input from the input means, and that the cumulative value is equal to or greater than a predetermined value;
The switching probability varying means is
When it is determined by the input information determination means that information including the history storage instruction information is input from the input means and the cumulative value is equal to or greater than a predetermined value, the game control switching means relates to the game. It is characterized by changing the probability of switching when the control content is switched.

  Here, as an example of “a plurality of events that can occur in the course of a game”, the above-mentioned conventional “mission” can be mentioned, and as an example of “event weight”, the above-mentioned conventional “mission” Point ”. In addition, whether or not “cumulative value has become a predetermined value or more” is determined by converting “cumulative value” to a value (for example, level) of a different scale and whether or not the cumulative value has become a predetermined value or more in the scale. May be.

  According to the above-described invention, in the game control means, when the information including the history saving instruction information is input from the input means and it is determined that the cumulative weight value is equal to or greater than the predetermined value, the control content related to the game is switched. Probability changes. As a result, it is expected that the number of executions of the unit game will increase in order to generate more “events” so that the cumulative value becomes equal to or greater than the predetermined value for the purpose of changing the probability that the control contents related to the game will change. it can.

In the above-described invention, the accumulating means is
When the information input from the input unit includes information indicating the cumulative value by the totaling unit, when any of the plurality of events occurs, the weight of the generated event is set. And adding to the cumulative value based on the information indicating the cumulative value.

  According to the above-described invention, when “cumulative value” is included in the information input from the input means, when any “event” occurs in a game that is performed thereafter, the weight is input. Is added to the “cumulative value” contained in the information. As a result, the “cumulative value” can be accumulated even if the game playing opportunities are different. Therefore, when a player who has played a game on the gaming machine according to the present invention plays a game at another opportunity, he / she can It can be expected that the possibility of a game being played on the gaming machine according to the invention is increased.

In the above-described invention, the effect control means includes
In the game control means, when performing control related to the game according to the different control contents switched by the game control switching means, a specific effect is executed,
The event that the specific performance is executed is included in the plurality of events.

  According to the above-described invention, when “specific effects are executed” is included in the “plurality of events” determined in advance, and control is performed according to “different control contents” In addition, a “specific production” is performed. Accordingly, when information including history storage instruction information is input from the input unit and it is determined that the cumulative value of the weights is equal to or greater than a predetermined value, the probability that the “specific effect” is executed varies. Become. Therefore, in order to make the “event” that “a specific performance is executed” more likely to occur, in order to increase the cumulative value to a predetermined value or more, more players are trying to generate other “events”. You can expect to play unit games.

Furthermore, in any of the above-described inventions, the game control switching means is
The control performed to advance the game according to an operation from the outside is switched to a control that temporarily stops the progress of the game according to the operation from the outside.

  As a result, the player is more impressed that the game control according to the operation is not performed (actually only temporarily stopped) even though the operation is performed to advance the game. It can be left in the state.

  As described above, according to the gaming machine of the present invention, even when the game control unit cannot directly know the control status in the effect control unit, the control related to the game is changed according to the control status of the effect control unit. Can be made.

It is explanatory drawing for demonstrating schematic structure of the whole game system in embodiment of this invention. It is a block diagram which shows the structure of the mobile telephone which comprises the game system. It is a block diagram which shows the structure of the game server which comprises the game system. It is explanatory drawing for demonstrating the content of the information preserve | saved at the management database of a game server. It is a front view showing the appearance of the slot machine constituting the gaming system in the embodiment of the present invention. It is explanatory drawing for demonstrating the symbol arrangement | sequence of each reel with which the slot machine is provided. It is a block diagram which shows the structure of the main control circuit which controls the slot machine. It is a block diagram which shows the structure of the sub control circuit which controls the slot machine. It is a functional block diagram which shows the control function of the slot machine. It is an explanatory view for explaining the contents of the payout information that determines the symbol combination and payout corresponding to the various combinations predetermined in the slot machine. It is explanatory drawing for demonstrating the content of the part lottery table referred by the part lottery in the slot machine. It is explanatory drawing for demonstrating the content of the part lottery table referred by the part lottery in the slot machine. It is explanatory drawing for demonstrating the content of the part lottery table referred by the part lottery in the slot machine. It is an explanatory view for explaining the correspondence between the operation sequence of the stop switch and the stop position of a specific symbol on a specific reel when a predetermined lottery result is obtained in the role lottery of the slot machine. It is an explanatory view for explaining the correspondence between the operation sequence of the stop switch and the type of winning combination when the predetermined lottery result is obtained in the slot machine. FIG. 38 is a state transition diagram showing a transition of gaming state in the slot machine. In the slot machine, it is an explanatory view for explaining the contents of a stock lottery table for determining whether or not to give a player the right to shift to an advantageous game period. It is explanatory drawing for demonstrating the content of the effect lottery table referred when determining the effect implemented with the slot machine. It is a flowchart which shows the content of the main routine performed with the main control circuit of the slot machine. It is a flowchart which shows the content of the combination lottery process performed within the main routine. It is a flowchart which shows the content of the reel fluctuation | variation / stop process performed within the main routine. It is a flowchart which shows the content of the winning determination process performed within the main routine. It is a flowchart which shows the content of the information reception process performed with the sub-control circuit of the slot machine in embodiment of this invention. It is a flowchart which shows the content of the ART alerting | reporting process performed within the same information reception process. It is a flowchart which shows the content of the operation order alerting | reporting process performed within the same ART alerting | reporting process. It is a flowchart which shows the content of the effect lottery process in the information reception process performed with the sub-control circuit of the slot machine in embodiment of this invention. It is a flowchart which shows the content of the freeze production process performed within the production lottery process. It is a flowchart which shows the content of the ART execution control process in the information reception process performed with the sub-control circuit of the slot machine in embodiment of this invention. It is a flowchart which shows the content of the game history update process performed within the same information reception process. It is a flowchart which shows the content of the mission clear display process performed within the same information reception process. It is a flowchart which shows the content of other embodiment of the operation order alerting | reporting process shown in FIG. 4 is a flowchart showing the contents of input command processing executed by the sub-control circuit of the slot machine in the embodiment of the present invention. In the course of executing the input command processing, it is an explanatory diagram for explaining the contents of various screens displayed on the display device of the slot machine. It is a flowchart which shows the content of the QR code production | generation / display process performed within the input command process. It is a flowchart which shows the content of the password input process performed within the input command process. 4 is a flowchart showing processing executed when turning on and off the power of the slot machine in the embodiment of the present invention, (a) is a flowchart showing contents of power-off processing, and (b) is contents of power-on processing. It is a flowchart to show. It is a flowchart which shows the content of the process performed by each, when data communication is performed between the mobile telephone in embodiment of this invention, and a game server. It is a flowchart which shows the content of the process performed by each, when data communication is performed between the mobile telephone in embodiment of this invention, and a game server. It is a flowchart which shows the content of the process performed by each, when data communication is performed between the mobile telephone in embodiment of this invention, and a game server. It is a flowchart which shows the content of the process performed by each, when data communication is performed between the mobile telephone in embodiment of this invention, and a game server. It is explanatory drawing for demonstrating the content of the screen displayed on the display apparatus of a mobile telephone in the process in which data communication is performed between the mobile telephone and game server in embodiment of this invention. It is explanatory drawing for demonstrating the content of the screen displayed on the display apparatus of a mobile telephone in the process in which data communication is performed between the mobile telephone and game server in embodiment of this invention. It is explanatory drawing for demonstrating the content of the screen displayed on the display apparatus of a mobile telephone in the process in which data communication is performed between the mobile telephone and game server in embodiment of this invention.

  Hereinafter, embodiments of the present invention will be described in detail with reference to the drawings.

(1) Overall Configuration of Game System FIG. 1 shows an outline of the overall configuration of the game system according to the embodiment of the present invention. As shown in this figure, the gaming system of the present embodiment includes a slot machine 1000, a mobile phone system 2000, and a gaming server system 3000.
The slot machine 1000 is installed in a game arcade, and a single game can be performed by inserting a predetermined number of medals. The slot machine 1000 provides a player with a unit game in which medals are paid out according to the result of the game.
The cellular phone system 2000 enables conversation between the cellular phones 2100a and 2100b, conversation between the cellular phone and a fixed telephone (telephone fixedly installed in each home, etc., not shown), and further cellular phones. Various data communications with a server connected to a network 3200 described later from 2100a, 2100b, etc. are also possible. Hereinafter, when the mobile phones 2100a and 2100b are collectively referred to, they are simply referred to as the mobile phone 2100.
The game server system 3000 includes various information terminals (for example, a personal computer, a fixed or mobile phone, a portable information terminal (so-called PDA), a home appliance having a communication function, and a home game machine via a network 3200 such as the Internet. Etc.) is possible.

(1-a) Configuration of Mobile Phone System As shown in FIG. 1, the mobile phone system 2000 includes a mobile phone 2100, a base station 2200, a packet network 2300, and a center server 2400.
The mobile phone 2100 is connected to the packet network 2300 via the base station 2200, and can transmit and receive voice data, character data, image data, and the like to and from other mobile phones and fixed phones via the packet network 2300. In particular, as will be described later, the mobile phone 2100 acquires the QR code (quick response code) displayed on the display device 70 of the slot machine 1000, and based on various information included in the QR code, the slot machine 1000 Information relating to the game performed in (1) is transmitted to the game server 3100 via the packet network 2300. The QR code is a kind of two-dimensional code in which information is given in two directions, a vertical direction and a horizontal direction. In addition, the mobile phone 2100 receives the password generated by the game server 3100 via the packet network 2300. The password will be described later in detail.

(1-a-1) Configuration of Each Part of the Mobile Phone System The mobile phone 2100 is a portable phone using wireless communication, and wireless communication is performed with a packet network 2300 configured by a base station 2200 described later. I do. Note that a specific configuration of the mobile phone 2100 will be described later. In the gaming system of this embodiment, a mobile information terminal, a game machine having a data communication function, or the like may be used instead of the mobile phone 2100.

  The base station 2200 is a base for wirelessly connecting to the mobile phone 2100, and is a device corresponding to the end of the packet network 2300 described later. The base station 2200 is installed on a utility pole or a rooftop of a building. The base stations 2200 are connected to each other via a wired or wireless network to form a packet network 2300 described later.

  The packet network 2300 is a data communication network for dividing data to be transmitted / received into a plurality of packets and transmitting / receiving them one by one (hereinafter referred to as packet communication) when performing data communication by the mobile phone 2100. Each of the plurality of packets is transmitted using an available line on the packet network 2300.

  The center server 2400 communicates with a game server 3100 connected to a network 3200 to be described later in response to a request from the mobile phone 2100, and acquires various information from the game server 3100 according to the request from the mobile phone 2100. The acquired information is transferred to the requesting mobile phone 2100. As a result, the operator of the mobile phone 2100 can exchange desired information with the game server 3100 via the packet network 2300 and the center server 2400 regardless of the place where the mobile phone 2100 is located.

  The center server 2400 includes a database (not shown) in which a mobile phone number assigned in advance to each mobile phone 2100 is associated with a user ID for identifying the owner of the mobile phone 2100. When data communication with the game server 3100 is executed in response to a request from the mobile phone 2100, first, the mobile phone number of the mobile phone 2100 described above is transmitted from the mobile phone 2100 to the center server 2400. Next, the center server 2400 searches the aforementioned database based on the transmitted mobile phone number, obtains the user ID of the mobile phone 2100, and transmits the obtained user ID to the game server 3100. Thus, when accessed from the mobile phone 2100, the game server 3100 acquires the user ID of the mobile phone 2100, and responds to a request from the mobile phone 2100 based on the acquired user ID of the mobile phone 2100. A corresponding process can be executed.

  Note that the information for specifying the owner of the mobile phone 2100 may be identification information unique to the owner, such as the serial number of the mobile phone 2100 that can be specified, in addition to the above-described user ID and telephone number. In addition, the game server 3100 in this embodiment stores the user ID transmitted from the center server 2400 in a management database server (described later).

(1-a-2) Hardware Configuration of Mobile Phone FIG. 2 shows a hardware configuration of the mobile phone 2100 described above. In the present embodiment, as shown in FIG. 1, even when there are a plurality of mobile phones 2100, each of them has the same configuration.

  As shown in FIG. 2, a central processing unit (hereinafter referred to as CPU) 2102, ROM 2104, and RAM 2106 are connected to the input / output bus 2140. The ROM 2104 controls various devices such as a program for performing data communication with the game server 3100, a browser for browsing a WEB site, a display device incorporated in the mobile phone 2100, a digital camera, and the like (described later). And a unique mobile phone number assigned in advance to the mobile phone 2100 are stored. The RAM 2106 communicated with the game server 3100 and various data such as mobile phone numbers of other mobile phones, text data such as mail, received image data, voice data used for so-called ringtones, and the like. Stores values of variables used sometimes.

  The input / output bus 2140 controls a display control circuit 2112 that controls a display device 2110 including a liquid crystal display, an audio signal processing circuit 2118 that controls a microphone 2114 and a speaker 2116, and a key 2120 including numeric keys and so-called direction keys. An input interface (hereinafter referred to as input I / F) 2122, a communication interface (hereinafter referred to as communication I / F) 2126 for transmitting / receiving information to / from the base station 2200 via the antenna 2124, and a digital camera function An imaging control circuit 2130 for realizing the above is connected.

  Further, the key 2120 is a numeric keypad for inputting numbers and the like, a cursor key capable of designating up, down, left, and right directions. For example, when the operator makes a selection with these cursor keys, the selection content is confirmed. There is a confirmation key or the like, which is operated by an operator of the mobile phone 2100. The communication I / F 2126 transmits input information based on an input operation of the key 2120 by the operator and a telephone number assigned in advance to the mobile phone 2100 through the packet network 2300 and the network 3200 described above. Further, the communication I / F 2126 receives information transmitted through the packet network 2300 or the network 3200. The display device 2110 displays input information input by the operator operating the key 2120 and information acquired through the packet network 2300 or the network 3200.

  An imaging element 2128 is connected to the imaging control circuit 2130. The image sensor 2128 is configured by, for example, a CCD (Charge Coupled Device) image sensor, a C-MOS image sensor, or the like. The image sensor 2128 is provided on the back surface of the mobile phone 2100, and when the operator of the mobile phone 2100 operates a predetermined key 2120, the object is imaged, converted into an electrical signal indicating the image, and output. The output electrical signal is stored in a storage unit such as the RAM 2106 as image data indicating the captured image of the object. With the digital camera function of the mobile phone 2100, a QR code displayed on the display device 70 of the slot machine 1000, which will be described later, is photographed, and based on various data included in the photographed QR code, Data communication is performed.

(1-b) Configuration of Game Server System The server system 3000 includes a game server 3100 and a network 3200. The gaming server 3100 is accessed from the mobile phone 2100 via the packet network 2300 and the network 3200 based on information included in the QR code displayed on the display device 70 of the slot machine 1000. The game server 3100 stores and manages various information (details will be described later) transmitted from the mobile phone 2100.

  In addition, a password is generated in response to the password issuance request transmitted from the mobile phone 2100, and the generated password is transmitted to the mobile phone 2100. As will be described in detail later, this password includes information that can identify the mobile phone that has requested the issuance of the password, information on the history of games that have been performed so far in the slot machine 1000 (hereinafter referred to as game history information), slot Information regarding the contents of effects performed by the machine 1000 is included.

(1-b-1) Hardware Configuration of Game Server FIG. 3 shows a hardware configuration of the game server 3100. As shown in this figure, the game server 3100 is registered as a member with the WEB / content server 3120 that provides information related to the game provided to the player registered as a member and audio data and image data distributed to the player. And a management server 3140 for managing various information related to the player.

(1-b-1-1) WEB / Content Server Configuration A CPU 3124, a ROM 3126, and a RAM 3128 are connected to the input / output bus 3122 of the WEB / content server 3120 shown in FIG. The ROM 3126 performs data communication with the mobile phone 2100 and processes a request received from the mobile phone 2100, a web database (hereinafter referred to as web DB) 3130 and a content database (hereinafter referred to as content DB) 3132 described later. A program for controlling various devices such as the above is stored.

  The web DB 3130 and the content DB 3132 are storage media capable of storing a large amount of data, such as a hard disk drive, and are connected to the input / output bus 3122, respectively. The web DB 3130 stores character data and image data that are mainly viewed by players who are registered as members. These data are created in a language conforming to Compact HTML which is a subset of so-called HTML (Hyper Text Markup Language), and URL (Uniform Resource Locator) indicating the location of image data and other WEB servers as well as character information. ) Information can be incorporated. The content DB 3132 mainly includes image data and audio data to be downloaded to the mobile phone 2100 and content such as a program for performing data communication with the mobile phone 2100 and processing a request received from the mobile phone 2100. Remember.

  Further, an external connection interface (hereinafter referred to as an external connection I / F) 3134 and an internal connection interface (hereinafter referred to as an internal connection I / F) 3136 are also connected to the input / output bus 3122. ing. The external connection I / F 3134 is a communication interface for connecting to the network 3200 shown in FIG. Data transmission / reception with the mobile phone 2100 and data transmission / reception with the center server 2400 are performed by the external connection I / F 3134. Also, management data stored in a management database (hereinafter referred to as management DB) 3150, which will be described later, is transmitted / received to / from the WEB / content server 3120 via the internal connection I / F 3136.

(1-b-1-2) Configuration of Management Server A CPU 3144, ROM 3146, and RAM 3148 are connected to the input / output bus 3142 of the management server 3140. The ROM 3146 stores a program for performing management such as new registration and update of management data received in response to a command from the WEB / content server 3120. In addition, a management DB 3150 made of a storage medium capable of storing a large amount of data such as a hard disk drive is connected to the input / output bus 3142. The management DB 3150 stores identification information (for example, a mobile phone number) of the mobile phone 2100 and various types of information (details will be described later) associated with the identification information.

  Further, an internal connection I / F 3152 is also connected to the input / output bus 3142, whereby various information transmitted from the internal connection I / F 3136 of the WEB / content server 3120 is stored in the management DB 3150, Information stored in the management DB 3150 is transmitted to the WEB / content server 3120.

(1-b-1-3) Contents of Information Saved in Management DB FIG. 4 shows the contents of various information stored in the management DB 3150 described above. As shown in FIG. 4A, the management DB 3150 stores a random ID, game history information, normal points, event information, and effect setting information in association with the mobile phone number registered as a member. The mobile phone number is a number uniquely assigned to the mobile phones 2100a and 2100b in FIG. 1, and is information stored in the ROM 2104 in FIG. 2 as described above. Note that the contents of the member registration process for registering the owner of the mobile phone 2100 that has newly accessed the game server 3100 as a member (in other words, creating a storage area for storing various information related to the mobile phone). Will be described in detail later.

  The random ID is a single number that is arbitrarily generated within a numerical range of 0 to 255 (decimal system) when the game server 3100 issues a password in response to a request from the mobile phone 2100. This random ID is included in each of the password and QR code described above, and is further referred to when determining whether the game history information and the effect setting information included in the QR code are appropriate. . The game history information is information related to the history of games played in the slot machine 1000, and the game history information included in the QR code includes the number of unit games played in the slot machine, a big bonus (hereinafter referred to as BB). ), Regular bonus (hereinafter referred to as RB), assist replay time (hereinafter referred to as ART), number of missions (to be described later), and mission achievement rate. Yes. Note that the slot machine 1000 of the present embodiment also collects game history information other than the items described above that are included in the QR code, the details of which will be described later.

  Then, the CPU 3144 of the management server 3140, as shown in FIG. 4B, based on the above-described game history information transmitted from the mobile phone 2100, the total number of games, the total number of BBs, the total number of RBs, The game history of six items, that is, the number of ARTs, the type of mission accomplished, and the mission achievement rate, is updated or accumulated, and stored in the management DB 3150. The information related to the game history is updated when a password is issued in response to a request from the mobile phone 2100.

  Returning to FIG. 4A, the normal points are calculated based on the game history of a predetermined item in the game history information described above, and are shown in FIG. 3 according to the value of the normal points. The types of audio data and image data that can be downloaded from the content DB 3132 to the mobile phone 2100 are determined. For example, a predetermined calculation formula that multiplies the value of the game history of each item shown in FIG. 4B by a predetermined coefficient and adds or subtracts each obtained value as appropriate is determined. Points may be calculated.

  Next, the event information is information relating to an event (event) that is performed at the game hall where the slot machine 1000 is installed. What event is performed at which game hall, and how is the player at that event? It is comprised by the information which shows whether a special privilege can be provided. Specifically, as shown in FIG. 4 (d), a game hall code indicating which game hall it is, an event code indicating what event is being performed, and the owner of the mobile phone The number of visits to the game hall after the start of the game (number of visits), the contents of game history items related to the contents of the event (results), and the date and time when the information related to these events is valid are stored.

  Here, the game hall code, the event code, and the expiration date are determined in advance between the manager or the person in charge of the game hall that holds the event (hereinafter referred to as a manager) and the operator of the game server system 3000. Is. For example, if a certain game hall plans to carry out an event in which a player who has visited the store competes for the number of medals earned in one day in one slot machine 1000 for a predetermined period, The manager or the like notifies the operator of the game server system 3000 to that effect. The operator of the game server system 3000 that has received this notification sends the game hall code corresponding to the game hall where the event takes place and the event code corresponding to the scheduled event to be notified to the game hall manager or the like. contact. Accordingly, when the game hall manager or the like sets the game hall code and the event code in the slot machine 1000, the event information shown in FIG. 4C is included in the QR code displayed on the display device 70 of the slot machine 1000. Is stored in the management DB 3150 (details will be described later).

  In the gaming system of the present embodiment, the game hall code and the event code are 1-byte data, and in the example shown in FIG. 4D, the game hall code is expressed in two-digit hexadecimal notation. Each game hall code is associated with a store name of the game hall in advance. Although it is arbitrary how to determine the game hall to be associated with each game hall code, for example, an operator of the game server system 3000 investigates and sets the game hall where the slot machine 1000 is installed in advance. It may be set according to the request from each game hall.

  Also, in the example of the event code shown in FIG. 4E, the event code is represented in a 2-digit hexadecimal notation, and a predetermined event content (event content) is associated with each event code. It has been. The contents of this event include the number of medals that can be acquired within the business hours of the day (more strictly until the password issuance request is sent on the day), the number of consecutive ARTs (described later), BB or RB. It is preferable that the superiority or inferiority is determined according to the number of values related to the game history of the predetermined item, such as the number of times.

  In addition, depending on the contents of the event, usually 6 items of game history information included in the QR code (the number of unit games executed, the number of BBs, the number of RBs, the number of transitions to ART, the number of completed missions, There are cases where superiority or inferiority cannot be determined only by type and mission achievement rate. For example, the event code “01” shown in FIG. 4 (e) means the number of medals that can be acquired within the business hours of the day, and the event code “1C” means that an event is held to compete for the number of consecutive ARTs. doing. When performing such an event, it is not possible to determine the superiority or inferiority of the players with only the above-described six items of game history information that is normally included in the QR code. In such a case, the event code corresponds to the event code. In addition, items of game history information additionally included in the QR code are predetermined.

  For example, in the case of the event code “1C” shown in FIG. 4E described above, “ART consecutive number of times” is defined as an item of game history information additionally included in the QR code. This “ART consecutive number of times” is game history information collected and stored in the slot machine 1000 in addition to the above-described six items of game history information. Thereby, when the event code “1C” is set in the slot machine 1000 by the management of the game hall or the like, the QR code displayed on the display device 70 is added to the above-described six items of game history information, The game history information related to the “ART continuous number of times” is included.

  Returning to FIG. 4C, the “number of visits” indicates the number of times the owner of the mobile phone 2100 has visited the game hall indicated by the game hall code during the event period. Here, for example, in the RAM 3148 of FIG. 3, the mobile phone number and the mobile phone are received so that the value of “number of visits” increases only by “1” even if the game hall is visited several times a day. An area for storing an on / off state of a flag indicating that the number of visits has been counted (hereinafter referred to as a store visit flag) may be provided in association with the game hall code. If the game field code corresponding to the game hall during the event period is included in the various types of information received from the mobile phone 2100, the management DB 3150 corresponds to the mobile phone number of the mobile phone. “1” is added to the value of “the number of visits”, and the above-mentioned store visit flag is turned on (“1”). When the store visit flag is turned on, even if a game hall code corresponding to the game hall during the event period is included in various information received from the mobile phone 2100, the CPU 3144 stores the game hall code in the management DB 3150. Do not add “1” to the value of “Number of visits”. When the CPU 3144 recognizes that the date has been changed, for example, by using an external real-time clock (not shown), the CPU 3144 updates the state of the store visit flag stored in the RAM 3148 to an off state.

  Next, the “result” in FIG. 4C indicates the content of the game history information of the event content corresponding to the event code. That is, if the event code is “00”, it is not updated when the value of the number of BBs transmitted from the mobile phone 2100 is equal to or less than the value stored in the “result” in the management DB 3150. When it exceeds, it is updated to the value of the received BB count. In addition, when the event code is “01” (number of acquired images per day) and “1C” (number of ART consecutive chunks), the number of payouts received from the mobile phone 2100 and the value of the ART consecutive chunks are already “results”. If the value stored in “” is exceeded, the value already stored is updated to the value received from the mobile phone 2100.

  Next, the “expiration date” in FIG. 4C specifies how long the contents of the event information are to be stored. For example, the CPU 3144 of the management server 3140 uses the above-mentioned real-time clock to When the date is recognized, the date of the “expiration date” associated with the event information stored in the management DB 3150 is checked, and the date and time set as the expiration date are checked. When the date matches, the event information corresponding to the expiration date is deleted.

  In addition to the various types of information described above, the management DB 3150 includes, as held event information, the name of the game hall where the event is held, the game hall code, the contents of the event held at the game hall, Information associating an event code corresponding to the event with the event period is stored.

(1-c) Configuration of Slot Machine FIG. 5A shows a front view of the slot machine 1000. In the figure, a front panel 20 is provided on the front surface of the housing of the slot machine 1000. A display window 22 is formed substantially at the center of the front panel 20, and symbols printed on the outer peripheral surfaces of three reels 40L, 40C, and 40R that are rotatably provided inside the slot machine 1000. Is displayed. Each of the reels 40L, 40C, and 40R is provided such that the respective rotation axes are arranged on the same straight line in the horizontal direction, each having a ring shape, and 21 symbols are printed at equal intervals on the outer peripheral surface thereof. A strip of reel tape is attached. From the display window 22, when the reels 40L, 40C, and 40R are stopped, among the 21 symbols printed on each reel, three symbols that are continuous along the rotation direction of each reel are visually recognized. It is possible. That is, 3 [symbol] × 3 [reel] = 9 symbols in total are stopped and displayed on the display window 22. Here, among the three consecutive symbols displayed when the reels 40L, 40C, and 40R are stopped, the uppermost stop display position is the upper stage U, the middle stop display position is the middle stage M, and the lowermost figure. The stop display position is set to the lower stage L.

  The display window 22 has four winning lines that cross the reels 40L, 40C, and 40R. The four winning lines are the upper horizontal winning line L1 passing through the upper stage U of each reel, the lower stage L of the left reel 40L, the middle stage M of the middle reel 40C, and the upper stage of the right reel 40R in the display window 22. Passing through the upper right diagonal winning line L2 passing through U, the middle horizontal winning line L3 passing through the middle stage M of each reel, the upper stage U of the left reel 40L, the middle stage M of the middle reel 40C, and the lower stage L of the right reel 40R And slanting right-down diagonal winning line L4. Thus, each winning line passes through any one of the three stop display positions (upper U, middle M, and lower L) of the reels 40L, 40C, and 40R.

  Each of the winning lines L1 to L4 is a reference line for determining a combination of symbols corresponding to a plurality of predetermined types (described later), and when the reels 40L, 40C, and 40R are stopped, Of the four winning lines, a combination of three symbols each stopped and displayed at a stop display position through which a winning line deemed valid (hereinafter referred to as an effective line) passes corresponds to one of the roles. Sometimes the role is won.

  In addition to the display window 22, the front panel 20 is provided with various lamps and a display for notifying the player of various information regarding the game. First, on the left side of the display window 22, operation instruction lamps 24L, 24C, and 24R are provided in order from the top in FIG. These operation instruction lamps 24L, 24C, and 24R are for instructing the player the operation order of stop switches 37L, 37C, and 37R described later when the reels 40L, 40C, and 40R are rotating. That is, the left stop switch 37L is operated when the operation instruction lamp 24L is lit, the middle stop switch 37C is operated when the operation instruction lamp 24C is lit, and the right stop switch 37R is operated when the operation instruction lamp 24R is lit. Indicates that it should be.

  Below the display window 22, bet number (betting number) display lamps 26 a, 26 b, 26 c, a credit number display unit 27, and an acquired number display unit 28 are provided in order from the left in FIG. ing. The bet number display lamps 26a, 26b, and 26c are for displaying the number of medals inserted in one game. That is, when one medal is inserted, only the bet number display lamp 26a is turned on. When two medals are inserted, the bet number display lamps 26a and 26b are turned on and three medals are inserted. The bet number display lamps 26a, 26b, and 26c are turned on. Here, the slot machine 1000 is a so-called three-sheet betting machine in which one game can be performed by inserting three medals, and the winning lines L1 to L4 are all active lines. The credit number indicator 27 is a two-digit seven-segment indicator, and displays the number of medals credited (stored) in the slot machine 1000 (more specifically, stored in the RAM 110 described later). . The acquired number display 28 is a two-digit 7-segment display, and displays the number of medals to be paid out to the player according to the game result in the slot machine 1000.

  A substantially horizontal operation panel unit 30 is provided below the front panel 20 described above. A medal slot 32 for inserting medals into the slot machine 1000 is provided on the upper right side of the operation panel 30. A medal sensor (not shown) is provided inside the medal insertion slot 32. When a medal inserted from the medal insertion slot 32 is detected, a medal detection signal is output. By counting the number of outputs of the medal detection signal, the number of inserted medals can be recognized. A 1-bet switch 34 and a maximum bet switch 35 that can insert credited medals into the slot machine 10 are provided on the upper left side of the operation panel 30. Further, a password input screen for inputting a password, which will be described later, is displayed on the display device 70 between the medal slot 32 and the maximum bet switch 35, or QR for accessing the game server 3100 described above. A direction button switch 38 and an enter button switch 39 are provided for performing an operation for displaying the code on the display device 70.

  The 1-bet switch 34 is a switch for inserting only one medal that is credited every time it is operated into the slot machine 10 as a game betting target. The maximum bet switch 35 is a switch for inserting three of the credited medals into the slot machine 1000 as a game betting target. When three medals are inserted into the slot machine 1000 from the medal insertion slot 32 or by operating the various bet switches 34 and 35, the bet number display lamps 26a, 26b, and 26c are sequentially displayed every time a medal is inserted. The winning lines L1 to L4 become effective lines. Further, when medals are inserted by operating the various bet switches 34 and 35, the number of inserted medals is subtracted from the number of credits stored in the RAM 110, which will be described later. The value displayed in is also subtracted. When a prescribed number (three) of medals have already been inserted, and further medals are inserted from the medal insertion slot 32, the number of inserted medals is added to the number of credits stored in the RAM 110. And is added to the value displayed on the credit amount display 27.

  Further, as shown in the plan view of FIG. 5B, the direction button switch 38 includes an upward switch 38U that indicates an upward direction, a right switch 38R that indicates a right direction, and a downward switch 38D that indicates a downward direction. , And four button switches of a left direction switch 38L for indicating the left direction. In addition, the character “PUSH” is printed on the upper surface (operation surface) of the determination button switch 39, and the material thereof is a member that transmits light. Inside the determination button switch 39, a light source such as an LED is provided. The light source is capable of driving control such as lighting / extinguishing / flashing.

  A start switch 36 is tiltably provided on the left side of the front face of the operation panel unit 30. Further, on the left side of the start switch 36, a settlement switch 33 for discharging credited medals from a medal payout outlet 60 described later. Is provided. When the player inserts a prescribed number (three) of medals into the slot machine 1000 and then tilts the start switch 36, the three reels 40L, 40C and 40R described above start to rotate all at once. As a result, the symbols printed on the outer peripheral surfaces of the reels 40L, 40C and 40R are moved (scrolled) from the top to the bottom in the display window 22. Three stop switches 37L, 37C, and 37R are provided at the center of the front surface of the operation panel 30. Here, the left stop switch 37L corresponds to the left reel 40L, the middle stop switch 37C corresponds to the middle reel 40C, and the right stop switch 37R corresponds to the right reel 40R. The stop switches 37L, 37C, and 37R are operated by the player when the rotation speeds of the three reels 40L, 40C, and 40R reach a predetermined steady rotation speed (for example, 80 rotations / minute).

  When the player pushes the left stop switch 37L, the left reel 40L stops. When the middle stop switch 37C is pushed, the middle reel 40C stops and the right stop switch 37R is pushed. Sometimes the right reel 40R stops. At this time, each of the three reels 40L, 40C, and 40R has the center position of any three consecutive symbols out of the symbols drawn on the outer peripheral surface of each reel, the upper U in the display window 22, Stop control is performed so as to be positioned at the center of each of the middle stage M and the lower stage L. Here, a position where the center of the symbol coincides with the center of the stop display position is referred to as a fixed position. In the slot machine 1000, when the player stops the corresponding reel by operating the stop switch, reel stop control is performed so that the symbol always stops at a fixed position.

  A lower panel 50 on which a model name of the slot machine 1000 and characters adopted as a motif are drawn is disposed below the operation panel unit 30. A medal payout opening 60 for paying out medals to the player is provided at a substantially lower center of the lower panel 50. That is, when the reels 40L, 40C and 40R are stopped and the combination of the three symbols stopped and displayed along the active line corresponds to the small role, the hopper (inside the slot machine 1000) (Not shown) is activated and the number of medals corresponding to the small combination is paid out. Then, the paid-out medals are discharged from the medal payout outlet 60 and stored in the tray 61. On the right side and the left side of the medal payout opening 60, sound transmission holes 62R and 62L are provided for allowing sounds emitted from speakers 64R and 64L (described later) housed inside the slot machine 1000 to pass outside. Yes.

  A display device 70 composed of a liquid crystal display panel is provided above the front panel 20. The display device 70 is not limited to the above-described liquid crystal display panel, and any other image display device can be used as long as the player can visually recognize image information and text information during the game. The display device 70 displays a game history, an effect image displayed during a special game, an effect image for notifying the result of a role lottery, a game progress (medal insertion → operation of the start switch 36 → reel It is possible to display an effect image or the like according to (rotation → operation of stop switches 37L, 37C, 37R → all reel rotation stop). Above the display device 70, there is provided an upper effect lamp 72 that blinks in a pattern corresponding to the winning combination when the reels 40L, 40C, 40R are stopped and a certain winning combination is won.

  Next, with reference to FIG. 6, the arrangement of symbols printed on the reel tape attached to the outer peripheral surfaces of the reels 40L, 40C and 40R will be described. As described above, 21 symbols are printed on the outer peripheral surfaces of the reels 40L, 40C, and 40R. Each symbol is displayed in each symbol display area divided into 21 equal parts in the longitudinal direction of the reel tape. One design is printed. In addition, there are ten types of symbols displayed in each symbol display area, and a type code (not shown) is predetermined according to each type. The types of symbols in this embodiment are “Plum” symbols with plum motifs, “White 7” symbols with the number 7 in white and red, “Red 7” symbols, and fictional emblems. The “emblem” design, the “bell 1” design and the “bell 2” design, which are different in appearance from each other, the “BAR” design with a bar-shaped lump motif, and watermelon There are “Watermelon” designs with motifs, “Cherry” designs with cherries as motifs, and “Blank” designs that are drawn inconspicuously in colors such as light gray.

  In addition, symbol numbers “1” to “21” are predetermined in each symbol display area of the reel tape attached to each of the reels 40L, 40C, and 40R. As shown in FIG. The number is associated with a symbol type code printed in the symbol display area corresponding to the symbol number, and stored in the ROM 108 described later. These pieces of information are referred to when the slot machine 1000 identifies symbols displayed at each stop display position (upper U, middle M, and lower L) of the display window 22. Hereinafter, the symbol number and the type code are collectively referred to as symbol identification information. When the reel tapes having the contents shown in FIG. 6 are attached to the outer peripheral surfaces of the corresponding reels 40L, 40C, and 40R, the symbols of symbol numbers “1” and “21” are consecutive in the symbol array shown in FIG. It will be.

  When the reels 40L, 40C, and 40R are rotated, the three symbols of each reel displayed in the display window 22 are scroll-displayed in a direction in which the values of three consecutive symbol numbers are increased. For example, when symbols of symbol numbers “1”, “2”, and “3” are displayed from the lower L to the upper U of the display window 22, the symbols that are displayed thereafter are symbol numbers “2”. ”,“ 3 ”,“ 4 ”→ design numbers“ 3 ”,“ 4 ”,“ 5 ”→ design numbers“ 4 ”,“ 5 ”,“ 6 ”→... When the symbol numbers “19”, “20”, and “21” are displayed, the symbol numbers, symbol numbers “20”, “21”, “1” → symbol numbers “21”, “1”, “ 2 ”→ symbol number“ 1 ”,“ 2 ”,“ 3 ”→... Three consecutive symbols from symbol numbers“ 1 ”to“ 21 ”circulate until the reel stops. Scrolled.

(1-c-1) Configuration of Control Circuit The control circuit that controls the slot machine 1000 includes a main control circuit 100 and a sub control circuit 200. Here, a block diagram of the main control circuit 100 is shown in FIG. 7, and a block diagram of the sub-control circuit 200 electrically connected thereto is shown in FIG.

(1-c-1-1) Configuration of Main Control Circuit The CPU 106 shown in FIG. 7 executes various control programs stored in the ROM 108 in accordance with various information input via the input / output bus 104. Thus, the game in the slot machine 1000 is controlled. The ROM 108 stores a control program for controlling a unit game in the slot machine 1000 and various data referred to when the control program is executed. As data stored in the ROM 108, in addition to the above-described symbol identification information, for example, symbol combinations and payouts (hereinafter referred to as payout information; see FIG. 10) corresponding to various types of roles described later, and role lotteries described below are performed. The combination lottery table (refer to FIGS. 11 to 13) referred to at the time, and information that defines the correspondence between the operation order of the stop switches 37L, 37C, and 37R and the type of the winning combination according to the result of the combination lottery 14 and 15). Further, the control program stored in the ROM 108 includes a program for executing processing of a main routine shown in FIG. 19 and subroutines shown in FIGS.

  A RAM 110 is also connected to the input / output bus 104, and the CPU 106 refers to various flags (for example, a winning flag corresponding to a winning combination by a combination lottery described later, a replay prize) in the course of performing the above-described control program processing. Flags, etc.) and values of variables (values such as symbol numbers displayed on the display window 22, number of medals inserted, number of credits, number of medals paid out, number of games in various gaming states, etc.) are temporarily stored. The RAM 110 also stores game state information indicating the game state of the slot machine 1000. The game state information includes information indicating four game states of “normal game”, “SB game”, “RB game”, and “BB game”, and an RT state (“non-RT” / “RT1” during normal game). ”/“ RT2 ”/“ RT3 ”). In the slot machine 1000, processing related to selection of the above-described combination lottery table and transition between game states is performed in accordance with these game states. Each gaming state described above will be described in detail later.

  Further, the above-described combination lottery table is obtained by appropriately assigning a numerical range within the range of 0 to 65535 for each combination shown in FIG. 10, and corresponds to each of the above-described gaming state and RT state. A plurality of types of lottery tables are stored in the ROM 108. One numerical range may be assigned to one combination, or the same numerical range may be allocated to a plurality of combinations.

  Various information input to the CPU 106 includes signals output from the 1-bet switch 34, the maximum bet switch 35, the start switch 36, and the stop switches 37L, 37C, and 37R shown in FIG. The signal is input to the CPU 106 via the interface circuit 102 connected to the input / output bus 104. Further, the information input to the CPU 106 includes a random number (integer) generated by the random number generator 112 within a numerical range of 0 to 65535 (2 to the 16th power). Are input to the CPU 106.

  The CPU 106 controls various devices connected to the input / output bus 104 by executing a control program stored in the ROM 108. First, the CPU 106 outputs a drive pulse to the motor drive circuit 114, and performs rotation control of the stepping motors 80L, 80C, and 80R. Each of the stepping motors 80L, 80C, and 80R is provided on the inner peripheral side of the three reels 40L, 40C, and 40R, and the rotation centers of the reels 40L, 40C, and 40R are attached to the rotation shafts of the stepping motors 80L, 80C, and 80R. ing. The motor drive circuit 114 is connected to the stepping motors 80L, 80C, and 80R, and rotates each stepping motor one step each time a drive pulse is output from the CPU 106.

  In addition, the CPU 106 transmits the value of the number of credits stored in the RAM 110 to the LED driving circuit 116, whereby the LED driving circuit 116 displays the number of credits corresponding to the received numerical value. Each of the 27 segments is lit. In addition, when the CPU 106 pays out a medal to the player as a result of one game, the CPU 106 transmits the numerical value of the number of medals to the LED driving circuit 116, thereby the LED driving circuit. 116 lights each segment of the acquired number display 28 so as to display a number corresponding to the received numerical value.

  Further, the CPU 106 sends various information related to the unit game such as information related to the inserted medal, information related to the result of the lottery, information related to the operated stop switch, information related to the result of the unit game from the interface circuit 102 to the connection line 120. To the sub control circuit 200 to be described next.

(1-c-1-2) Configuration of Sub Control Circuit Next, the configuration of the sub control circuit 200 will be described with reference to FIG. The connection line 120 described above is connected to the interface circuit 202 connected to the input / output bus 204 of the sub control circuit 200. Various types of information transmitted from the main control circuit 100 to the sub control circuit 200 are converted into predetermined signals by the interface circuit 202, supplied to the input / output bus 204, and temporarily stored in the RAM 210. The input / output bus 204 includes a ROM 208, a RAM 210, a lamp driving circuit 218, a display driving circuit 220, a speaker driving circuit 222, an input interface (hereinafter referred to as input I / F) circuit 224, a game hall code setting means 226, and an event code. Setting means 228 is also connected.

  The ROM 208 stores a control program for controlling the lamp driving circuit 218, the display driving circuit 220, and the speaker driving circuit 222, and various data referred to when executing the various control programs. The ROM 208 also stores various image data to be displayed on the display device 70, musical sound data to be emitted from the speakers 64L and 64R, blinking pattern data for driving the upper effect lamp 72, and the like. Here, as a control program stored in the ROM 208, a control program related to effects and notifications performed in a unit game of the slot machine 1000, a control program related to a game history information update process, and various processes related to the game system 10 are performed. There are control programs for that.

  In addition, as various data referred to when executing various control programs, a stock lottery table (see FIG. 17) for determining whether or not to generate a right (stock) to start an ART game, which will be described later, An effect lottery table (see FIG. 18) for determining the type of effect to be executed in accordance with the result of lottery performed by the lottery means 420, when the player inputs a command related to the gaming system 10, the display device 70 Image data of various screens (see FIG. 33) to be displayed. The contents of the various tables shown in FIGS. 17 and 18 will be described in detail later. In the RAM 210, various data generated / updated in the course of executing the various control programs described above, the flag on / off state, various information transmitted from the main control circuit 100, and the various types of information The game history information (details will be described later) counted based on the information is also stored.

  The lamp driving circuit 218 lights / flashes the operation instruction lamps 24L, 24C, 24R and the upper effect lamp 72 in accordance with driving commands output from the CPU 206 based on various information signals supplied from the main control circuit 100. . The display drive circuit 220 causes the display device 70 to display image data, character data, and the like read from the ROM 208 by the CPU 206 based on the information signal supplied from the main control circuit 100. As a result, various display images (still images or moving images) based on the image data are displayed on the display device 70, or the character data is displayed as a character message. The speaker drive circuit 222 drives the speakers 64R and 64L according to the audio data read from the ROM 208 by the CPU 206 based on the information supplied from the main control circuit 100, and the sound transmission holes 62R and 62R shown in FIG. Sound is output from 62L.

  The input I / F circuit 224 outputs a signal output when the player operates the direction button switches 38U, 38D, 38L, and 38R and the determination button switch 39 shown in FIG. To the input / output bus 204. Thereby, the CPU 206 can recognize that the direction button switch 38 and the determination button switch 39 are operated. The game hall code setting means 226 is a dip switch in which eight small slide switches are juxtaposed, and the game hall manager or the like has notified the game hall code from the operator of the game server 3100 (FIG. 4D). Reference). Of the eight small slide switches arranged side by side, one slide switch located on the rightmost side is defined as the least significant digit, and when setting a game hall code, a hexadecimal game hall code is converted into a binary number. The digit “0” is turned off and the digit “1” is turned on. For example, when setting the game hall code “0B”, the eight small slide switches may be set to “0000011” (“0” is off, “1” is on, corresponding to “1” on the rightmost side). Slide switch corresponds to the lowest digit).

  The event code setting means 228 is also a dip switch in which eight small slide switches are juxtaposed, and the event code notified from the manager of the game server 3100 by the administrator of the game hall (see FIG. 4E) Is set. The setting method of the event code is the same as that of the game hall code, and thus detailed description is omitted. Various codes set in the game hall code setting unit 226 and the event code setting unit 228 are included in the QR code displayed on the display device 70 in accordance with the player's operation. Further, the information shown in FIG. 4E (information in which at least each event code is associated with the content of “additional game history”) is stored in advance in the ROM 208 of FIG. 8, and the CPU 206 stores the information of the player. When generating a QR code according to an operation, game history information defined in “additional game history” corresponding to the event code is read from the RAM 210 and included in the generated QR code.

(1-c-2) Description of Functional Block Diagram Next, a functional block diagram of the control circuit of the slot machine 1000 is shown in FIG. In this figure, the same components as those shown in FIGS. 5, 7 and 8 are denoted by the same reference numerals, and detailed description thereof is omitted. First, there are a main control circuit 100 and a sub-control circuit 200 as control circuits, and both are electrically connected. Here, from the main control circuit 100 to the sub control circuit 200, various types of information (details will be described later) relating to the game in the slot machine 1000 are transmitted via the connection line 120 shown in FIGS. Here, various information communicated between the main control circuit 100 and the sub control circuit 200 is limited to one direction from the main control circuit 100 to the sub control circuit 200. No information is sent to 100.

  The main control circuit 100 is electrically connected to the operation means 300 and the motor drive circuit 114. The sub-control circuit 200 is electrically connected to command input means 340 and effect means 600 including speakers 64L and 64R, display device 70, and upper effect lamp 72R. The operation means 300 includes a rotation instruction means 310 comprising a start switch 36, a stop instruction means 320 comprising three stop switches 37L, 37C and 37R, a 1-bet switch 34, a maximum bet switch 35 and a medal insertion slot 32. And a game medium input means 330 including a medal sensor 332 (not shown) for detecting the received medal. The command input means 340 includes a direction button switch 38 and a determination button switch 39. The operation means 300 and the command input means 340 are not limited to switches, and any means can be applied as long as an operation signal is generated based on an operation using the player's limbs. In addition, the notification output means 600 is not limited to a device that provides auditory and visual notification of the player, such as sound and light. For example, a vibration generator such as a vibrator is provided inside the slot machine 1000 to specify a specific part. You may make it perform the alerting | reporting recognized by a player's tactile sense by vibrating.

(1-c-2-1) Description of Block Diagram of Main Control Circuit The main control circuit 100 includes an inserted number determination means 410, a winning lottery means 420, a reel control means 430, a winning determination means 440, and a winning process. A means 450, a signal output means 460, and a game progress prohibiting means 470 are included. The game medium detection unit 410 determines the number of medals inserted when a unit game is performed based on each signal output from the game medium input unit 330. The role lottery means 420 determines whether or not one or more of the predetermined roles are won by performing the role lottery.

  The predetermined roles described above are roughly classified into three types: small roles, replay (also called replay) roles, and bonus roles (special roles). A small combination is a combination in which a predetermined number of medals are paid out to the player when winning a prize, and a plurality of types of small combinations are determined according to corresponding symbol combinations. The re-playing role is a role that can be played again without inserting medals only for the next game when winning. This game that can be played again is called replay (replay), and the effective line in the replay is the same as the effective line in the game won by the regamer.

  The bonus combination is a combination in which a special game in which a possibility that a medal can be obtained in each game is high will be started until a predetermined end condition is satisfied from the next game when a prize is won during a normal game. The special games in the slot machine 1000 include a BB game, an RB game, and an SB game depending on the end conditions. In the BB game, when the number of medals paid out exceeds a predetermined number (here, 300), the end condition is satisfied, and the game returns to the game (the normal game) before the transition to the special game. Also, in the RB game, when the game is played a predetermined number of times (for example, 12 times) or the number of times the small role is won reaches a predetermined number of times (for example, 8 times), the RB game end condition is satisfied and the normal game is returned. The SB game is a game that is performed only once for the next unit game when the SB combination wins, and is a unit game in which the winning probability of a predetermined combination in the combination lottery increases. Note that when a prize is won, a combination that starts a BB game is called a BB combination, a combination that starts an RB game is called an RB combination, and a combination that starts an SB game is called an SB combination.

(A) Description of the role lottery means The role lottery means 420 includes a lottery table selection means 422 and a special role winning holding means 424, and the random numbers shown in FIG. 7 when the start switch 36 is operated by the player. The random number generated by the generator 112 is extracted, and whether or not one or more winning combinations are determined is determined based on the random number and the winning lottery table stored in the ROM 108. In other words, the lottery table selecting unit 422 selects a combination lottery table corresponding to the current gaming state and RT state from among a plurality of types of combination lottery tables stored in the ROM 108, and the combination lottery unit 420 selects the selected lottery table 420. A role lottery is performed based on the role lottery table.

  Here, the contents of the role lottery used in each gaming state will be described with reference to FIGS. First, in FIG. 11, (a) shows the contents of the role lottery table used when the game state is a normal game and the RT state is “RT1” or “RT3”. FIG. 5B shows the contents of the role lottery table used when the game state is a special game (RB game or BB game). FIG. 12 shows the contents of the role lottery table used when the game state is a normal game and the RT state is “RT2”. Further, FIG. 13 shows the contents of the role lottery table used when the game state is a normal game and the RT state is “non-RT”.

  As for the role lottery table shown in FIG. 11 (a), separate role lottery tables are used for “RT1” and “RT3”, but the difference between them is the lottery result number. Only the numerical range of “13” and “14”. That is, in the winning lottery table for “RT1”, the numerical range of the lottery result number “13” is “41740” to “50718”, and the numerical range of the lottery result number “14” is “0” to “41739”. Yes. On the other hand, in the combination lottery table for “RT3”, the numerical range of the lottery result number “13” is “1” to “50718” as shown by the numerical value in parentheses in FIG. Only the random value “0” corresponds to the lottery result number “14”.

  The combination lottery table associates random values (0 to 65535) that can be generated by the random number generator 112 with the lottery results, and the random number extracted from the random number generator 112 indicates which of the combination lottery tables One lottery result (lottery result number) is derived depending on whether it belongs to the numerical value range. The combination corresponding to the derived lottery result number is the combination won in the combination lottery (hereinafter also referred to as a winning combination). However, if the lottery is associated with the derived lottery result number, it means that no winning combination has been won (has been lost). A value obtained by dividing a numerical range (numerical value) corresponding to each lottery result number by 65536 is a probability that each lottery result number is derived (synonymous with the winning probability of each combination).

  For example, in the case of the role lottery table shown in FIG. 11A, if the extracted random number is a value included in the range of “0” to “41739” at “RT1”, the lottery result number “ 14 ”is derived, and the result of the lottery is lost. In addition, when the extracted random number is a value included in the range of “52402” to “54579”, the lottery result number “10” is derived, and all of the small roles 2a, 2b and 2c are won. It will be done.

  As a result of the lottery, when a certain winning combination is won, a flag corresponding to the winning combination (hereinafter, this flag is referred to as a winning flag) is turned on (“1”). The on / off state of the winning flag corresponding to each combination is stored in the RAM 110 shown in FIG. When one game is completed, if the winning flag corresponding to either the re-playing role or the small role is turned on, the winning flag regardless of whether or not the corresponding role is won. Is turned off. On the other hand, if the winning flag for any of the BB combination a, BB combination b, and RB combination is turned on during a normal game, the winning flag is not turned off even if those combinations do not win, The on state is maintained until the winning combination is won. Thus, the state where the ON state of the winning flag is maintained is also referred to as “carrying over the bonus flag”.

  Further, in a game in which the bonus flag is carried over, if any small role or re-playing role is won in the role lottery, the winning flag corresponding to the winning role is turned on. Therefore, in this case, both the winning flag of the winning combination determined in the unit game and the winning flag that has been carried over by the bonus flag are turned on. Furthermore, even if any special combination is won in a game in which the bonus flag is carried over, the winning flag corresponding to the special combination is not turned on. Therefore, the plurality of winning flags corresponding to the special combination are not turned on in parallel.

  Next, in the combination lottery table shown in FIG. 11B, no BB combination or RB combination is associated with any lottery result number. Therefore, during the RB game and the BB game, the BB combination or the RB combination is not won. In addition, during the RB game and the BB game, the combined winning probability of the small role 1, the small role 2a, and the small role 3 is very high as about 1 / 1.01. It can be said that the gaming state is advantageous to the player.

  Next, in the role lottery table for “RT2” shown in FIG. 12, the types of the roles associated with the lottery result numbers “1” to “12” and the numerical ranges associated with the lottery result numbers, respectively. Is exactly the same as the winning lottery table for “RT1” and “RT3” shown in FIG. However, with regard to the lottery regarding the re-game role, in the role lottery table shown in FIG. 11 (a), only the re-game character a can be a winning character in one role lottery table, whereas the role lottery table shown in FIG. Then, a plurality of types of re-game players can be elected at the same time. That is, as shown in FIG. 12B, any one of the re-game players a to f (see FIG. 10) can win simultaneously. In FIG. 12B, for each of the lottery result numbers “13” to “24”, “O” marks are given to the re-game players who are won simultaneously. For example, when the lottery result number “13” is derived, the re-game players a, b, d are simultaneously won, and when the lottery result number “14” is derived, the re-game players b, d, e are You will be elected at the same time.

Similarly, in the “non-RT” combination lottery table shown in FIG. 13, a plurality of re-game players are associated with the lottery result numbers “13” to “18”. For each lottery result number, the type of re-playing combination that is won is shown in FIG.
In each combination lottery table used during the normal game shown in FIG. 11A, FIG. 12 and FIG. 13, the winning probability of the re-game combination in “non-RT” and “RT1” (“non-RT” is combined). The winning probabilities are about 1 / 7.2996 and 1 / 7.2988, respectively, whereas the winning probabilities of the re-gamer in “RT2” and “RT3” (the combined winning probability for “RT2”) are , About 1 / 1.922 and 1 / 1.2921, respectively. Therefore, it can be said that when a normal game is played and the RT state is “RT2” or “RT3”, it is easy to win any of the re-game players.

  In addition, the ROM 108 stores six types of lottery tables that have the same winning probability for the small role, but have different winning probabilities for the RB role and the BB role, for each of the lottery tables used during normal games. Has been. Each of these six types of lottery tables is associated with any one set value from “1” to “6”. Here, the setting value “6” is associated with the winning lottery table having the highest winning probability for the RB role and the BB role, and the setting values that are associated with each other as the winning probability for the RB role and the BB role is reduced. Will also decrease by "1". Therefore, the winning lottery table associated with the set value “1” has the lowest winning probability of the RB combination and the BB combination.

  Further, the RAM 210 shown in FIG. 8 has an area for storing the state of a flag (winning flag) indicating whether or not the winning combination is determined by the winning lottery corresponding to each winning shown in FIG. When the winning combination is determined, the winning flag corresponding to the winning combination is turned on. The ON state of the winning flag is basically turned off when the unit game in which the winning lottery is completed ends, but the BB winning a, BB winning b or RB winning a, RB winning b (hereinafter referred to as these) The special winning combination holding means 424 holds the corresponding winning flag on state until the winning combination is won only when the winning combination is determined to be a winning combination. That is, the special combination winning holding means 424 realizes a so-called bonus flag carryover state.

(A) Description of Reel Control Unit The reel control unit 430 includes a reel stop control unit 432 and performs control related to the rotational drive of the reels 40L, 40C, and 40R. That is, when the reel rotation start signal transmitted from the start switch 36 is received, the stepping motors 80L, 80C, 80R are driven via the motor drive circuit 114. Thus, after the reels 40L, 40C, and 40R are rotated, when one of the stop switches 37L, 37C, and 37R is operated by the player, the reel stop control unit 432 causes the reel corresponding to the operated stop switch. Perform stop control.

  When the stop control is performed, the reel stop control unit 432 stops the rotation of the corresponding reel within 190 milliseconds after the stop switch is operated. That is, when the steady rotation speed is 80 revolutions / minute and the number of symbols per reel is 21, from the rotational position of the reel when the stop switch is operated, until the maximum number of 5 symbols is rotated. The reel is stopped during The symbols that constitute the symbol combination (refer to Fig. 10) corresponding to the winning combination determined in the winning lottery (hereinafter referred to as the winning symbol) are valid until the 5 symbols are rotated. When the stop display position through which the line passes (hereinafter referred to as an active line) can be reached, the reel is stopped when the winning symbol reaches the active line.

  Here, when another reel is already stopped and the winning symbol of that reel is stopped on any active line, the winning symbol of the reel to be stopped is stopped on that active line. To control. For example, when the “watermelon” symbol of the left reel 40L is stopped at the upper stage U when the small role 3 is determined as a winning combination, when the stop control of the right reel 40R is performed, The “watermelon” symbol is stopped in the upper stage U (position of the effective line L1) or the lower stage L (position of the effective line L4), whichever can be stopped.

  On the other hand, if the winning symbol cannot be reached on the active line even if the reel to be stopped is rotated by 5 symbols, the symbol appropriately determined in the meantime is stopped and displayed. Stop the reels (but don't win any part). In this case, even if any winning combination is determined in the winning lottery, the winning combination is not won because the symbol combination corresponding to the winning combination is not stopped and displayed on the active line. The result of such a unit game is called “missing”.

  As a result of the reel stop control described above, when the symbol combination shown in the payout information shown in FIG. 10 is stopped and displayed on the active line, the winning combination corresponding to the symbol combination is won. . When a winning combination is made, a bonus that is predetermined for the winning combination is given to the player. For example, when the BB combination, the RB combination and the SB combination win, the BB game, the RB game and the SB game described above are started from the next game, respectively. Here, FIG. 10 shows two types of BB combinations, BB combination a and BB combination b, but these combinations differ only in the corresponding symbol combinations, and the BB game to be started There is no difference in the contents. When the re-game player wins, the next unit game is a re-game that does not require the insertion of medals. This re-game is performed in a state where medals equal to the number of medals inserted when the re-game player wins are inserted. When any of the small combinations 1, small combinations 2a to 2d and small combinations 3 wins, four medals are paid out to the player as a privilege.

  Here, in FIG. 10, the symbol combination of the small role 1 is “CHERRY-ANY-ANY” and the symbol combination of the small role 2 a is “ANY-BELL 1-ANY”. It shows that an arbitrary symbol may be used. Therefore, when the “cherry” symbol of the left reel 40L stops at any of the upper stage U, middle stage M, and lower stage L in the display window 22, the winning of the small role 1 is confirmed at that stage. Further, when the “cherry” symbol of the left reel 40L stops at the upper stage U, the symbol combination of the small role 1 is stopped on the two effective lines of the effective lines L1 and L4. (Sheets) × 2 (books) = 8 sheets. Similarly, in the small role 2a, when the “bell 1” symbol of the middle reel 40C stops at the middle stage M, the symbol combinations of the symbol combinations “ANY-bell-ANY” are respectively displayed on the effective lines L2, L3, and L4. Therefore, the small role 2a wins three times and the payout number is 4 (sheets) × 3 (books) = 12. On the other hand, when the “bell 1” symbol of the middle reel 40C is stopped at the upper stage U, the symbol combination of the small role 2a is stopped only at the effective line L1, and therefore the payout number is only four. .

  In addition, based on the reel stop control described above, when the symbol arrangement of each reel shown in FIG. 6 is viewed, the “bell 1” symbol and the “plum” symbol on all the reels show how the stop switch is set according to the arrangement interval. Even if the operation is performed at a proper timing, the operation can be stopped at any one of the upper stage U, the middle stage M, and the lower stage L. The same applies to the “cherry” symbols for the middle reel 40C and the right reel 40R. Therefore, according to the payout information shown in FIG. 10, the small combination 2a (design combination: ANY-Bell 1-ANY), the re-game combination a (design combination: plum-plum-plum), the re-game combination b (design) When the combination: plum-plum-bell 1), re-playing combination c (design combination: plum-plum-cherry) and re-playing combination d (design combination: bell 1-cherry-bell 1) are determined as winning combinations Even if the player operates the stop switches 37L, 37C, and 37R at any timing, it is possible to win a prize by the reel stop control described above. On the other hand, for a role other than the above-described combination, even if the reel stop control described above is performed, the winning symbol may not be stopped on the active line depending on the operation timing of the stop switch. There is a possibility of missing.

  In addition, when the result of the lottery is lost, the reel control means 430 stops the symbol combination corresponding to any combination on the active line regardless of the timing of operating the stop switches 37L, 37C, 37R. The reels 40L, 40C, and 40R are stopped so that they are not displayed. By performing such reel stop control, the reel stop control means 432 can win a winning combination as much as possible within a predetermined range when a winning combination is won in the winning lottery. If it is not possible, each reel is stopped so that a role other than the winning combination does not win. On the other hand, when the result of the lottery is lost, each reel is stopped so that no winning combination is won.

  In addition, as described above, when the bonus flag is carried over by the special combination winning holding means 424, if a small combination or replay combination is determined as a winning combination in the combination lottery, the winning combination Both the winning flag and the winning flag for the special combination being carried over are turned on, and one of these combinations can be won. In this case, the reel stop control means 432 performs reel stop control for preferentially stopping the winning symbol of the selected small role or replaying character on the active line rather than the winning symbol of the special role. For this reason, there is a possibility that a player can win a special role while carrying a bonus flag. When a result of a role lottery is lost or a role that may be missed is a winning role. When the stop switch is operated at the timing of losing its role.

  In addition, when a small role or replaying role is determined to be a winning combination in the bonus lot carry-over state, the special combination being carried over is preferentially won, as opposed to the reel stop control described above. It may be determined that the reel stop control is performed properly. In this case, the reel stop control means 432 selects the winning symbol for the selected small role or re-playing character only when it is operated at a timing at which the winning symbol for the special role cannot be stopped at the position of the effective line. Reel stop control is performed to stop at the position.

  In addition, the reel control means 430 determines that the medium reels according to the operation order of the stop switches 37L, 37C, 37R when a plurality of small combinations 2 are determined as winning combinations by one combination drawing by the combination drawing unit 420. Reel stop control is performed so that the stop position of the “bell 1” symbol at 40C is different. Here, FIG. 14 shows the relationship between the operation sequence of the stop switches 37L, 37C, and 37R and the stop position of the “bell 1” symbol on the middle reel 40C. Since the slot machine 1000 is provided with three stop switches, there are six operation sequences. Hereinafter, the operation sequence of the left stop switch 37L → the middle stop switch 37C → the right stop switch 37R is the operation sequence 1. That's it. Further, the operation order of the left stop switch 37L → the right stop switch 37R → the middle stop switch 37C is the operation order 2, the operation order of the middle stop switch 37C → the left stop switch 37L → the right stop switch 37R is the operation order 3, and the middle stop switch 37C. → The right stop switch 37R → the left stop switch 37L is operated in the order 4, the right stop switch 37R → the left stop switch 37L → the middle stop switch 37C is operated in the order 5, the right stop switch 37R → the middle stop switch 37C → The operation order of the left stop switch 37L is referred to as an operation order 6.

  As shown in FIG. 10, there are four types of small roles 2, that is, small roles 2 a to 2 d, but combinations of small roles 2 that are won in duplicate in a single role lottery (overlapping winning combination) are shown in FIG. As shown in FIG. 11 to FIG. Then, the relationship between the operation order and the stop position of the “bell 1” symbol of the middle reel 40C when the overlapping winning combination is determined is different for each overlapping winning combination. For example, when the small combination 2a and the small combination 2b are determined as overlapping winning combinations (lottery result number “7”), when the stop switches 37L, 37C, and 37R are operated in the operation sequence 1, “ The “bell 1” symbol stops at the middle stage M, and the small combination 2a wins three times (the number of payouts is 12). In contrast, when the stop switches 3737L, 37C, and 37R are operated in an order other than the operation order 1, the “bell 1” symbol of the middle reel 40C stops at the upper stage U, and the small combination 2a wins a single prize. (The number of payouts is 4).

  Further, when the small combination 2a and the small combination 2c are determined to be the double winning combination (lottery result number “8”), if the operation is performed in the operation order 2, the small combination 2a wins three times, and the other operation order When operated in step 1, the small combination 2a wins a single prize. When the small combination 2a and the small combination 2d are determined as overlapping winning combinations (lottery result number “9”), if operated in the operation order 3 or 4, the small combination 2a wins three times, and the other operation order When operated in step 1, the small combination 2a wins a single prize. When the small role 2a, the small role 2b, and the small role 2c are determined to be a double winning combination (lottery result number “10”), the small role 2a wins three times when operated in the operation order 5, and the others When operated in the operation order, the small combination 2a wins a single prize. When the small role 2a, the small role 2b, and the small role 2d are determined as overlapping winning combinations (lottery result number “11”), the small role 2a is awarded three times when operated in the operation order 6, When operated in the operation order, the small combination 2a wins a single prize. As described above, when a plurality of small roles 2 are won in one winning lottery, reel stop control is performed so that the number of medals to be paid out varies depending on the operation order of the stop switches 37L, 37C, and 37R. .

  Furthermore, the role lottery means 420 also performs a role lottery in which a plurality of replaying roles are determined as a winning combination in one role lottery. That is, as shown in FIG. 10, there are six types of re-game players a to f, but the lottery result number “13” is determined by the role lottery table used in “RT2” shown in FIG. ”To“ 24 ”is derived, or one of the lottery result numbers“ 13 ”to“ 18 ”is derived from the role lottery table used in“ non-RT ”shown in FIG. 13. In such a case, each re-game player shown in FIG. 12B and FIG.

  Then, the reel stop control is performed on each overlapping winning combination so that the type of re-playing combination that is won depends on the operation order. Specifically, when any of the lottery result numbers “13” to “18” is derived at the time of “RT2” or “non-RT”, the re-game player b or the re-game player is selected according to the operation order. One of d wins (see FIG. 15A). Further, when any of the lottery result numbers “19” to “24” is derived at the time of “RT2”, either the re-game player c or the re-game player d wins according to the operation order ( (Refer FIG.15 (b)).

  The six types of overlapping winning combinations relating to the re-game player shown in FIG. 15A are each when the stop switches 37L, 37C, and 37R are operated in one predetermined operation order among the six operation orders. When the re-gamer b wins and the stop switches 37L, 37C, and 37R are operated in the other operation order, the reel stop control for winning the re-gamer d is performed. Similarly, each of the six types of duplicate winning combinations related to the re-game player shown in FIG. 15B is operated by the stop switches 37L, 37C, and 37R in one predetermined operation order among the six operation orders. Then, the re-game player c wins, and when the stop switches 37L, 37C, and 37R are operated in the other operation order, the reel stop control for winning the re-game player d is performed.

  Note that when one type of winning combination is won independently in the winning lottery, the reel stop control means 432 does not depend on the operating order of the stop switches 37L, 37C, 37R, and depends on the timing at which the stop switch is operated. The reel stop control as described above is performed. For example, when the lottery result number “13” is derived when the RT state is “RT1” or “RT3”, only the re-game player a is selected as the winning combination alone, but in this case, the stop switch 37L , 37C, 37R, the re-gamer a always wins regardless of the operation order. In addition, as will be described in detail later, in the slot machine 1000, the winning of the re-gamer is a transition condition of the RT state, and depending on the current RT state and the type of the re-gamer who has won the prize, The situation is determined to be different. That is, when a plurality of re-game players are won in one combination lottery, the transition destination RT state is determined to be different according to the operation order of the stop switches 37L, 37C, 37R.

(C) Explanation of the winning determination means The winning determination means 440 has a gaming state control means 442, and when all the reels 40L, 40C, 40R are stopped, performs a winning determination for determining whether or not a winning combination has been won. Then, the game state control means 432 is caused to perform the transition control of the game state and the RT state described above according to the result of the winning determination or the like. The winning determination means 440 stores a type code corresponding to the symbol number of each reel shown in FIG. 6, and the nine symbol types displayed on the display window 22 when the reels 40L, 40C, 40R are stopped. Is identified. Then, based on the nine symbols specified, each symbol combination stopped and displayed along each of the active lines L1 to L4 is recognized, and whether or not any combination has won based on the payout information shown in FIG. Determine whether. In addition, after the determination, regardless of whether or not a prize has been won, if the winning flag corresponding to the small role or re-playing role that is on is turned off and the special role wins, the special role will be handled. The winning flag to be turned off.

  The gaming state control means 442 determines the gaming state (“normal game”, “RB game”, “BB game”) according to the winning of the SB role, RB role, BB role and the end of the SB game, RB game, BB game. Control the migration of Further, during the normal game, the RT state (“non-RT”, “RT1”, “RT2” is determined in accordance with the type of the re-game player who has won the prize and the number of games executed (hereinafter, the unit of the number of games is referred to as “game”). ”,“ RT3 ”). Here, with reference to the state transition diagram shown in FIG. 16, the transition of each gaming state and the RT state will be described. First, the game state at the beginning of the game is “normal game”, and the RT state is “RT1”. If the player misses the SB combination while in this state, the gaming state control means 442 shifts the RT state to “non-RT”. Further, when the re-gamer b wins in “non-RT”, the gaming state control means 442 shifts the RT state to “RT2”.

  Further, when the re-game player c wins when the RT state is “RT2”, the game state control means 442 shifts the RT state to “RT3”. On the other hand, when the re-game player d wins when the RT state is “RT2”, the game state control unit 442 shifts the RT state to “non-RT”. When 50 unit games are played while the RT state is “RT3”, the game state control means 442 shifts the RT state to “non-RT”. In this way, after the slot machine 1000 is turned on, after the RT state shifts from “RT1” to “non-RT”, the RT state is “RT2” according to the type of the re-game player who has won the prize or the number of games played. ”,“ RT3 ”, and“ non-RT ”. In addition, during a normal game, if a special combination wins in any RT state, the game state control means 442 causes the game state corresponding to the special combination won from the “normal game” (ie, “SB game”). , “RB game” or “BB game”). When the corresponding special game ends, the game state is returned to “normal game” again, and the RT state is set to “RT1”.

  Here, in each RT state of “non-RT”, “RT1”, “RT2”, and “RT3”, the combined winning probability (probability that any replaying player will win) in the winning lottery is different. ing. That is, as shown in FIG. 16, the combined winning probabilities of the re-gamer in “non-RT” and “RT1” are 1 / 7.2996 and 1 / 7.2988, respectively, whereas “RT2” and The combined winning probabilities of the re-gamer in “RT3” are 1 / 1.922 and 1 / 1.2921, respectively. Therefore, when the RT state is “RT2” or “RT3” than when it is “non-RT” or “RT1”, there is a high possibility that more unit games can be performed with a smaller number of medals. It can be said that this is an advantageous state for the player. However, in “RT 2”, the combined winning probability of the re-gamer becomes higher and the possibility that the re-gamer d will win increases. As shown in FIG. 16, when the re-gamer d wins, Therefore, it can be said that there is a high possibility that a state advantageous to the player will be completed in a short period of time. On the other hand, since “RT3” can always play 50 unit games that increase the combined winning probability of the re-gamer, it becomes the most advantageous RT state for the player during normal games. It can be said that.

(D) Explanation of the winning processing means The winning processing means 450 drives a hopper (not shown) provided in the slot machine 1000 when the winning determination means 440 determines that any small role has won. Then, control for paying out the number of medals (see FIG. 10) corresponding to the winning small combination is performed.

(1-c-2-2) Explanation of Block Diagram of Sub-Control Circuit The sub-control circuit 200 mainly includes an effect control means 500, an information storage control means 510, a notification control means 520, and a game history update means 530. , An access information generating unit 540, a command input prohibiting unit 550, and a notification period control unit 560.

(A) Description of Effect Control Unit The effect control unit 500 includes an effect data storage unit 502, an effect selection unit 504, and a transition determination unit 506. The effect unit 600 performs an effect executed during a unit game. Control. The effect data storage means 502 stores image (moving image or still image) data, sound effects or musical sound data, and blink pattern data of the upper effect lamp 72 for executing various effects. The effect selection means 504 performs random lottery based on the effect lottery table shown in FIG. 18 according to the result of the lottery and the game state transmitted from the main control circuit 100, and determines the contents of the effect to be executed.

  Here, the types of effects that can be determined by the effect lottery table of FIG. 18 will be described. In the “effect type” in the effect lottery table of FIG. 18, the character effect is an effect that suggests the type of winning combination depending on the display mode of the character displayed on the display device 70. Here, as a specific example of the display mode, for example, there is a color of clothes in which the displayed character is coming. That is, when the color corresponding to each combination is determined in advance and the character effect is selected, the character wearing the color corresponding to the winning combination is displayed on the display device 70.

  The serif effect is an effect that suggests the type of winning combination depending on the content of the character displayed on the display device 70. Specifically, a line corresponding to each combination is determined in advance, and when the line production is selected, the line corresponding to the winning combination is displayed from the speakers 64L and 64R with the voice of the character displayed on the display device 70. Speak. A continuous effect is a series of effects performed over a plurality of consecutive unit games. Here, when a continuous production is performed when the BB combination or the RB combination is determined to be a winning combination by the role lottery, an image clearly indicating that is displayed on the display device 70 when the continuous production ends. Let In addition, when the continuous production is being performed, the production control unit 500 performs the continuous production when the power of the slot machine 1000 is turned off and then turned on again. Even if the operation is finished and the power is turned on, the continuous performance is not resumed.

  The battle effect is an effect of causing the display device 70 to display a situation where a character A and a character B facing the character A fight each other. Then, after all reels have stopped, the end of the fight is displayed. When character A wins, it is confirmed that ART is started, and when character A loses. Indicates that no stock is stored and ART is not started. Here, in the battle effect, there is a reverse pattern in which the character A once loses after all reels stop, but the character A attacks the character B again after a while and wins.

  The button use effect is displayed on the display device 70 when all the reels are stopped and a message instructing the display device 70 to repeatedly press the determination button switch 39 is displayed. The produced character starts running, and an effect of competing with another character is started. Here, the shorter the interval at which the enter button switch 39 is repeatedly hit, the faster the displayed character runs, and when the character finishes first, the BB role or RB role is determined as the winning role. It is a production that means that.

  Then, the production control unit 500 produces various data such as image (moving image or still image) data, sound effects or musical tone data, blinking pattern data, etc. corresponding to the production content determined by the production selection unit 504. And the display device 70, the speakers 64L and 64R, and the upper effect lamp 72 of the notification output means 600 are driven based on the various data read out.

  The shift determination unit 506 determines whether or not the stock generated by the stock lottery based on the stock lottery table shown in FIG. 17 is stored in the RAM 210 shown in FIG. Then, when the production control unit 500 determines that the stock is stored in the RAM 210 when the production selected by the production lottery based on the production lottery table shown in FIG. The battle effect of the pattern (including the reverse pattern) in which the character A wins is performed. When the transition determining unit 506 determines that the stock is not stored in the RAM 210, the effect control unit 500 performs a battle effect of a pattern in which the character A is defeated.

(A) Description of Information Storage Control Unit The information storage control unit 510 includes a predetermined event occurrence storage unit 512 and an unreported information storage unit 514, and stores predetermined information in each of these storage units, as necessary. Erase the stored information. The predetermined event occurrence storage means 512 stores whether or not each of a plurality of types of events (events) determined in advance is generated in the course of the unit game being performed in the slot machine 1000. Hereinafter, the predetermined individual events described above are referred to as missions. When an event corresponding to a certain mission occurs, the information storage control unit 510 stores that fact in the predetermined event occurrence storage unit 512, assuming that the mission has been achieved (cleared). Specifically, for example, a mission clear flag is set corresponding to each mission, and a storage area for storing the on / off state of each mission clear flag is provided in the RAM 210 shown in FIG. When a certain mission is achieved, the information storage control means 510 turns on the corresponding mission clear flag.

  The non-notification information storage unit 514 stores information indicating whether or not the player has been notified when any mission is achieved. Specifically, for example, a clear non-notification flag is set corresponding to each mission described above, and a storage area for storing the on / off state of each clear non-notification flag is provided in the RAM 210 shown in FIG. Keep it. When a certain mission is achieved, the information storage control means 510 turns on the clear non-notification flag corresponding to the mission, and when the player is notified of the completion of the mission, the clear non-notification flag Is turned off.

(C) Description of Notification Control Unit The notification control unit 520 controls various types of notification performed to the player, the event occurrence notification unit 522 that notifies that the above-described mission has been achieved, When a plurality of small combinations 2 are determined as duplicate winning combinations in the lottery performed, the operation information notification for notifying the operation order (see FIG. 14) in which the small combinations 2a win three times for the duplicate winning combinations Means 524 and a player inputs a command related to the gaming system 10 to the slot machine 1000 (for example, a command for causing the slot machine 1000 to display a QR code or for a player to input a password described later) Command receiving state notifying means 526 for notifying whether or not it can be performed.

  When any of the missions is achieved, the event occurrence notifying unit 522 notifies the player that the mission has been achieved in accordance with a predetermined timing (described later) for the mission. As a specific notification mode, for example, a character string “Mission accomplished!” Is displayed on the display device 70 or is notified from the speakers 64L and 64R by voice.

  The operation information notifying means 524, in the case where a duplicate winning combination related to any of the small combinations 2 shown in FIG. 14 is determined in the role lottery during the ART, the small combination 2a wins three times for the duplicate winning combination. The operation order to be notified is notified. As a specific notification mode, for example, immediately after a duplicate winning combination is won in the lottery, among the operation instruction lamps 24L, 24C, and 24R shown in FIG. The corresponding lamp is turned on, and immediately after the first stop switch is operated, the lamp corresponding to the second stop switch to be operated is turned on, and immediately after the second stop switch is operated, Turn on the lamp corresponding to the stop switch to be operated. Immediately after the winning combination is won in the role lottery, an image clearly indicating the operation order of the stop switches 37L, 37C, and 37R in which the small role 2a wins three times (for example, when the operation order 1 is notified, “left A character and an arrow indicating “→ middle → right” may be displayed on the display device 70.

  The command reception state notifying means 526 is a state in which the player can input the above-described command by blinking the light source provided inside the above-described determination button switch 39 (hereinafter referred to as command reception state). Inform you. Note that when the command reception state is entered will be described in detail later.

(D) Description of Game History Updating Unit The game history updating unit 530 includes a game history storage unit 532, and stores and updates the game history for predetermined items. The game history storage means 532 is realized by, for example, the RAM 210 shown in FIG. Further, as an item of the game history to be stored, the number of times the ART has been performed (hereinafter referred to as ART execution count), the next ART (50 games) is started after one ART (50 games) has been completed. The number of times played (hereinafter referred to as the ART consecutive number of times), the number of times SB games were played (hereinafter referred to as the number of SB executions), the number of times RB games were played (hereinafter referred to as the number of RB executions), and special roles were won multiple times. In such a case, the number of consecutive winnings of the RB role (hereinafter referred to as the RB consecutive number of times), the number of times that the BB game has been played (hereinafter referred to as the number of BB executions), and the special role winning multiple times, Number of consecutive wins (hereinafter referred to as “BB consecutive times”), number of unit games during normal game played until RB role or BB role wins (hereinafter referred to as “number of games between bonuses”), normal game The total number of the executed unit game (hereinafter, referred to the total number of games), and a total number of medals paid out to the player (hereinafter, referred to as total payout number) there are items like. The game history information is transmitted to the game server 3100 via the mobile phone 2100, or stored to determine whether each mission described later has been achieved. Further, the game history information may be displayed on the display device 70 in accordance with the player's operation.

(E) Description of Access Information Generating Unit The access information generating unit 540 is a QR code for accessing from the mobile phone 2100 to the game server 3100 from the player by the command input unit 340 including the direction button switch 38 and the determination button switch 39. When a command instructing the generation of (access information) is input, the URL of the game server 3100 stored in advance, the game hall code setting means 226 and the game hall code and event set in the event code setting means 228, respectively. Code, information indicating the type of mission clear flag turned on in the predetermined event occurrence storage means 512 (for example, an individual number assigned to each mission clear flag, etc.), and stored in the game history storage means 532 Game history information for specified items, In addition, a QR code including various information such as effect setting information described later is generated and displayed on the display device 70.

  In addition, when a player starts a unit game after inputting a password, which will be described later, into the slot machine 1000, the random ID included in the password (same as the random ID shown in FIG. 4A). Information is also included in the generated QR code. Furthermore, the items of the game history information included in the QR code are the total number of games, the number of BB executions, the number of RB executions, and the number of ART executions, but an additional game history ( When FIG. 4 (e) is associated, information regarding the game history of the item corresponding to the additional game history is also included in the generated QR code.

  When the QR code is generated by the access information generation unit 540, the information storage control unit 510 described above stores the mission clear flag and the clear unnotification flag stored in the predetermined event occurrence storage unit 512 and the unreported information storage unit 514. Reset all on / off states (in this case, turn them off). Further, the game history update unit 530 erases the game history information of all items stored in the game history storage unit 532. In this way, when another player plays a unit game after a player who has previously played a unit game has generated a QR code, information such as game history by the other player This is not affected by information such as a game history by a player who has previously played a unit game.

(F) Description of Command Input Prohibiting Unit The command input prohibiting unit 550 prevents the player from inputting any command by the command input unit 340 when the slot machine 1000 is in a predetermined state. As will be described in detail later, in the slot machine 1000 of this embodiment, commands are input from a menu screen (described later) displayed on the display device 70. This menu screen is displayed on the display device 70 when the enter button switch 39 is operated in the command reception state. Normally, if a unit game is not being performed, the command reception state is entered, but the command input prohibiting means 550 does not perform a unit game in the following cases (i) to (iii). However, command input is prohibited without entering the command reception state.

(I) When a prescribed number of medals are inserted.
(Ii) Between the time when a re-game player wins and the time when re-game is started.
(Iii) When the above-described continuous effect, battle effect, or button use effect is performed.

  Here, the reason why the command input is prohibited in the above (i) and (ii) is that the start switch 36 is accidentally touched when the QR code is displayed on the display device 70. This is because the next unit game starts without. In this case, when a new unit game is started, the display on the display device 70 is switched from the QR code to the effect image, and the mobile phone 2100 fails to shoot the QR code. As described above, once the QR code is generated, the game history information accumulated until then and the information indicating the type of mission achieved are all erased. Therefore, when the displayed QR code is missed by the mobile phone 2100, there is no way to reproduce the game history information and the like included in the QR code. Therefore, in order to avoid such a situation, in the cases (i) and (ii) described above, the command input prohibiting unit 550 prohibits the input of a command.

  As for the above (iii), for example, in the case of a continuous production, a series of productions are performed over a plurality of unit games performed continuously. If it is displayed, there is a problem that the continuity of the production is impaired. Further, if the menu screen is displayed while the continuous effect is being performed on the display device 70, the menu screen is displayed when creating a program for executing the continuous effect when returning to the display of the continuous effect again. It may be necessary to perform a very complicated process to return to the state immediately before the start. For this reason, the command input prohibiting means 550 prohibits the input of commands while the continuous effect is being performed.

  In addition, in order to allow the player to see the battle effect to the end, when the command input during the battle effect is prohibited, when the character A described above loses at the end of the battle effect, the command reception state is immediately set. If this is the case, it will be clear that a reverse pattern will not occur, and the interest of the battle will be reduced. Therefore, when the character A loses at the end of the battle effect, the command input prohibiting means 550 does not play the reverse pattern battle effect for a while (in the reverse pattern battle effect, the character A again uses the character B. Command input is prohibited during the time between attack and victory.

  Furthermore, in the case of a button use effect, since the switch operated by the game for the effect and the switch operated to display a menu screen for inputting a command are both decision button switches 39, the button use effect is provided. If the command reception state is entered during this time, the button usage effect cannot be practically performed. Therefore, the command input prohibition unit 550 prohibits command input while the button use effect is being performed.

(G) Description of Notification Period Control Unit The notification game control unit 560 controls the start and end of the operation information notification period, and includes a startable condition determination unit 562. Here, the operation information notification period refers to a game period in which operation information for obtaining a result of a unit game advantageous to the player is notified in the current gaming state. Hereinafter, the operation information notification period is referred to as ART. In addition, “operation information that will result in a unit game advantageous to the player” means, for example, that in the case of a normal game, when any duplicate winning combination for the small role 2 is determined, When the operation sequence in which 2a wins three times (see FIG. 14) and any duplicate winning combination regarding the re-gamer is determined, the current RT state is shifted to a more advantageous RT state, or disadvantageous This is an operation sequence (see FIG. 15) in which a re-game player who does not shift to the RT state wins (details will be described later). In addition, the notification of these operation orders is performed by the operation information notification means 522 described above.

  The startable condition determination unit 562 determines whether or not the startable condition that can start the above-described ART is satisfied. Here, the startable condition in the present embodiment is that the stock is generated by the stock lottery process performed when winning the small combination 1 or the small combination 3 in the combination lottery. This stock lottery process is performed by the notification game control means 560 during a normal game based on the stock lottery table shown in FIG.

  The stock lottery table shown in FIG. 17 shows the numbers at which stock is generated for the pseudo random numbers (numerical range: 0 to 65535) calculated by the CPU 206 according to a predetermined algorithm. As is clear from this figure, the probability of occurrence of stock (value obtained by dividing each numerical value by 65536) decreases as the value of the set value decreases. Note that the number of generated stock is stored in the RAM 210, and when the stock is generated by the stock lottery process, “1” is added to the stored number of stock. Further, in the stock lottery process of the present embodiment, only one stock is generated when the stock lottery is won, but the number of stocks (including “0”) generated by the lottery may be determined.

(2) Various Control Contents in Game System Next, the control contents performed in each part of the game system 10 will be described with reference to flowcharts.
(2-a) Description of Control Processing in Slot Machine With reference to the flowcharts shown in FIGS. 19 to 32 and FIGS. 34 to 36, the contents of processing performed in the control circuit of the slot machine 1000 will be described.

(2-a-1) Description of Control Process in Main Control Circuit First, the control process performed by the main control circuit 100 shown in FIG. 9 will be described with reference to the flowcharts shown in FIGS. Here, FIG. 19 is a flowchart of the main routine, and FIGS. 20 to 22 are flowcharts showing the detailed contents of the winning lottery process, reel fluctuation / stop process and winning determination process executed in this main routine.

(2-a-1-1) Description of Main Routine In the flowchart of FIG. 19, when the slot machine 1000 is turned on by, for example, a game hall manager, the CPU 106 performs a predetermined initialization process, and the RAM 110 The initial values of various flags and control data stored in are set (step S10). Next, the CPU 106 determines whether or not the re-game winning flag stored in the RAM 110 is turned on (step S12). The re-game winning flag is a flag that is turned on when a re-game player wins in the previous game. If it is determined that the re-game winning flag is off (NO), the CPU 106 performs a medal insertion process for starting a unit game in accordance with the player's operation (step S14).

  In this medal insertion process, when the bet switch 34 or 35 is operated by the player, the CPU 106 determines that the value of the number of credits stored in the RAM 110 is the number of medals corresponding to the operated bet switch (hereinafter referred to as the inserted number). If the value is equal to or greater than the value, the number of inserted sheets is subtracted from the value of the number of credits stored in the RAM 110. Then, the CPU 106 adds the value of the inserted number to the value of the bet number stored in the RAM 110, and according to the value of the bet number after the addition, the bet number display lamps 26a and 26a shown in FIG. The lighting states of 26b and 26c are updated. At the same time, the number-of-insertions information representing the value of the bet number is transmitted from the main control circuit 100 to the sub-control circuit 200 via the connection line 120 (see FIGS. 7 and 8). Here, when the inserted medal is returned to the player by operating a settlement button (not shown), for example, and the medal inserted number is updated to “0”, the medal inserted number is 0. The number-of-insertions information indicating that it is a sheet is transmitted to the sub-control circuit 200.

  When the bet switch 34 or 35 is not operated, the CPU 106 determines whether or not a medal inserted from the medal insertion slot 32 is detected by the medal sensor 332 (see FIG. 9), and the medal is detected. In this case, “1” is added to the value of the bet number stored in the RAM 110, and the inserted number information indicating the value is transmitted to the sub-control circuit 200. As described above, the CPU 106 that performs the medal insertion process in step S14 corresponds to the insertion number determination unit 410 shown in FIG.

  After performing the above-described medal insertion process, the CPU 106 next determines whether or not the value of the bet number stored in the RAM 110 has reached the specified number (three) (step S16), and has not reached the specified number. If it is determined (NO), the process returns to step S14, and if it is determined that it has been reached (YES), the set value (any one of “1” to “6”) set by the management of the game hall or the like is set. It transmits to the sub control circuit 200 (step S18). Next, the CPU 106 determines whether or not the start switch 36 has been operated by the player (step S20). In the state where the number of inserted medals has reached the specified number (step S16, YES), if a medal is inserted from the medal insertion slot 32, the CPU 106 stores the medal in the medal insertion process of step S14. Add the number of inserted medals to the value of the number of credits.

  On the other hand, if the CPU 106 determines in step S12 described above that the re-game winning flag is turned on (YES), the CPU 106 immediately proceeds to step S18, transmits the set value to the sub-control circuit 200, and then proceeds to step S20. Then, it is determined whether or not the start switch 36 is operated by the player. Thereby, in the next game in which the re-game player wins, it is possible to play the game again without newly inserting medals or consuming the credited medals. Note that the number of bets in the re-game is the number of bets placed in the previous game stored in the RAM 110.

  In step S20, the CPU 106 determines whether or not a game start signal output from the start switch 36 is received in accordance with the player's operation. If it is determined that the game start signal has not been received and the start switch 36 has not been operated by the player (NO), the process returns to step S12 again. In this way, the process of steps S12 → S14 → S16 → S18 → S20 (in the case of replaying, steps S12 → S18 → S20) is repeated until the start switch is operated by the player.

  In step S20, when the CPU 106 receives the game start signal and determines that the start switch 36 has been operated by the player (YES), the CPU 106 turns off the re-game winning flag (step S22), and the sub-control circuit. The game state information is transmitted to 200 (step S24). Here, the content of the game state information to be transmitted includes the current game state (“normal game”, “SB game”, “RB game” or “BB game”) and the RT state (“non-RT”, “RT1”, “RT2” or “RT3”). Further, when the current RT state is “RT3”, the number of unit games executed in “RT3” (value of a variable RT3G described later) is also transmitted to the sub-control circuit 200.

  Next, the CPU 106 acquires a random number from the random number generator 112 shown in FIG. 7 and performs a role lottery process (step S26). That is, the CPU 106 selects a role lottery table (see FIGS. 11 to 13) corresponding to the current set value, gaming state, and RT state from the role lottery tables stored in the ROM 108, and selects the selected role lottery. The lottery is performed based on the table and the random number for lottery acquired from the random number generator 112. If any winning combination is determined as a result of the combination lottery, the winning flag of the winning combination among the winning flags corresponding to the respective combinations stored in the RAM 110 is turned on. Further, the CPU 106 transmits to the sub-control circuit 200 role lottery result information indicating a result of the lottery (losing or winning type). As described above, the CPU 106 that performs the role lottery process in step S26 corresponds to the role lottery means 420 shown in FIG.

  Next, after rotating the reels 40L, 40C, and 40R, the CPU 106 stops each reel based on the result of the lottery performed in step S26 according to the operation of the stop switches 37L, 37C, and 37R by the player. A reel fluctuation / stop process for controlling is performed (step S28). In this reel variation / stop process, the CPU 106 first starts outputting drive pulses to the motor drive circuit 114 (see FIG. 9), drives the stepping motors 80L, 80C, and 80R, and reels 40L, 40C, 40R. Rotate all at once. However, at this time, if a predetermined waiting time (4.1 seconds) has not elapsed since the reel started rotating in the previous unit game, the reel 40L , 40C, 40R are rotated simultaneously. When the reel rotation speed reaches a predetermined steady rotation speed (for example, about 80 rotations / minute), an operation for the stop switches 37L, 37C, and 37R by the player is accepted.

  When one of the stop switches 37L, 37C, and 37R is operated by the player, the CPU 106 operates the on / off state of each winning flag and the stop switch for the reel corresponding to the operated stop switch. The reel stop control is performed according to the timing. The contents of this reel stop control are the same as the reel stop control performed by the reel stop control means 432 shown in FIG. Further, every time the player operates the stop switch, the CPU 106 transmits stop operation information indicating which stop switch has been operated to the sub-control circuit 200. Is transmitted to the sub-control circuit 200. As described above, the CPU 106 that performs the reel variation / stop processing in step S28 corresponds to the reel control means 430 shown in FIG.

  When all of the reels 40L, 40C, and 40R are stopped by the reel change / stop processing in step S28, the CPU 106 next determines whether or not any winning combination has been won, and the game is performed according to the determination result. A winning determination process for performing a state transition process is performed (step S30). That is, the CPU 106 identifies nine symbols stopped and displayed on the reel display window 22, and recognizes each symbol combination stopped and displayed on the effective lines L1 to L4. Then, based on the payout information shown in FIG. 10, it is determined whether or not any winning combination has been won. Then, unit game result information indicating whether or not a prize has been won, the type of winning combination, the number of payouts, etc. is transmitted to the sub-control circuit 200.

  Here, when the SB combination, RB combination or BB combination wins during the normal game, the game state is changed from “normal game” to “SB game”, “RB game” or “BB game”. Transition. Further, when the re-game player wins in the “normal game”, the ON / OFF state of the re-game winning flag stored in the RAM 110 is turned on. Further, when the game state is “SB game”, “RB game” or “BB game”, it is determined whether or not the termination condition of the special game being executed is satisfied, and if the termination condition is satisfied, The game state is updated to “normal game”. If it is determined that the small combination has won, the number of payouts (see FIG. 10) corresponding to the winning small combination is stored in a predetermined storage area of the RAM 110. As described above, the CPU 106 that performs the winning determination process in step S30 corresponds to the winning determination means 440 shown in FIG.

  As described above, when the winning determination and the game state transition control are performed, the CPU 106 turns off the winning flags corresponding to the small combinations, re-game combination and SB combination stored in the RAM 110. On the other hand, when the winning flag corresponding to the BB role or the RB role is on, the on state is maintained until the special role corresponding to the winning flag wins, and the special role is won. Turn off. This realizes carry-over of the bonus flag.

  Next, in the winning determination process of step S30, when the payout number of medals is stored in the predetermined storage area of the RAM 110, the CPU 106 pays out a payout process for paying out the number of medals to the player (step S32). I do. In this payout process, a hopper housed in the slot machine 1000 may be driven to pay out medals from the medal payout outlet 60, or the number of medals to be paid out is added to the number of credits stored in the RAM 110. You can credit it. The CPU 106 that performs the payout process in step S32 corresponds to the winning process means 450 shown in FIG. When the payout process in step S12 is completed, one unit game is completed, and the CPU 106 returns to the process in step S2 again. In this way, by repeating the control process shown in the main routine, the player can repeatedly perform a unit game.

(2-a-1-2) Description of Role Lottery Processing Next, the role lottery processing performed in step S26 of the main routine shown in FIG. 19 will be described using the flowchart shown in FIG.

  First, the CPU 106 refers to the current gaming state stored in the RAM 110, and performs a lottery drawing based on a winning lottery table (see FIGS. 11 to 13) corresponding to the current gaming state (step S100). If any winning combination is determined, the winning flag corresponding to the winning combination is turned on in the ON / OFF state of the winning flag stored in the RAM 110. Next, the CPU 106 determines whether or not the special combination (BB combination a, BB combination b, RB combination a or RB combination b) is won in the combination lottery performed in step S100, or the bonus flag is already being carried over. It is judged whether it is (step S102). When it is determined that the special combination is won or the bonus flag is being carried over (YES), the CPU 106 performs a normal freeze effect lottery to determine whether or not to perform a normal freeze effect (step S104). In this normal freeze effect lottery, the probability (winning probability) that it is determined to perform the normal freeze effect is 1/8192 at the normal probability, but 1/200 at the high probability (FIG. 20 ( b)). Information indicating whether the current winning probability is a normal probability or a high probability is stored in a predetermined storage area of the RAM 110, and the CPU 106 performs a normal freeze effect according to the winning probability stored in the RAM 110. Make a lottery. In addition, the winning probability is switched based on the operation order of the stop switches 37L, 37C, and 37R. The detailed contents will be described later.

  Here, the freeze effect performed in the slot machine 1000 will be described. The freeze effect is an effect performed during the freeze state, and the freeze state refers to a state in which the progress of the unit game according to the operation by the player is stopped. Normally, the CPU 106 performs a predetermined control according to the operation if the player operates the operation means 300 shown in FIG. 9, but is different from the predetermined control in the freeze state. Take control. Note that the time during which the freeze state is set is hereinafter referred to as a freeze time Tf. As an example of “different control” in the frozen state, control executed in response to the operation of the start switch 36 will be described as an example. In this case, normally, a standby state is maintained until a predetermined standby time (for example, 4.1 seconds) elapses after the previous unit game is started. When the standby time elapses, the reels 40L, 40C, and 40R rotate. The speed is accelerated at a predetermined acceleration until the speed reaches a steady rotational speed (for example, 80 revolutions / minute). When the rotational speeds of the reels 40L, 40C, and 40R reach the steady rotational speed, the operation for the stop switches 37L, 37C, and 37R is accepted.

  On the other hand, when performing the freeze effect, when the above-described waiting time has elapsed, the freeze state is entered and rotation of the reels 40L, 40C, and 40R is started, but special rotation control different from the normal time is performed. Examples of special rotation control include rotating each reel in the opposite direction from normal, accelerating with a different acceleration pattern during normal, or decelerating and temporarily stopping and then accelerating again. May be. Further, even if the standby time elapses, the reels 40L, 40C, and 40R may not be rotated but may be stopped. Then, when the freeze time Tf elapses, each reel is accelerated at the same acceleration as in the normal state, and when the steady rotation speed is reached, the operation for the stop switches 37L, 37C, and 37R is accepted.

  Furthermore, as another example of “different control”, when each stop switch is operated, the corresponding reel is not stopped for a certain period of time, the reel stop mode is changed (so-called bound stop, etc.), or the like is stopped. It can be considered that the deceleration of the reel is different from the normal one. Here, it can be said that the CPU 106 for switching whether or not to set the freeze state corresponds to a game control switching means.

  The freeze effects described above are roughly divided into the above-described normal freeze effects and the special freeze effects described later. The normal freeze effect normally occurs when the reels 40L, 40C, and 40R do not start rotating despite the fact that the player is clearly informed that the freeze state has been established and the start switch 36 is being operated. It is a production that creates interest by creating a state of noness. Alternatively, when an effect is being performed by the display device 70 shown in FIG. 1 or the like, while the effect is being executed, even if the operation means 300 is operated by the player, the corresponding process is not performed and the process is being executed. In order for the player to watch the performance until the end, the slot machine 1000 is set in a frozen state. The freeze time Tf in this normal freeze effect is 30 seconds.

  When the normal freeze effect lottery is performed in step S104, the CPU 106 next determines whether or not the normal freeze effect is determined (the normal freeze effect is won) (step S106). When the CPU 106 determines that the normal freeze effect has not been won (NO), “1” is added to the value of the variable CHK stored in the RAM 110 shown in FIG. 7 (step S108). The value of CHK is a value that serves as a condition for the CPU 106 to start a determination period for determining the current situation (details will be described later). Next, the CPU 106 determines whether or not the value of CHK exceeds “99” (step S110). When the CPU 106 determines that the value of CHK has exceeded “99” (YES), it is determined whether or not the re-gamer a has been won as a result of the role lottery performed in step S100 (step S112). ). This determination is made based on whether or not the winning flag of the re-gamer a stored in the RAM 110 is turned on. At this time, the determination result of step S110 may be set to YES only when the winning flag of the re-gamer a is on (that is, the re-gamer a is winning alone).

  If the decision result in the step S110 is YES, the CPU 106 performs a special freeze effect lottery for selecting any one of the special freeze effects A to D based on the selection probability shown in FIG. S114). In this special freeze production lottery, the selection probabilities of special freeze productions A to D are equally set to 1/4 each. The special freeze effect is an effect in which a freeze state is hardly detected for a very short time by the player. As shown in FIG. 20C, the freeze time Tf of each special freeze effect is 1 millisecond for the special freeze effect A, 2 milliseconds for the special freeze effect B, 3 milliseconds for the special freeze effect C, and the special freeze effect. D is set to 4 milliseconds. Further, the special freeze effects A to D are respectively associated with the operation order of the specific stop switches 37L, 37C, and 37R. In other words, middle → left → right (operation order 3) for special freeze effect A, middle → right → left (operation order 4) for special freeze effect B, right → left → middle (operation order) for special freeze effect C. 5) The special freeze effect D is associated with the operation sequence of right → middle → left (operation sequence 6). The order of these operations will be described in detail later.

  Next, the CPU 106 turns on a special freeze flag indicating that a special freeze effect has been selected (step S116). The on / off state of the special freeze flag is stored in the RAM 110. Then, CPU 106 stores the freeze time Tf and the operation order corresponding to the selected special freeze effect in a predetermined storage area of RAM 110 (step S118). If the CPU 106 determines that the normal freeze effect has been won (YES) in the determination process of step S106 described above, the process immediately proceeds to step S118 without performing steps S108 to S116, and the normal freeze effect is performed. The freeze time Tf (30 seconds) is stored in a predetermined storage area of the RAM 110.

  Then, the CPU 106 transmits the result of the lottery performed in step S100 (whether or not the winning combination, the type of winning combination, etc.) to the sub-control circuit 200 (step S120). When it is determined to perform the freeze effect, freeze effect type information indicating the type (either the normal freeze effect or the special freeze effects A to D) is also transmitted to the sub-control circuit 200. Then, the combination lottery process shown in FIG. 20A is terminated, and the process proceeds to the process of step S28 in FIG.

  The sub-control circuit 200 also stores the correspondence between the special freeze effect and the operation order as shown in FIG. 20C, and when the freeze effect type information is received from the main control circuit 100, the information An effect corresponding to the type of freeze effect indicated by is performed. For example, when the received freeze effect type information indicates a normal freeze effect, a moving image having the same length as the freeze time Tf (30 seconds) is reproduced by the display device 70 and the speakers 64L and 64R. When any of the special freeze effects A to D is indicated, the player is notified of the operation sequence (see FIG. 20C) associated with the special freeze effect. Here, a conventional notification method can be adopted as a method for notifying the player of the operation order.

  In addition, the special freeze effect lottery in step S114 of FIG. 20A was performed when the re-gamer a was elected in the role lottery. In addition to this, during the normal game, the lottery result number “7”. May be performed when any one of “11” is derived. In this case, for each lottery result number, the “bell 1” symbol on the middle reel 40C stops at the upper stage U (see FIG. 14) and a plurality of special freeze effects with different freeze times Tf. The correspondence may be determined in advance, and the operation order corresponding to the special freeze effect selected by the lottery (the operation order in which the “bell 1” symbol of the middle reel 40C stops at the upper stage U) may be notified.

  The special freeze effect lottery may also be performed when any of the lottery result numbers “13” to “18” is derived when the RT state is “RT2” or “non-RT”. In this case, for each lottery result number, the correspondence between the operation order (see FIG. 15A) in which the re-gamer d wins and a plurality of special freeze effects having different freeze times Tf are determined in advance. Alternatively, the operation order corresponding to the special freeze effect selected by the lottery (the operation order in which the re-game player d wins) may be notified. Further, when the RT state is “RT2”, the special freeze effect lottery may be performed even when any of the lottery result numbers “19” to “24” is derived. Also in this case, for each lottery result number, the correspondence between the operation sequence (see FIG. 15 (d)) in which the re-gamer d will win and a plurality of special freeze effects having different freeze times Tf from each other is previously set. The operation order corresponding to the special freeze effect selected by the lottery (the operation order in which the re-game player d wins) may be notified.

  In addition, the special freeze effect lottery in step S114 of FIG. 20A is intended to determine the operation sequence (details will be described later) to be notified to the player by the sub control circuit 200 in the main control circuit 100. For this reason, in the process of step S114, instead of performing the lottery for the special freeze effects A to D, the lottery for selecting any one of the operation orders 3 to 6 associated with each special freeze effect is performed. The operation order information indicating the selected operation order may be transmitted to the sub control circuit 200.

(2-a-1-3) Description of Reel Fluctuation / Stop Processing Next, the reel variation / stop processing performed in step S28 of the main routine shown in FIG. 19 will be described with reference to the flowchart shown in FIG.

  First, the CPU 106 determines whether or not a predetermined shortest time (for example, 4.1 seconds) has elapsed since the reels 40L, 40C, and 40R started rotating in the previous game (step S130). If it is determined that the shortest time has not elapsed (NO), the determination process of step S130 is repeated until it is determined that the shortest time has elapsed. In other words, until the minimum time elapses, the rotation of the reel, which is the next process, is not performed, so that the number of medals consumed in a game performed within a certain time does not exceed a predetermined number. Control is in progress. When determining that the shortest time has elapsed (YES), the CPU 106 determines whether or not the value of the freeze time Tf stored in the RAM 110 exceeds “0” (step S132).

  When the CPU 106 determines that the value of the freeze time Tf exceeds “0” (YES), that is, when it has been determined to perform the freeze effect, the time measurement is started (step S134), and then stored in the RAM 110. It is determined whether or not the stored freeze time Tf has elapsed (step S136). When it is determined that the freeze time Tf has not elapsed (NO), the determination process of step S136 is repeated until the freeze time Tf has elapsed. Thereby, until the freeze time Tf elapses, rotation of reels 40L, 40C, and 40R described later does not start, and the progress of the game according to the player's operation (in this case, the operation of the start switch 36) is paused. To do. When the freeze time Tf elapses, the determination result in step S136 becomes YES, and the CPU 106 stops measuring time and clears the value of the freeze time Tf stored in the RAM 110 (step S138). Next, the CPU 106 sequentially outputs drive pulses to the motor drive circuit 114, drives the stepping motors 80L, 80C, and 80R, and rotates the reels 40L, 40C, 40R all at once (step S140). If the CPU 106 determines that the value of the freeze time Tf is “0” (NO) in the determination process of step S132 described above, the process of step S140 is performed immediately without performing the processes of steps S134 to S138. I do.

  Then, the CPU 106 determines whether or not all the reels 40L, 40C, and 40R have reached the steady rotational speed (step S142). When it is determined that the reel rotation speed has not reached the steady rotation speed (NO), the determination process of step S142 is repeated. Thus, until the reel rotation speed reaches the steady rotation speed, even if the player operates the stop switches 37L, 37C, 37R, the reel stop control is not performed. If it is determined that the rotation speeds of all the reels have reached the steady rotation speed (YES), the CPU 106 turns on the lamps provided in the stop switches 37L, 37C, and 37R and accepts the operation of the stop switch. The player is notified that the state has been reached.

  Next, the CPU 106 determines whether or not a reel stop signal is transmitted from any of the stop switches 37L, 37C, and 37R (step S144). Then, the process of step S144 is repeated until a reel stop signal is transmitted from any stop switch. If it is determined in step S144 that the CPU 106 has received a reel stop signal (YES), the type of the operated stop switch (left, middle or right) is stored in the RAM 110 (step S146). Here, the CPU 106 stores the type of the stop switch that has been operated so that the received reel stop signal can be understood what number the reel stop signal has been received after the reel has rotated. Then, the CPU 106 transmits stop operation information indicating the type of the operated stop switch to the sub control circuit 200 (step S148).

  Next, the CPU 106 stops the reel corresponding to the operated stop switch so that the combination of symbols corresponding to the winning flag turned on in the RAM 110 stops along the active line (step S150). Since the reel stop control at this time is as already described in the description of the reel stop control means 432 in FIG. 9, detailed description thereof is omitted. Then, the CPU 106 determines whether or not all reels have stopped (step S152). If it is determined that there is still a rotating reel (NO), the process returns to the process of step S144, and the processes of steps S144 to S152 are repeated until all the reels stop.

  If it is determined in step S152 that all reels have stopped (YES), CPU 106 determines whether or not the state of the special freeze flag stored in RAM 110 is on (step S154). Here, the special freeze flag is turned on during the determination period (FIG. 20, S110, YES) when the re-gamer a is won in the role lottery (FIG., S112, YES) (FIG. 20, S116). ). When the CPU 106 determines that the state of the special freeze flag is off (NO), the reel variation / stop process in FIG. 21 is terminated, and a winning determination process in step S30 shown in FIG. 19 is performed.

  On the other hand, when the CPU 106 determines in the determination process in step S154 that the state of the special freeze flag is on (YES), the special freeze selected by the special freeze lottery in step S114 shown in FIG. It is determined whether or not the operation order associated with the freeze effect matches the order of stop switches actually operated by the player (step S156). Here, the determination of which of the special freeze effects A to D is selected may be made based on, for example, the value of the freeze time Tf, or the special freeze effect lottery is performed in step S114 of FIG. At this time, identification information that can specify the type of the selected special freeze effect may be stored in the RAM 110, and the determination may be made based on the identification information.

  When the CPU 106 determines that the operation order of the two matches (YES) in the determination processing of step S156, “1” is added to the value of the variable CRR stored in the RAM 110 (step S158). The CRR value is a value that serves as a criterion for determining whether or not to change the winning probability of the normal freeze effect lottery shown in FIG. That is, the CPU 106 determines whether or not the value of the CRR exceeds “3” (step S160), and if it is determined that the value exceeds “3” (YES), the next winning of the current normal freeze effect lottery is performed. It is determined whether or not the probability is a normal probability (step S162). When it is determined that the normal probability is (YES), the winning probability is changed to a high probability (step S164). On the other hand, when it is determined that the probability is high (NO), the winning probability is changed to the normal probability (step S166). Thus, it can be said that the CPU 106 that changes the winning probability of the normal freeze effect lottery corresponds to the switching probability changing means. When the winning probability of the normal freeze effect lottery is changed by the process of step S164 or S166, the CPU 106 transmits winning probability information indicating the winning probability after the change to the sub control circuit 200 (step S168).

Next, the CPU 106 clears the above-described CHK and CRR values stored in the RAM 110 and an ERR value described later to “0” (step S170). Then, the CPU 106 turns off the state of the special freeze flag stored in the RAM 110 (step S172), and ends the reel fluctuation / stop process shown in FIG. In this way, when the value of CHK is cleared, the above-described determination period (hereinafter referred to as a push order determination period) ends, and after 100 unit games are performed thereafter, the push order determination period starts again. . If the CPU 106 determines that the CRR value does not exceed “3” (NO) in the determination process of step S160 described above, the process proceeds to step S172 without performing the processes of steps S162 to S170. And turn off the state of the special freeze flag.

  When the CPU 106 determines that the operation order associated with the selected special freeze effect and the order of the stop switches actually operated by the player do not match (NO) in the determination process of step S156 described above. Adds “1” to the ERR value stored in the RAM 110 (step S174), and determines whether or not the ERR value exceeds “1” (step S176). When the CPU 106 determines that the value of ERR does not exceed “1” (NO), the process proceeds to step S172 to turn off the state of the special freeze flag stored in the RAM 110, as shown in FIG. The reel change / stop process is terminated. On the other hand, when the CPU 106 determines that the value of ERR exceeds “1” (YES), the process proceeds to step S170, and the values of CRR, ERR, and CHK stored in the RAM 110 are changed. After clearing to “0”, the process proceeds to step S174 to turn off the state of the special freeze flag. As described above, when the number of times that the operation order corresponding to the selected special freeze effect and the actual stop switch operation order by the player do not coincide with each other during the push order determination period becomes 2, The order determination period ends.

  In the determination process of step S156 described above, the operation order associated with the special freeze effect selected by the process of step S114 shown in FIG. 20 is compared with the operation order actually performed by the player. However, as described above, when the lottery for selecting any one of the operation orders 3 to 6 is performed in step S114 of FIG. 20A, the operation order selected by the lottery is selected. And the operation order information actually operated by the player may be compared.

(2-a-1-4) Explanation of Winning Determination Process Next, the contents of the winning determination process performed in step S30 of the main routine shown in FIG. 19 will be described with reference to the flowchart shown in FIG.
First, the CPU 106 recognizes nine types of symbols stopped and displayed on the display window 22 (step S40). Then, the CPU 106 refers to information indicating the current gaming state stored in the RAM 110, and determines whether or not the current gaming state is “normal game” (step S42).

(A) In the case of special game When the CPU 106 determines in the determination process in step S42 that the current gaming state is special game (NO), the CPU 106 performs a winning process during the special game (step S44). . In this winning process, first, the CPU 106 determines whether or not any small combination has won, and when determining that any small combination has won, based on the payout information shown in FIG. The number of medals to be paid out corresponding to the winning small combination is stored in a predetermined storage area of the RAM 110. Then, the CPU 106 determines whether or not a condition for ending the special game currently being executed is satisfied, and when the CPU 106 determines that the condition for ending the special game currently being executed is satisfied, the current game state is set to “ The RT state is updated to “RT1” in “normal game”. On the other hand, when it is determined that the termination condition for the currently executing special game is not satisfied, the current special game is continued.

  When the processing of step S44 is completed, the CPU 106 turns off the winning flags corresponding to the combinations other than the RB combination and the BB combination among the winning flags corresponding to the respective combinations stored in the RAM 110 (step S46). Then, the unit game result information of the current unit game is transmitted to the sub-control circuit 200 (step S48). Here, the unit game result information includes information such as the symbol number of each reel stopped and displayed on the display window 22, the type of winning combination, the number of payouts, and the like. When the unit game result information is transmitted to the sub-control circuit 200, the CPU 106 ends the winning determination process shown in FIG. 22, and proceeds to the payout process in step S32 shown in FIG.

(A) When playing a normal game When the CPU 106 determines that the current gaming state is a normal game (YES) in the determination process of step S42, the CPU 106, based on the nine symbols recognized at step S40, It is determined whether or not any re-game player has won a prize (step S50). When the CPU 106 determines that any of the re-game players has won (YES), the on / off state of the re-game winning flag stored in the RAM 110 is turned on (step S52). If it is determined in step S50 that the CPU 106 has not won any re-playing combination (NO), it is next determined whether any small combination has won (step S54). . When the CPU 106 determines that any small winning combination has won (YES), based on the payout information shown in FIG. 10, the number of medals to be paid out corresponding to the winning small combination is stored in the RAM 110 in a predetermined storage. The area is stored (step S56).

  On the other hand, when the CPU 106 determines in the determination process of step S54 that any small role has not been won (NO), the next special role, that is, any one of the SB role, the RB role, or the BB role is selected. It is determined whether or not a prize has been won (step S58). When the CPU 106 determines that any special combination has won (YES), the CPU 106 performs processing corresponding to the special combination that has won (special combination winning process) (step S60). In this special combination winning process, when the RB combination or the BB combination wins, the winning flag corresponding to the combination is turned off. Here, when the SB combination is won in the combination lottery, the winning flag of the SB combination is not carried over because the winning flag is turned off by the process of step S46 when the unit game is ended. When the process of step S60 is performed, the CPU 106 proceeds to the payout process of step S32 shown in FIG. 19 after performing the processes of steps S46 and S48 described above.

  After performing the process of step S52 or S56 described above, or if it is determined that no special role is won in the determination process of step S58 (that is, the result of the unit game is lost), the CPU 106 Perform the migration process.

(C) RT state transition process First, the CPU 106 determines whether or not the current RT state is "RT3" (step S62). Here, the current RT state is represented by the value of the variable RT stored in the RAM 110. When the value of the variable RT is “0”, the current RT state is “non-RT”. When the value of the variable RT is “1”, “2” or “3”, it represents that the current RT state is “RT1”, “RT2” or “RT3”, respectively. When CPU 016 determines that the current RT state is “RT3” (YES), CPU 106 adds “1” to the value of variable RT3G stored in RAM 110 (step S64), and RT3G. It is determined whether or not the value of is greater than or equal to “50” (step S66). Here, the value of the variable RT3G indicates the number of unit games played since the RT state became “RT3”, and the number of single games played by the CPU 106 is 49 games or less (NO). If it is determined, step S46 and step S48 are performed immediately.

  On the other hand, when the CPU 106 determines that the number of single games played is 50 games or more (YES) in the determination process of step S66, the current RT state is changed from “RT3” to “RT1”. Update (step S68), and perform the processing of steps SS46 and S48. That is, the value of the variable RT stored in the RAM 110 is updated from “3” to “1”. Here, in the determination process of step S62, when the CPU 106 determines that the current RT state is “RT3” (YES), the unit game transmitted to the sub-control circuit 200 by the subsequent process of step S48. A process of including the value of the variable RT3G in the result information is performed.

  Next, in the determination process of step S62 described above, when the CPU 106 determines that the current RT state is not “RT3” (NO), it is next determined whether or not the current RT state is “RT1”. (Step S70). When the CPU 106 determines that the current RT state is “RT1” (YES), the CPU 106 next checks the state of the winning flag corresponding to the SB combination stored in the RAM 110 and plays the combination in the current unit game. It is determined whether or not the SB combination has been won by lottery (step S72). If it is determined that the SB combination has not been won (NO), the processing of steps S46 and S48 is immediately performed. On the other hand, when it is determined that the SB role has been won (YES), the SB role has been missed when the RT state is “RT1”, so the current RT state is changed from “RT1” to “RT1”. Update to “non-RT” (step S74). Then, the CPU 106 performs the processes of steps S46 and S48.

  Next, in the determination process of step S70 described above, when the CPU 106 determines that the current RT state is not “RT1” (NO), it is next determined whether or not the current RT state is “non-RT”. Judgment is made (step S76). If the CPU 106 determines that the current RT state is “non-RT” (YES), the CPU 106 determines whether or not the re-gamer b has won a prize in the current unit game (step S78). Then, when it is determined that the re-gamer b has not won (NO), the processing of steps S46 and S48 is immediately performed. On the other hand, when it is determined that the re-gamer b has won (YES), the current RT state is updated from “non-RT” to “RT2” (step S80). Then, the CPU 106 performs the processes of steps S46 and S48.

  Next, in the determination process of step S76 described above, when the CPU 106 determines that the current RT state is not “non-RT” (NO), it is determined that the current RT state is “RT2”. Thus, the CPU 106 determines whether or not the re-gamer d has won a prize in the current unit game (step S82). When it is determined that the re-gamer d has won (YES), the current RT state is updated from “RT2” to “non-RT” (step S84), and then the processes of steps S46 and S48 are performed. On the other hand, when it is determined in the determination process in step S82 that the re-gamer d has not won (NO), the CPU 106 determines whether or not the re-gamer c has won the current unit game ( Step S86). When it is determined that the re-gamer c has won (YES), the current RT state is updated from “RT2” to “RT3” (step S88), and the value of the variable RT3G stored in the RAM 110 is changed to “ After clearing to “0” (step S90), the processing of steps S46 and S48 is performed. On the other hand, when the CPU 106 determines in the determination process of step S86 that the re-game player c has not won (NO), the CPU 106 immediately performs the processes of steps S46 and S48.

  In this way, the CPU 106 performs processing according to the type of winning combination and performs transition control of the gaming state and the RT state.

(2-a-2) Description of Control Process in Sub Control Circuit Next, referring to the flowcharts shown in FIGS. 23 to 32 and FIGS. 34 to 36, the control process performed in the sub control circuit 200 shown in FIG. Will be described. Here, FIG. 23 is a flowchart of information reception processing performed when some information is received from the main control circuit 100, and FIGS. 24 to 30 are flowcharts showing details of various processing performed in the information reception processing described above. 24 and 25 are flowcharts showing the detailed contents of the ART notification process in step S226 of FIG. 23, and FIGS. 26 and 27 are flowcharts showing the detailed contents of the effect lottery process in step S228 of FIG. FIG. 28 is a flowchart showing the detailed contents of the ART execution control process in step S238 of FIG. 23, FIG. 28 is a flowchart showing the detailed contents of the game history update process in step S240 of FIG. 23, and FIG. Detailed contents of the mission clear display process in step S242 It is a flow chart showing.

  FIG. 32 is a flowchart showing the contents of input command processing for performing processing related to the gaming system 10 in accordance with a command input to the slot machine 1000 by the player. FIG. 34 is a flowchart showing detailed contents of the QR code generation / display processing in step S432 of FIG. FIG. 35 is a flowchart showing detailed contents of the password input process in step S462 of FIG. FIG. 36 is a flowchart showing the contents of the power-off process and the power-on process executed by the sub-control circuit 200 when the power of the slot machine 1000 is turned off and on.

(2-a-2-1) Description of Information Reception Processing First, with reference to the flowchart shown in FIG. 23, information reception processing executed by the CPU 206 of the sub control circuit 200 when information is received from the main control circuit 100. Will be described. This information receiving process is a process periodically executed at a predetermined cycle. First, the CPU 206 determines whether any information is received from the main control circuit 100 (step S200). When the CPU 206 determines that no information is received from the main control circuit 100 (NO), the information reception process of FIG. 23 is immediately terminated and other processes are performed. On the other hand, when the CPU 206 determines that some information has been received from the main control circuit 100 (YES), various processes corresponding to the received information are performed as described below.

(A) Processing when the inserted number information is received First, the CPU 206 determines whether or not the information received from the main control circuit 100 is the inserted number information transmitted by the medal insertion process in step S14 of FIG. (Step S202). When it is determined that the received information is the inserted number information (YES), the CPU 206 determines whether or not the number of inserted medals indicated by the inserted number information is one or more (step S204). When it is determined that the received number-of-inserts information indicates that the number of inserted sheets is one or more (YES), the CPU 206 turns off the on / off state of the operation acceptance flag stored in the RAM 210 ( Step S206). This operation acceptance flag is a flag indicating whether or not an operation for inputting a command for instructing a process related to the gaming system 10 to the slot machine 1000 by the player is valid. When the operation acceptance flag is on, it indicates that the above-described command input operation is valid, and when it is off, it indicates that it is invalid.

  Next, the CPU 206 turns off the light source provided inside the determination button switch 39 (step S208), and notifies the player that the command input operation described above is not accepted. Next, the CPU 206 generates a medal insertion sound according to the number of inserted medals, or starts an effect when an effect that is started when the medal is inserted is scheduled. Control processing is performed (step S214). Then, the CPU 206 ends the information reception process of FIG. 23 and performs other processes. On the other hand, when the CPU 206 determines in the determination process of step S204 described above that the received insertion number information indicates that the number of inserted medals is zero (NO), it is stored in the RAM 210. The on / off state of the current operation acceptance flag is turned on (step S210). Next, the CPU 206 blinks the light source provided inside the determination button switch 39 in order to notify that the command input operation is valid (step S212). Then, after performing the effect control process of step S214 described above, the CPU 206 ends the information reception process of FIG. 23 and performs other processes.

  Thus, when one or more medals are inserted, the CPU 206 turns off the operation acceptance flag and prohibits command input.

(A) Processing when the set value information is received If the CPU 206 determines that the received information is not the inserted number information (NO) in the determination processing in step S202 described above, the CPU 206 next proceeds to step S18 in FIG. It is determined whether or not the set value information is transmitted by the process (step S216). When the CPU 206 determines that the received information is set value information (YES), the received set value information is stored in a predetermined storage area of the RAM 210 (step S218), and then the information receiving process of FIG. To finish other processing. The set value information stored in the RAM 210 is referred to by the CPU 206 when a stock lottery described later is performed, and a stock lottery is performed based on a stock lottery table corresponding to a set value indicated by the set value information.

(C) Processing when Receiving Game State Information In the determination processing of step S216 described above, if the CPU 206 determines that the received information is not set value information (NO), the CPU 206 next proceeds to step S24 of FIG. It is determined whether or not the game state information is transmitted by the process (step S220). When the CPU 206 determines that the received information is game state information (YES), the received game state information is stored in a predetermined storage area of the RAM 210 (step S222), and then the information reception process of FIG. To finish other processing. The game state information stored in the RAM 210 is referred to everywhere, such as notification of an operation order during ART described later, ART end determination, effect lottery processing, and game history update processing.

(D) Processing when receiving the lottery result information When the CPU 206 determines that the received information is not gaming state information (NO) in the determination processing of step S220 described above, the CPU 206 then proceeds to the step of FIG. It is determined whether or not the winning lottery result information is transmitted in the winning lottery process of S26 (step S224). When the CPU 206 determines that the received information is the winning lottery result information (YES), first, the stock lottery is performed, and if it is during ART, the content of the duplicate winning combination determined in the winning lottery is displayed. Accordingly, an ART notification process for notifying the operation order is performed (step S226). Next, when the CPU 206 performs an effect lottery process for determining the content of the effect to be executed in accordance with the winning combination determined in the role lottery (step S228), the information reception process in FIG. I do. Here, the details of the ART notification process in step S226 and the effect lottery process in step S228 will be described in detail later with reference to flowcharts of the respective processes.

(E) Processing when Stop Operation Information is Received In the determination processing of step S224 described above, if the CPU 206 determines that the received information is not the role lottery result information (NO), the CPU 206 then proceeds to the step of FIG. It is determined whether or not the stop operation information is transmitted in the reel change / stop process of S28 (step S230). If it is determined that the received information is stop operation information (YES), the CPU 206 recognizes from the received stop operation information which stop switch has been operated most since the unit game was started. The information is stored in a predetermined storage area of the RAM 210 (step S231). Next, the CPU 206 stores the symbol numbers of three consecutive symbols displayed on the display window 22 in the predetermined storage area of the RAM 210 in the reels that are controlled to stop from the received stop operation information (step S232).

  Next, the CPU 206 determines whether or not the stop switches 37L, 37C, and 37R are operated in a predetermined operation order in the slot machine 1000 based on the received stop operation information, and in the predetermined operation order. If it is determined that it has been operated, the state of the penalty flag stored in the RAM 210 is turned on (step S233). However, in the ART notification process in step S226, when a predetermined operation order is notified to the player and the player operates the stop switches 37L, 37C, and 37R according to the notification, the penalty flag is not turned on.

  Here, in the present embodiment, the “predetermined operation sequence” is an operation sequence 3 to 6 (in which the stop switch operated first after the reel rotates becomes the middle stop switch 37C or the right stop switch 37R. It is assumed that it is set to so-called irregular pressing. Further, when the penalty flag is turned on, the player is in a disadvantageous state, and the contents will be described in detail later. When the stop switch is operated in the “predetermined operation sequence”, the stop switch is operated in the prohibited operation sequence for the player by the display device 70 and the speakers 64L and 64R in the process of step S233. You may alert | report that it was operated. Then, when the process of step S233 is performed, the CPU 206 ends the information reception process of FIG. 23 and performs other processes.

(F) Processing when winning probability information is received In the determination processing in step S230 described above, if the CPU 206 determines that the received information is not stop operation information (NO), the CPU 206 next executes step S28 in FIG. It is determined whether or not the winning probability information is transmitted in the reel fluctuation / stop process (more specifically, the process in step S168 in FIG. 21) (step S234). If it is determined that the received information is winning probability information (YES), the CPU 206 stores information (normal probability or high probability) indicating the winning probability of the normal freeze effect lottery shown in step S104 in FIG. Store (step S235), and the information reception process of FIG. 23 is terminated.

(G) Processing when unit game result information is received In the determination processing of step S234 described above, if the CPU 206 determines that the received information is not winning probability information (NO), then the CPU 206 proceeds to the step of FIG. It is determined whether or not the unit game result information is transmitted by the process of S30 (step S236). If it is determined that the received information is unit game result information (YES), the CPU 206 first controls the start and end of the ART and updates an ART execution control process for updating the game history related to the ART. Is performed (step S238). Next, the CPU 206 performs a game history update process for updating the game history of each item according to the result of the unit game (step S240), and if any mission is achieved, informs the player of that fact. A mission clear display process for notification is performed (step S242). Here, the ART execution control process in step S238, the game history update process in step S240, and the mission clear display process in step S242 will be described in detail later with reference to flowcharts of the respective processes.

  After performing the processing up to step S242 described above, the CPU 206 next determines whether or not to turn on the operation acceptance flag turned off in step S206. That is, first, the CPU 206 determines whether or not the current gaming state is a special game (that is, a BB game or an RB game) (step S243). If it is determined that the special game is being played (YES), the information order process of FIG. 23 is terminated without turning on the operation acceptance flag. On the other hand, if the CPU 206 determines that the current gaming state is a normal game (including an SB game) (NO), the CPU 206 then determines whether any of the unit games has been performed. It is determined whether or not the re-game player has won a prize (step S244). Here, when the CPU 206 determines that the re-game player has won (YES), the information reception process of FIG. 23 is immediately terminated. Thus, when the re-game player wins, the next unit game (re-game) is started without turning on the operation acceptance flag.

  In addition, when the CPU 206 determines that the re-game player has not won a prize (NO) in the determination process of step S244 described above, it is next determined whether or not a continuous production is being performed ( Step S246). If the CPU 206 determines that it is in the middle of performing a continuous performance (YES), the information reception process in FIG. 23 is immediately terminated. Thereby, when performing a continuous production, the next unit game (re-game) is started without turning on the operation acceptance flag.

  On the other hand, when the CPU 206 determines that the continuous effect is not performed (NO) in the determination process in step S246, the CPU 206 determines whether or not the battle effect or the button use effect is currently being performed. (Step S248). When the CPU 206 determines that a battle effect or a button use effect is currently being performed (YES), the CPU 206 is in a standby state for a predetermined time (step S250). Here, the time to enter the standby state by the process of step S250 is when the battle effect is being performed, after the character A once loses in the battle effect of the reverse rotation pattern, until the character B attacks again and wins. This is the time. Further, when a button use effect is being performed, first, for example, a message “Please press the sub button repeatedly!” Is displayed on the display device 70 of the slot machine 1000 and the button use effect is started. In the production, it is a time during which the player is allowed to repeatedly hit the decision button switch 39. The “sub button” described above refers to the enter button switch 39, which is well known in advance.

  When a predetermined time in the standby state elapses by the process of step S250, the CPU 206 turns on the operation acceptance flag (step S252), and then blinks the light source provided inside the determination button switch 39 (step S252). S254) Informing the player that command input is possible. Then, the information reception process in FIG. 23 is terminated and other processes are performed. Note that if the current gaming state is a special game by the processing in step S243, the operation acceptance flag is not turned on. However, the operation acceptance flag is also excluded during the special game by omitting the processing in step S243. You may make it the structure which can be turned on.

(2-a-2-2) Description of ART Notification Processing Next, detailed contents of the ART notification processing performed in step S226 of FIG. 24 will be described with reference to the flowchart shown in FIG.
First, the CPU 206 determines whether or not the current game state stored in the RAM 210 is a normal game (step S260). When the CPU 206 determines that the current game state is not a normal game (NO), the CPU 206 ends the ART notification process in FIG. 24 and performs the effect lottery process in step S228 in FIG. On the other hand, if it is determined that the current gaming state is a normal game (YES), the CPU 206 determines whether or not the penalty flag is turned on by the process of step S233 of FIG. 23 (step S261). . When the CPU 206 determines that the penalty flag is off (NO), it is next determined whether or not the small combination 1 or the small combination 3 is determined as the winning combination by the combination lottery (step S262). When the CPU 206 determines that the small combination 1 or the small combination 3 is determined as the winning combination (YES), the CPU 206 generates a pseudo-random number, and a stock lottery table corresponding to the set value and the type of the winning combination (FIG. 17). Reference) is read out, and a stock lottery is performed based on the generated random number value (step S264).

  Then, it is determined whether or not stock has been generated by the stock lottery in step S264 (step S266). “1” is added (step S268). Next, the CPU 206 determines whether or not the state of the ART flag stored in the RAM 210 is on (step S270). This ART flag is a flag indicating whether or not the ART is currently in progress. If the ART flag is on, it indicates that the ART is being performed. Note that, in the determination process in step S262, the CPU 206 determines that the small combination 1 or the small combination 3 is not determined as a winning combination (NO), or the determination process in step S266 determines that no stock has occurred. If so, the process immediately proceeds to the determination process in step S270.

  If the CPU 206 determines that the penalty flag is on (YES) in the determination processing in step S261 described above, the ST value stored in the RAM 210 is cleared to "0" (step S1). S269), the process proceeds to the determination process in step S270. Therefore, it can be said that the CPU 206 that performs the penalty process in step S233 in FIG. 23 corresponds to the disadvantage state transition means. As described above, in the slot machine 1000, when the player irregularly presses the stop switches 37L, 37C, and 37R, the penalty flag is turned on by the process of step S233 in FIG. It is disadvantageous for the player that the number of players will be set to “0”.

  When the CPU 206 determines that the ART flag is turned off (NO) in the determination process of step S270, the process proceeds to the process of step S289, and an operation order notification process described later is performed. On the other hand, when the CPU 206 determines that the ART flag is on (YES), it recognizes the type of the combination determined as the winning combination (step S272). Then, the CPU 206 determines whether or not any duplicate winning combination related to the small combination 2 shown in FIG. 14 has been determined (step S274). If the CPU 206 determines that a duplicate winning combination relating to the small combination 2 has been determined (YES), the CPU 206 notifies the player of the operation order in which the small combination 2a is awarded three times, which is determined as the overlapping winning combination (step S276). ), The ART notification process in FIG. 24 is terminated.

  On the other hand, when the CPU 206 determines in the determination process of step S274 that the duplicate winning combination relating to the small role 2 is not determined in the combination lottery (NO), first, the current RT state is “non-RT” or “RT2”. Is determined (step S278). If it is determined that the current RT state is either “RT1” or “RT3” (NO), the process proceeds to step S289 without shifting the RT state (see FIG. 16). An operation order notification process described later is performed. On the other hand, when the CPU 206 determines that the current RT state is either “non-RT” or “RT2” (YES), the re-game player b and the re-game player shown in FIG. It is determined whether or not any duplicate winning combination relating to d is determined (step S280). When the CPU 206 determines that a duplicate winning combination relating to the re-playing role b and the re-playing role d is determined (YES), the operation order for winning the re-playing role b determined for the double winning role is notified. (Step S282), the ART notification process in FIG. 24 is terminated.

  As a result, when the player operates the stop switches 37L, 37C, and 37R according to the notified operation sequence, the re-game player b wins, and when the current RT state is “non-RT”, the process proceeds to “RT2”. Will be migrated. Also, if the current RT state is “RT2”, the re-gamer “b” wins and the re-gamer “d” is avoided, so the “RT2” is not transferred to “non-RT”. Stay on.

  On the other hand, when it is determined in the determination process of step S280 that the CPU 206 determines that no duplicate winning combination relating to the re-playing role b and the re-playing role d is determined in the winning lottery (NO), the next RT It is determined whether or not the state is “RT2” (step S284). When the CPU 206 determines that the current RT state is “non-RT” (NO), the CPU 206 proceeds to the process of step S289 and performs an operation order notification process described later. On the other hand, when the CPU 206 determines that the current RT state is “RT2” (YES), one of the duplicate winning combinations relating to the replaying role c and the replaying role d shown in FIG. Is determined (step S286). Here, when the CPU 206 determines that the duplicate winning combination relating to the re-playing role c and the re-playing role d is not determined by the winning lottery (NO), the process proceeds to step S289, and an operation order notification process described later is performed. I do.

  On the other hand, when the CPU 206 determines that a duplicate winning combination relating to the re-playing role c and the re-playing role d is determined (YES), an operation order for the re-playing role c determined in the duplicate winning role is a prize. (Step S288), and the ART notification process in FIG. 24 is terminated. As a result, when the player operates the stop switches 37L, 37C, and 37R in accordance with the notified operation sequence, the re-game player c wins and the current RT state shifts from “RT2” to “RT3”. .

  As described above, when the CPU 206 determines that the ART flag is turned off (NO) in the determination process of step S270, the RT state is “non-RT” or “RT2” in the determination process of step S278. When it is determined that there is no (NO), when it is determined that the RT state is not “RT2” in the determination process in step S284 (NO), and when the determination process in step S286 is performed, the re-game player c and the re-game game d are duplicated. When it is determined that the winning combination has not been made (NO), the process proceeds to step S289, and the operation order notification process is performed.

  Hereinafter, the flow of the operation order notification process performed in step S289 will be described with reference to the flowchart shown in FIG. First, in the main control circuit 100, when the special freeze effect lottery is performed in step S114 of FIG. 20, the CPU 206 displays freeze effect type information indicating any of the special freeze effects A to D together with the role lottery result information. It is determined whether or not it has been received (step Sa10). When the CPU 206 determines that the freeze effect type information indicating any of the special freeze effects A to D has not been received (NO), the operation order notification process in FIG. 25 is terminated. Thus, the ART notification process shown in FIG. 24 is also terminated, and the process proceeds to the process of step S228 of the information reception process shown in FIG.

  On the other hand, when the CPU 206 determines that it has received the freeze effect type information indicating any of the special freeze effects A to D (YES), it determines whether or not it is currently in the game history mode (step). Sa12). Here, the game history mode is a mode that shifts when the player inputs a valid password from a password input screen shown in FIG. The game history mode will be described later in detail. When the CPU 206 determines that the game history mode is set (YES), it determines whether or not the level of the player is a predetermined value or more (step Sa14). Here, each time a predetermined mission is achieved, the player's level value is accumulated according to the accumulated point and is determined according to the accumulated point (details will be described later). ). In this embodiment, the CPU 206 determines whether or not the player level is “27” or higher.

  When the CPU 206 determines that the player's level is “27” or higher (YES) in the determination process of step Sa14, it is determined whether or not the winning probability of the normal freezing effect lottery is the normal probability. (Step Sa16). Here, the information indicating the winning probability of the normal freeze effect lottery is stored in the RAM 210, and is the normal probability in the initial state of the information. When the winning probability information is received from the main control circuit 100, the information indicating the winning probability stored in the RAM 210 is updated by the process of step S235 of the information receiving process shown in FIG. 23 according to the winning probability information. Is done. In the determination process of step Sa16, when it is determined that the information indicating the winning probability stored in the RAM 210 is the normal probability (YES), the CPU 206 determines the type information of the special freeze effect determined to have been received in step Sa10. An effect corresponding to is executed (step Sa18). More specifically, an operation sequence (see FIG. 20C) corresponding to the received type of special freeze effect is notified to the player as an effect. Accordingly, it can be said that the special freeze effect lottery process in step S114 of FIG.

  When the process of step Sa18 is completed, the CPU 206 ends the operation order notification process of FIG. Note that when it is determined in the above-described determination process of step Sa14 that the player's level is less than “27” (NO), or in the determination process of step Sa16, the winning probability of the normal freeze effect lottery is high. When it is determined that the probability is reached (NO), the CPU 206 immediately ends the operation order notification process of FIG.

  In step Sa12 described above, when the CPU 206 determines that the game history mode is not currently in effect (NO), it is next determined whether or not the winning probability of the normal freeze effect lottery is high ( Step Sa20). When the CPU 206 determines that the winning probability of the normal freeze effect lottery is the normal probability (NO), the CPU 206 immediately ends the operation order notification process of FIG. On the other hand, when it is determined that the probability is high (YES), the process proceeds to step Sa18 to notify the operation order corresponding to the type information of the special freeze effect determined to be received in step Sa10. Then, the operation order notification process in FIG. 25 is terminated.

  As described above, when the ART flag is on, the operation order in which the small combination 2a wins three times in any RT state is informed, and the player determines according to the current RT state. The operation order in which the re-gamer who wins an advantageous RT state wins is notified. When the special freeze effect type information is received from the main control circuit 100, it is in the game history mode, the player's level is “27” or higher, and the normal freeze effect lottery has a normal probability. As a condition, an operation order corresponding to the type of special freeze effect received is notified. Furthermore, when the type information of the special freeze effect is received from the main control circuit 100 and the game history mode is not being used, the special freeze received when the winning probability of the normal freeze effect lottery is high. An operation order corresponding to the type of freeze effect is notified. The meaning of notifying the operation order when the special freeze effect lottery is performed will be described later.

  Note that, as described above, in step S114 in FIG. 20A, the lottery for selecting any one of the operation orders 3 to 6 is performed, and as a result, the operation order information indicating the selected operation order. Is transmitted, it is preferable to determine whether or not the operation sequence information has been received in step Sa10. In this case, in the process of step Sa18, the operation order indicated by the received operation order information may be notified.

(2-a-2-3) Description of effect lottery process Next, with reference to the flowchart shown in FIG. 26, the detailed content of the effect lottery process performed by step S228 of FIG. 23 is demonstrated.
First, as a result of winning the normal freeze effect lottery in step S104 of FIG. 20, the CPU 206 determines whether or not freeze effect type information indicating the normal freeze effect is received together with the role lottery result information (step S290). When the CPU 206 determines that the freeze effect type information indicating the normal freeze effect has been received (YES), the normal freeze effect process described later with reference to the flowchart shown in FIG. 27 is performed (step S291). On the other hand, when the CPU 206 determines that the freeze effect type information indicating the normal freeze effect has not been received (NO), it determines whether or not the continuous effect is currently being performed (step S292). Even after the normal freeze effect process in step S291 ends, the process proceeds to the determination process in step S292. If it is determined that a continuous effect is being performed (YES), the effect lottery process in FIG. 26 is terminated without performing the effect lottery. On the other hand, when the CPU 206 determines that the continuous production is not being performed (NO) in the determination process of step S292, a random number for lottery is generated (step S293). This random number is a pseudo-random number generated in a numerical range of 0 to 255 according to a predetermined algorithm. Next, the CPU 206 refers to the effect lottery table shown in FIG. 18 and determines the effect to be executed by lottery based on the pseudo-random number generated according to the type of winning combination determined in the role lottery (step S294). .

  Then, the CPU 206 determines whether or not “no effect” is determined by the effect lottery (step S296). When the CPU 206 determines that “no effect” is determined (YES), the effect lottery process of FIG. 26 is terminated. On the other hand, when it is determined that any of the effects is determined (NO), the CPU 206 determines whether the effect is determined as a mission, that is, the determined effect. It is determined whether or not is an effect that is the target of the mission (mission target effect) (step S298). When the CPU 206 determines that the effect determined by the effect lottery is the mission target effect (YES), the corresponding mission clear flag among the mission clear flags stored in the RAM 210 is turned on. (Step S300). This means that one mission has been achieved.

  Next, the CPU 206 turns on a clear non-notification flag corresponding to the mission clear flag that was turned on (step S302). Then, the CPU 206 determines whether or not the effect determined by the effect lottery is an input impossible effect (step S304). Here, the input impossibility effect is one of a continuous effect, a battle effect, or a button use effect as described above. Then, if the CPU 206 determines that it is determined that the input impossible effect is to be performed by the effect lottery (YES), then the CPU 206 is in the special game state (that is, during the BB game or the RB game). It is determined whether or not (step S305). When the CPU 206 determines that the current gaming state is a normal game (NO), it is next determined whether or not the current RT state is “RT3” (step S306). When the CPU 206 determines that the current RT state is “RT3” (YES), the input impossible effect determined by the effect lottery is changed to “no effect” (step S308). If it is determined in the above-described determination processing in step S305 that the current gaming state is in a special game (YES), the process immediately proceeds to step S308, and the input impossible effect determined by the effect lottery is “ Change to "No production".

  On the other hand, when the CPU 206 determines that the current RT state is not “RT3” (NO) in the determination process in step S306, the input impossible effect determined by the effect lottery is determined according to the type of the winning combination. (Step S310). That is, for example, when the battle lot effect is determined by the effect lottery and the BB role or the RB role is determined as the winning role, the battle effect in which the character A finally wins is executed. On the other hand, when the winning combination is a small combination 1, a small combination 3, or a loss, a battle effect is finally executed in which the character A is defeated. When the CPU 206 determines that the effect determined by the effect lottery is not an input impossible effect (NO) in the determination process in step S304, the process immediately proceeds to step S310. And if the process of step S308 or S310 mentioned above is performed, CPU206 will complete | finish the effect lottery process shown in FIG.

  Next, with reference to the flowchart shown in FIG. 27, the detailed content of the normal freeze effect process of step S291 mentioned above is demonstrated. When execution of the normal freeze effect is determined in the main control circuit 100, the CPU 206 first determines whether or not it is currently in the game history recording mode (step Sb10). When the CPU 206 determines that it is currently in the game history recording mode (YES), a normal freeze effect performed in the game history recording mode is executed (step Sb12). As an example of the contents of the effect at this time, for example, an effect in which a moving image in which the material that is the motif of the slot machine 1000 appears is displayed on the display device 70 and the sound is output from the speakers 64L and 64R. Conceivable. When the normal freeze effect is executed in the process of step Sb12, the CPU 206 next turns on the flag corresponding to the mission that satisfies the clear condition among the various mission clear flags (described later) stored in the RAM 210. (Step Sb14).

  In addition, in order to indicate that the player has not been notified that the clear condition has been met, the clear non-notification flag corresponding to the mission that has satisfied the clear condition is turned on, and the normal state shown in FIG. The freeze effect process is terminated, and the process proceeds to the process of step S292 in FIG. On the other hand, when the CPU 206 determines that the game history recording mode is not currently in effect (NO) in the determination process of step Sb10 described above, a normal freeze effect performed when not in the game history recording mode is executed (step S1). Sb14). As an example of the contents of the effect at this time, for example, it is assumed that only a still image depicting the theme that is the motif of the slot machine 1000 is displayed on the display device 70 and no sound is output. That is, it is assumed that an effect with a simple content is performed as compared with the normal freeze effect in the game history recording mode performed in step Sb12. And if the normal freeze effect by the process of step Sb14 is performed, the normal freeze effect process shown in FIG. 27 will be complete | finished, and it transfers to the process of step S292 of FIG.

  As described above, when the effect determined by the effect lottery is an input-impossible effect (step S304, YES), the game is in a specific game state (during special game) (step S305, YES), or the current If the RT state is “RT3” (step S306, YES), it is changed to “no effect” (step S308). That is, during the special game during the special game due to the process of step S243 in the information reception process shown in FIG. Does not continue to accept commands. On the other hand, during the normal game, the operation acceptance flag is not turned on during the execution of the continuous effect, the battle effect, and the button use effect (see steps S246 to S250 in FIG. 23), but when these effects are finished. Then, the operation acceptance flag is turned on again (see step S252 in FIG. 23).

  Therefore, for example, if a continuous effect, a battle effect, or a button use effect is performed during a special game, the player may be misunderstood that the command is accepted even when the special game is completed. There is sex. For this reason, during a special game, even if execution of a continuous effect, a battle effect, or a button use effect (input impossible effect) is determined, those effects are not performed. In addition, as described above, even if the unit game is completed, if the re-game player is won, the command reception state is not entered, so that the composite game winning probability of the re-game player is set high like “RT3”. In the RT state (see FIG. 11A), the frequency of not being in the command reception state increases. Therefore, in order to increase the frequency of the command reception state as much as possible, the input impossible effect determined by the effect lottery is canceled.

  In the effect lottery process shown in FIG. 26, when it is determined in step S306 that the current RT state is “RT3”, the process proceeds to step S308 and is changed to “no effect”. Instead, it may be switched to an effect other than the input impossible effect. In addition, when an effect that cannot be input is not included in the lottery object, or the “RT3” special effect lottery table in which the selection probability is set to be extremely low is stored in the ROM 208 in advance, the effect lottery is performed in step S294. In addition, if the current RT state is determined and it is “RT3”, the effect lottery may be performed based on the above-described “RT3” effect lottery table instead of the effect lottery table shown in FIG. . Further, when the command reception state is set even during the special game without performing the process of step S243 in the figure, the process of step S305 of FIG. 26 may be omitted.

(2-a-2-4) Description of ART Execution Control Process Next, the detailed contents of the ART execution control process performed in step S238 of FIG. 23 will be described with reference to the flowchart shown in FIG.
First, the CPU 206 determines whether or not the current game state stored in the RAM 210 is a normal game (step S320). When the CPU 206 determines that the current gaming state is not a normal game (NO), the CPU 206 ends the ART execution process of FIG. 28 and performs the game history update process of step S240 in FIG. On the other hand, if it is determined that the current gaming state is a normal game (YES), the CPU 206 determines whether or not a special combination (SB combination, RB combination or BB combination) has won a prize in the current unit game. (Step S322). If the CPU 206 determines that the special combination is won (YES), it is next determined whether or not the state of the ART flag stored in the RAM 210 is on (step S324).

  When the CPU 206 determines that the ART flag is on (YES), it turns off the state of the ART flag (step S325), and then the penalty flag stored in the RAM 210 (see FIG. 23, step S233). It is determined whether or not the state is on (step S326). When the CPU 206 determines that the state of the ART flag stored in the RAM 210 is off (NO) in the determination process in step S324, the process immediately proceeds to the determination process in step S326. If the CPU 206 determines in step S326 that the penalty flag is on (YES), the CPU 206 turns off the penalty flag (step S327).

  Thus, in this embodiment, when a penalty is imposed by the process of step S233 in FIG. 23, the penalty cancellation condition is set to win a special combination. The penalty cancellation condition is not limited to this. For example, it is determined in step S261 in FIG. 24 that the penalty flag is on (YES), and the ST value stored in the RAM 210 is cleared in step S269. The penalty flag may be turned off. When the CPU 206 finishes the process of step S327 or determines that the penalty flag is off (NO) in the determination process of step S326, the ART execution control process of FIG. The game history update process in step S240 of 23 is performed.

  In the above-described embodiment, a penalty is imposed when the player irregularly presses the stop switch except when the operation order of the irregular pressing is notified. However, such a penalty may not be imposed. In this case, for example, the special freeze effect lottery in step S114 of FIG. 20 performs a lottery that individually corresponds to six operation sequences and selects one of six types of special freeze effects having different freeze times Tf. Good. In addition, the penalty process of step S233 in the information reception process of FIG. 23 is omitted, and the information reception process of FIG. In the ART notification process of FIG. 24, the processes of steps S261 and S269 are omitted, and when the determination result of step S260 is YES, the process of step S262 is immediately performed. Further, in the ART execution control process of FIG. 28, the processes of steps S326 and S327 are omitted, and when the determination result of step S324 is NO and when the process of step S325 is completed, the ART execution control process of FIG. End.

  If the CPU 206 determines that the special combination has not won (NO) in this unit game in the determination process of step S322 described above, the state of the ART flag stored in the RAM 210 is turned on next. It is determined whether or not there is (step S328). When the CPU 206 determines that the state of the ART flag is off (NO), whether or not the value of the variable ST stored in the RAM 210 is 1 or more, that is, stored in the RAM 210. It is determined whether the number of stocks is 1 or more (step S330). When it is determined that the number of stocks stored in the RAM 210 is zero (NO), the ART execution control process in FIG. 28 is immediately terminated, and the game history update process in step S240 in FIG. 23 is performed.

  On the other hand, when it is determined that the number of stocks stored in the RAM 210 is 1 or more (YES), the CPU 206 turns on the state of the ART flag stored in the RAM 210 (step S332). Next, the CPU 206 resets the value of the variable ART_SC_CNT representing the number of consecutive ART chunks stored in the RAM 210 to “0” (step S334), and then subtracts “1” from the variable ST (step S336). Then, the CPU 206 adds “1” to the value of the variable ART_SC_CNT described above (step S338), and then adds “1” to the value of the variable ART_CNT indicating the number of times ART is stored stored in the RAM 210 (step S340). ), The ART execution control process shown in FIG. 28 is terminated.

  If the CPU 206 determines that the state of the ART flag is on (YES) in the determination processing of step S328 described above, it determines whether or not the current RT state is “RT3” next. (Step S342). Then, when the CPU 206 determines that the current RT state is “RT3” (YES), whether or not the value of the variable RT3G representing the number of unit games performed next in “RT3” is 50 or more. Is determined (step S344). When the CPU 206 determines that the value of the variable RT3G is 50 or more (YES), it is considered that one ART has been completed, and the value of the variable ST stored in the RAM 210 is “1” or more. It is determined whether or not there is (step S346).

  When the CPU 206 determines that the value of the variable ST is “0” (NO), the ART state stored in the RAM 210 is turned off (step S348), and the ART execution control process shown in FIG. Exit. If it is determined in step S342 described above that the current RT state is not “RT3” (NO), or in step S344, the value of variable RT3G is less than 50 (NO; That is, if it is determined that one ART has not been completed yet), the ART execution control process shown in FIG. 28 is terminated, and the game history update process in step S240 in FIG. 23 is performed.

  Further, when the CPU 206 determines that the number of stocks stored in the RAM 210 is “1” or more (YES) in the determination processing in step S346 described above, the ART is continuously changed, and the processing in step S336 is performed. , The value of the variable ST stored in the RAM 210 is decreased by “1”, “1” is added to the value of the variable ART_SC_CNT in step S338, and then the value of the variable ART_CNT is “1” in step S340. Then, the ART execution control process shown in FIG. 28 is terminated.

(2-a-2-5) Description of Game History Update Processing Next, detailed contents of the game history update processing performed in step S240 of FIG. 23 will be described with reference to the flowchart shown in FIG.
First, the CPU 206 determines whether or not some small combination has won as a result of the current unit game (step S350). When it is determined that none of the small roles has been won (NO), it is determined whether or not the current gaming state is a normal game (step S352), and the current gaming state is a special game. When it is determined as (NO), the game history update process shown in FIG. 29 is ended, and the mission clear display process in step S242 of FIG. 23 is performed.

  On the other hand, when the CPU 206 determines in the determination process of step S352 that the current gaming state is a normal game (YES), it determines whether or not the SB combination has won in the current unit game (step S354). ). If it is determined that the SB combination has not won (NO), it is next determined whether or not the RB combination has won (step S356). When the CPU 206 determines that the RB combination has won (YES), “1” is added to the value of the variable RB_CNT indicating the number of executions of the RB game stored in the RAM 210 (step S358). Next, the CPU 206 adds “1” to the value of the variable RB_SC_CNT, which is stored in the RAM 210 and indicates the number of times that the RB combination has continuously won when the special combination is won (step S360).

  Next, the CPU 206 determines whether or not the value of the variable BB_SC_CNT indicating the number of consecutive winnings of the BB combination exceeding the value of variable BB_SC_MAX indicating the maximum number of consecutive winnings of the BB combination is stored in the RAM 210 ( Step S362). When CPU 206 determines that the value of variable BB_SC_CNT exceeds the value of variable BB_SC_MAX (YES), CPU 206 updates the value of variable BB_SC_MAX to the current value of variable RB_SC_CNT (step S364). Then, since the winning combination of the BB combination is interrupted by the winning combination of the RB combination, the value of the variable BB_SC_CNT indicating the number of consecutive winnings of the BB combination is reset to “0” (step S366). If it is determined in step S362 described above that the value of variable BB_SC_CNT does not exceed the value of variable BB_SC_MAX (NO), the process immediately proceeds to step S366 without performing step S364. .

  Next, the CPU 206 resets the value of the variable INT_G_CNT indicating the number of games between bonuses stored in the RAM 210 to “0” (step S368). Here, the number of games between bonuses means the number of games played before the BB combination or RB combination wins this time after the BB combination or RB combination wins the previous time. Then, the CPU 206 adds “1” to the value of the variable G_CNT stored in the RAM 210 and indicating the total number of unit games played during the normal game (total number of games) (step S370). Then, the game history update process shown in FIG. 29 is terminated, and the mission clear display process in step S242 of FIG. 23 is performed.

  If the CPU 206 determines that the RB combination has not won (NO) in the current unit game in the determination process of step S356 described above, it is next determined whether or not the BB combination has won (step S372). . When the CPU 206 determines that the BB combination has not won (NO), after performing the process of step S370 described above, the game history update process shown in FIG. 29 is terminated. On the other hand, when the CPU 206 determines that the BB combination has won (YES), “1” is added to the value of the variable BB_CNT indicating the number of executions of the BB game stored in the RAM 210 (step S374). Next, the CPU 206 adds “1” to the value of the variable BB_SC_CNT, which is stored in the RAM 210 and indicates the number of times that the BB combination has continuously won when the special combination is won (step S376).

  Next, the CPU 206 determines whether or not the value of the variable RB_SC_CNT stored in the RAM 210 has exceeded the value of the variable RB_SC_MAX indicating the maximum value of the number of consecutive RB winning combinations (step S378). If the CPU 206 determines that the value of the variable RB_SC_CNT exceeds the value of the variable RB_SC_MAX (YES), the value of the variable RB_SC_MAX is updated to the current value of the variable RB_SC_CNT (step S380). Then, since the consecutive winning of the RB combination is interrupted by the winning of the BB winning combination, the value of the variable RB_SC_CNT indicating the number of consecutive winning of the RB winning combination is reset to “0” (step S382). If it is determined in step S378 described above that the value of variable RB_SC_CNT does not exceed the value of variable RB_SC_MAX (NO), the process immediately proceeds to step S382 without performing step S380. . Thereafter, the CPU 206 proceeds to the process of step S368, resets the value of the variable INT_G_CNT described above to “0”, and then proceeds to the process of step S370, where the value of the variable G_CNT indicating the total number of games played during the normal game is performed. "1" is added to. Then, the game history update process shown in FIG. 29 ends.

  When the CPU 206 determines in the determination process of step S350 described above that any small role has won (YES), it refers to the payout of each small role stored in the ROM 208 and pays out the winning small role. (Medal payout number) is recognized (step S384). Then, the payout number of medals recognized in step S384 is added to the variable T_GET stored in the RAM 210 and indicating the total value of the medals paid out to the player (step S386). Next, the CPU 206 determines whether or not the current gaming state is a normal game (step S388), and if it is determined that the current game state is a normal game (YES), the value of the number of inter-bonus games INT_G_CNT is set to “1”. "Is added (step S390). Then, the CPU 206 proceeds to the process of step S370, adds “1” to the value of the total number of games C_CNT, and ends the game history update process of FIG. If the CPU 206 determines that the current gaming state is not in a normal game (NO) in the determination process in step S388 described above, the game history update process shown in FIG. 29 is immediately terminated.

In addition, in the determination process of step S354 described above, when the CPU 206 determines that the SB combination has won (YES) as a result of the current unit game, the variable is stored in the RAM 210 and indicates the number of times the SB game has been performed. “1” is added to the value of SB_CNT (step S392). Then, the process proceeds to step S390, "1" is added to the value of the number of games between bonuses INT_G_CNT, and then the process proceeds to step S370, where the variable G_CNT indicating the total number of games played during the normal game is set. Add “1” to the value. Then, the game history update process shown in FIG. 29 ends.
As described above, the sub control circuit 200 updates the game history information of each item every time it receives information about the result of the unit game from the main control circuit 100.

(2-a-2-6) Description of Mission Clear Display Processing Next, detailed contents of the mission clear display processing performed in step S242 of FIG. 23 will be described with reference to the flowchart shown in FIG. .
First, the CPU 206 checks the on / off state of a mission clear flag that is stored in the RAM 210 and indicates whether or not the corresponding mission has been achieved, and determines whether there is a mission clear flag that is on. Judgment is made (step S400). When the CPU 206 determines that there is no mission clear flag in the on state (NO), the CPU 206 ends the mission clear display process in FIG. 30A and proceeds to the determination process in step S244 in FIG. .

If the CPU 206 determines in the determination process of step S400 that there is a mission clear flag that is on (YES), the mission clear is stored in the accumulated point value stored in the predetermined storage area of the RAM 210. Mission points (to be described later) corresponding to the flag are added (step S401). Then, the CPU 206 calculates a level based on the accumulated point value and stores it in the RAM 210 (step S402). Here, the level calculation formula based on the cumulative point value may be determined as appropriate, but in the present embodiment, the level Lv value when the cumulative point value is TP is obtained by the following calculation formula. (However, the decimal part is rounded down).
Lv = (TP + 1) ^0.7

  Next, it is determined whether or not the clear non-notification flag corresponding to the mission clear flag stored in the RAM 210 and in the on state is in the on state (step S403). Here, when the CPU 206 determines that there is no clear non-notification flag in the on state (NO), the mission clear display process of FIG. On the other hand, when the CPU 206 determines that there is a clear non-notification flag in an on state (YES), the clear display condition predetermined for the mission corresponding to the clear non-notification flag is set next. It is determined whether or not it is established (step S404).

  Here, FIG. 30B shows an example of each mission and an example of the clear display condition defined corresponding to each mission. In this figure, the number written in the “No.” column is a number (mission number) that is uniquely assigned to each mission, and is described in the “mission content” column corresponding to each mission number. The mission of the content is predetermined. In addition, each mission has a “clear display condition” that defines the timing for notifying the player when the mission is achieved, and points given to the player when the mission is achieved. Values (weights) are determined. For example, in FIG. 30B, mission number “2” indicates that when the special role is won in the process of repeating the unit game, the BB role is won without interposing the RB role. This is a mission that can be achieved if it is run 5 times. Then, when a medal is inserted to play the first unit game when the fifth BB game is started, the clear display condition is satisfied, and the accumulated points stored in the RAM 210 are processed by the process of step S401. “1” is added to the value, and the player is notified of the mission number “2” by the mission clear display process shown in FIG. Thus, it can be said that the CPU 206 that performs the process of step S401 corresponds to an accumulating unit that accumulates points (weights) of missions (events) that have been achieved.

  That is, for example, when the mission clear flag corresponding to the mission number “2” in FIG. 30B is on (step S400, YES), and the clear non-notification flag is on. (Step S403, YES) It is determined whether or not a medal is inserted for performing the first unit game in the fifth BB game (Step S404). When a medal is inserted for performing the first unit game, the determination result in step S404 is YES, and an image (notification to the player that the mission of mission number “2” has been achieved is displayed on the display device 70 ( A mission clear screen) is displayed (step S406). Then, the CPU 206 turns off the corresponding clear notification flag, and ends the mission clear display process of FIG.

  As will be described in detail later, when a QR code is generated by a command input by a player, the current cumulative point value and level are added to the generated QR code, and the mission is cleared. Information indicating a mission number (hereinafter referred to as an accomplished mission number) corresponding to the flag is included. Further, the above-described update process of the ART execution number in step S338, the update process of the ART continuous number of times in step S340, the game history update process shown in FIG. 29, and the mission clear display process shown in FIG. 30 will be described later. In step S482 in FIG. 35, the processing may be executed on condition that the game history recording mode is started which is started when it is determined that the input password is valid. In this case, the input password corresponds to history saving instruction information, and it can be said that the RAM 210 that stores various game histories updated as the unit game progresses corresponds to history information storage means.

<Relationship between the mission number “10” and the winning probability in the regular freeze drawing lottery>
Among the missions shown in FIG. 30 (b), the achievement condition of mission number “10” is set that the normal freeze effect is selected when the player's level is “25” or higher. Yes. Here, referring to FIG. 20, the condition for selecting the normal freeze effect is that the normal freeze effect lottery is performed when the BB role or RB role is won (including the bonus flag carryover) (step S102, YES). Winning (step S104). Here, as shown in FIG. 20B, since the winning probability of the normal freeze effect is 1/8192 at the normal probability, it can be said that the mission number “10” is a highly difficult mission. However, if the winning probability of the normal freeze effect is high, the winning probability of the normal freeze effect is 1/200, so the difficulty level of the mission number “10” can be reduced.

  Here, in FIG. 20A, when the re-gamer a is elected during the push order determination period (step S110, YES). Any one of the special freeze effects is selected, and the type of the selected special freeze effect is transmitted to the sub-control circuit 200 (step S120). Thereby, the sub-control circuit 200 is currently in the game history recording mode, when the player level is “27” or more and the winning probability of the normal freeze effect is the normal probability (FIG. 25, steps Sb12 to Sb16). Are all YES), the operation order corresponding to the type of special freeze effect transmitted from the main control circuit 100 is notified (FIG. 25, step Sb18). Then, when the player operates the stop switches 37L, 37C, and 37R according to the notified operation order, the operation order and the operation order corresponding to the selected special freeze effect match.

  As a result, the value of CRR stored in the RAM 110 of the main control circuit 100 is incremented by “1” (FIG. 21, steps S156, YES → S158). That is, during the game history recording mode, if the player's level is “27” or higher, the stop switch operation order is notified each time the re-gamer a is won in the role lottery. If the stop switch is operated according to this notification and is repeated four times, the CRR value exceeds “3” (step S160, YES in FIG. 21), and the winning probability of the normal freeze effect lottery is changed to a high probability. (FIG. 21, step S164). Thereby, since the winning probability of the normal freeze effect increases to 1/200, the mission number “10” is easily achieved. As described above, in the present embodiment, when the predetermined condition is satisfied (FIG. 25, steps Sa14 and Sa16, YES) during the game history recording mode (FIG. 25, step Sa12, YES), the predetermined mission is easily achieved. The control is switched so that More specifically, if the mission number “10” has not yet been achieved even though the level has reached “27”, in order to make the mission easier to achieve, The winning probability is raised.

  That is, when performing the operation order notification process shown in FIG. 25, the determination process in step S160 of the reel change / stop process shown in FIG. It can be said that the determination including whether or not the game is in progress after the password is input is also performed. Therefore, it can be said that the CPU 106 that performs such determination is also input information determination means.

  In the operation order notification process shown in FIG. 25, the CPU 206 determines that the game history mode is not in effect (NO) in the determination process of step Sa12, and the CPU 206 determines that the normal freeze effect is won in the determination process of step Sa20. Even when it is determined that the probability is high (YES), the process of step Sa18 is performed. This is a game in the game history recording mode, and if the winning probability of the normal freeze effect lottery is changed to a high probability, the winning probability of the normal freeze effect lottery will be changed to the original normal probability again after the game history recording mode ends. (Step S160 (YES) → S162 (NO) → S166 in FIG. 21).

  That is, when the game history recording mode is set and the level is “27” or higher and the winning probability of the normal freeze effect lottery is high, the determination result in step Sa16 is NO. The operation order corresponding to the type of special freeze effect is not notified. Therefore, when the winning probability of the normal freeze effect lottery is high, the determination result in step S160 of FIG. 21 is YES in the operation order notification process of FIG. 25 and not in the game history mode. It can be said that there is a high possibility of the result being judged (more specifically, step Sa12 (NO) → Sa20 (YES) → Sa18 in FIG. 25). As described above, when the determination result in step S160 in FIG. 21 is YES and the determination process in step S162 determines that the winning probability of the normal freeze effect lottery is high, the CPU 106 is in the game history mode. That is, that is, the game history information stored in the RAM 210 of the sub-control circuit 200 is regarded as deleted, and the winning probability of the normal freeze effect lottery is returned to the normal probability. In this manner, the rare value of the normal freeze effect is prevented from being lowered more than necessary by returning the winning probability of the normal freeze effect lottery to the normal probability.

  As described above, it can be said that the CPU 106 that performs the determination processing in steps S160 and S162 in FIG. 21 corresponds to an erasure determination unit. In addition, when the determination result in step S162 of FIG. 21 is NO, the CPU 106 that returns the winning probability of the normal freeze effect lottery to the normal probability by performing the process of step S166 corresponds to a switching probability return means. That's right.

  In the operation order notification process shown in FIG. 25, when the level is determined to be “27” or higher in the determination process in step Sa14, the operation order corresponding to the type of special freeze effect is notified in step Sa18. It has become. Here, the level at which the operation order is notified may be determined as appropriate. For example, “25” or more (“24” or less does not contribute to achievement of the mission number “10”) or “30” or more may be used. For example, when it is determined that the level is “27” or higher, the mission clear flag of the mission number “10” is checked, and the mission clear flag is turned on (that is, the mission number “10”). Has been achieved), the operation order corresponding to the type of special freeze effect may not be notified.

[Embodiment in which main control circuit recognizes change in performance]
As described above, in the operation order notification process shown in FIG. 25, the operation order corresponding to the type of special freeze effect determined by the main control circuit 100 is notified according to the level of the player. On the other hand, in the following, when performing an effect in which the content changes according to the player's operation, an operation in the case of notifying the operation order corresponding to the type of the special freeze effect according to the changed content A form (hereinafter referred to as another embodiment) will be described. In the other embodiment, the main control circuit 100 recognizes the change in the effect by notifying the operation order according to the change in the effect executed by the sub-control unit 200, and selects based on the recognition result. The type of the normal freeze effect that is the target is switched.

  A flowchart showing the contents of the other embodiment is shown in FIG. The flowchart shown in FIG. 31 (a) shows the contents of processing in each of the main control circuit 100 and the sub control circuit 200 executed for each unit game in parallel. In this figure, the flowchart of the main control circuit 100 mainly illustrates only the part related to the processing content from the time of lottery drawing until the above-described change in performance is recognized. Further, the flowchart of the sub-control circuit 200 mainly includes only the processing content related to the effects to be recognized in the main control circuit 100 and the processing content corresponding to the “change in effects” recognized in the main control circuit 100. Is extracted and illustrated. Further, in the figure, information indicated by a broken-line arrow indicates information transmitted from the main control circuit 100 to the sub-control circuit 200 via the connection line 120 (see FIG. 7). These pieces of information are temporarily stored in the buffer in the sub-control circuit 200, and are referred to as appropriate in the course of processing executed by the sub-control circuit 200. Steps in the flowchart relating to the sub-control circuit indicated by the broken line arrow in FIG. 31 (a) indicate steps referring to information corresponding to the broken line arrow.

  Here, the effect whose change is recognized in the main control circuit 100 is the “button use effect” included in the effect lottery table of FIG. 18. The specific contents in the other embodiment are At the start of production, the player is instructed to repeatedly hit the decision button switch 39 (see FIG. 5B), and then the number of times the decision button switch 39 has been operated is counted. Then, when the predetermined time has elapsed, if the count value of the number of operations is greater than or equal to a predetermined value, it is “success”, and if it is less than the predetermined value, it is “failure”. Thus, it can be said that this button use effect corresponds to a switch operation effect.

<Processing in main control circuit 100>
In the flowchart shown in FIG. 31A, the contents of processing in the main control circuit 100 will be described first. The CPU 106 performs a lottery similar to step S100 in FIG. 20A, and updates the ON / OFF state of the winning flag stored in the RAM 110 according to the result (step Scm10). Next, the CPU 106 determines whether or not the current RT state is “RT3” (step Scm12), and when it is determined that it is “RT3” (YES), it is considered that an ART game is being played. Then, it is determined whether or not the state of the push order determination flag stored in the RAM 110 is on (step Scm14). This push order determination flag is the operation order of the stop switches 37L, 37C, 37R notified to the player (hereinafter referred to as the notification operation order) and the operation order actually operated (hereinafter referred to as the execution operation order). )) Is a flag indicating whether or not to determine whether or not they match (details will be described later). Hereinafter, the period during which the push order determination flag is on is also referred to as a “push order determination period”.

  If the determination result in step Scm14 is YES (the push order determination flag is on), the CPU 106 performs a process for determining whether the notification operation order matches the execution operation order. That is, first, as a result of the combination lottery in step Scm10, it is determined whether or not the re-playing combination a is won (step Scm16). When the CPU 106 determines that the re-gamer a has been won (YES), “1” is added to the value of the variable RP stored in the RAM 110 (step Scm18). The value of this variable RP stores the number of re-game players a who have been selected since the above-described push order determination flag is turned on. Next, the CPU 106 performs a special freeze effect lottery similar to step S114 of FIG. 20A, and transmits special freeze effect type information indicating the type of the special freeze effect selected as a result to the sub control circuit 200 ( Step Scm20).

  When the process of step Scm20 is completed, the CPU 106 performs a reel rotation / stop process similar to the process shown in steps S140 to S152 of FIG. 21 (step Scm36). When the CPU 106 determines that the current RT state is not “RT3” (NO) at step Scm12 described above, or when it is determined that the re-gamer a is not won (NO) at step Scm16. Immediately, the process proceeds to the reel rotation / stop process in step Scm36.

  In step Scm14 described above, when the CPU 106 determines that the push order determination flag is not on (NO), the CPU 106 next turns on the addition start flag stored in the RAM 110. It is determined whether or not there is (step Scm22). This extra start flag is a period for adding (adding) the value of the stock ST stored in the RAM 210 of the sub-control circuit 200 during the ART game, apart from the stock lottery performed in step S264 of FIG. ) Is a flag indicating whether or not. The on / off state of the addition start flag is also transmitted to the sub control circuit 200, and is referred to when the sub control circuit 200 determines whether or not to perform processing related to the addition of the value of the stock ST.

  When the CPU 106 determines that the addition start flag is off (NO) in the determination process in step Scm22, it is determined whether or not the small combination 3 is won as a result of the combination lottery in step Scm10 (step Scm24). ). When the CPU 106 determines that the small role 3 has not been won (NO), on the other hand, when the CPU 106 has determined that the small role 3 has been won (YES), the above-described push order determination flag is turned on. (Step Scm26), the process proceeds to the reel rotation / stop process of Step Scm36. As a result, the condition for starting the determination as to whether or not the notification operation order and the execution operation order described above coincide with each other is that the small combination 3 is won by the combination lottery during the ART game. Note that, as will be described later, the winning of the small role 3 during the ART game is also a condition that the sub-control circuit 200 starts a button use effect.

  On the other hand, when the CPU 106 determines that the addition start flag is turned on (YES) in the determination process of step Scm22, a lottery (normal freeze effect lottery) for determining the freeze time Tf of the normal freeze effect is performed (steps). Scm28). In the normal freeze effect lottery, any one integer is randomly generated in the numerical range of 0 to 127, and the freeze time Tf associated with the generated integer value becomes the freeze time Tf of the normal freeze effect to be executed. . The selection lottery tables used in the normal freeze effect lottery include a selection lottery table A and a selection lottery table B. As shown in FIG. 31 (b), the selection lottery table A has 128 types of adjustments that can occur. Of the numerical values, the 28 integer values are associated with a freeze time Tf of 5 seconds, and the other 100 integer values are associated with a freeze time Tf of 0.15 seconds. On the other hand, in the selected lottery table B, the freeze time Tf of 0.1 seconds is associated with 28 integer values, and the freeze time Tf of 0.15 seconds is associated with the other 100 integer values. ing. Which of the selection lottery tables A and B is used to perform the normal freeze effect lottery is determined according to the number of matches between the notification operation sequence and the execution operation sequence during the push order determination period (details will be described later). .

  When the normal freeze effect lottery is performed in the process of step Scm28, the CPU 106 then sets the freeze state for the freeze time Tf selected in the normal freeze effect lottery (step Scm30). Then, when the freeze time Tf elapses, the CPU 106 determines whether or not the extra period has ended (step Scm32). Here, the CPU 106 determines that the extra period ends when ten unit games are performed after the extra period is started. When the CPU 106 determines that the addition period has ended (YES), it turns off the above-described addition start flag (step Scm34), and proceeds to the reel rotation / stop process of step Scm36. If the CPU 106 determines in the determination process in step Scm32 that the additional period has not ended (NO), the process proceeds to the reel rotation / stop process in step Scm36 without performing the process in step Scm34.

  After the reel rotation / stop processing in step Scm36, the CPU 106 rotates the reels 40R, 40C, 40L, then stops the corresponding reels according to the operation of the stop switches 37L, 37C, 37R, and stops all the reels. Then, the CPU 106 determines whether or not the state of the push order determination flag stored in the RAM 110 is on and whether or not the re-game player a has been won in the role lottery in step Scm10 (step Scm38). ). When the CPU 106 determines that the push order determination flag has been turned off or that the re-gamer a has not been won (NO), the processing of the flowchart shown in FIG. The winning determination process of step S30 is performed.

  On the other hand, when the push order determination flag is on and the CPU 106 determines that the re-gamer a has been won (YES), the type of the special freeze effect selected by the process of step Scm20 ( Any one of A to D) is compared with the execution operation order, and as a result, it is determined whether or not the number of coincidence has become three or more (step Scm40). When the number of times of coincidence is three times or more and (YES) and the CPU 106 determines, the selected lottery table used in the special freeze effect lottery performed in step Scm20 is switched to the selected lottery table A (step Scm42). ). Then, the CPU 106 turns off the state of the push order determination flag stored in the RAM 110, and further clears the value of RP to “0” (step Scm44). Next, the CPU 106 turns on the state of the addition start flag stored in the RAM 110, transmits the addition start information indicating that to the sub-control circuit 200 (step Scm46), and then the flowchart shown in FIG. Terminate the process.

  On the other hand, if the CPU 106 determines that the number of matches is not 3 or more (NO) in the determination process of step Scm40 described above, whether or not the value of RP stored in the RAM 110 has become 3 or more. Is determined (step Scm48). When the CPU 106 determines that the value of RP is not 3 or more (NO), the processing of the flowchart shown in FIG. On the other hand, when the CPU 106 determines that the value of RP is 3 or more (YES), the selected lottery table used in the special freeze effect lottery performed in step Scm20 is switched to the selected lottery table B ( Step Scm50). Then, after performing the processes of steps Scm44 and Scm46, the CPU 106 ends the process of the flowchart shown in FIG.

<Processing in Sub Control Circuit 200>
Next, contents of processing in the sub control circuit 200 in the flowchart shown in FIG. The CPU 206 determines whether or not the current RT state is “RT3” (step Scs10). When the CPU 206 determines that it is not “RT3” (NO), the flowchart shown in FIG. This process ends and other processes are performed. On the other hand, when the CPU 206 determines that it is “RT3” (YES), it is determined whether or not the state of the addition flag stored in the RAM 210 is on (step Scs12). This extra flag is a flag indicating that it is in a state in which the value of the stock ST described above should be added when a predetermined condition is satisfied by winning an extra period lottery which will be described later. Step Scs20 which will be described later It is turned on by processing.

  When the CPU 206 determines that the extra flag is off (NO), it is determined whether or not the small combination 3 is won as a result of the combination lottery performed in the process of step Scm10 in the main control circuit 100 ( Step Scs14). When the CPU 206 determines that the small role 3 has not been won (NO), the processing of the flowchart shown in FIG. 31A is terminated and other processing is performed. On the other hand, when the CPU 206 determines that the small role 3 has been won (YES), the lottery for the extra period of ART is performed, and it is determined whether or not the winning combination has been won (step Scs16). This extra period lottery is won with a probability of 1/150, for example (it is determined to start the extra period). When the CPU 206 determines that the extra period lottery is not won (NO) in the determination process of step Scs16, a button use effect B described later is started (step Scs18). On the other hand, when the CPU 206 determines that the extra period lottery is won (YES), after the above-described extra flag is turned on (step Scs20), the button use effect A is started (step Scs22).

  Here, the contents of the button use effect will be described. In the button use effect, the determination button switch 39 (see FIG. 5B) is operated a predetermined number of times (for example, 35 times) or more (for example, repeated hits) within a predetermined time (for example, 10 seconds) after the effect is started for the player. It is an effect that requires In the button use effect A, “success” is notified to the player when the determination button switch 39 is repeatedly hit within a predetermined time, and “failure” is notified when the number is less than the predetermined number. The On the other hand, in the button usage effect B, the player is notified of “failure” regardless of whether or not the determination button switch 39 is repeatedly hit within a predetermined time. Therefore, when the CPU 206 executes the button use effect B by the process of step Scs18, the player is always notified of “failure”.

  On the other hand, when the button use effect A is executed by the process of step Scs22, it is determined whether or not the operation number of the decision button switch 39 is equal to or more than the predetermined number when a predetermined time has elapsed since the start of the effect. (Step Scs24), and when it is determined that the number of times is equal to or greater than the predetermined number (YES), the player is notified of "success" and the state of the push order notification flag stored in the RAM 210 is turned on ( Step Scs26). When the special freeze effect is selected in the main control circuit 100 by the process of step Scm20, this push order notification flag is an operation corresponding to the type of the selected special freeze effect (specifically, the freeze time Tf). This is a flag (notification when on) indicating whether or not the order (notification operation order described above) is notified. And if the process of step Scs18, Scs24, or Scs26 is performed, CPU206 will complete | finish the process of the flowchart shown to Fig.31 (a), and will perform another process.

  If the CPU 206 determines that the additional flag is on (YES) in the determination process of step Scs12 described above, whether or not the state of the push order notification flag is turned on by the process of step Scs26 described above. Is determined (step Scs28). When CPU 206 determines that the push order notification flag is on (YES), it determines whether or not the special freeze effect type information transmitted by the process of step Scm20 in main control circuit 100 has been received. (Step Scs30). When the CPU 206 determines that the special freeze effect type information has been received (YES), the notification operation order is notified based on the received special freeze effect type information (step Scs32). Then, based on the addition start information transmitted from the main control circuit 100, it is determined whether the state of the addition start flag stored in the RAM 110 of the main control circuit 100 is on (step Scs34). When CPU 206 determines in step Scs28 that the push order notification flag is off (NO), or in step Scs30, it is determined that special freeze effect type information has not been received. If so, the process immediately proceeds to the determination process of step Scs34.

  If the CPU 206 determines that the addition start flag is off (NO) in the determination process of step Scs34, if the addition flag stored in the RAM 210 is on, the addition flag is turned off, and then the processing shown in FIG. The processing of the flowchart shown in (a) is terminated and other processing is performed. On the other hand, when the CPU 206 determines that the addition start flag is on (YES), the state of the push order determination flag stored in the RAM 210 is turned off (step Scs36), and then the main control circuit. It is determined whether or not the normal freeze effect type information transmitted by the process of step Scm28 at 100 has been received (step Scs38). When the CPU 206 determines that the normal freeze effect type information has not been received (NO), the process of the flowchart shown in FIG. 31A is terminated and other processes are performed.

  In contrast, when it is determined that the normal freeze effect type information has been received (YES), it is determined whether or not the freeze time Tf indicated by the normal freeze effect type information is 5 seconds (step Scs40). When the CPU 206 determines that the freeze time Tf is 5 seconds (YES), the player is notified that “1” has been added (ie added) to the value of the stock ST (step Scs42). Then, “1” is added to the value of the stock ST stored in the RAM 210 (step Scs44), and the process of the flowchart shown in FIG.

  When the CPU 206 determines that the freeze time Tf indicated by the received normal freeze effect type information is not 5 seconds (NO) in the determination process of step Scs40, is the freeze time Tf next 0.1 seconds? It is determined whether or not (step Scs46). When the CPU 206 determines that the freeze time Tf is not 0.1 seconds (NO), it is assumed that the freeze time Tf indicated by the received normal freeze effect type information is 0.15 seconds, and FIG. The process of the flowchart shown in FIG. On the other hand, when the CPU 206 determines that the freeze time Tf is 0.1 second (YES) in the determination process of step Scs44, it is determined whether or not the state of the additional flag is turned on by the process of step Scs20 described above. Judgment is made (step Scs48). When the CPU 206 determines that the state of the addition flag is on (YES), the process proceeds to step Scs44, and “1” is added to the value of the stock ST stored in the RAM 210, and then FIG. The process of the flowchart shown in FIG. On the other hand, when the CPU 206 determines that the state of the addition flag is off (NO) in the determination process of step Scs48, the operation order notification process of FIG.

<Operations of Main Control Circuit 100 and Sub Control Circuit 200>
Next, operations when the main control circuit 100 and the sub control circuit 200 perform processing according to the flow of the flowchart shown in FIG. 31A will be described. Here, in the initial state, the state of the push order determination flag and the addition start flag in the main control circuit 100, and the state of the push order notification flag and the addition flag in the sub control circuit 200 are both turned off. To do.

  First, in the main control circuit 100, when the RT state shifts to “RT3” (step Scm12 (YES)), since the push order determination flag and the addition start flag are both turned off, every time a unit game is performed. It is determined whether or not the small role 3 is won (step Scm14 (NO) → Scm22 (NO) → Scm24). Then, when the small role 3 is won in the role lottery, the push order determination flag is turned on (step Scm24 (YES) → Scm26), and a special freeze effect lottery is performed every time the re-game character a is won from the next unit game. (Step Scm16 (YES) → Scm18 → Scm20), the notification operation order is compared with the execution operation order (Step Scm38 (YES) → Scm40).

  On the other hand, in the sub-control circuit 200, when the RT state shifts to “RT3” (step Scs10 (YES)), since the additional flag is turned off, is the small part 3 won every time a unit game is performed? It is determined whether or not (step Scs12 (NO) → Scs14). When the small role 3 is won in the role lottery, an extra period lottery is performed (step Scs14 (YES) → Scs16), and then a button use effect is performed. Here, when the relationship between the result of the extra period lottery and the state change of various flags is established, the following is obtained.

(1) When the extra period lottery is won and button use effect A is performed, and the result is “success”. Both the extra flag and the push order notification flag are on (step Scs16 (YES) → Scs20 → Scs22 → Scs24 (YES) → Scs26),
(2) When the extra period lottery is won and the button use effect A is performed, and the result is “failure”, the extra flag is on and the push order notification flag is off (step Scs16 (YES) → Scs20 → Scs22 → Scs24 (NO)),
(3) When the button use effect B is performed without winning the extra period lottery. Both the extra flag and the push order notification flag are off (step Scs16 (NO) → Scs18).

  Hereinafter, the operations of the main control circuit 100 and the sub control circuit 200 will be described separately for each of the cases (1) to (3) described above.

(1) When the bonus use effect A is performed after winning the extra period lottery, and the result is “success”. In this case, in the main control circuit 100, the special freeze effect lottery is performed every time the re-gamer a is elected. (Step Scm16 (YES) → ... → Scm20) As a result, the sub-control circuit 200 notifies the operation sequence corresponding to the selected special freeze effect (Step Scs28 (YES) → Scs30 (YES) → Scs32). ). When the player operates the stop switches 37L, 37C, and 37R in accordance with the notification operation order, the determination result in step Scm40 will be YES, and the selection lottery table used in the normal freeze effect lottery will be the selection lottery table A (FIG. 31 (b)) (step Scm40 (YES) → Scm42).

(2) When the button use effect A is performed by winning the extra period lottery and the result is “failure”. In this case, since the push order notification flag is off, the sub control circuit 200 performs the main control. The operation order corresponding to the special freeze effect selected in the circuit 100 is not notified (step Scs28 (NO) → Scs34). For this reason, in the main control circuit 100, the possibility that the number of coincidence between the notification operation sequence and the execution operation sequence is three or more is extremely low. Therefore, in most cases, the determination result of step Scm40 by the main control circuit 100 is NO, and is added every time the re-gamer a is elected (step Scm18). When the value of RP becomes “3” or more, The selection lottery table used in the normal freeze effect lottery is switched to the selection lottery table B (see FIG. 31B) (step Scm40 (NO) → Scm48 (YES) → Scm50).

(3) When the extra period lottery is not won and the button use effect B is performed In this case as well, since the push order notification flag is off as in (2) described above, the sub control circuit 200 The operation sequence corresponding to the special freeze effect selected in the main control circuit 100 is not notified (step Scs28 (NO) → Scs34). For this reason, the determination result of step Scm40 by the main control circuit 100 is almost certainly NO, and when the value of RP (step Scm18) added every time the re-gamer a is elected becomes “3” or more, The selected lottery table used in the normal freeze effect lottery is switched to the selected lottery table B.

  As described above, in each case of (1) to (3), when the selection lottery table is selected, the push order determination flag is turned off and the addition start flag is turned on (steps Scm44 → Scm46). Here, in the main control circuit 100, the timing at which the addition start flag is turned on is replayed after the push order determination flag is turned on whether the selection lottery table A or the selection lottery table B is switched. It is when the role a is won three times. When the addition start flag is turned on, the main control circuit 100 starts the next freeze game lottery every time a unit game is performed (step Scm12 (YES) → Scm14 (NO) → Scm22 (YES)). → Scm28) In the sub-main control circuit 200, the value of the stock ST is added according to the result of the normal freeze effect lottery.

  That is, when the sub main control circuit 200 receives the normal freeze effect type information from the main control circuit 100 (step Scs38 (YES)), it determines the freeze time Tf of the normal freeze effect. Here, in the cases (2) and (3) described above, since the normal freeze effect lottery is performed using the selection lottery table B, the freeze time Tf is 0.1 seconds or 0.15 seconds. Therefore, in any case, the freeze time Tf of 0.1 seconds can be selected. However, in the case of (3), since the extra flag is not turned on, “1” is not added to the value of the stock ST ( Step Scs48 (NO) → return). When the unit game is played 10 times after the addition start flag is turned on, the determination result in step Scm32 is YES in the main control circuit 100, the addition start flag is turned off by the processing in step Scm34, and the addition period Ends.

  In the flowchart of FIG. 31A described above, if the determination result in step Scm40 is YES, it is assumed that the result of the button use effect A is “success” (predetermined effect state), and the normal freeze is performed. The selection lottery table (see FIG. 31B) used in the effect lottery is switched. It can be said that the CPU 106 that makes such a determination corresponds to an effect state determination unit that determines an effect state. Further, it can be said that the CPU 106 that changes the selection probability of the freeze time Tf or the winning probability of the normal freeze effect by switching the selection lottery table used in the normal freeze effect lottery corresponds to a switching probability changing unit. Furthermore, the sub-control circuit 200 that adds “1” to the value of the stock ST according to the result of the normal freeze effect lottery performed in the main control circuit 100 includes an extension means for extending the period of the ART game. It can be said.

  In the above-described other embodiments, the value of the stock ST is added as a method of adding the ART game period. Instead, the addition is performed by adding the remaining number of games of the ART game. It may be. In this case, the number of games to be added may be a predetermined fixed number of games, or the number of games to be added may be determined by random lottery or the like. When the main control circuit 100 switches to the selection lottery table by the process of step Scm42, the fact is transmitted to the sub control circuit 200. In the sub control circuit 200, the determination result of step Scs34 becomes YES and the additional period May be notified to the player that it is during the additional period until the determination result in Step Scs34 becomes NO again and the additional period ends.

(2-a-2-7) Description of Input Command Processing Next, with reference to the flowchart shown in FIG. 32, the player wants the slot machine 1000 to perform processing related to the gaming system 10. The contents of input command processing performed when inputting a command will be described. The input command process shown in this figure is also a process that is periodically executed at a predetermined cycle, similarly to the information reception process.
First, the CPU 206 determines whether or not the operation acceptance flag stored in the RAM 210 is on (step S410). Here, when the CPU 206 determines that the operation acceptance flag is in the OFF state (NO), the input command processing of FIG. 32 is terminated. On the other hand, when the CPU 206 determines that the operation acceptance flag is on (YES), the CPU 206 next determines whether or not the decision button switch 39 (see FIG. 5B) is turned on by the player. Is determined (step S412).

  At this time, if the CPU 206 determines that the enter button switch 39 is not turned on (NO), the input command processing of FIG. 32 is terminated. On the other hand, when the CPU 206 determines that the enter button switch 39 is turned on (YES), the menu screen shown in FIG. 33A is displayed on the display device 70 (step S414). The menu screen shown in this figure is a command that can be selected by the player. From the top in the figure, the “member registration” command C1, “password input” command C2, “QR code display” command C3, “data clear” Five commands, a command C4 and an “end” command C5, are displayed. Further, one triangular cursor K is displayed on the left side of the commands C1 to C5, and is displayed corresponding to any one of the displayed five commands. Here, in FIG. 33A, the cursor K is displayed corresponding to the “member registration” command C1.

  Next, the CPU 206 determines whether or not the player has turned on the enter button switch 39 (step S416). If the CPU 206 determines that the enter button switch 39 is not turned on (NO), the CPU 206 next turns on the up switch 38U or the down switch 38D (see FIG. 5B) by the player. It is determined whether or not it has been done (step S418). If it is determined that the upward switch 38U or the downward switch 38D is turned on (YES), the display of the cursor K is moved according to the turned-on direction switch (step S420). For example, when the upward switch 38U is turned on while the menu screen as shown in FIG. 33A is being performed, the CPU 206 moves the image of the cursor K to the left side of the “end” command C5. When the downward switch 38D is turned on, the image of the cursor K is moved to the left side of the “password input” command C2.

  When the process of step S420 ends, or when it is determined in the determination process of step S418 that the upward switch 38U and the downward switch 38D are not turned on (NO), the process returns to the process of step S416. As described above, after the menu screen is displayed in step S414, the processes in steps S416 to S420 are repeated until the determination button switch 39 is turned on by the player. In accordance with the operation on the switch 38D, the display of the cursor K is moved in correspondence with the display position of each command. If the CPU 206 determines that the determination button switch 39 has been turned on by the player (YES) in the determination process of step S416, the player determines from the position of the cursor K displayed on the menu screen at that time. The selected command is recognized (step S422). That is, the CPU 206 recognizes the command corresponding to the display position of the cursor K as the command selected by the player. Hereinafter, the content of the process performed by the CPU 206 will be described for each type of command selected by the player.

(A) When “Display QR Code” Command C3 is Selected First, the CPU 206 reads game history information of a predetermined item from the RAM 210 (step S424). Here, the game history information of a predetermined item includes ART execution count, RB execution count, BB execution count, total game count, achievement mission number (see FIG. 30 (b)), accumulated points, level, and the like. . Next, the CPU 206 reads the event code set in the event code setting means 228, and when the additional history information is associated with the event code, the game history of the item corresponding to the additional history information is stored from the RAM 210. Information is also read (step S426).

  Next, the CPU 206 reads out the game hall code set in the game hall code setting means 226 (step S428), and further reads out information representing the URL of the game server 3100 in FIG. 1 from the ROM 208 (step S430). Then, the CPU 206 generates a QR code including various types of information read out in steps S424 to S430 and displays the QR code on the display device 70 (step S432). Here, when a unit game has been played in the slot machine 1000 after a password to be described later is input (that is, when the game is in the game history recording mode), information included in the input password ( A QR code is generated further including a random ID and production setting information. FIG. 33B shows an example of a QR code display screen. In the example shown in this figure, the generated QR code QR is displayed at the center of the screen of the display device 70. Further, an image button (hereinafter referred to as “return” button) S1 for returning to the display of the menu screen shown in FIG. 33A is displayed below the displayed QR code QR. The detailed contents of the QR code generation / display process in step S432 will be described in detail later with reference to the flowchart of FIG.

  When the QR code is displayed on the display device 70 in the process of step S432, the CPU 206 erases all the game history information stored in the RAM 210 (step S434), and resets the on / off states of each mission clear flag. (Step S436) Furthermore, all the on / off states of the respective clear non-notification flags are reset (Step S438). Therefore, it can be said that the CPU 206 that performs the processes of steps S434 to S438 corresponds to an erasing unit. Then, the CPU 206 turns off the game history recording flag stored in the RAM 210 and ends the game history recording mode (step S439), and then on the QR code display screen shown in FIG. It is determined whether or not the “return” button S1 has been operated (step S440). Specifically, when the down switch 38D is operated while the QR code display screen of FIG. 33B is displayed on the display device 70, the color of the character “return” of the “return” button S1 , The background color is swapped. When the determination button switch 39 is operated in this state, the CPU 206 considers that the “return” button S1 is operated.

  When the CPU 206 determines that the “return” button S1 has not been operated (NO) in the determination process of step S440, the process returns to step S440 again and enters a standby state until the image button S1 is operated. During this standby state, the QR code display screen shown in FIG. When the CPU 206 considers that the “return” button S1 has been operated, the process proceeds to step S414 described above, and the menu screen shown in FIG.

(A) When “Register Member” Command C1 is Selected First, the CPU 206 generates game history information and the like in an initial state (step S442). Here, the game history information in the initial state is, for example, game history information in which each value indicates “0” for the game history information of the predetermined item read out by the process of step S424 described above. Also, as will be described later, since the random ID originally generated in the game server 3100 and the effect setting information set by the player who has been registered as a member do not exist at this stage, Also, the contents of a predetermined initial state are generated. And as a subsequent process, the process of step S428-S440 mentioned above is performed. Thereby, even if the player is not registered in the game server 3100, a QR code that can be accessed from the mobile phone 2100 to the game server 3100 is generated and displayed.

(C) When “DATA CLEAR” Command C4 is Selected First, the CPU 206 deletes the game history information stored in the RAM 210 and resets the ON / OFF state of the mission clear flag and the clear non-notification flag. The displayed erase execution screen is displayed on the display device 70 (step S444). This deletion execution screen displays, for example, a message such as “I will delete the game history information from now on” and an image button similar to the image button S1 on the QR code display screen shown in FIG. Yes. And as a subsequent process, the process of step S434-S440 mentioned above is performed. As a result, when the “data clear” command C4 on the menu screen is selected, processing for immediately deleting the game history information and the like is performed. In addition, on the deletion execution screen displayed on the display device 70 in step S444, an image button for confirming the player's intention to delete the game history information is displayed together, and when the image button is operated, You may make it transfer to the process of step S434.

(D) When “Password Input” Command C2 is Selected First, the CPU 206 displays the password input screen shown in FIG. 33C on the display device 70 (step S446). In the character area CHR located substantially in the center of the password input screen, 26 alphabets from A to Z and =,? Six types of symbols,, +,-, *, and @ are displayed. In the character area CHR, a square frame-shaped cursor K is displayed so as to surround any one character or symbol. In addition, a password input area PAS for inputting a password, in which a display position for five characters (position indicated by an underbar) is defined, is formed above the character area CHR. Also, below the character area CHR, a “return” button S1 having the same role as the “return” button S1 displayed on the QR code display screen of FIG. When an incorrect character or symbol is entered in the image button (hereinafter referred to as “confirm” button) S2 for confirming the password of the character and the password input area PAS, the character or symbol is deleted. An image button (hereinafter referred to as “delete” button) S3 is displayed.

  Next, the CPU 206 moves the display position of the cursor K in accordance with the operation of the direction button switch 38 by the player (step S448). For example, in the password input screen shown in FIG. 33C, the cursor K is displayed at a position surrounding the character “A”. In this state, when the player operates the right switch 38R, the CPU 206 moves the display position of the cursor K to a position surrounding the character “B”. Thus, the display position of the cursor K is moved in accordance with the operated direction button switch.

  Next, the CPU 206 determines whether or not the determination button switch 39 has been operated by the player (step S450). When determining that the enter button switch 39 has been operated (YES), the CPU 206 displays the characters or symbols enclosed by the cursor K at that time in the password input area PAS (step S452). Here, when the character or symbol designated by the cursor K is displayed in the password input area PAS, the character or symbol is sequentially displayed on the right side from the leftmost display position. Then, the process returns to the process of step S448, and the display position of the cursor K is moved again according to the operation on the direction button switch 38.

  If the CPU 206 determines that the determination button switch 39 has not been operated (NO) in the determination processing in step S450, it is next determined whether or not the “delete” button S3 has been operated (step S454). . Here, as a method of operating the “delete” button S3, for example, in the character region CHR, when the cursor K is at the position “D” or “E”, the up direction switch 38U is operated, or the cursor When the down switch 38D is operated when K is in the “?” Or “+” position, the character color and background color of the “delete” button S3 are switched and displayed. Then, when the enter button switch 39 is operated in this state, it is considered that the “delete” button S3 is operated. The operations of the other image buttons ("Return" button S1 and "Confirm" button S2) can be performed by the same operation.

  When the CPU 206 determines that the “delete” button S3 has been operated (YES) in the determination process of step S454, the character is displayed at the rightmost display position among the characters displayed in the password input area PAS. The erased characters are erased from the screen (step S456). Then, the process returns to the process of step S448, and the display position of the cursor K is moved again according to the operation on the direction button switch 38. Further, in the determination process of step S454, when the CPU 206 determines that the “delete” button S3 is not operated (NO), it determines whether or not the “return” button S1 is operated next (step S458). ). When the CPU 206 determines that the “return” button S1 has been operated (YES), the process proceeds to step S414 described above, and the menu screen shown in FIG. .

  On the other hand, when the CPU 206 determines in the determination process in step S458 that the “return” button S1 is not operated (NO), it is next determined whether or not the “confirm” button S2 is operated (step S460). ). If the CPU 206 determines that the “confirm” button S2 is not operated (NO), the process returns to step S448, and the display position of the cursor K is moved again according to the operation on the direction button switch 38. . On the other hand, when the CPU 206 determines that the “confirm” button S2 has been operated (YES), a variety of information is extracted from the input password and a game history recording flag indicating that the game history recording mode is in effect. After the password input process is performed to turn on / off state (stored in the RAM 210) (step S462), a predetermined effect image is displayed on the display device 70 to resume the unit game. (Step S464), the input command processing shown in FIG. 32 is terminated.

(E) When “End” Command C5 is Selected In this case, the CPU 206 immediately performs the process of step S464 described above. Thus, after a predetermined effect image is displayed on the display device 70, the command input process of FIG. 32 is completed, and the slot machine 1000 can start a unit game.

(2-a-2-8) Description of QR Code Generation / Display Processing Next, detailed contents of the password input processing performed in step S432 in FIG. 32 will be described with reference to the flowchart shown in FIG.
First, the CPU 206 generates a QR code based on the various information read in steps S424 to S430 in FIG. 32 (step S550). Here, since a large amount of information is included in the QR code, when the information cannot be stored in one QR code, a plurality of QR codes are generated. Next, the CPU 206 displays the QR code generated in step S550 on the display device 70 (step S552). Here, when a plurality of QR codes are generated, an order is appropriately given to each QR code, and the first QR code is displayed. In addition, the QR code display screen at this time is such that a “next” button having the same shape is displayed next to the “return” button S1 in the screen shown in FIG.

  The CPU 206 first determines whether or not the “next” button has been operated (step S554). When the CPU 206 determines that the “next” button has been operated (YES), it is determined whether a plurality of QR codes have been generated and the next QR code exists (step S556). If it is determined that the next QR code exists (YES), the CPU 206 switches the currently displayed QR code to display the next QR code (step S558), and then performs the determination process in step S554. Return to. On the other hand, when the CPU 206 determines that the next QR code does not exist (NO) in the determination process in step S556, the process immediately returns to the determination process in step S554.

  When the CPU 206 determines that the “next” button has not been operated (NO) in the determination process in step S554, it determines whether or not the “return” button has been operated next (step S560). When the CPU 206 determines that the “return” button has not been operated (NO), the process returns to the determination process in step S554. On the other hand, when the CPU 206 determines that the “return” button has been operated (YES), the CPU 206 determines whether or not the QR code displayed on the display device is the first one (see FIG. Step S562). When the CPU 206 determines that the first QR code is displayed (YES), the QR code generation / display process shown in FIG. 34 is terminated, and the process proceeds to step S434 in FIG. On the other hand, when the CPU 206 determines that the first QR code is not displayed (NO), the previous QR code is displayed on the display device 70 (step S564), and the process proceeds to the determination process of step S554. Return.

  In the above-described QR code generation / display processing, for example, when three QR codes are generated, the first QR code is displayed first, and the second QR code and the last QR code are displayed each time the “next” button is operated. QR codes are displayed sequentially. When the “return” button is operated while the last or second QR code is displayed, the previous QR code, that is, the second or first QR code is displayed. When the “return” button is operated while the first QR code is displayed, the process proceeds to step S434 in FIG. 32 and the game history information stored in the RAM 210 is erased.

(2-a-2-9) Description of Password Input Processing Next, detailed contents of the password input processing performed in step S462 in FIG. 32 will be described with reference to the flowchart shown in FIG.
First, the CPU 206 determines whether or not the password input in the password input area PAS of the password input screen shown in FIG. 33C is valid (step S470). This determination process is a process for checking whether or not a character string having a meaning as a password is input. By performing this determination process, an illegal act on the slot machine 1000 can be prevented in advance. When the CPU 206 determines that the input password is not valid (NO), the CPU 206 displays a message on the display device 70 to notify the player that the input password is invalid (step 70). S472), the password input process of FIG. 35 is terminated, the process proceeds to the process of step S414 of FIG. 32, and the menu screen shown in FIG.

  On the other hand, when the CPU 206 determines that the input password is valid (YES), the random ID generated by the game server 3100 from the input password, information on the achievement level of the mission, Various types of information such as production setting information described later are extracted (step S474). Next, the random ID extracted from the password is stored in the RAM 210 (step S476). Further, the game history information extracted from the password is stored in a predetermined storage area of the RAM 210 (step S478), and the contents of the effect performed during the unit game are changed according to the contents of the effect setting information extracted from the password (step S478). S480). Then, the CPU 206 turns on / off the game history recording flag stored in the RAM 210 to start the game history recording mode (step S482), and then ends the password input processing of FIG. The process proceeds to step S464.

  Here, as an example of the effect changed according to the contents of the effect setting information, for example, when performing the character effect and the serif effect shown in FIG. 18, the character specified by the effect setting information is displayed on the display device 70. In other words, ROM 208 stores in advance data for effects that can execute character effects and serif effects by a plurality of types of characters. For example, by the character specified by the effect setting information included in the password, The character production and the dialogue production are performed.

(2-a-2-9) Description of power-off processing and power-on processing Next, referring to the flowchart shown in FIG. 36, executed when a game hall administrator or the like turns off the power of the slot machine 1000 The contents of the power-off process executed and the power-on process executed when the power of the slot machine 1000 is turned on will be described. Here, FIG. 36A is a flowchart showing the contents of the power-off process described above, and FIG. 36B is a flowchart showing the contents of the power-on process described above.

(A) Description of power-off processing When the power of the slot machine 1000 is turned off, in the flowchart of FIG. 36A, the CPU 206 prohibits interrupt processing that is periodically executed at a predetermined cycle. (Step S490). Then, the CPU 206 includes the mission clear flag on / off state corresponding to all the missions stored in the RAM 210, and if the game is started after the password is entered, the random ID information is also included. The data is stored in a nonvolatile memory (not shown) such as a flash memory (step S492). Next, a checksum is calculated for the data stored in the nonvolatile memory described above, and the result is stored in the nonvolatile memory described above (step S494). Then, the subsequent writing to the RAM 210 is prohibited.

(A) Explanation of power-on processing When the power of the slot machine 1000 is turned on, in the flowchart of FIG. Among them, a temporary stack pointer is set to an unused address (step S500). In this way, by setting the temporary stack pointer, the subsequent processing can be performed. Next, the CPU 206 calculates a checksum for all storage areas of the ROM 208 (step S502), and determines whether or not the calculation result matches a value stored in advance (step S504). If the value of the checksum calculated in step S502 does not match the value stored in advance, it is assumed that an abnormality has occurred in the ROM 208 (NO), and the following processing is stopped. On the other hand, when the checksum value calculated in step S502 matches the value stored in advance (YES), the ROM 208 is regarded as normal.

  Next, the CPU 208 clears the entire storage area of the RAM 210 (step S506), reads the on / off state of the all mission clear flag stored when the power is turned off from the nonvolatile memory described above, and stores the predetermined value in the RAM 210. (Step S508). Then, the CPU 208 calculates a checksum for the on / off state of all the mission clear flags stored in the RAM 210 (step S510), and stores the value and the above-described non-volatile memory as shown in FIG. Are compared with the checksum value calculated in step S494 (step S512). If the two values do not match (NO), it is considered that an abnormality has occurred in the RAM 110, and an error code indicating that fact is displayed on the acquired number display 28 shown in FIG. (Step S514), the following processing is stopped.

  On the other hand, if both values match (YES), the CPU 206 uses the value stored in the stack pointer save area of the RAM 210 as the stack pointer (step S516). Next, the CPU 206 permits an interrupt process according to an interrupt signal supplied from the outside (step S518), ends the power-on process shown in FIG. 36B, and thereafter performs a unit game. Transition to processing.

  Thus, when the power of the slot machine 1000 is turned off, the on / off state of the mission clear flag is stored, and when the power is turned on, the on / off state of the mission clear flag is restored. However, the ON / OFF state of the clear non-notification flag has the following advantages by not returning when the power is turned on.

  For example, let us consider a mission that is achieved when a continuous effect is selected in a state where a bonus combination is won, such as the mission of mission number “6” in FIG. In addition, for example, this continuous production is performed over three games, and when the unit game of the third game ends after the production starts, it is clearly notified to the player that the bonus combination has been confirmed ( For example, by displaying a message such as “Bonus confirmed!”, It aims to increase the player's mood.

  In such a mission, it is desirable that the timing for notifying the player that the mission has been achieved is after the bonus combination finalizing notification performed at the end of the continuous performance. This is because, if the continuous production is selected, if the player is informed that the mission with the mission number “6” in FIG. 30B has been achieved, the player continues the current continuous operation. The production relates to the mission with the mission number “6”, and therefore the player knows in advance that a bonus confirmation will be given at the end of the continuous production currently being performed. For this reason, the clear display condition for the mission number “6” is defined as when the continuous production is finished and the bonus confirmation display is made.

  In this way, in a mission in which the timing at which the mission is achieved does not coincide with the timing at which the notification is made, for example, due to the convenience of the amusement hall, the slot between the completion of the mission and the notification thereof If a situation occurs in which the power of the machine 1000 needs to be turned off, when the power is turned on again, both the mission clear flag and the clear non-notification flag are restored to the on / off state as follows. In this case, the player feels uncomfortable.

  For example, when the above-described continuous performance is being performed, the business hours of the game hall end in the middle of the game, and the player is forced to end the game. At this time, if the player generates a QR code, the mission clear flag corresponding to the mission number “6” is turned on when the above-described continuous performance is selected. Includes information that the mission number “6” has been achieved. Then, if the game hall is closed and, for example, the setting value is changed by a staff member of the game hall after the store is closed, generally, in this type of slot machine, the bonus combination winning flag is also turned off. Will end up. In such a state, when the power is turned on at the start of business the next day, it is assumed that the on / off state of both the mission clear flag and the clear non-notification flag is restored. In this case, if another player plays a game in the slot machine 1000, when the clear display condition is satisfied, it is notified that the mission with the mission number “6” has been achieved, and the player is confused. There is a possibility that.

  In other words, in the above-described case, for example, when a message “XX continuous production display mission clear! Although the winning flag is turned off, a notification that the bonus has been finalized) is made. In addition, after a player who knows the slot machine specifications that the bonus combination winning flag is turned off when the setting is changed, the bonus combination winning flag is turned on. If it is detected that the player has not made the game, the player will be informed that the setting has been changed after the start of the continuous production, and in some cases, the player's willingness to play will be reduced. It might be.

  For this reason, in the slot machine 1000, when the power is turned off, the mission clear flag on / off state is stored and restored when the power is turned on again so that information on the completed mission is not lost. The clear / not-notified flag on / off state cannot be restored when the power is turned on again.

(2-b) Description of Control Processing in Mobile Phone and Game Server Next, a flowchart shown in FIGS. 37 to 40 and a diagram showing contents displayed on the screen of the mobile phone 2100 shown in FIGS. A process executed when various data is exchanged between the mobile phone 2100 and the game server 3100 will be described with reference to FIG.
Here, FIG. 37 is a flowchart showing the contents of processing performed by the mobile phone 2100 and the game server 3100 when a member is newly registered in the game server 3100. FIG. 38 shows the contents of the processes performed by the mobile phone 2100 and the game server 3100 when performing the effect setting process for changing the contents of the effects performed in the slot machine 1000 according to the player's preference. It is a flowchart which shows. FIG. 39 shows the contents of processing performed by the mobile phone 2100 and the game server 3100 when the player downloads content data such as a standby screen and incoming voices to be displayed on the mobile phone 2100 from the game server 3100. It is a flowchart which shows. FIG. 40 shows the mobile phone 2100 and the game server when the player obtains the game history of the unit games played in the slot machine 1000 and the information related to the events performed at each game hall from the game server 3100. 3 is a flowchart showing the contents of processing performed in 3100. FIGS. 41 to 43 show contents displayed on the screen of the mobile phone 2100 in the process of performing the processing shown in the flowcharts of FIGS. 37 to 40 described above.

(2-b-1) Member Registration Process and Game History Update Process First, referring to the flowchart shown in FIG. 37, when a new member is registered in the game server 3100, or a game history stored in the game server 3100 A process performed by the mobile phone 2100 and the game server 3100 in the case of updating the game will be described.
First, on the menu screen shown in FIG. 33A, when the player selects the “member registration” command C1 or the “display QR code” command C3, the QR code is displayed on the display device 70 of the slot machine 1000. The Thereby, the player takes a picture of the displayed QR code with the mobile phone 2100 (step S600), and the bar code reader function of the mobile phone 2100 causes the URL of the game server 3100 included in the taken QR code, Various types of information such as history information, information on achievement mission numbers, cumulative points, levels, production setting information, game hall codes, event codes, and the like are extracted (step S602).

  When the player accesses the game server 3100 based on the extracted URL by the data communication function of the mobile phone 2100 (step S604), the mobile phone 2100 identifies the mobile phone 2100 with respect to the game server 3100. A request for display data for displaying the main menu screen shown in FIG. 41A on mobile phone 2100 is transmitted together with information that can be obtained and various information extracted from the captured QR code. The information that can specify the mobile phone 2100 includes, for example, a mobile phone number and an e-mail address. Here, the mobile phone number is used. Thus, when the game server 3100 receives this request, the game server 3100 generates and transmits display data for the main menu screen (step S700). This display data is created in a language according to Compact HTML, which is a subset of so-called HTML (Hyper Text Markup Language), and includes URL (Uniform Resource) indicating the location of image data and other WEB servers as well as character information. Locator) information can be incorporated.

  When the mobile phone 2100 receives display data for the main menu screen from the game server 3100, the mobile phone 2100 displays the main menu screen shown in FIG. 41A on the display device 2110 of the mobile phone 2100 (step S606). Here, since the main menu screen shown in FIG. 41 (a) does not fit on the screen of the mobile phone 2100, by scrolling the main menu screen by operating the cursor key of the mobile phone 2100 up and down, You can grasp the whole picture. Here, which range is displayed in the entire main menu screen is indicated by the dark portion of the scroll bar Sb displayed on the right side of the screen.

  As shown in FIG. 41A, the main menu screen displays a plurality of image buttons for transmitting various requests to the game server 3100 and a game history that has been played most recently in the slot machine 1000. Yes. The displayed image buttons include a “notification list” button b1, a “issue password” button b2, a “game history” button b3, a “mission achievement list” button b4, a “production custom” button b5, and a “content DL”. There is a button b6 and a “game information” button b7. The displayed game history includes the number of unit games played in the normal game (number of games), the number of times BB game has been played (BB times), the number of times RB games have been played (REG times), and ART. There are the number of times started (ART number) and the mission achievement rate.

  These game histories are stored on the main menu based on the game history information extracted from the captured QR code and the achievement mission number transmitted when the mobile phone 2100 accesses the game server 3100 in the process of step S604 described above. Incorporated into the screen display data. Note that when the game server 3100 is accessed based on the QR code generated by selecting the “member registration” command C1 on the menu screen shown in FIG. 33A, the game history displayed on the main menu screen Is the game history in the initial state generated by the process of step S442 in FIG.

  Then, when the player operates the cursor key of the mobile phone 2100 and selects the “issue password” button b2 among the displayed image buttons, the player is displayed on the selected “issue password” button b2. When the color of the character and its background are switched (the state shown in FIG. 41A) and the player operates the confirmation key of the mobile phone 2100 in this state, a password issuance request is transmitted from the mobile phone 2100 to the game server 3100. (Step S608). When the game server 3100 receives a password issuance request from the mobile phone 2100, the game server 3100 refers to the effect setting information received from the mobile phone 2100, generates display data for a password issuance confirmation screen incorporating the content, and the mobile phone 2100. (Step S704).

  When the mobile phone 2100 receives the display data for the password issuance confirmation screen from the game server 3100, the mobile phone 2100 displays the password issuance confirmation screen shown in FIG. 41B on the display device of the mobile phone 2100 (step S610). In the password issuance confirmation screen shown in this figure, the contents of the current effect setting information are displayed as “effect custom state”. In the example shown in FIG. 41B, it is in the “initial state” in which the effect custom process described later is not performed. Further, a message confirming the player's intention is displayed below the effect custom state, and a “issue new password” button ba1 is displayed below the message. Further, at the bottom of the password issuance confirmation screen, there is provided a screen movement instruction area ma designated when moving (returning) to the main menu screen shown in FIG. Then, the player selects the “latest password issuance” button ba1 on the password issuance confirmation screen and operates the confirmation key of the mobile phone 2100, so that the latest password issuance request is transmitted to the gaming server 3100 (step S612).

  Thereby, when the game server 3100 receives the above-mentioned latest password issuance request, first, the mobile phone number received from the mobile phone 2100 (hereinafter referred to as the received mobile phone number) is registered in the management DB 3150 shown in FIG. It is confirmed whether it is what has been done (step S706). Here, when the gaming server 3100 determines that the received mobile phone number is not registered in the management DB 3150 (NO), the received mobile phone number is assigned an initial random ID, in order to register a new member. The game history, normal points, event information, and effect setting information (see FIG. 4A) are associated and newly added to the management DB 3150 and stored (step S708).

  On the other hand, when the game server 3100 determines that the received mobile phone number is registered in the management DB 3150 (YES) in the determination processing in step S706, it is stored in the management DB 3150 in association with the mobile phone number. The random ID that has been transmitted is compared with the random ID transmitted from the mobile phone 2100 in the process of step S604 (step S710). If it is determined that both random IDs match (YES), various types of information (see FIG. 4A) stored in the management DB 3150 in association with the mobile phone number are processed in step S604. To update the information transmitted from the mobile phone 2100 (step S712). At this time, based on the number of mission numbers (achieved missions) cleared so far and the total number of missions, the value of “mission achievement rate” shown in FIG. 4B is recalculated and updated. . In addition, the values of “number of visits” and “result” shown in FIG. On the other hand, when the game server 3100 determines that the two random IDs do not match (NO) in the determination process of step S710, a message not updating the various information shown in FIG. 4A is generated. (Step S714).

  When the process of step S708, S710, or S712 described above is completed, the game server 3100 then arbitrarily generates one number within a numerical range of 0 to 255, and sets this as a random ID (step S716). If the generated number matches the number of the random ID in the initial state, an arbitrary number is repeatedly generated until it does not match. Next, the game server 3100 updates the random ID stored in the management DB 3150 in association with the received mobile phone number to the random ID generated in step S716 (step S718). Next, the game server 3100 reads out the effect setting information and the game history information of the predetermined items from the various information stored in the management DB 3150 in association with the received mobile phone number (step S720).

  Next, the game server 3100 generates a password according to a known algorithm based on the random ID generated in the process of step S716, the effect setting information read in the process of step S720, the game history information, and the like (step S722). Note that the generated password is represented by any five characters or symbols among the characters and symbols displayed in the character area CHR of the password input screen shown in FIG. Then, the game server 3100 generates display data for a password issuance screen for displaying the password generated by the process of step S722 on the display device 2110 of the mobile phone 2100, and transmits it to the mobile phone 2100 (step S724). ), The process shown in FIG. 37 is terminated and other processes are performed. If a message not updating game history information or the like has been generated by the process of step S714, display data for generating the generated message is generated on the password issuing screen in the process of step S724. The

  On the other hand, when the mobile phone 2100 receives display data for the password issuance screen from the game server 3100, the mobile phone 2100 displays the password issuance screen shown in FIG. 41C on the display device based on the display data (step S614). In the password issuance screen shown in this figure, a password with the content “ABCDE” is displayed. When the password displayed on the password issuance screen is input to the slot machine 1000, the game history information of the items included in the password is stored in the RAM 210 (see steps S474 to S4780 in FIG. 35). Thereby, when the unit game is started in that state, the contents of the game history information performed in the slot machine 1000 until the previous time are inherited for the game history information of the item.

  In the process of step S712 described above, when updating various information stored in the management DB 3150 in association with the mobile phone number to the information transmitted from the mobile phone 2100 by the process of step S604, the mobile phone A game machine code, an event code, and a correspondence between the game machine code included in the information transmitted from the telephone 2100 and the event code are defined in the held event information stored in the management DB 3150. It is possible to determine whether or not the corresponding information matches, and if it does not match, the various information stored in the management DB 3150 may not be updated.

(2-b-2) Effect Setting Processing Next, referring to the flowchart shown in FIG. 38, when the player changes the content of the effect executed in the slot machine 1000 to the desired content, the mobile phone 2100 And the process performed with the game server 3100 is demonstrated. In FIG. 38, the processing until the main menu screen shown in FIG. 41A is displayed on the display device 2110 of the mobile phone 2100 is the same as the member registration processing and game history update processing shown in FIG. Therefore, the same step numbers as in FIG. 37 are assigned to the processes related to them, and detailed description thereof is omitted.

  First, when the player selects the “production custom” button b5 on the main menu screen displayed on the display device 2110 of the mobile phone 2100, the mobile phone 2100 transmits an effect custom request to the game server 3100 ( Step S620). Thereby, when the game server 3100 receives the effect custom request, first, the mobile phone number of the accessed mobile phone 2100 is recognized, and the effect setting information stored in the management DB 3150 in association with the mobile phone number ( The contents of FIG. 4A are referred to (step S730). Next, the game server 3100 determines presentation setting information that can be selected by the player in accordance with the mission achievement rate stored in the management DB 3150 in association with the received mobile phone number (step S732).

  For example, for each effect shown in the effect lottery table shown in FIG. 18, there are a plurality of types in which the types of characters and the number of characters to be displayed are different. Image data and audio data for performing an effect in accordance with is stored. Here, it is assumed that the first to fifth effect modes exist for each effect shown in the effect lottery table of FIG. And it is production setting information which designates which production mode is produced among these production modes. Here, in the process of step S732, for example, if the mission achievement rate is in the range of less than 1 to 10%, either the effect setting information for specifying the initial state or the effect setting information for specifying the first effect mode is selected. Decide that you can. If the mission achievement rate is less than 10 to 40%, it is determined that any one of the three effects setting information designating the initial state and the first and second effect modes can be selected. . If the mission achievement rate is less than 40 to 70%, it is determined that any one of the four effect setting information designating the initial state and the first to third effect modes can be selected. If the mission achievement rate is less than 70 to 90%, it is determined that any one of the five production setting information designating the initial state and the first to fourth production modes can be selected. If the mission achievement rate is 90 to 100%, it is determined that any one of the six effects setting information designating the initial state and the first to fifth effect modes can be selected.

  And game server 3100 produces | generates the display data of an effect custom setting screen based on the process of step S730 and S732, and transmits to the mobile telephone 2100 (step S734). When the mobile phone 2100 receives the display data for the effect custom setting screen, the effect custom setting screen is displayed on the display device 2110 of the mobile phone 2100 based on the display data (step S622). Here, an example of the effect custom setting screen is shown in FIG. The effect custom setting screen shown in this figure is called “initial state”, “first effect mode”, “second effect mode”, “third effect mode”, “fourth effect mode”, and “fifth effect mode”. For each of the six types of effects, any one of the three types of symbols “◯”, “×”, and “−” is displayed in association with each other. Here, the meanings of the three types of symbols are “○” means the currently selected effect mode, “×” indicates the unselected effect mode, and “−” indicates that the event cannot be selected. Means embodiment. Therefore, the effect custom setting screen shown in FIG. 41 (d) indicates that the mission achievement rate is in the range of less than 1 to 10% and that the player is currently in the initial state. .

  Next, the cellular phone 2100 changes the contents of the effect custom setting screen shown in FIG. 41 (d) in accordance with the player's operation (step S624). For example, the type of effect mode currently selected is changed according to the operation of the cursor key for designating the up and down direction. Here, out of the effect forms displayed on the effect custom setting screen, only the effect forms associated with the symbol “x” can be selected. Then, when the cursor key for designating the left-right direction is operated in a state where the effect mode desired by the player is selected, the mobile phone 2100 is about to change to the effect mode selected by the player. And the confirmation screen is displayed (step S626). For example, in the effect custom setting screen shown in FIG. 41 (d), the player operates the cursor key for designating the up / down direction to select the “first effect mode”, and in this state the player holds the right When the cursor key for designating the left direction is operated, a confirmation screen shown in FIG. 41 (e) is displayed on the display device 2110 of the mobile phone 2100.

  Then, on the confirmation screen shown in FIG. 41 (e), when the player operates the cursor key to specify the password issuance specification area pa and operates the confirmation key, the cellular phone 2100 is selected by the process of step S624. Production setting information for designating the produced production mode is transmitted to the game server 3100 (step S628). Thereby, when the game server 3100 receives the effect setting information transmitted from the mobile phone 2100, the effect setting information stored in the management DB 3150 in association with the mobile phone number of the mobile phone 2100 is updated in step S268. The effect setting information transmitted by the process is updated (step S736). Then, the game server 3100 shifts to the processing of step S704 in FIG. 37, and transmits to the mobile phone 2100 display data for a password issuance confirmation screen displaying the effect mode specified by the updated effect setting information.

  On the other hand, when the cellular phone 2100 receives the display data for the password issuance confirmation screen from the game server 3100 after performing the process of step S628 described above, the process proceeds to the process of step S610 in FIG. A password issuance confirmation screen based on the data is displayed on the display device. On the password issuance confirmation screen displayed at this time, as shown in FIG. 41 (f), the effect mode displayed as “<effect custom state>” is “first effect mode”. Then, the mobile phone 2100 performs the processing after step S612 in FIG. 37 according to the player's operation, and the gaming server 3100 performs the processing after step S706 in FIG. 37 to generate a new password. Then, processing is performed so as to be displayed on the display device 2110 of the mobile phone 2100.

(2-b-3) Content DL Processing Next, referring to the flowchart shown in FIG. 39, when a player downloads a desired standby image or incoming voice for a mobile phone from the game server 3100, the mobile phone Processing performed by the telephone 2100 and the game server 3100 will be described. In FIG. 39, the processing until the main menu screen shown in FIG. 41A is displayed on the display device 2110 of the mobile phone 2100 is the same as the member registration processing and game history update processing shown in FIG. For this reason, the same step numbers as those in FIG.

  First, when the player selects the “content DL” button b6 on the main menu screen displayed on the display device 2110 of the mobile phone 2100, the mobile phone 2100 transmits a content DL request to the game server 3100 ( Step S630). Thereby, when the game server 3100 receives the content DL request, first, the mobile phone number of the accessed mobile phone 2100 is recognized, and the mission achievement rate stored in the management DB 3150 in association with the mobile phone number is determined. The content (standby screen and incoming voice) that can be selected by the player is determined in accordance with the mission achievement rate (step S740). Then, the display data of the content selection screen is transmitted to the mobile phone 2100 (step S742).

  Thereby, the mobile phone 2100 displays a content selection screen for selecting content desired by the player on the display device based on the display data transmitted from the game server 3100 (step S632), and the player The screen displayed on the display device is changed in accordance with the selection operation by (Step S634). Here, a content selection screen displayed on the display device 2110 of the mobile phone 2100 will be described with reference to FIGS. First, when display data of the content selection screen is transmitted from the game server 3100 by the process of step S742, the screen shown in FIG. 42A is first displayed on the display device 2110 of the mobile phone 2100 by the process of step S632. Is displayed. In the content selection screen shown in this figure, a selection window sw and an input button eb are displayed at the top of the screen so that a desired type of content (standby screen or incoming voice) can be selected.

  That is, when the player selects the selection window sw using the cursor key of the mobile phone 2100 and then operates the enter key, the display area of the selection window sw is expanded, and the standby screen (“standby”) or incoming voice (“ One of the “voiced voices”) can be selected (FIG. 42B). In this state, the player can select the desired content from the standby screen or the incoming voice by operating the up / down cursor keys. Then, when the input button eb is operated with the standby screen selected, the screen of FIG. 42C is displayed on the display device 2110 of the mobile phone 2100. On this screen, a standby screen that can be selected in accordance with the player's mission achievement rate is displayed as a thumbnail image sn, and a cursor cs is displayed around the currently selected thumbnail image. Here, in the screen of FIG. It shows that one thumbnail image is selected. Then, by operating the cursor key in the vertical direction, the cursor cs can be moved in the vertical direction, whereby the thumbnail image sn desired by the player is designated by the cursor cs, and the confirmation key of the mobile phone 2100 is operated. Then, a download request for the designated thumbnail image standby screen is transmitted to the game server 3100 (step S636).

  Also, in the content selection screen shown in FIG. 42 (b), when the player operates the input button eb with the incoming voice selected, the screen of FIG. 42 (d) is displayed on the display device 2110 of the mobile phone 2100. Is displayed. In this screen, No. 1-No. Of the five incoming voices (indicated as “voice set” in the figure), the characters “DL” are displayed corresponding to the incoming voices that can be downloaded by the player. The incoming voice that cannot be displayed is displayed with the letters “N / A” corresponding thereto. Also, among incoming voices that can be downloaded by the player, an incoming voice whose corresponding “DL” character color is replaced with the background color is selected by the player. ing. For example, in the screen of FIG. 1 indicates that the incoming voice is selected. In this screen, the player can change the incoming voice to be selected by operating the cursor keys in the vertical direction. When the desired incoming voice is selected and the confirmation key of the cellular phone 2100 is operated. The download request for the selected incoming voice is transmitted to the game server 3100 (step S636).

  Thereby, when the game server 3100 receives a download request from the mobile phone 2100, the requested content is read from the content DB 3132 of FIG. 3 and transmitted to the mobile phone 2100 (step S744). When the mobile phone 2100 receives the content downloaded from the game server 3100, the mobile phone 2100 stores it in the RAM 2106 in FIG. 2 (step S638).

  In the process of step S740 described above, selectable content is determined according to the mission achievement rate, but is selected according to the value of the normal point shown in FIG. 4A instead of the mission achievement rate. Possible content may be determined.

(2-b-4) Game History Acquisition Processing Next, with reference to the flowchart shown in FIG. 40, the game history of the unit games that the player has played in the slot machine 1000 so far, and the events performed at each game hall A process performed by the mobile phone 2100 and the game server 3100 when acquiring information on the game server 3100 will be described. Also in FIG. 40, the processing until the main menu screen shown in FIG. 41A is displayed on the display device 2110 of the mobile phone 2100 is the same as the member registration processing and game history update processing shown in FIG. Therefore, the same step numbers as in FIG. 37 are assigned to the processes related to them, and detailed description thereof is omitted.

  First, when the player selects the “game history” button b 3 on the main menu screen displayed on the display device 2110 of the mobile phone 2100, the mobile phone 2100 makes a game history information request to the game server 3100. Is transmitted (step S640). Thereby, when the game server 3100 receives the game history information request, the game history information corresponding to the received mobile phone number is read from the management DB 3150, and the read game history information is displayed on the display device 2110 of the mobile phone 2100. Is generated and transmitted to the mobile phone 2100 (step S750). Thereby, when the mobile phone 2100 receives the display data described above from the game server 3100, the game history information of the unit game played by the player in the slot machine 1000 based on the display data is displayed on the display device 2110 ( Step S642).

  Here, the game history display screen displayed on the display device 2110 by the process of step S642 described above will be described with reference to FIG. As shown in this figure, the content of the game history displayed on the display device 2110 of the mobile phone 2100 by selecting the “game history” button b3 in FIG. 41A is the game history shown in FIG. "Total number of games" (cumulative number of unit games played during normal games), "Total number of BBs" (cumulative number of times BB games have been played to date), "Total number of REGs" ( The cumulative number of RB games played to date), “total ART count” (cumulative count up to the present when ART was started), “mission achievement rate” (total number of missions achieved to date for all missions) Percentage) is displayed. In addition, a “held event status” button esb is displayed below the game history of these five items.

  This “held event status” button esb assumes that an event is being held and displays the current status related to the event on the mobile phone 2100 in the game hall registered in the management DB 3150 of the game server 3100. It is a button operated. Then, when the player selects the “held event status” button esb using the cursor key of the mobile phone 2100 and the confirmation key is operated, the mobile phone 2100 transmits an event status request signal to the game server 3100 (step S644). ). When the game server 3100 receives this event status request signal, the game server 3100 refers to the held event information stored in the management DB 3150 and extracts the game hall registered as the game hall where the event is being held. Then, display data for a game hall selection screen for the player to select the extracted game hall is generated and transmitted to the mobile phone 2100 (step S752).

  Thereby, the mobile phone 2100 displays the game hall selection screen shown in FIG. 42F on the display device 2110 of the mobile phone 2100 based on the display data received from the game server 3100 (step S646). In the game hall selection screen shown in this figure, a game hall named “XX Hall” searched from the management DB 3150 as an event is being held, and a game hall named “▽ △ Kaikan” are displayed in order from the top of the screen. One store is displayed at a time. In this game hall selection screen, when a player operates a cursor key of the mobile phone 2100 to select a desired game hall and operates a confirmation key, the event status of the game hall selected from the mobile phone 2100 is related. A request for information is transmitted to the game server 3100 (step S648).

  When the game server 3100 receives the request transmitted from the mobile phone 2100 in the process of step S648, the game server 3100 receives event information associated with each mobile phone number stored in the management DB 3150 (see FIG. 4 (c)) is sequentially searched to determine whether or not the requested game hall code is included. When it is determined that the requested game hall code is included, the event information includes The included “result” value (the value of the game history related to the event) and the mobile phone number associated with the event information are stored in the RAM 3148 (step S754). Then, the “result” values stored in the RAM 3148 by the processing of step S754 are rearranged in descending order, a predetermined number of “result” values are extracted from the highest value, and the request is sent to the display device 2110 of the mobile phone 2100. Display data for a ranking screen to be displayed as a ranking of events in the amusement hall is generated and transmitted to the mobile phone 2100 (step S756).

  In addition, when the mobile phone 2100 receives the ranking screen display data from the game server 3100, the mobile phone 2100 displays the ranking screen shown in FIG. 42 (g) (step S650). In the ranking screen shown in this figure, the name of the game hall where the event is held is displayed at the top of the screen, and below that the game history values related to the event are displayed up to the top five It is displayed. Here, when the mobile phone number of the upper party extracted in the process of step S756 includes the mobile phone number of the mobile phone 2100 that transmitted the event status request, the mobile phone number is displayed on the ranking screen. A message indicating that the player who transmitted the event status request is ranked may be displayed in accordance with the display position of the “result” value corresponding to. For example, in the ranking screen of FIG. 42 (g), the player who transmitted the event status request is ranked in the fourth place, and a character string “(you)” is displayed as a message informing that.

  The ranking screen shown in FIG. 42 (g) may be displayed on the display device 70 of the slot machine 1000. That is, for example, in the process of step S756 described above, the game server 3100 generates ranking display information for displaying the ranking screen shown in FIG. In the password generation process shown in step S722 of FIG. 37 described above, a password including the ranking display information described above is generated, and the unit game is started after this password is input to the slot machine 1000. In the password input process of FIG. 35, the ranking display information described above is extracted from the password and stored in the RAM 210. Then, based on the ranking display information stored in the RAM 210 according to the player's operation, an image equivalent to the ranking screen of FIG.

  In the above-described case, the game hall code transmitted to the mobile phone 2100 in the process of step S648 is further included in the password, and the ranking display stored in the RAM 210 according to the player's operation. When displaying the image based on the information on the display device 70, the game hall code included in the password and the game hall code set in the game hall code setting means 226 of the slot machine 1000 are compared and matched. If not, the image based on the ranking display information may not be displayed on the display device 70.

(2-b-5) Other Processing Further, the game server 3100 provides various information in response to a request from the mobile phone 2100.
For example, when the player selects the “Notification List” button b1 on the main menu screen of FIG. 41A, the game server 3100 refers to the held event information stored in the management DB 3150 and refers to the mobile phone Data for displaying an event information screen displayed on the display device 2110 of 2100 is generated. As shown in FIG. 43 (a), this event information screen displays a list of game halls where events are held, and the player can select a game from the displayed game halls using the cursor key of the mobile phone 2100. A desired game hall can be selected. Then, when a desired game hall is selected on the event information screen, the game server 3100 displays information related to the contents of the event held at the selected game hall with reference to the held event information described above. Display data for displaying the event notification screen (see FIG. 43B) on the display device 2110 of the mobile phone 2100 is generated and transmitted.

  Further, when the player selects the “game information” button b7 in the main menu screen of FIG. 41A, the game server 3100 relates to the slot machine 1000 stored in advance in the web DB 3130 of FIG. 3, for example. Data for displaying a game information screen for providing information about specifications and the like is generated and transmitted to the mobile phone 2100. In FIG. 43 (c) showing an example of this game information screen, options of items such as reel arrangement, reach eyes, chance eyes, and bonus probability are displayed as the specifications of the slot machine 1000 that can be provided. When the player operates the cursor key of the mobile phone 2100 to select a desired item and operates the confirmation key, the game server 3100 displays a screen (not shown) for displaying the contents of the selected item. Data is sent.

  Further, when the player selects the “mission achievement list” button b4 on the main menu screen of FIG. 41A, the game server 3100 carries out an achievement mission list screen as shown in FIG. Display data to be displayed on the display device 2110 of the telephone 2100 is generated and transmitted to the mobile phone 2100. In the achieved mission list screen shown in FIG. 43 (d), for example, an outline of each mission shown in FIG. 30 (b) and a symbol (“O” (achieved) or “×” indicating whether or not each mission has been achieved). (Unachieved)).

10 slot machine 36 start switch 37L, 37C, 37R stop switch 38 direction button switch 39 enter button switch 40L, 40C, 40R reel 64L, 64R speaker 70 image display device 100 main control circuit 106, 206 CPU
108, 208 ROM
110, 210 RAM
200 Sub-control circuit 226 Game hall code setting means 228 Event code setting means 340 Command input means 410 Inserted number judgment means 420 Role lottery means 430 Reel control means 440 Prize determination means 450 Prize processing means 500 Effect control means 502 Effect data storage means 504 Effect selection means 506 Transition judgment means 510 Information storage control means 512 Predetermined event occurrence storage means 514 Non-notification information storage means 520 Notification control means 522 Event occurrence notification means 524 Operation information notification means 526 Command reception state notification means 530 Game history update means 532 Game history storage means 540 Access information generation means 550 Command input prohibition means 560 Notification period control means 562 Startable condition determination means 1000 Slot machine 2000 Mobile phone system 2100a 2100b mobile phone 2110 display device 2120 key 2200 base station 2300 packet network 2400 Center server 3000 server system 3100 the gaming server 3130 web database 3132 content database 3150 management database 3200 network

Claims (6)

Game control means for performing control related to a game in accordance with an operation from the outside, effect control means for performing control according to the game situation, and input means for inputting information based on an external operation And a gaming machine comprising
Information transmission between the game control means and the effect control means is performed only in one direction from the game control means to the effect control means,
The production control means includes
If the information input from the input means includes history storage instruction information that instructs to store history information based on at least one of the history of the game and the effect executed during the game, Including history information storage means for storing the history information relating to the game performed in
The game control means includes
Game control switching means for determining whether or not to switch the control content related to the game to be performed in response to the operation to a different control content when operated from the outside and switching the control content related to the game according to the determination; ,
Input information determination means for determining whether information including the history storage instruction information is input from the input means;
Based on the fact that the information including the history storage instruction information has been input by the input information determination means, the switching probability of changing the probability of determining to switch the control content related to the game in the game control switching means Variable means,
A gaming machine characterized by including: A plurality of reels provided with a plurality of types of symbols and rotatably provided;
A plurality of stop instruction means provided corresponding to each of the plurality of reels;
Reel stop control means for stopping rotation of the reel corresponding to the stop instruction means operated from the outside among the plurality of stop instruction means,
The game is a game in which a unit game, which is displayed when the plurality of reels rotate and all the plurality of rotated reels stop, is determined by the combination of symbols, is repeated,
The production control means includes
On the condition that information including the history storage instruction information is input from the input means, the operation mode of the plurality of stop instruction means is notified to the outside,
The input information determination means includes
Based on whether or not the operation mode notified to the outside by the effect control unit and the operation mode from the outside for the plurality of stop instruction units match, the history storage instruction The game machine according to claim 1, wherein it is determined that information including information is input from the input unit. The production control means includes
A plurality of events that can occur in the course of playing the game each weighted, and a cumulative means for accumulating the weights of the events that have occurred among the plurality of events,
When information including the history storage instruction information is input from the input means and the cumulative value calculated by the cumulative means exceeds a predetermined value, the operation mode of the plurality of stop instruction means is notified to the outside. And
The input information determination means includes
Based on whether or not the operation mode notified to the outside by the effect control unit and the operation mode from the outside for the plurality of stop instruction units match, the history storage instruction Determining that information including information is input from the input means, and that the cumulative value is equal to or greater than a predetermined value;
The switching probability varying means is
When it is determined by the input information determination means that information including the history storage instruction information is input from the input means and the cumulative value is equal to or greater than a predetermined value, the game control switching means relates to the game. The gaming machine according to claim 2, wherein the probability of determining when the control content is switched is varied. The accumulating means is
When the information input from the input unit includes information indicating the cumulative value by the totaling unit, when any of the plurality of events occurs, the weight of the generated event is set. The gaming machine according to claim 3, wherein the gaming machine is added to a cumulative value based on information indicating the cumulative value. The production control means includes
In the game control means, when performing control related to the game according to the different control contents switched by the game control switching means, a specific effect is executed,
The gaming machine according to claim 3 or 4, wherein an event that the specific performance is executed is included in the plurality of events. The game control switching means is
6. The control performed to advance the game in response to an external operation is switched to a control to temporarily stop the progress of the game in response to an external operation. A gaming machine according to any one of the above.

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