JP2016140684A - Management device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To accurately estimate an income summary when game machines are sold as secondhand machines.SOLUTION: A management device specifies a secondhand reference price according to a model of a game machine (SC 33); specifies a price coefficient corresponding to a total operating times of the game machine (SC 35); calculates a trouble-free secondhand price obtained by multiplying the secondhand reference price by the price coefficient (SC 36); calculates a trouble subtraction amount according to the number of troubles and trouble parts (SC 37); calculates a factual price obtained by subtracting the trouble subtraction price from the trouble-free secondhand price (SC 38); calculates a profit on sales by subtracting a depreciated balance from the factual price (SC 39); and transmits depreciated balance information including the factual price and the profit on sale to a hall computer.SELECTED DRAWING: Figure 32

Description

  The present invention relates to a management device that manages used values of gaming machines.

  Conventionally, as shown in Patent Document 1, it is possible to simulate a predicted profit that a gaming machine gives to a game hall during a prediction period, and to compare the simulated predicted profit with a purchase price of a gaming machine in the gaming machine market. An amusement system for output is disclosed.

JP 2011-110195 A

  In the technique of Patent Document 1, the purchase price of a used machine in the used machine market is presented. However, since such a purchase price does not actually become a uniform purchase price for a certain model of aircraft, profit and loss There is a problem that the prediction is wrong.

  The present invention has been made in view of the above problems, and an object of the present invention is to enable appropriate profit / loss prediction in a game arcade.

  The present invention adopts the following means in order to solve the above problems. The reference numerals used in the description of the best mode for carrying out the invention and the drawings to be described later are appended in parentheses for reference, but the constituent elements of the present invention are not limited to the appended description.

The invention according to means 1
Storage means (storage device 1254 for storing the price data table of FIG. 26) for storing the used reference value (average price in the used machine market) for each model of the gaming machine;
Specific means (SC34 in FIG. 32) for identifying the usage history (such as “failure date and time” and “failure location”, “total operating time”, or “predicted total operating time” in the management data table in FIG. 25) for each gaming machine. , SC37, CPU1252 for executing SC55 in FIG.
Output means (CPU 1252 for executing SC40 in FIG. 32, SC63 in FIG. 33) for outputting the used history reflecting value (actual price, predicted used price) of the gaming machine based on the used reference value and the usage history;
A management apparatus (management apparatus 1250 of the fourth embodiment).
According to this, since the used history reflection value based on the usage history for each gaming machine can be grasped, appropriate profit / loss prediction can be performed.

The invention according to means 2
A management device of means 1,
The usage history is an operation time (total operation time, predicted total operation time).
According to this, an appropriate profit and loss prediction based on the actual situation of used machine transactions can be made.

The invention according to means 3 is
A management device of means 1 or 2,
The use history is a management device characterized by a failure history (number of failures and failure location).
According to this, an appropriate profit and loss prediction based on the actual situation of used machine transactions can be made.

The invention according to means 4 is
One of the management devices selected from means 1 to 3,
Calculation means (SC39 in FIG. 32, SC62 in FIG. 33) that calculates profit / loss (sale profit / loss, expected sale profit / loss) when the gaming machine sells the gaming machine as a used machine based on the used history reflection value of the gaming machine. The management apparatus further includes a CPU 1252) for executing the above.
According to this, an appropriate profit and loss prediction when selling a gaming machine as a used machine becomes possible.

The invention according to means 5 is
A management device for means 4,
The calculation means calculates the profit / loss when the amusement hall sells the gaming machine as a second-hand machine (sale profit / loss, predicted sale profit / loss) to the amortization remaining (amortization remaining, expected remaining amortization) of the gaming machine and the used history reflection value. The management apparatus is characterized in that it is calculated based on (CPU 1252 executing SC39 in FIG. 32 and SC62 in FIG. 33).
According to this, when selling a gaming machine as a used machine, an appropriate profit and loss prediction becomes possible.

The invention according to means 6 is
Any of the management devices selected from means 1 to 5,
It is connected to a game hall management device (hall computer 1200) that manages the game machine information (operating time, failure history) of the game machines installed in the game hall provided in each game hall,
It further comprises gaming machine information acquisition means (CPU 1252 for executing SC23, SC24, etc. in FIG. 31) for acquiring the gaming machine information from each gaming hall management device,
The specifying means is a management device that specifies the use history based on the gaming machine information (executes SC34 and the like in FIG. 32).
According to this, it becomes possible to make an appropriate profit / loss prediction based on the gaming machine information acquired from the game hall management device.

The invention according to means 7
Game devices (card unit 1100, calling lamp device 1300, data) provided corresponding to a plurality of gaming machines (pachinko gaming machine 1, slot machine 1000, encapsulated pachinko gaming machine 1 ′, gaming point type slot machine 1000 ′) A management device (a management device 1250, a hall computer 1200, a possession management computer, a member management computer, a card management computer) that is communicably connected to the display device and the inter-unit counting unit) and manages the plurality of gaming machines. There,
Added game value (number of granted game media (number of award balls, number of OUT medals), number of added points) given to a player who plays the game machine, and used game value (number of used game media) used by the player in the game Receiving means (communication unit 1257, communication unit 1207) that receives information (information that can specify the above) that can specify (the number of shot balls, the number of IN medals), and the number of subtraction points) from the corresponding gaming device )When,
Based on the information received by the receiving means, difference value counting means (CPU 1252, CPU 1202) for counting the difference value (difference (difference ball, difference medal), score difference) between the given game value and the used game value. When,
An index based on the minimum difference value and the maximum difference value in a predetermined period (total time period such as 1 hour unit, 2 hour unit, half day unit, 1 day unit) among the difference values based on the aggregation by the difference value aggregation means. The values (difference index values α to γ (difference index value, difference medal index value), score difference index value) calculated according to any of formulas (1) to (3) are predetermined values (difference index values) Gaming machine information output means (display device 1256, communication unit) that outputs the gaming machine information (the number of over-thresholds, the over-threshold ratio) relating to the gaming machine that has reached the threshold (pachinko threshold, slot threshold), threshold score) 1257, printing device 1258, display device 1206, communication unit 1207, printing device 1208),
Predetermined value setting means (CPU 1252, CPU 1202) capable of setting the predetermined value;
It is a management apparatus characterized by comprising.
According to this, based on the information that can identify the granted game value and the used game value received from the gaming device provided corresponding to the gaming machine, the difference value between the granted game value and the used game value is totaled. be able to. Moreover, by outputting the game machine information relating to the gaming machine in which the index value based on the minimum difference value and the maximum difference value in the predetermined period of the difference value between the granted game value and the used game value has reached the predetermined value, it can be specified. Therefore, it is possible to effectively grasp the rate and performance of gaming machines. In addition, by making it possible to set a predetermined value, it is possible to specify and output gaming machine information related to a gaming machine whose index value has reached a predetermined value using a plurality of predetermined values.

In this case, as other means,
A management device described in means 7,
The receiving means receives the difference value of the gaming machine from a gaming device provided corresponding to each gaming machine (for a gaming unit such as a card unit 1100, a calling lamp device 1300, a data display device, an inter-counter counting unit, etc.) The difference number (difference ball, difference medal) and score difference from the device),
The difference value counting means totals the difference values of each gaming machine using the difference value received by the receiving means (the difference ball of each pachinko gaming machine 1, the difference medal of each slot machine 1000, each sealing method) It is also possible to configure a management device characterized in that the score difference of the pachinko gaming machine 1 ′ and the score difference of each gaming point type slot machine 1000 ′ are totaled).
According to this, the difference value of each gaming machine can be totaled using the difference value of the gaming machine received from the gaming device provided corresponding to each gaming machine.

The invention according to means 8 is
A management device described in means 7,
Index value calculation means (CPU 1252, CPU 1202) for calculating the index value for each gaming machine based on the aggregation by the difference value aggregation means;
Based on the calculation by the index value calculation means, index value information output means (display device 1256, communication unit 1257, information that outputs information based on the index value (maximum value of difference index value, average value, etc.) is specified. Printing device 1258, display device 1206, communication unit 1207, printing device 1208),
The management device further comprising:
According to this, information based on the index value for each gaming machine can be grasped.

The invention according to means 9 is
A management device described in means 8, comprising:
The difference value counting means totals the difference values for a plurality of stores where the gaming machine is installed (stores included in a predetermined area (for example, stores in the whole country, prefectures, municipalities),
The index value information output means is a management device characterized in that the index value is output so as to be specified for gaming machines installed in the plurality of stores.
According to this, compared with the case of grasping | ascertaining the rate and performance of the gaming machine in one store, it is possible to accurately grasp the rate and performance of the gaming machine.

The invention according to means 10 is
A management device described in means 8, comprising:
The difference value counting means totals the difference value for one store (own store) where the gaming machine is installed,
The index value information output means is a management device characterized in that the index value is output so as to be specified for a gaming machine installed in the store.
According to this, it is possible to grasp the exit rate and performance of gaming machines in one store.

The invention according to means 11 is
A management apparatus according to any one of means 8 to 10, wherein
The gaming machine has a magnitude of the given game value depending on which set value among a plurality of set values (set values “1” to “6” set in the slot machine) is set. Is a gaming machine capable of adjusting a play rate value (play rate, machine discount) that is a proportion of the amount of game value used,
The index value information output means is a management device that outputs the maximum value of the index value for each set value (the maximum value of the difference index value for each set value) so as to be specified.
According to this, the performance of the gaming machine for each set value can be grasped.

The invention according to means 12 is
A management device described in any one of means 8 to 11,
The gaming machine has a plurality of models,
The index value information output means is a management device that outputs the maximum value of the index value for each model (maximum value of the difference index value for each model) so as to be specified.
According to this, the performance of the gaming machine for each model can be grasped.

The invention according to means 13 is
A management device described in means 12,
The gaming machine has a magnitude of the given game value depending on which set value among a plurality of set values (set values “1” to “6” set in the slot machine) is set. Is a gaming machine capable of adjusting a play rate value (play rate, machine discount) that is a proportion of the amount of game value used,
The index value information output means can specify the maximum value of the index value for each model (maximum value of the difference index value for each model under the same setting) for gaming machines having the same setting value. The management apparatus is characterized in that the output is performed.
According to this, it is possible to grasp the performance of the gaming machine for each model for the gaming machine in which the same set value is set.

The invention according to means 14 is
A management apparatus described in any one of means 8 to 13,
The gaming machine has a plurality of prescribed types (pachinko machines: jackpot probability zone division type, functional division type, slot machine: bonus division type, functional division type),
The index value information output means is a management device characterized in that the maximum value of the index value for each type (maximum value of the difference index value for each type) is output in a identifiable manner.
According to this, the performance of the gaming machine for each type can be grasped.

The invention according to means 15 is
A management apparatus described in any one of means 8 to 14,
The gaming machine has a magnitude of the given game value depending on which set value among a plurality of set values (set values “1” to “6” set in the slot machine) is set. Is a gaming machine capable of adjusting a play rate value (a payout rate, a machine discount) that is a proportion of the amount of game value used, and is adjusted so that the play rate value increases as the set value increases. (The larger the set value, the higher the ball play rate and machine discount)
The index value information output means has a maximum index value among the second gaming machines in which a second setting value smaller than the first setting value is set for the first gaming machine in which the first setting value is set. Information relating to the second gaming machine having a value larger than that of the first gaming machine (among the second gaming machines in which a setting value smaller than the first gaming machine is set, the maximum difference index value is from the first gaming machine. The number and ratio of the second gaming machines that are larger than the second gaming machine.
According to this, it is possible to identify a gaming machine with a large index value even though the setting is low, and grasp a gaming machine that can be shown to the player as if the rate of turnout is high even with a low setting be able to.

The invention according to means 16 is
A management apparatus described in any one of means 8 to 15,
The gaming machine has a plurality of models,
The index value information output means is a management device that outputs an average value of the index values for each model (average value of difference index values for each model) so as to be specified.
According to this, the performance of the gaming machine for each model can be grasped.

The invention according to means 17 is
A management device according to any one of means 8 to 16, comprising:
The gaming machine has a magnitude of the given game value depending on which set value among a plurality of set values (set values “1” to “6” set in the slot machine) is set. Is a gaming machine capable of adjusting a play rate value (play rate, machine discount) that is a proportion of the amount of game value used,
The index value information output means is a management device that outputs an average value of the index values for each set value (an average value of difference index values for each set value) in an identifiable manner.
According to this, the performance of the gaming machine for each set value can be grasped.

The invention according to means 18 is
A management device described in any one of means 8 to 17,
The gaming machine has a plurality of prescribed types (pachinko machines: jackpot probability zone division type, functional division type, slot machine: bonus division type, functional division type),
The index value information output means is a management device characterized in that an average value of the index values for each type (maximum value of difference index values for each type) is output in a identifiable manner.
According to this, the performance of the gaming machine for each type can be grasped.

The invention according to means 19 is
A management device according to any one of means 7 to 18, comprising:
Input means for inputting the specifications of the virtual gaming machine to be simulated (CPU 1202 for confirming the selected model in S104);
Simulating means for calculating the operation of the virtual gaming machine according to the specification over a plurality of business days (CPU 1202 for calculating the depreciation days of the selected model in S113 to S119);
With
For each business day related to the plurality of business days, the operation of the virtual gaming machine in a predetermined period before the end of the business hours is made different according to the specifications (the predetermined period before the end of the business hours is a light type rather than the MAX type). The depreciation days are calculated based on an operation rate curve with a high operation rate).
Here, “inputting specifications” in the above means means determining the specifications of the gaming machine to be simulated or accepting an operation for it. “Input” is not limited to manual operation, but includes automatic input. For example, a case where a simulation is automatically executed based on a first specification (for example, a MAX type described later) and then a simulation is executed based on a second specification (for example, a light type described later) is also included. The “virtual gaming machine according to the specification” in the above means is a gaming machine that matches the input specification (including an approximate concept), and is not limited to a gaming machine that actually exists.
According to this, it is possible to obtain a reliable simulation result that reflects the fact that the operation differs depending on the specifications of the gaming machine during a predetermined period before the end of the game hall business hours.

The invention according to means 20 is
A management device according to any one of means 7 to 18, comprising:
The virtual player who plays a game in the virtual game machine to be simulated is a member player who is registered as a member in the game hall where the virtual game machine is installed or a visitor player who is not registered as a member Input means (CPU 1202 for confirming whether it is a member model or a visitor model in S206);
Simulating means (CPU 1202 for calculating the depreciation days of the selected model based on the selected model in S213 to S219) for calculating the operation of the virtual gaming machine relating to the virtual player over a plurality of business days;
With
For each business day related to the plurality of business days, a virtual player who plays a game on the virtual game machine in a predetermined period before the end of business hours is a member player or a visitor player The management apparatus is characterized in that the number of depreciation days is calculated based on an operating rate curve in which the operating rate of the member model is higher than that of the visitor model during a predetermined period before the end of business hours.
Here, in the above-mentioned means, “inputting whether a player is a member player or a visitor player” determines which player is to play a game on the gaming machine to be simulated. Or accepting an operation for it. “Input” is not limited to manual operation, but includes automatic input. For example, the case where the simulation is automatically executed based on the setting of the member player and then the simulation is executed based on the setting of the visitor player is also included. The “virtual gaming machine related to the virtual player” in the above means is a gaming machine in which any of the inputted players plays a game, and is not limited to a gaming machine that actually exists.
According to this, a reliable simulation result is obtained that reflects the fact that the operation differs depending on whether the player is a member player or a visitor player for a predetermined period before the game hall business hours end. be able to.

The invention according to means 21 is
A management device according to any one of means 7 to 18, comprising:
Input means (CPU 1202 for confirming whether it is a 4-yen model or a 1-yen model in S306) for inputting a rental value of a game medium used for a game in a virtual gaming machine to be simulated;
Simulating means for calculating operation over a plurality of business days of the virtual gaming machine related to the loan value (CPU 1202 for calculating the depreciation days of the selected model based on the selected model in S313 to S319);
With
For each business day related to the plurality of business days, the operation of the virtual gaming machine in a predetermined period before the end of the business hours is made different according to the lending value of the game medium used for the game in the virtual gaming machine (business hours The management apparatus is characterized in that the predetermined period before the end is calculated based on an operating rate curve in which the operating rate of the 1-yen model is higher than that of the 4-yen model.
Here, “inputting a lending value” in the above means means determining a lending value of a game medium used for a game in a gaming machine to be simulated or accepting an operation for it. “Input” is not limited to manual operation, but includes automatic input. For example, a case where a simulation is automatically executed based on a first lending value (for example, a 4-yen pachinko described later) and then a simulation is executed based on a second lending value (for example, a 1-yen pachinko described later) is also included. It is. The “virtual gaming machine related to the lending value” in the above means is a gaming machine in which a gaming medium having the inputted lending value is used, and is not limited to an actually existing gaming machine.
According to this, it is possible to obtain a reliable simulation result reflecting the actual situation that the operation differs according to the lending value of the game medium used in the gaming machine for a predetermined period before the end of the business hours of the game hall.

The invention according to means 22
A management device according to any one of means 7 to 18, comprising:
An input means for inputting a balance of a virtual player who plays a game in a virtual machine to be simulated (CPU 1202 for calculating the number of balls on the day in S412);
Simulating means (CPU 1202 for calculating the depreciation days of the selected model in S408 to S417) for calculating the operation over a plurality of business days of the virtual gaming machine related to the balance;
With
For each business day related to the plurality of business days, the operation of the virtual gaming machine in a predetermined period before the business hours end is changed according to the balance of the virtual player who plays the game on the virtual gaming machine (before the business hours end) The predetermined period is a management device characterized in that a player with a positive balance exceeding a predetermined value calculates the number of amortization days based on a setting that makes it easier for a player to end the game than a player with a negative balance.
Here, “inputting the balance” in the above means means determining a game balance in a gaming machine to be simulated or accepting an operation for that. “Input” is not limited to manual operation, but includes automatic input. For example, the case where the simulation is automatically executed based on the first balance and then the simulation is executed based on the second balance is also included. The “virtual gaming machine related to the balance” in the above means is a gaming machine that is a balance (including an approximate concept) to which the gaming balance of the gaming machine is input. It is not limited.
According to this, it is possible to obtain a reliable simulation result that reflects the fact that the operation differs depending on the player's balance during a predetermined period before the game hall business hours end.

The invention according to means 23 is
A management device described in means 19, comprising:
From the information management device (1250) that manages the operation information of a plurality of game arcades, obtain standard operation information (operation rate curve and customer attraction index curve) according to the specifications of the virtual gaming machine,
The simulation unit is a management device that calculates operation based on the reference operation information.
According to this, the reliability of the simulation result can be further improved by acquiring the reference operation information suitable for the simulation from the operation information of the plurality of game halls.

The invention according to means 24 is
A management device described in means 20, comprising:
A virtual player who plays a game with the virtual gaming machine is a member player registered as a member or a visitor player who is not a member player from an information management device (1250) that manages operation information of a plurality of game halls. Acquire standard operating information (operating rate curve and customer attraction index curve) according to
The simulating means calculates operation based on the reference operation information.
According to this, the reliability of the simulation result can be further improved by acquiring the reference operation information suitable for the simulation from the operation information of the plurality of game halls.

The invention according to means 25 is
A management device described in means 21, comprising:
From the information management device that manages the operation information of a plurality of game arcades, obtain standard operation information (operation rate curve and customer attraction index curve) according to the lending value of the game medium used for the game in the virtual gaming machine,
The simulating means calculates operation based on the reference operation information.
According to this, the reliability of the simulation result can be further improved by acquiring the reference operation information suitable for the simulation from the operation information of the plurality of game halls.

The invention according to means 26 is
A management device described in means 22,
From the information management device that manages the operation information of a plurality of game halls, obtain the reference operation information (game start rate and game end rate) according to the balance of the virtual player in the virtual gaming machine,
The simulating means calculates operation based on the reference operation information.
According to this, the reliability of the simulation result can be further improved by acquiring the reference operation information suitable for the simulation from the operation information of the plurality of game halls.

The invention according to means 27 is
A management apparatus described in any one of means 19 to 26,
The simulation means simulates the game of the virtual gaming machine on each business day, and determines whether or not the game on the virtual gaming machine is continued at a predetermined timing on the business day (in the game execution simulation). (S450).
According to this, it becomes possible to reflect the actual situation of the player's standing in the simulation result, and the reliability of the simulation result can be further improved.

The invention according to means 28 is
A management device described in any one of means 19 to 27,
It is provided corresponding to the gaming machine installed in the game hall, and is communicably connected to a gaming device (card unit) that converts information generated by the gaming machine and transmits the information to the information management device. The gaming information is managed based on the converted information received from the gaming device.
According to this, game information of gaming machines that cannot directly identify the generated information can be tabulated.

  The embodiments for carrying out the invention include each invention according to the following means. The management device according to the present invention can manage game information of a gaming machine (first gaming machine) targeted by these inventions. In addition, the operation of the gaming machine (first gaming machine) targeted by these inventions can be simulated. Note that the management device according to the present invention manages game information based on various signals output from the gaming machine. However, when the various signals output from the gaming machine are directly input, Both cases of inputting via a relay device such as an island computer are included, and the invention is not limited to the hall computer shown in the simulation function.

Inventions related to other means
A first variable display section for starting the variable display of the identification information (first special symbol) based on the establishment of the first start condition (winning of the game ball to the first start winning opening 13a) and deriving and displaying the display result ( The variable display of the identification information (second special symbol) is started based on the establishment of the first special symbol indicator 8a) and the second start condition (winning of the game ball to the second start winning port 13b), and the display result A second variable display section (second special symbol display 8b) for deriving and displaying, a first start area (first start winning opening 13a) in which the first start condition is satisfied when the game ball wins, and a game ball Is provided in a common area through which a game ball winning in any of the second start areas (second start prize opening 13b) in which the second start condition is satisfied when winning is won, and the received game balls are set in the first start Distribution in a predetermined order between the area and the second starting area (Distributing device 90 that alternately distributes the received game balls to the first starting winning port 13a and the second starting winning port 13b) and game balls that do not pass through the distributing device when open control can be won There is a variable winning device in which either the first start condition or the second start condition is satisfied when the game ball wins (the game ball launched into the right game area when winning control is possible) And a variable winning ball device 15) in which the gaming ball wins at the corresponding second starting winning opening 13b whenever a winning game ball wins, the first starting condition and the second starting condition In accordance with the establishment order, the variable display of the identification information by the first variable display unit and the variable display of the identification information by the second variable display unit are executed (variable display is executed according to the storage order in the reserved specific area), An identification signal (a first start port passage signal and a second start port passage signal, a first symbol determination signal, and a second symbol) that can determine whether the first start condition or the second start condition is satisfied. A game machine (pachinko) that outputs an output of an advantageous state signal (time-short signal) indicating that the variable winning device is in an advantageous state (high base state) with an increased rate of open control. A management device (hall computer 1200) capable of communicating with a gaming machine 1) and managing gaming information of the gaming machine;
Formation order determination means for determining whether or not the first start condition and the second start condition are satisfied from the predetermined order based on the identification signal (first abnormality determination method: first start winning continuation sequence) Whether the number is greater than or equal to a predetermined number, whether the second start winning consecutive number is greater than or equal to a predetermined number, second abnormality determination method: whether or not the special figure 1 start consecutive number is greater than or equal to a predetermined number, Special Figure 2 CPU 1202) for executing a process for determining whether or not the start continuous number is equal to or greater than a predetermined number;
In a period other than the period in which it is determined to be in an advantageous state based on the advantageous state signal, an abnormality notification means (first notification) that performs abnormality notification based on determination that the establishment order is different from the predetermined order CPU 1202) for notifying continuous winning abnormality in the abnormality determination method and the second abnormality determination method;
It is a management apparatus characterized by comprising.
According to this, when the establishment order of the first start condition and the second start condition is different from the predetermined order, the abnormality notification is performed, so that the possibility of the abnormality or fraud of the sorting device can be grasped and appropriate countermeasures can be taken. It becomes possible to do.

Inventions related to other means
A first variable display section for starting the variable display of the identification information (first special symbol) based on the establishment of the first start condition (winning of the game ball to the first start winning opening 13a) and deriving and displaying the display result ( The variable display of the identification information (second special symbol) is started based on the establishment of the first special symbol indicator 8a) and the second start condition (winning of the game ball to the second start winning port 13b), and the display result A second variable display section (second special symbol display 8b) for deriving and displaying, a first start area (first start winning opening 13a) in which the first start condition is satisfied when the game ball wins, and a game ball Is provided in a common area through which a game ball winning in any of the second start areas (second start prize opening 13b) in which the second start condition is satisfied when winning is won, and the received game balls are set in the first start Distribution in a predetermined order between the area and the second starting area (Distributing device 90 that alternately distributes the received game balls to the first starting winning port 13a and the second starting winning port 13b) and game balls that do not pass through the distributing device when open control can be won There is a variable winning device in which either the first start condition or the second start condition is satisfied when the game ball wins (the game ball launched into the right game area when winning control is possible) And a variable winning ball device 15) in which the gaming ball wins at the corresponding second starting winning opening 13b whenever a winning game ball wins, the first starting condition and the second starting condition In accordance with the establishment order, the variable display of the identification information by the first variable display unit and the variable display of the identification information by the second variable display unit are executed (variable display is executed according to the storage order in the reserved specific area), An identification signal (a first start port passage signal and a second start port passage signal) that makes it possible to determine whether the first start condition or the second start condition is satisfied is externally output, and the variable winning device Management device (hall computer 1200) that can communicate with a gaming machine (pachinko gaming machine 1) that outputs an opening signal (second start port opening signal) indicating the opening control status of the gaming machine and manages gaming information of the gaming machine Because
Formation order determining means for determining whether the first start condition and the second start condition are satisfied from the predetermined order based on the identification signal (third abnormality determination method: second start winning continuation sequence) CPU 1202) that executes a process of determining whether the number is equal to or greater than a predetermined number;
In a period other than the period in which it is determined that the opening control is performed based on the opening signal, an abnormality notification means (third notification) that performs abnormality notification based on the determination that the establishment order is different from the predetermined order CPU 1202) for notifying continuous winning abnormality in the abnormality determination method;
It is a management apparatus characterized by comprising.
According to this, when the establishment order of the first start condition and the second start condition is different from the predetermined order, the abnormality notification is performed, so that the possibility of the abnormality or fraud of the sorting device can be grasped and appropriate countermeasures can be taken. It becomes possible to do.

Inventions related to other means
It has a game area (7) composed of a first area (left game area 7A) and a second area (right game area 7B), and the first start condition (winning of a game ball to the first start winning opening 13a) is established. Based on the first variable display section (first special symbol display 8a) for starting the variable display of the identification information (first special symbol) and deriving and displaying the display result, and the second starting condition (second starting winning prize opening) A second variable display unit (second special symbol display 8b) for starting display of the identification information (second special symbol) based on the establishment of a winning game ball to 13b and deriving and displaying the display result; A first start region (first start winning port 13a) where the first start condition is satisfied when the game ball is won and a second start region (second state) where the second start condition is satisfied when the game ball is won Provided in a common area through which game balls to win in any of the start winning openings 13b) A distribution device that distributes the received game balls to the first start area and the second start area in a predetermined order (alternately distributes the received game balls to the first start winning opening 13a and the second starting winning opening 13b) Distribution device 90), a passing area provided in either the first area or the second area (gate 32 provided in the right game area 7B), and a game ball passing through the passing area. The variable display portion (normal symbol display 10) for starting the variable display of the identification information (normal symbol) and deriving and displaying the display result, and the predetermined display result (win symbol) is derived and displayed on the normal variable display portion. When the release ball is controlled, the game ball that does not pass through the distribution device can be won, and when the game ball wins, the first start condition or the second start condition is satisfied. Either (A game ball that has been fired to the right game area when being controlled to release can be won, and whenever the game ball wins, the game ball is always won in the corresponding second start winning opening 13b. Variable winning ball apparatus 15) to be performed, and according to the order in which the first start condition and the second start condition are satisfied, the variable display of the identification information by the first variable display section and the second variable The variable display of the identification information by the display unit is executed (variable display is executed in accordance with the storage order in the reserved specific area), and it is possible to determine which of the first start condition and the second start condition is satisfied. A game machine that externally outputs identification signals (a first start port passage signal and a second start port passage signal) and outputs a passage signal (gate passage signal) indicating that a game ball has passed through the passage area. A management device (hall computer 1200) capable of communicating with (pachinko gaming machine 1) and managing gaming information of the gaming machine;
Formation order determination means for determining whether the first start condition and the second start condition are satisfied from the predetermined order based on the identification signal (fourth abnormality determination method: second start winning continuation sequence) CPU 1202) that executes a process of determining whether the number is equal to or greater than a predetermined number;
When it is determined that a predetermined period has passed since the game ball has passed through the passing area based on the passing signal, an abnormality notification is made based on the determination that the establishment order is different from the predetermined order. An abnormality notifying means (CPU 1202 for notifying continuous winning abnormality in the fourth abnormality determining method);
It is a management apparatus characterized by comprising.
According to this, when the establishment order of the first start condition and the second start condition is different from the predetermined order, the abnormality notification is performed, so that the possibility of the abnormality or fraud of the sorting device can be grasped and appropriate countermeasures can be taken. It becomes possible to do.

Inventions related to other means
A management device described in the above means,
The variable prize-winning device is provided corresponding to either the first start area or the second start area, and a winning frequency of game balls to the corresponding start area by performing the release control Is increased (provided corresponding to the second start winning opening 13b, and when the opening is controlled, the winning frequency to the second starting winning opening 13b is increased),
The establishment order determining means determines whether the first start condition or the second start condition is satisfied at a predetermined frequency (the CPU 1202 determines whether the first start winning consecutive number, the second start winning consecutive number, 1) It is determined whether or not the number of start consecutive numbers and special figure 2 number of continuous starts has reached a predetermined number)
When the variable prize device is not provided corresponding to the first start area, the abnormality notifying means sets the first start condition at a predetermined frequency regardless of the opening control status of the variable prize device. If the variable winning device is not provided corresponding to the second starting area, the abnormality notification is performed based on the establishment, and the second starting is performed regardless of the opening control status of the variable winning device. The abnormality notification is performed based on the fact that the condition is established at a predetermined frequency (according to the open control status of the variable winning ball device 15 when the variable winning ball device corresponding to the first start winning port 13a is not provided). In addition, the first start winning consecutive number is determined based on the determination result of whether or not the first consecutive winning number is equal to or greater than the predetermined number and whether or not the special figure 1 start consecutive number is equal to or larger than the predetermined number). Management device.
According to this, when the variable winning device is provided corresponding to either the first start area or the second start area, the abnormality notification is appropriately performed.

In inventions related to other means,
A management device described in the above means,
The distribution device (90) distributes the received game balls alternately to the first start area (first start winning opening 13a) and the second start area (second start winning opening 13b),
The variable prize-winning device is provided corresponding to either the first start area or the second start area, and a winning frequency of game balls to the corresponding start area by performing the release control Is increased (provided corresponding to the second start winning opening 13b, and when the opening is controlled, the winning frequency to the second starting winning opening 13b is increased),
The establishment order determination unit determines whether or not the establishment of the first start condition or the second start condition has continued for a predetermined number of times (the CPU 1202 determines whether the first start winning consecutive number or the second start winning consecutive number, Judgment whether special figure 1 start continuous number and special figure 2 start continuous number have reached the predetermined number),
When the variable winning device is not provided corresponding to the first starting area, the first starting condition is satisfied for a predetermined number of times or more regardless of the opening control status of the variable winning device. If the variable winning device is not provided corresponding to the second starting area, the establishment of the second starting condition is predetermined regardless of the opening control status of the variable winning device. The abnormality notification is performed based on the fact that the number of consecutive times has been exceeded (when the variable winning ball apparatus corresponding to the first start winning opening 13a is not provided, the first is determined regardless of the opening control status of the variable winning ball apparatus 15). Including an invention characterized in that a continuous winning abnormality notification is made based on a determination result of whether or not the number of consecutive consecutive start prizes is greater than or equal to a predetermined number and whether or not the special figure 1 start consecutive number is greater than or equal to a predetermined number) It is.
According to this, when the variable winning device is provided corresponding to either the first start area or the second start area, and the distribution device alternately distributes the game balls to the first start area and the second start area. The abnormality notification is appropriately performed.

Inventions related to other means
A management device described in the above means,
The abnormality notification is performed for a predetermined period (within a predetermined number of winnings or within a predetermined number of fluctuations after the time-short signal is switched off) after the advantageous state in which the rate at which the variable winning device is controlled to be opened has been completed ends. The management device is characterized in that no continuous abnormality determination is made when it is determined that the signal is within the predetermined number of winnings from the time signal OFF and within the predetermined number of fluctuations from the time signal OFF.
According to this, it becomes possible to perform abnormality notification more appropriately based on a signal externally output from the gaming machine when the display result is derived and displayed on the first variable display unit and the second variable display unit. .

Inventions related to other means
A management device described in the above means,
The management apparatus is characterized in that the abnormality notification is not performed for a predetermined period after the gaming machine is turned on (continuous abnormality notification is not performed during a period from the power-on to the first gate passage).
According to this, it becomes possible to perform abnormality notification more appropriately.

Inventions related to other means
A management device described in the above means,
When an establishment order abnormality (continuous winning abnormality) based on the establishment order of the first start condition and the second start condition being different from the predetermined order is detected, and an abnormality other than the establishment order abnormality (magnetic or illegal) Game information of gaming machines that output a common abnormality detection signal (security signal) when a radio wave is detected,
When the abnormality detection signal is input, if it is within a period determined to be in an advantageous state based on the advantageous state signal, it is determined that the establishment order abnormality is not detected in the gaming machine. (A game machine error that does not include the possibility of a continuous winning abnormality when the time signal is ON when the security signal is input in the first abnormality determination method and the second abnormality determination method) is there.
According to this, it is possible to grasp that an abnormality other than the establishment order abnormality is detected in the gaming machine.

Inventions related to other means
A management device described in the above means,
When an establishment order abnormality (continuous winning abnormality) based on the establishment order of the first start condition and the second start condition being different from the predetermined order is detected, and an abnormality other than the establishment order abnormality (magnetic or illegal) Game information of gaming machines that output a common abnormality detection signal (security signal) when a radio wave is detected,
When the abnormality detection signal is input, if it is within a period in which it is determined that the opening control is performed based on the opening signal, it is determined that the establishment order abnormality is not detected in the gaming machine. (It is determined as a gaming machine error that does not include the possibility of a continuous winning abnormality when the second start port opening signal is ON in the third abnormality determination method).
According to this, it is possible to grasp that an abnormality other than the establishment order abnormality is detected in the gaming machine.

Inventions related to other means
A management device described in the above means,
When an establishment order abnormality (continuous winning abnormality) based on the establishment order of the first start condition and the second start condition being different from the predetermined order is detected, and an abnormality other than the establishment order abnormality (magnetic or illegal) Game information of gaming machines that output a common abnormality detection signal (security signal) when a radio wave is detected,
When the abnormality detection signal is input, if it is determined that a predetermined period has not elapsed since the game ball has passed through the passage area based on the passage signal, the establishment order abnormality is detected in the gaming machine. It is a management device characterized in that it is determined that it has not been made (determined as a gaming machine error that does not include the possibility of a consecutive winning abnormality when the fourth abnormality determination method is within a predetermined period after passing through the gate).
According to this, it is possible to grasp that an abnormality other than the establishment order abnormality is detected in the gaming machine.

  The modes for carrying out the invention include inventions related to other means described below. The management device according to the present invention can manage the game information of the gaming machine (second gaming machine) targeted by these inventions. Moreover, the operation of the gaming machine (second gaming machine) targeted by these inventions can be simulated. Note that the management device according to the present invention manages game information based on various signals output from the gaming machine. However, when the various signals output from the gaming machine are directly input, Both cases of inputting via a relay device such as an island computer are included, and the invention is not limited to the hall computer shown in the simulation function.

Inventions related to other means
A game comprising a first game area (left game area 7A) provided with a first passing area (left gate 32) and a second game area (right game area 7B) provided with a second passing area (right gate 33). A normal variable display unit that has a region (7) and starts variable display of identification information (normal symbol) when a game ball passes through the first passing region or the second passing region and derives and displays a display result. (Ordinary symbol display 10) and a game ball fired in the second game area and a game fired in the second game area based on the predetermined display result being derived and displayed on the normal variable display unit A variable winning device (variable winning ball device 15) that is controlled in an open state in which any game ball of the balls can be won, and when the game ball passes through the first passing area and the second passing The same communication is used when a game ball passes through the area. When an advantageous state (a big hit gaming state, a high base state) in which it is advantageous for the player to output a signal (gate passing signal) to the outside and to launch a game ball in the second gaming area rather than in the first gaming area A management device (hall computer 1200) for counting game information of gaming machines that externally output an advantageous state signal (a big hit signal, a short time signal) that makes it possible to determine the advantageous state;
It is determined whether or not the passing signal is based on the passage of the second passing region based on whether or not the passing signal is input within a period determined as the advantageous state by the advantageous state signal ( The period from the start of the big hit gaming state in which the right hand strike is executed to the end of the high base state is executed to determine that the input gate passage signal is based on the passage of the right gate) It is a management device.
According to this, it is possible to determine whether or not the input passage signal is based on the passage of the second passage area, and to add game information based on the passage of the second passage area. For example, it is possible to appropriately adjust the game nail by grasping the passing frequency of the second passing region from the counting result.

Inventions related to other means
A game comprising a first game area (left game area 7A) provided with a first passing area (left gate 32) and a second game area (right game area 7B) provided with a second passing area (right gate 33). A normal variable display unit (normal symbol display) that has a region (7) and starts variable display of identification information and derives and displays a display result when a game ball passes through the first passing region or the second passing region Device 10) and any one of the game balls fired in the first game area and the game balls fired in the second game area based on the predetermined display result being derived and displayed on the normal variable display unit A variable winning device (variable winning ball device 15) that is controlled to an open state in which game balls can also be won, and a game ball that has been launched into the second game area so that the game balls launched into the first game area can easily win Is difficult to win the first prize area (first start entry The mouth 13a) and at least one winning area of the second winning area where the gaming balls launched into the second gaming area are easy to win and the gaming balls launched into the first gaming area are difficult to win; In addition, a common passing signal (gate passing signal) is externally output when the game ball passes through the first passing area and when the gaming ball passes through the second passing area, and the first winning area A first winning signal (first start port passing signal) that makes it possible to determine that a game ball has won, and a second winning signal (first signal that makes it possible to determine that a game ball has won the second winning area). A management device (hall computer 1200) for counting game information of gaming machines that externally output at least one winning signal (2 start-port passing signals),
Whether or not the passing signal is based on the passage of the first passing region is determined based on whether or not the passing signal is input within a predetermined period before or after the first winning signal is input. And the passage signal is based on the passage of the second passage region based on whether the passage signal is inputted within a predetermined period before or after the second winning signal is inputted. Execute at least one of the second determination processes for determining whether or not the left-handed determination timer is set based on the input of the first start-port passing signal until the timeout occurs The period is a management device that executes a process of determining that the input gate passage signal is based on the passage of the left gate).
According to this, it is determined whether the input passage signal is based on the passage of the first passage region or whether the passage signal is based on the passage of the second passage region. The game information based on the passage and the passage of the second passage area can be totaled. For example, it is possible to appropriately adjust the game nail by grasping the passing frequency of the first passing area and the second passing area from the counting result.

Inventions related to other means
A game comprising a first game area (left game area 7A) provided with a first passing area (left gate 32) and a second game area (right game area 7B) provided with a second passing area (right gate 33). A normal variable display unit (normal symbol display) that has a region (7) and starts variable display of identification information and derives and displays a display result when a game ball passes through the first passing region or the second passing region Device 10) and any one of the game balls fired in the first game area and the game balls fired in the second game area based on the predetermined display result being derived and displayed on the normal variable display unit A variable winning device (variable winning ball device 15) that is controlled to an open state in which a game ball can also be won, and an open state based on the establishment of a specific condition (a derivation display of a jackpot symbol on a special symbol display). The first game area And a specific winning device (special variable winning ball device 20) that makes it easier to win a game ball that is launched into the second game area, and a predetermined number of game balls are paid out as a winning ball by winning. A common pass signal (gate pass signal) is externally output when the game ball passes through the first pass area and when the game ball passes through the second pass area, and the number of awarded balls can be counted A management device (hall computer 1200) that counts game information of a gaming machine that outputs a prize ball signal as follows:
Based on the prize ball information totaled based on the prize ball signal, it is determined whether or not the input passage signal is based on the passage of the second passage area (the prize increased within the last 10 seconds). (A process for determining that the input gate passage signal is based on the passage of the right gate is executed during a period in which the number of balls is 30 or more).
According to this, it is possible to determine whether or not the input passage signal is based on the passage of the second passage area, and to add game information based on the passage of the second passage area. For example, it is possible to appropriately adjust the game nail by grasping the passing frequency of the second passing region from the counting result.

Inventions related to other means
A launching device (ball striking device) for launching a game ball, a first game region (left game region 7A) provided with a first passage region (left gate 32), and a second passage region (right gate 33) are provided. A second game area (7) consisting of a second game area (right game area 7B), and the second pass area is provided at a greater distance from the launch position of the game ball than the first pass area, An ordinary variable display section (ordinary symbol display device 10) for starting display of variable identification information when a game ball passes through the first passage area or the second passage area and deriving and displaying the display result, and the ordinary variable display Based on the predetermined display result being derived and displayed on the section, the game ball that has been launched into the first game area and the game ball that has been launched into the second game area are both in an open state in which a prize can be won. Controlled variable winning device (variable winning ball device 5), and externally outputting a common passage signal (gate passage signal) between the case where the game ball passes through the first passage region and the case where the game ball passes through the second passage region, A management device (hall computer 1200) for counting game information of a gaming machine that outputs a firing strength signal corresponding to the launching strength of a game ball by the launching device,
Based on the launch intensity signal output from the gaming machine, whether the input passage signal is based on the passage of the first passage region or whether the passage signal is based on the passage of the second passage region (If the most recently input launch intensity signal is a weak signal, it is determined that the input gate passage signal is based on the passage of the left gate, and if it is a strong signal, And a process of determining that the input gate passage signal is based on the passage with the right gate).
According to this, it is determined whether the input passage signal is based on the passage of the first passage region or whether the passage signal is based on the passage of the second passage region. The game information based on the passage and the passage of the second passage area can be totaled. For example, it is possible to appropriately adjust the game nail by grasping the passing frequency of the first passing area and the second passing area from the counting result.

Inventions related to other means
A game comprising a first game area (left game area 7A) provided with a first passing area (left gate 32) and a second game area (right game area 7B) provided with a second passing area (right gate 33). A normal variable display unit (normal symbol display) that has a region (7) and starts variable display of identification information and derives and displays a display result when a game ball passes through the first passing region or the second passing region Device 10) and any one of the game balls fired in the first game area and the game balls fired in the second game area based on the predetermined display result being derived and displayed on the normal variable display unit A variable winning device (variable winning ball device 15) that is controlled to an open state in which a game ball can also be won, and when the game ball passes through the first passing area and the gaming ball through the second passing area Common signal when the signal passes (Pass signal) is output to the outside, and when it is in an advantageous state (a big hit gaming state, a high base state) where it is advantageous for the player to launch a game ball in the second gaming area than in the first gaming area, A management device (hall computer 1200) that counts game information of gaming machines that externally output an advantageous state signal (big hit signal, short time signal) that makes it possible to determine that it is in an advantageous state,
By displaying the period determined as the advantageous state by the advantageous state signal output from the gaming machine and the input state of the passing signal in a manner that can be compared, the passing signal is based on the passage of the second passing region (The jackpot period and the high base period, and the input status of the gate passing signal are displayed in a manner that can be compared vertically, so that the input frequency of the gate passing signal in the right-handed period is displayed. It is possible to discriminate between them).
According to this, it is possible to determine whether or not the input passage signal is based on the passage of the second passage region, and to grasp the passage state of the second passage region. For example, it is possible to appropriately adjust the game nail by grasping the passing frequency of the second passing region from the counting result.

Inventions related to other means
A management device described in the above means,
Of the game balls launched into the first game area, the ratio of the game balls that passed through the first passage area (left gate passage rate) and the second passage of game balls launched into the second game area The ratio of game balls that have passed through the area (right gate pass rate) is displayed in a comparable manner (the left gate pass rate and the right gate pass rate in the game history table are displayed side by side).
According to this, it is possible to appropriately adjust the game nail by comparing the ratio of the game balls that have passed through the first passage area with the ratio of the game balls that have passed through the second passage area.

Inventions related to other means
A management device described in the above means,
Of the game balls launched into the first game area, the proportion of game balls that passed through the first passage area (left gate passage rate), and among the game balls launched into the first game area, the variable winning device The percentage of game balls that won a prize (second starting prize opening prize rate = long open prize rate) can be displayed in a comparable manner (the left gate pass rate and the long open prize percentage in the game history table are displayed side by side) It is characterized by.
According to this, the ratio of the game balls that have passed through the first passing area is compared with the ratio of the game balls that have been won in the variable winning device out of the game balls that have been launched into the first gaming area, Adjustments can be made.

Inventions related to other means
A management device described in the above means,
It is not an advantageous state in which it is advantageous for the player to output a special winning signal based on the winning of a game ball to the variable winning device and to launch the game ball into the second game area rather than the first game area. Occasionally (normal state), the variable prize-winning device is placed in a short open state (0.5 seconds × 1 open state) with a predetermined open time and a long open state (5 The game information of the gaming machine to be controlled to any one of the release state (second × one release state),
Based on the input of the special winning signal within a period in which it is determined that the input passing signal is based on the passage of the first passing area, the special winning signal is used for winning in the long open state. (In the period during which it is determined that left-handed is being executed, all of the input second start port passage signals are based on the input in the long open state based on the long open state. Is executed).
According to this, the number of winnings in the long open state can be totaled.

Inventions related to other means
A management device described in the above means,
Based on the input status of the special winning signal, the number of winnings in one long open state is totaled ("the number of winnings during long opening / number of long opening times" is calculated as "the number of winnings per long opening"). It is characterized by.
According to this, it is possible to grasp the number of winnings in the variable winning device in one long open state and appropriately adjust the game nail.

Inventions related to other means
A management device described in the above means,
Managing game information of a gaming machine that outputs an identification signal (machine identification signal) that enables identification of the gaming machine having the first passing area and the second passing area when the power is turned on;
Based on the identification signal, the gaming machine to be managed is identified as a gaming machine having a first passing area and a second passing area (the gate position is determined based on the model ID extracted from the machine identifying signal). It is characterized in that the
According to this, it is possible to identify that the gaming machine to be managed is a gaming machine having the first passing area and the second passing area, and perform appropriate tabulation processing.

  Further, the invention for carrying out the invention includes each invention relating to other means described below. The management device according to the present invention can manage the game information of the gaming machine (third gaming machine) targeted by these inventions. Moreover, the operation of the gaming machine (third gaming machine) targeted by these inventions can be simulated. Note that the management device according to the present invention manages game information based on various signals output from the gaming machine. However, when the various signals output from the gaming machine are directly input, Both cases of inputting via a relay device such as an island computer are included, and the invention is not limited to the hall computer shown in the simulation function.

Inventions related to other means
A variable display of a plurality of types of identification information (first special symbol, second special symbol) each identifiable is performed, a display result is derived and displayed, and the derived display result is a predetermined specific display result. After the (big hit symbol) is reached, the specific game state (hit game state) advantageous to the player is controlled based on the fact that the game medium has passed through the specific area (the first specific area 61 to the third specific area 63). And a management device (hall computer 1200) for managing game information of a gaming machine (pachinko gaming machine 1) that outputs a specific gaming state signal (big hit signal) indicating that the game is controlled to the specific gaming state. And
Input means (communication unit 1207) for inputting the specific gaming state signal;
Starting point specifying means (corresponding to derivation display of jackpot symbol) for specifying a starting point of a waiting period from when the specific display result is derived and displayed on the gaming machine until the specific gaming state signal is input to the input means A CPU 1202) that executes a process when a symbol determination signal is input when the symbol determination signal is input;
End point specifying means for specifying the end point of the specific gaming state control period controlled to the specific gaming state based on the specific gaming state signal input to the input means (big hit at the timing when the big hit signal is switched from ON to OFF) CPU 1202 for executing processing when signal OFF is detected;
Aggregating means (corresponding to derivation display of jackpot symbol) that totals the number of game media acquired by the player in the total period of the waiting period and the specific gaming state control period based on the identified starting point and ending point A CPU 1202) that records the total number of difference balls (the number of difference balls after symbol determination) as a total number of difference balls during the period from the input of the symbol confirmation signal to when the jackpot signal is switched from ON to OFF. And
According to this, in order to total the number of game media acquired by the player in the total period of the standby period and the specific game state control period, the substantial number of game media acquired by the player with the occurrence of the specific game state is calculated. I can grasp it.

Inventions related to other means
A management device described in the above means,
A period specifying means for specifying the waiting period and the specific gaming state control period (a CPU 1202 that executes a big hit signal ON detection process at a timing when the big hit signal switches from OFF to ON),
The counting means individually counts the number of game media acquired by the player during the waiting period and the number of game media acquired by the player during the specific gaming state control period (determining the symbol corresponding to the derivation display of the jackpot symbol) In the period from the signal input until the jackpot signal switches from OFF to ON, the difference ball number (the difference ball number after symbol determination) is recorded as a waiting period difference ball number, and it is finally obtained and the total period difference obtained The number of balls is calculated as the number of balls with a difference in waiting period as the number of balls with a big hit period).
According to this, it is possible to individually grasp the number of game media acquired by the player during the standby period and the number of game media acquired by the player during the specific game state control period. It is possible to use it as an index when adjusting the ease of winning in the open area in the specific game state with the game nails.

Inventions related to other means
A management device described in the above means,
A display result confirmation signal (symbol confirmation signal) output from the gaming machine to the outside based on the display result being derived and displayed by executing variable display of the identification information is input to the input means,
Based on the fact that the display result becomes the specific display result, the member of the gaming machine (big hit notification LED 51) that changes to a predetermined mode before the display result is derived and displayed has changed to the predetermined mode (turned on) ) Detecting means (CPU 1202 for recognizing the input of the light emission detection signal),
When the detection unit detects that the member has changed to the predetermined mode, the start point specifying unit determines the start point based on a display result determination signal input to the input unit immediately after the detection. It is characterized by the fact that the total number of balls after symbol determination is started from the point of input of the symbol determination signal immediately after the light emission detection signal is input.
According to this, only when it is detected that a member of the gaming machine has changed to a predetermined mode, the number of game media may be summed up based on the input of the display result confirmation signal, and the processing burden is reduced. Is done.

Inventions related to other means
A management device described in the above means,
A display result confirmation signal (symbol confirmation signal) output from the gaming machine to the outside based on the display result being derived and displayed by executing variable display of the identification information is input to the input means,
Based on the fact that the display result is the specific display result, the gaming machine member (big hit notification LED 51) that changes to a predetermined mode after outputting the display result confirmation signal has changed to the predetermined mode (lights on). And detecting means (CPU 1202 for recognizing the input of the light emission detection signal) for detecting
The start point specifying means determines the start point based on a display result confirmation signal input to the input means immediately before the detection when the detection means detects that the member has changed to the predetermined mode. It is characterized in that it is characterized (continuation of the number of difference balls after the symbol determination started from the time of inputting the symbol determination signal immediately before the light emission detection signal is input).
According to this, only when it is detected that the member of the gaming machine has changed to the predetermined mode, it is only necessary to continue counting the number of game media being executed based on the input of the display result confirmation signal, The processing burden is reduced.

Inventions related to other means
A management device described in the above means,
A display result confirmation signal (symbol confirmation signal) output from the gaming machine to the outside based on the display result being derived and displayed by executing variable display of the identification information is input to the input means,
The start point specifying unit specifies the start point based on the display result determination signal input immediately before the specific game state signal is input to the input unit (a symbol determination signal is input). Each time the symbol determination signal is input, the processing is executed when the jackpot signal is switched from OFF to ON.
According to this, the number of game media can be totaled based on the display result confirmation signal and the specific game state signal normally output from the gaming machine.

Inventions related to other means
A management device described in the above means,
A plurality of specific game states (5R, 10R) having a plurality of specific areas (first specific area 61, second specific area 62, third specific area 63) and different game values to be given to the player as the specific game state. In order to make it possible to identify which specific gaming state is being controlled, and to control which specific gaming state is different depending on which specific area has passed through the game medium. The game information of the gaming machine that outputs the identification signal (open signal that is output during the opening period of the big prize opening) to the outside,
The identification signal is input to the input means,
Specific gaming state identification means for identifying which specific gaming state is controlled based on the identification signal input to the input means (the number of rounds is updated in the open signal detection process, and the big hit signal OFF detection process is performed) It is further characterized by further comprising a CPU 1202) that makes the number of rounds a history.
According to this, for each specific game state, the number of game media acquired by the player in the total period of the standby period and the specific game state control period can be individually counted.

The invention according to means 29 is
Game devices (card unit 1100, call lamp device 1300, data display device) provided corresponding to gaming machines (pachinko gaming machine 1, slot machine 1000, encapsulated pachinko gaming machine 1 ′, gaming point type slot machine 1000 ′) , Inter-counter counting unit),
Added game value (number of granted game media (number of award balls, number of OUT medals), number of added points) given to a player who plays with the gaming machine and used game value (number of used game media) used by the player in the game Difference value determination means (CPU of each gaming device) for determining a difference value (difference number (difference ball, difference medal), difference in points) from (the number of shot balls, number of IN medals), subtraction points);
Based on the determination by the difference value determination means, an index based on the minimum difference value and the maximum difference value in a predetermined period (total time period such as 1 hour unit, 2 hour unit, half day unit, 1 day unit) of the difference value. The values (difference index values α to γ (difference index value, difference medal index value), score difference index value) calculated according to any of formulas (1) to (3) are predetermined values (difference index values) Index value determination means (CPU of each gaming device) for determining whether or not a threshold (pachinko threshold, slot threshold), threshold score) has been reached;
Output means (display unit 1102, display unit 1302, display unit of each game device, communication unit) that outputs the determination result of the index value determination unit in an identifiable manner;
Predetermined value setting means (CPU of each gaming device) capable of setting the predetermined value;
It is provided with the game apparatus characterized by the above-mentioned.
According to this, in the gaming device, whether the index value based on the minimum difference value and the maximum difference value in a predetermined period among the difference values between the assigned gaming value and the used gaming value in the corresponding gaming machine has reached a predetermined value. It can be determined whether or not. Then, by outputting the determination result in an identifiable manner, the player can effectively grasp the exit rate and performance of the gaming machine. In addition, by making it possible to set a predetermined value, it is possible to determine whether or not the index value has reached a predetermined value in the gaming machine using a plurality of predetermined values.

The invention according to means 30 is
Game devices (card unit 1100, call lamp device 1300, data display device) provided corresponding to gaming machines (pachinko gaming machine 1, slot machine 1000, encapsulated pachinko gaming machine 1 ′, gaming point type slot machine 1000 ′) , Inter-counter counting unit),
Receiving means (communication unit of each gaming device) for receiving information related to gaming in a plurality of gaming machines from an external device (management device 1250, hall computer 1200, other gaming devices);
Based on the information received by the receiving means, a given game value (number of game media (number of awarded balls, number of OUT medals), number of added points) given to a player who plays with each of the plurality of gaming machines and the game Difference that counts the difference value (difference number (difference ball, difference medal), difference in points) from the used game value (number of used game media (number of shot balls, number of IN medals), subtraction points) used by the player Value aggregation means (CPU of each gaming device);
An index based on the minimum difference value and the maximum difference value in a predetermined period (total time period such as 1 hour unit, 2 hour unit, half day unit, 1 day unit) among the difference values based on the aggregation by the difference value aggregation means. The values (difference index values α to γ (difference index value, difference medal index value), score difference index value) calculated according to any of formulas (1) to (3) are predetermined values (difference index values) Gaming machine information output means (display unit 1102, display unit) that outputs the gaming machine information (the number of over-thresholds, the over-threshold ratio) relating to the gaming machines that have reached the threshold (threshold for pachinko, threshold for slot)) 1302, a display unit and a communication unit of each gaming device),
Predetermined value setting means (CPU of each gaming device) capable of setting the predetermined value;
It is provided with the game apparatus characterized by the above-mentioned.
According to this, in the gaming device, by receiving information related to the game in the plurality of gaming machines from the external device, the game value given to the player who plays in each of the plurality of gaming machines and the player plays the game The difference value with the used game value used for can be totaled. And, by outputting the game machine information relating to the gaming machine in which the index value based on the minimum difference value and the maximum difference value in the predetermined period of the difference value between the granted game value and the used game value has reached the predetermined value, it can be specified The player can effectively grasp the output rate and performance of each of the plurality of gaming machines. In addition, by making it possible to set a predetermined value, it is possible to specify and output gaming machine information related to a gaming machine whose index value has reached a predetermined value using a plurality of predetermined values.

The invention according to means 31 is
A management device (a management device 1250, a hall computer 1200, a handball management computer) for managing a plurality of gaming machines (pachinko gaming machine 1, slot machine 1000, encapsulated pachinko gaming machine 1 ′, gaming point type slot machine 1000 ′) A gaming device (call lamp device 1300, card unit 1100, data display device, inter-unit counting unit) connected to the gaming machine and connected to the gaming machine. ,
Added game value (number of granted game media (number of award balls, number of OUT medals), number of added points) given to a player who plays with the gaming machine and used game value (number of used game media) used by the player in the game : Difference value total data that is data obtained by the management device totaling difference values (difference numbers (difference balls, difference medals), difference in points) from the number of shot balls, number of IN medals), and subtraction points) and the difference The index value (Equation (1) to Equation (3)) based on the minimum difference value and the maximum difference value in a predetermined period (total time period such as 1 hour unit, 2 hour unit, half day unit, 1 day unit) of the value And at least one of index value aggregated data that is data obtained by the management device summarizing the difference index values α to γ (difference index value, difference medal index value) and score difference index value calculated according to Receiving means for receiving the total data (for each gaming device Communication department),
Based on the aggregated data received by the receiving means, the gaming machine information (the number exceeding the threshold) regarding the gaming machine whose index value has reached a predetermined value (difference index value threshold (pachinko threshold, slot threshold), threshold score) , A gaming machine information output means (display 1102, display 1302, display unit of each gaming device, communication unit) for outputting the threshold excess ratio) in an identifiable manner,
It is provided with the game apparatus characterized by the above-mentioned.
According to this, in the gaming device, by receiving at least one of the difference value aggregated data and the index value aggregated data aggregated by the management device, the own device aggregates the difference value and the index value. Without performing, it is possible to identify gaming machine information related to gaming machines whose index value has reached a predetermined value. Then, by outputting the gaming machine information related to the gaming machine in which the index value has reached a predetermined value, the player can effectively grasp the rate and performance of the gaming machine.

The invention according to means 32 is
A management device (a management device 1250, a hall computer 1200, a handball management computer) for managing a plurality of gaming machines (pachinko gaming machine 1, slot machine 1000, encapsulated pachinko gaming machine 1 ′, gaming point type slot machine 1000 ′) A gaming device (call lamp device 1300, card unit 1100, data display device, inter-unit counting unit) connected to the gaming machine and connected to the gaming machine. ,
Added game value (number of granted game media (number of award balls, number of OUT medals), number of added points) given to a player who plays the game machine, and used game value (number of used game media) used by the player in the game A gaming device comprising a transmission means (communication unit of each gaming device) that transmits information that can specify (the number of balls to be thrown in, the number of IN medals) and the number of subtraction points) to the management device.
According to this, it is possible for the management device to aggregate the difference value between the granted game value and the used game value by transmitting information that can specify the granted game value and the used game value to the management device. It can be.

In addition, the invention which concerns on each means which concerns on the subordinate form of said management apparatus is applicable similarly also to the game apparatus described in the means 23-26.
According to this, it is possible to provide a gaming apparatus that exhibits the same operational effects as the invention relating to the management apparatus.

It is a figure which shows an example of the system configuration | structure of a 1st game system. It is a figure which shows an example of an external appearance structure of a slot machine. It is a figure which shows an example of the data structure of the memory | storage device with which a management apparatus is provided. It is a figure which shows an example of a data structure of difference index value threshold value setting data. It is explanatory drawing of the calculation method of a difference number index value. It is a figure which shows an example of a data structure of a slot management database. It is a figure which shows an example of a data structure of a pachinko management database. It is a figure which shows an example of the data structure of a difference count database. It is a figure which shows an example of a data structure of an individual total database. It is a figure which shows an example of a data structure of a comprehensive total database. It is a figure which shows an example of a data structure of slot total total data. It is a figure which shows an example of a data structure of pachinko total summary data. It is a flowchart which shows an example of the flow of a management process. It is a flowchart which shows an example of the flow of an individual total process. It is a flowchart which shows an example of the flow of a total tabulation process. It is the figure which extracted the main step from the example of the data structure of the same setting machine classification slot total total data in a modification, and the total tabulation process in a modification. It is a figure which shows the data structural example of the difference number index value threshold value setting data in a modification. It is a figure which shows an example of the system configuration | structure of a 2nd game system. It is a figure which shows an example of the system configuration | structure of a 3rd game system. It is a figure which shows the system configuration | structure of the 3rd game system as a modification. It is a figure which shows an example of the system configuration | structure of the 4th game system to which the game machine of an enclosure system and a game point system is applied. It is a figure which shows an example of a detailed structure of the 4th game system. It is a figure which shows the hall computer of each game hall which can communicate with a management apparatus, and the input terminal of a repair company. It is a figure which shows an example of a data structure of the game data table which a hall computer memorize | stores. It is a figure which shows an example of a data structure of the management data table which a management apparatus memorize | stores. It is a figure which shows an example of a data structure of the price data table which a management apparatus memorize | stores. It is a figure which shows an example of the model curve which shows the used price transition of a gaming machine. It is a figure which shows an example of the price coefficient curve which shows the relationship between the total operation time of a game machine, and a price coefficient. It is a figure which shows an example of the installation information storage process at the time of installation of a game machine. It is a figure which shows an example of the failure information storage process at the time of repair of a gaming machine. It is a figure which shows an example of the game information storage process after the business end of a game hall. It is a figure which shows an example of the calculation process of the actual price of a gaming machine, and sale profit / loss. It is a figure which shows an example of the calculation process of the predicted used price of a gaming machine, and a prediction sale profit / loss. It is a figure which shows an example of the sale profit / loss curve which shows the relationship between the sale time and sale profit / loss. It is a figure which shows an example of the system configuration | structure of a 5th game system. It is a block diagram which shows an example of the structure of the hall computer which concerns on a 1st simulation function, and the information input into a hall computer. It is a flowchart which shows an example of the amortization simulation which a hall computer performs. It is explanatory drawing which shows an example of the operation rate curve used for amortization simulation. It is explanatory drawing which shows an example of the customer acquisition index curve used for amortization simulation. It is explanatory drawing which shows an example of the number of amortization days calculated by the amortization simulation. It is explanatory drawing which shows an example of the depreciation graph obtained by the depreciation simulation. It is a flowchart which shows an example of the amortization simulation which concerns on a 2nd simulation function. It is explanatory drawing which shows an example of the operation rate curve which concerns on a 2nd simulation function. It is explanatory drawing which shows an example of the amortization day calculated by the amortization simulation which concerns on a 2nd simulation function. It is a flowchart which shows an example of the amortization simulation which concerns on a 3rd simulation function. It is explanatory drawing which shows an example of the operation rate curve which concerns on a 3rd simulation function. It is explanatory drawing which shows an example of the customer acquisition index curve which concerns on a 3rd simulation function. It is explanatory drawing which shows an example of the amortization day calculated by the amortization simulation which concerns on a 3rd simulation function. It is a flowchart which shows an example of the amortization simulation which concerns on a 4th simulation function. It is a flowchart which shows an example of a game execution simulation. It is explanatory drawing which shows the specification of the game machine used as the simulation object in a 4th simulation function. It is explanatory drawing which shows the setting conditions of the simulation which concerns on a 4th simulation function. It is description which shows an example of the amortization days calculated by the amortization simulation which concerns on a 4th simulation function. It is explanatory drawing which shows an example of the amortization graph obtained by the amortization simulation which concerns on a 4th simulation function. It is explanatory drawing which shows the setting conditions of the simulation which concerns on the modification of a 1st simulation function. It is explanatory drawing which shows the setting conditions of the simulation which concerns on the modification of a 2nd simulation function. It is explanatory drawing which shows the setting conditions of the simulation which concerns on the modification of a 3rd simulation function. It is a block diagram which shows an example of the information input into the hall computer which manages the game information of a 1st game machine. It is the front view which looked at the pachinko game machine from the front. It is the front view which looked at the distribution apparatus from the front. It is explanatory drawing which shows the state by which opening control of the variable winning ball apparatus was carried out. It is explanatory drawing which shows the distribution method of the game ball by a distribution apparatus. It is a time chart which shows an example of the 1st abnormality determination method. It is a time chart which shows an example of the 2nd abnormality determination method. It is a time chart which shows an example of the 3rd abnormality determination method. It is a time chart which shows an example of the 4th abnormality determination method. It is a block diagram which shows an example of the information input into the hall computer which manages the game information of a 2nd game machine. It is the front view which looked at the pachinko game machine from the front. It is explanatory drawing which shows an example of the table for normal symbol control. It is explanatory drawing which shows an example of a model database. It is explanatory drawing which shows an example of a game history table. It is a time chart which shows an example of the determination method of the gate passage signal which concerns on a 1st total process. It is explanatory drawing which shows an example of the input condition display method of a gate passage signal. It is a time chart which shows an example of the determination method of the gate passage signal which concerns on a 2nd total process. It is a time chart which shows an example of the determination method of the gate passage signal which concerns on a 3rd total process. It is a time chart which shows an example of the determination method of the gate passage signal which concerns on a 4th total process. It is a block diagram which shows an example of the information input into the hall computer which manages the game information of a 3rd game machine. It is the front view which looked at the pachinko game machine from the front. It is an expansion perspective view of a decoration member. It is a figure explaining the feature of control of big hit type in a table form. It is explanatory drawing which shows an example of a whole table. It is explanatory drawing which shows an example of the log | history table classified by table. It is explanatory drawing which shows an example of a table-specific statistics table. It is a time chart which shows the total period of the difference ball number which concerns on a 1st difference ball total process. It is a time chart which shows the total period of the difference ball number which concerns on a 2nd difference ball total process. It is a time chart which shows the total period of the difference ball number which concerns on a 3rd difference ball total process.

  Hereinafter, preferred embodiments to which the present invention is applied will be described with reference to the drawings. However, it is needless to say that embodiments to which the present invention can be applied are not limited to the embodiments described below.

[1. First Embodiment]
[1-1. Game system]
FIG. 1 is a diagram illustrating an example of a system configuration of a first gaming system in the first embodiment.
The first gaming system includes a hall computer 1200 installed in a plurality of game halls (stores), a pachinko gaming machine 1 and a slot machine 1000 that are types of gaming machines installed in a plurality of game halls (stores), And a management device 1250 installed in the management center. Here, the plurality of stores refers to stores included in a predetermined area (for example, nationwide, prefectural units, municipalities).

  The hall computer 1200 manages game information generated in games in the pachinko gaming machine 1 and the slot machine 1000 that are arranged in parallel on a plurality of game islands arranged in the game hall. The game information counts pachinko gaming machines 1 and game balls (out balls) that are provided corresponding to the pachinko gaming machines 1 and are used for gaming in the pachinko gaming machines 1 and discharged from the pachinko gaming machines 1. The total is based on various signals output from the out ball counter 1120. For example, the hall computer 1200 aggregates the operating rate for each time zone of each gaming machine installed in the game hall and the balance such as a difference ball as game information.

  The hall computer 1200 can directly calculate the above-mentioned operating rate and the balance of the difference balls based on signals input from the pachinko machine 1 and the out-ball counter 1120. It is also possible to make a configuration based on information input via a gaming device such as a card unit provided correspondingly or a relay device that relays between the gaming machine and the hall computer 1200.

  In this embodiment, the game ball (out ball) discharged from the pachinko gaming machine 1 is described as being counted by the out ball counter 1120 and a driving signal is output to the hall computer 1200. The machine 1 may be configured to count out balls, and the pachinko gaming machine 1 may output a driving signal to the hall computer 1200.

  The management center is a center that manages game information related to games in the pachinko gaming machine 1 and the slot machine 1000 installed in each of a plurality of game halls, and includes a management device 1250.

  The hall computer 1200 includes a data bus 1201 that transmits and receives data inside the computer, a CPU 1202 as storage control means for performing various processes performed by the hall computer 1200, a RAM 1203 that is used as a work memory, and a magnetic field. Data communication is performed between a storage device 1204 composed of a disk or a magneto-optical disk, an input device 1205 such as a keyboard or a mouse, a display device 1206 for displaying and outputting various screens, and a gaming machine or a gaming device. This is a computer system in which a communication unit 1207 as a communication means to perform and a printing device 1208 for printing data stored in the storage device 1204 are connected. The storage device 1204 stores, as game information, an operation rate for each time zone of each gaming machine installed in the game hall.

  The storage device 1204 stores a simulation program for calculating the operation of the gaming machine, in addition to a processing program in which various processing contents executed by the hall computer 1200 are described. These programs are read into the RAM 1203 by the CPU 1202 and executed.

  The management device 1250 has a CPU 1252 as storage control means for executing various processes performed by the management device 1250, a RAM 1253 used as a work memory, etc. Data between a storage device 1254 composed of a disk or a magneto-optical disk, an input device 1255 such as a keyboard and a mouse, a display device 1256 for displaying and outputting various screens, and a hall computer 1200 installed in each store This is a computer system in which a communication unit 1257 as communication means for performing communication and a printing device 1258 for printing data stored in the storage device 1254 are connected.

  From each pachinko gaming machine 1, a prize ball signal and a machine identification signal are input to the communication unit 1207 of the hall computer 1200 via the platform terminal 1220. Also, from the out ball counter 1120, a driving signal is input to the communication unit 1207 of the hall computer 1200 via the platform terminal 1220. Further, from each slot machine 1000, a medal IN signal, a medal OUT signal, and a machine identification signal are input to the communication unit 1207 of the hall computer 1200 via the platform terminal 1220. These signals will be described later.

  The communication unit 1207 of the hall computer 1200 is communicably connected to the communication unit 1257 of the management device 1250, and is configured to be able to send and receive data to and from each other. From the communication unit 1207 of the hall computer 1200, game data for each store, which will be described later, is transmitted to the communication unit 1257 of the management device 1250. In addition, from the communication unit 1257 of the management apparatus 1250, individual total data and general total data described later are transmitted to the communication unit 1207 of the hall computer 1200.

[1-2. Pachinko machine]
As will be described in detail later, the pachinko gaming machine 1 launches a game ball, which is a game medium, into a game area by a launching device, and when the game ball wins a prize area such as a prize opening provided in the game area, It is configured to give the player a prize value. Furthermore, a variable display unit capable of variably displaying a special symbol (identification information) (also referred to as “variation”) based on the fact that the game ball has passed through the start area provided in the game area is provided. As the display result of the variable display, the predetermined game state (so-called jackpot game state) is controlled based on a predetermined display result (big hit symbol) derived and displayed.

  The derived display is to stop and display the symbol. In the specific game state, a predetermined game value is given to the player. The winning value means that a winning ball is paid out or a score or a prize is given in accordance with the winning of a game ball in the winning area. In addition, the game value means that when a specific display result is obtained, the state of the variable winning ball apparatus provided in the gaming area of the gaming machine becomes an advantageous state for a player who is easy to win, and for the player. For example, a right to be advantageous can be generated, and a condition for paying out a winning ball can be easily established. Details of the pachinko gaming machine 1 are exemplified by FIG. 59, FIG. 68, FIG.

  In the pachinko gaming machine 1, when the game ball launched into the game area wins the starting winning opening (the first starting winning opening 13a and the second starting winning opening 13b), the special symbol variation display is started and the display result is displayed. When the big winning symbol is derived and displayed, the special variable winning ball apparatus 20 is opened and controlled to the big winning gaming state in which the winning in the big winning opening is possible. When a game ball is won in a start winning opening, a big winning opening, or other winning openings (for example, winning openings 29a to 29c of a normal winning apparatus described later), a predetermined number of gaming balls (corresponding to winning in each winning opening ( That is, a prize ball is given to the player. Each time ten award balls are paid out, a prize ball signal is output from the terminal board of the pachinko gaming machine 1. For example, the prize ball signal is a pulse signal having a predetermined width.

  In addition, at a predetermined timing (for example, when the power of the pachinko gaming machine 1 is turned on), from the terminal board of the pachinko gaming machine 1, the manufacturer of the pachinko gaming machine 1 stored in the game control board And a machine identification signal including a manufacturer ID indicating the model ID indicating the model (model) of the gaming machine. For example, the machine identification signal is a pulse signal output in a predetermined pattern.

  Below the pachinko gaming machine 1, there is provided an out ball counter 1120 for counting game balls (out balls) used in the pachinko gaming machine 1 and discharged from the pachinko gaming machine 1. Every time a predetermined number (for example, 10 balls) of out balls is counted, a driving signal is output from the out ball counter 1120. For example, the driving signal is a pulse signal having a predetermined width.

  In this embodiment, a driving signal is output every time 10 out balls are counted. However, the present embodiment is not limited to this configuration, and every time an out ball is detected (that is, one ball). You may make it output an out ball detection signal for every). According to this, in the hall computer 1200, the number of outs can be totaled for each ball. In this embodiment, the prize ball signal is output every time 10 ball prize balls are counted. However, the present invention is not limited to such a configuration. A prize ball detection signal may be output for each ball. According to this, in the hall computer 1200, the number of safes can be totaled for each ball.

  The hall computer 1200 receives a prize ball signal and a machine identification signal output from the terminal board of the pachinko gaming machine 1 and a driving signal output from the out ball counter 1120 via a relay device such as the base terminal 1220 and a communication cable. The game information of each pachinko gaming machine 1 can be aggregated in the hall computer 1200 by being input to the communication unit 1207.

  Output signals from a plurality of pachinko gaming machines 1 (and corresponding out ball counters 1120) are input to the relay device such as the base terminal 1220. From the relay device such as the stand terminal 1220, stand identification information (for example, discriminating the pachinko gaming machine 1 that outputs the signal corresponding to the input signal (or corresponds to the out ball counter 1120 that outputs the signal) (for example, (Identification information attached corresponding to the signal input terminal of the relay device) is output. Thereby, in the management device such as the hall computer 1200, it becomes possible to tabulate and manage game data for each machine number corresponding to the machine identification information.

[1-3. Slot machine]
FIG. 2 is a view showing an example of the external configuration of the slot machine 1000. As shown in FIG.
As shown in FIG. 2, the slot machine 1000 includes a housing 1020 whose front surface is open, and a front door 1022 that is pivotally supported at a side end of the housing 1020. Inside the casing 1021 of the slot machine 1000, reels 1002L, 1002C, and 1002R (hereinafter, left reel, middle reel, and right reel) in which a plurality of types of symbols are arranged on the outer periphery are juxtaposed in the horizontal direction. Of the symbols arranged on the reels 1002L, 1002C, and 1002R, three consecutive symbols are arranged so that they can be seen from the see-through window 1003 provided on the front door 1022.

  On the outer periphery of each of the reels 1002L, 1002C, and 1002R, 21 symbols, each of which is a plurality of types of identification information that can be identified, are drawn in a predetermined order at predetermined intervals. The predetermined interval is an interval when 21 symbols are arranged on the outer periphery of one reel. The symbols drawn on the outer peripheries of the reels 1002L, 1002C, and 1002R are basically the upper, middle, and lower positions in the see-through window 1003 provided at the approximate center of the front door 1022 and at predetermined positions corresponding to each reel. Stopped and displayed at three positions (three levels).

  Each reel 1002L, 1002C, 1002R is provided correspondingly and rotated by a reel motor so that the symbols of the reels 1002L, 1002C, 1002R are displayed on the see-through window 1003 while being continuously changed. By stopping the rotation of 1002L, 1002C, and 1002R, a symbol is derived as a display result at a predetermined position of the see-through window 1003.

  As shown in FIG. 2, the front door 1022 has a medal insertion portion 1029 into which medals can be inserted, a medal payout exit 1030 from which medals are paid out, and credits (the number of medals stored as a game value owned by the player). One bet switch 1005 that is operated when setting one bet by using the bet number, and using the credit, the maximum bet number among the prescribed number of bets determined according to the game state within this range (this implementation) In the form, in any gaming state, the MAXBET switch 1006 operated when setting 3), the medal stored as credit and the medal used for setting the bet amount are settled (used for setting the credit and bet number). A settlement switch 1028 operated when the medal is returned) and a start switch 100 operated when starting the game. , Reels 1002L, 1002C, stop switch 1008L which is operated to stop each rotation of the 1002R, 1008C, 1008R are provided respectively operable by the player. In addition, the front door 1022 has a game display unit 1010 that displays the number of medals stored as credits, the set number of bets (1BET to 3BET), the number of medals paid out due to a winning, and the like. Is provided.

  In addition, a set value display (not shown) is provided inside the front door 1022 for displaying a set value at that time while changing a set value to be described later or checking the set value. A power supply box (not shown) is provided inside the housing 1021, and a setting key switch for switching to a setting change state or a setting confirmation state on the front surface of the power supply box. A reset / setting switch that functions as a reset switch for canceling the stop state and functions as a setting switch for changing the setting value of the winning probability of internal lottery described later in the setting change state, when turning the power on / off A power switch to be operated is provided.

  When a game is played in the slot machine 1000 according to the present embodiment, first, medals are inserted from the medal insertion unit 1029 or a bet number is set using credits. In order to use the credit, the single BET switch 1005 or the MAX BET switch 1006 may be operated. When a predetermined number of bets determined according to the gaming state are set, the pay line becomes valid, and the operation of the start switch 1007 is valid, that is, one game can be started. In addition, when a medal is inserted exceeding the maximum number out of the prescribed number corresponding to the gaming state, the amount is added to the credit. The winning line is a line that is set to determine whether a combination of symbols displayed on the perspective windows 3 of the reels 2L, 2C, and 2R is a winning symbol combination.

  When the start switch 1007 is operated while the game can be started, the reels 1002L, 1002C, and 1002R rotate, and the symbols of the reels 1002L, 1002C, and 1002R continuously change. When one of the stop switches 1008L, 1008C, 1008R is operated in this state, the rotation of the corresponding reels 1002L, 1002C, 1002R is stopped, and the display result is derived and displayed on the fluoroscopic window 3.

  Then, when all the reels 1002L, 1002C, and 1002R are stopped, one game is completed, and a predetermined symbol combination (hereinafter also referred to as a winning combination) on the winning line is displayed on each reel 1002L, 1002C, and 1002R. In the case of a stop, a winning occurs, and a predetermined number of medals are awarded to the player and added to the credit. Further, when the credit reaches the upper limit number (50 in this embodiment), medals are paid out directly from the medal payout opening 1030. In addition, when a combination of symbols accompanying the transition of the gaming state on the winning line is stopped as a display result of each reel 1002L, 1002C, 1002R, the gaming state is shifted according to the combination of symbols.

  The types of winning combinations are determined according to the state of the game, but can be broadly divided into special roles with a shift to the big bonus (BB) and regular bonus (RB), and small roles with payout of medals. And a re-gamer (replay) that allows the next game to be started without the need to set the bet amount.

  For example, when a start operation is detected, a game in the slot machine 1000 is controlled to determine which of a plurality of types of winning combinations can be won or whether any winning combination can be won. It is determined by the internal lottery of the game control board to be played. In this internal lottery, for example, a random number generated from a predetermined random number generator or generated on software is lottery to determine whether or not a prize is won and a winning combination in the case of winning.

  After that, the game control board waits for a reel stop operation by the player, and draws it if there is a symbol corresponding to the winning combination in the predetermined frame number range based on the stop operation time, otherwise, Is controlled to stop the three symbols and determine whether or not there is a prize. When it is determined that the game control board has won, the game control board gives the player a number of medals according to the type of the prize.

  In other words, the slot machine 1000 can start a game by setting a predetermined number of bets for one game using the gaming value, and can variably display a plurality of types of identification information each of which can be identified. A slot machine in which one game is completed by displaying a display result on a variable display device, and a winning can be generated according to the display result derived on the variable display device. Before the display result is derived, a pre-determining unit that determines whether or not to allow the generation of a plurality of types of winnings, and the display result is derived to the variable display device according to the determination result of the pre-determining unit A slot machine is provided that includes derivation control means for performing control and giving means for giving a game value when the winning occurs.

  In the slot machine 1000 of the present embodiment, the probability of an internal lottery, for example, the winning probability of a big bonus (BB) changes according to the set value. As the probability of the internal lottery changes, the player in the game The ratio between the number of medals granted to the player and the number of medals used by the player also changes. In other words, the output rate, which is the ratio of the number of granted medals to the number of used medals, varies depending on the set value. By using the winning probability according to the set value in the internal lottery executed by the game control board of the slot machine 1000, the medal payout rate is changed. The set value consists of 6 levels of 1 to 6, with “6” having the highest output rate, and the lower the value in the order of “5”, “4”, “3”, “2”, “1”, the higher the output rate. Lower. That is, when “6” is set as the setting value, the player has the highest advantage, and the smaller the value is in the order of “5”, “4”, “3”, “2”, “1”. The advantage is gradually reduced.

  When the slot machine 1000 is a gaming machine that can be controlled during the assist replay time (ART), the expected value of the number of continued games of the ART may be different depending on the set value. Here, ART is a state in which a player is notified of a symbol to be stopped (to be aimed) by a push order navigation display or the like for notifying the operation order of the stop switches 1008L, 1008C, and 1008R on the display provided in the slot machine 1000. This is a function that combines a certain assist time (AT) and a replay time (RT), which is a state in which the replay probability (probability of establishing a re-gamer) is improved as compared with the normal time. In this case, the display control of the push order navigation is not a game control board but a control executed by an effect control board that is electrically connected to the game control board and performs effect control based on information from the game control board. Therefore, in the production control board, it is possible to control the execution ratio of the push order navigation according to the set value, and as a result, the output rate changes according to the set value (execution ratio of the push order navigation). Become. Thus, the output rate may be changed according to the effect control by the effect control board. Moreover, you may make it change a winning rate according to the game control by a game control board, and the production control by an effect control board.

  In order to change the setting value, it is necessary to turn on the power of the slot machine 1000 after the setting key switch is turned on. When the setting key switch is turned on and the power is turned on, the setting value read from the RAM of the game control board is displayed as a display value on the setting value display, and the setting value can be changed by operating the reset / setting switch. Transition to a possible setting change state. When the reset / setting switch is operated in the setting change state, the display value displayed on the setting value display is updated one by one (when further operation is performed from setting 6, the setting value is returned to setting 1). When the start switch is operated, the display value is determined as the set value. Then, when the setting key switch is turned off, the determined display value (setting value) is stored in the RAM of the game control board, and the state shifts to a state where the game can proceed.

  Further, in order to confirm the set value, it is only necessary to turn the setting key switch on after the game is over in a state where the bet amount is not set. When the setting key switch is turned on in such a situation, the setting value read from the RAM of the game control board is displayed on the setting value display, thereby shifting to a setting confirmation state in which the setting value can be confirmed. In the setting confirmation state, the game cannot be progressed, and by setting the setting key switch to the off state, the setting confirmation state is ended and the game can be resumed.

  The game control board of the slot machine 1000 outputs the following medal IN signal, medal OUT signal, and machine identification signal via the external output board. When a player performs a bet operation (1BET to MAXBET) of medals and performs a game start operation (operation of the start switch 1007) in a state where one game can be started, the number of bets set by the BET operation (one medal) Medals IN signals corresponding to (~ 3) are output from the external output board. For example, when three medals are bet, three pulse signals are output with a 25 ms interval as the medal IN signal.

  Here, when the re-gamer (replay) is established, the next game can be started without setting the number of bets, but the game start operation (operation of the start switch 1007) is performed in the next game. Then, a medal IN signal corresponding to the number of bets set in the game in which a re-playing combination (replay) is established is output.

  In addition, when the final derivation result of the symbol is a winning combination, the number of medals corresponding to the winning combination is paid out, and a medal OUT signal corresponding to the number of medals paid out at this time is externally output. Output from the board. For example, when five medals are paid out by winning a small role, five pulse signals are output with a 25 ms interval as a medal OUT signal.

  Here, when a re-gamer (replay) is established, a medal OUT signal corresponding to the number of bets set in the game in which the re-gamer (replay) is established is output. That is, when a re-game player (replay) is established, a medal OUT signal corresponding to the number of bets set in the game (for example, three medals) is output and the bet number ( It is assumed that a medal IN signal corresponding to three medals is output.

  In this embodiment, when a re-gamer (replay) is established, a medal OUT signal corresponding to the number of bets set in the game where the re-gamer (replay) is established is output, and the next game When a game start operation (operation of the start switch 1007) is performed, a medal IN signal corresponding to the number of bets set in the game in which the re-playing combination (replay) is established is output. The medal OUT signal is not output when a re-playing combination (replay) is established, and the medal IN signal is not generated even if a game start operation (operation of the start switch 1007) is performed in the next game. May not be output.

  Further, when the power of the slot machine 1000 is turned on while the setting key switch is in the off state, and when the setting key switch is switched from the on state to the off state when the power of the slot machine 1000 is on (that is, When the condition that the power is on and the setting key switch is in the off state is established), the manufacturer ID indicating the manufacturer of the slot machine 1000 stored in the game control board and the type of the gaming machine ( A machine identification signal including a model ID indicating the model) and a set value read from the RAM of the game control board (a set value stored in the RAM of the game control board) is output from the external output board. The

  The medal IN signal, medal OUT signal, and machine identification signal output from the external output board of the slot machine 1000 are input to the communication unit 1207 of the hall computer 1200 via a relay device such as the base terminal 1220 and a communication cable. Thus, the game information of each slot machine 1000 can be totaled in the hall computer 1200.

  Output signals from the plurality of slot machines 1000 are input to the relay device such as the base terminal 1220. From the relay device such as the base terminal 1220, the base identification information (for example, the identification information attached corresponding to the signal input terminal of the relay device) that can identify the slot machine 1000 that outputs the signal corresponding to the input signal is provided. Is output. Thereby, in the management device such as the hall computer 1200, it becomes possible to tabulate and manage game data for each machine number corresponding to the machine identification information.

  When the above-described machine identification signal is input, the CPU 1202 of the hall computer 1200 sets the “model” identified from the model ID included in the machine identification signal to the “table” of the gaming machine that is the output source of the machine identification signal. It is stored in association with “number”. If the identified “model” is the model of the slot machine 1000, the “setting value” included in the machine identification signal is further set as the “unit number” of the gaming machine that is the output source of the machine identification signal. Store it in association.

  Depending on the model of the gaming machine, there may be a case where a signal for specifying the model, such as the machine identification signal, is not output. Further, even if a signal indicating that the model can be specified is output, depending on the specifications and settings of the hall computer 1200, the model may not be specified based on the signal. In such a case, the input device 1205 of the hall computer 1200 can input a model corresponding to each machine number (or each group or island) in the game data table. Further, the slot machine 1000 may not output a signal that can specify a set value, such as the machine identification signal. Further, even if a signal that enables the setting value to be specified is output, depending on the specifications and settings of the hall computer 1200, the setting value may not be specified based on the signal. In such a case, a setting value corresponding to each unit number of the game data table can be input by the input device 1205 of the hall computer 1200. As described above, the model and setting value of the gaming machine may be automatically acquired, or the store clerk of the game hall may input the hall computer 1200.

[1-4. Management device storage device and data configuration]
FIG. 3 is a diagram illustrating an example of programs and data stored in the storage device 1254 included in the management device 1250.
The storage device 1254 stores a management program 310 that is read by the CPU 1252 and executed as management processing. The management program 310 includes an individual aggregation program 311 executed as an individual aggregation process and a total aggregation program 312 executed as an overall aggregation process as subroutines. These processes will be described later in detail using a flowchart.

  The storage device 1254 also includes a difference index value threshold setting data 320, a store-specific game database 330, a slot management database 340, a pachinko management database 350, a difference count database 360, an individual count database 370, A total summary database 380 is stored.

FIG. 4 is a diagram illustrating an example of a data configuration of the difference number index value threshold setting data 320.
The difference index value threshold setting data 320 stores a slot threshold and a pachinko threshold as the difference index value threshold.

  In the present embodiment, the “difference number” is the number of game media granted that is the number of game media granted to a player who plays with a gaming machine and the number of game media used by the player for the game. It is a value calculated as a difference from the number of media.

  In the case of the pachinko gaming machine 1, the number of granted game media and the number of used game media correspond to the number of prize balls (also called the number of safe balls) and the number of shot balls (also called the number of out balls), respectively. The number of winning balls is specified by the aforementioned winning ball signal, and the number of balls to be hit is specified by the aforementioned driving signal. In the case of the slot machine 1000, the number of granted game media and the number of used game media correspond to the number of OUT medals (also referred to as “out number”) and the number of IN medals (also referred to as “in number”), respectively. The OUT medal number is specified by the aforementioned medal OUT signal, and the IN medal number is specified by the aforementioned medal IN signal.

  The above-mentioned number of granted game media and the number of used game media are examples of the assigned game value and the used game value according to the present invention. In the pachinko gaming machine 1, the difference ball number calculated as “the number of balls to be hit—the number of prize balls” (hereinafter simply referred to as “the difference ball”) is the “difference number”. In the slot machine 1000, the difference medal number calculated as “IN medal number−OUT medal number” (hereinafter simply referred to as “difference medal”) is the “difference number”.

FIG. 5 is a diagram for explaining the difference number, and shows an example of a difference number graph showing the change over time of the difference number.
In this difference graph, the horizontal axis represents time (t), and the vertical axis represents the difference number (δ). In the pachinko gaming machine 1, the difference ball graph corresponds to this, and in the slot machine 1000, the difference medal graph corresponds to this. As the player plays a game on the gaming machine, the difference number changes with time.

  When the difference number is “+”, it means that the number of used game media is larger than the number of granted game media, and the player loses. On the other hand, when the difference number is “−”, it means that the number of granted game media is larger than the number of game media used, and the player wins. However, if the player's position and the store's position are reversed, + and-are reversed, and if the difference is "+", it means that the store is profitable and the difference is When it is “−”, it means that the store side is losing money.

In the present embodiment, a difference number index value α given by the following equation (1) is introduced as an index value for the difference number (δ).
α = δ _MAX −δ _MIN (1)

Here, “δ _MAX ” is the maximum value of the difference number (hereinafter referred to as “maximum difference number”), and “δ _MIN ” is the minimum value of the difference number (hereinafter referred to as “minimum difference number”). It is. The maximum difference is δ _MAX is the value of the difference at the time when the difference is maximum in the difference graph, and the minimum difference is δ _MIN is the difference at the time when the difference is minimum in the difference graph. It is a number value.

For example, if the maximum difference number δ _MAX is “−2000” and the minimum difference number δ _MIN is “−5000”, the difference number index value is “α = −2000 − (− 5000) according to the equation (1). ) = + 3000 ”. In the case of the pachinko gaming machine 1, the difference ball index value is calculated according to the equation (1), and in the case of the slot machine 1000, the difference medal index value is calculated according to the equation (1). In the above example, the difference ball index value is “+3000 shots”, and the difference medal index value is “+3000 sheets”.

  The difference index value calculated according to equation (1) corresponds to the difference from where the difference number is the lowest to the highest point in a given period. It can be said that this is a gaming machine with high expectations (having explosive power). Therefore, the expected value of the gaming machine can be determined by performing a threshold determination on the difference index value and determining whether or not the difference index value has reached the difference index value threshold.

  In the present embodiment, the management device 1250 is configured to be able to individually calculate and aggregate the difference index value for each gaming machine installed in each store. In addition, the management device 1250 is configured to be able to freely set a totaling time zone, calculate a difference index value, and totalize it.

  The difference number graph of FIG. 5 illustrates the case where the difference index value is calculated using the time period from t1 to t2 with the start time t1 and the end time t2 as the aggregation time period. The manager of the management apparatus can freely set the start time t1 and the end time t2 of this counting time zone. In addition, a time width as a total time zone can be freely set. For example, a time width of a unit such as one hour unit, two hour unit, half day unit, one day unit can be set as the total time zone. Moreover, the number of days longer than one day can also be set as the total time zone. The total time zone corresponds to a predetermined period.

  The slot threshold value and the pachinko threshold value stored in the difference index value threshold setting data 320 in FIG. 4 are threshold values for the difference medal index value and the difference ball index value, respectively. "3000" is stored as the threshold for pachinko. These threshold values can be set by an administrator operating the management apparatus by inputting arbitrary values from the input unit 1255.

  The store-specific game database 330 stores store-specific game data related to the game information of each gaming machine at each of a plurality of stores. This game data is data acquired from the hall computer 1200 of the store via the communication unit 1257, and data on the number of game media assigned and the number of game media used for each game machine in the store, and each game in the store. Includes machine uptime data.

FIG. 6 is a diagram showing an example of the data configuration of the slot management database 340. As shown in FIG.
The slot management database 340 stores slot management data for managing the slot machine 1000 for each store.

  The slot management data of each store stores the store name, the model name of the slot machine 1000, the manufacturer of the slot machine 1000, the type of the slot machine 1000, and the number of installed slot machines 1000 in the store. And a slot ID which is identification information for individually identifying the slot machine 1000 and a set value set in the slot machine 1000 of the slot ID are stored in association with each other.

  The model name is the name of the model of the slot machine 1000. For example, model names of different slot machines 1000 such as “slot AAA” and “slot BBB” are stored in the model name.

  The manufacturer is the name of the manufacturer that manufactured the slot machine 1000 of the model. For example, the name of the manufacturer for each model of the slot machine 1000 such as “Manufacturer M” or “Manufacturer N” is stored in the manufacturer.

  The type is the type of the slot machine 1000 of the model. This type of slot machine 1000 includes bonus division types classified according to the nature of bonuses and functional division types classified according to functions.

The bonus category type includes types such as A type, B type, and C type.
The A type is a type in which the big bonus (BB) is composed of three regular bonuses (RG).
The B type is a type in which the big bonus (BB) is composed of two regular bonuses (RG).
The C type is a type that does not have a big bonus (BB).

The function classification types include types such as normal machines, stock machines (ST machines), and AT machines.
The normal machine is a type having a function of instantly releasing a bonus when a lottery is drawn with the same probability for each game and when winning.
The ST machine is a type having a function of stocking a bonus established internally and releasing the bonus when a specific condition is established.
The AT machine is a type having a so-called assist time function.

  The set value is changed in each slot machine 1000 in order to change the probability of winning a bonus or small part within the pre-programmed range and to adjust the winning rate value such as the final payout rate and machine discount. This is a value to be set, and six setting values “1” to “6” can be set. Depending on which of the set values of “1” to “6” is set, the amount of game value given to the player is used by the player in the game. It is possible to adjust a play rate value such as a payout rate, which is a ratio of the game value, or a machine discount. The larger the set value, the higher the payout rate and the machine discount.

FIG. 7 is a diagram illustrating an example of a data configuration of the pachinko management database 350.
The pachinko management database 350 stores pachinko management data for managing the pachinko gaming machine 1 for each store.

  The store name is stored in the pachinko management data of each store, the model name of the pachinko gaming machine 1, the manufacturer of the pachinko gaming machine 1, the type of the pachinko gaming machine 1, and the pachinko gaming machine 1 The number of machines installed in the store and a pachinko ID that is identification information for individually identifying the pachinko gaming machine 1 are stored in association with each other.

  The model name is the name of the model of the pachinko gaming machine 1. For example, model names of different pachinko gaming machines 1 such as “Pachinko XXX” and “Pachinko YYY” are stored in the model name.

  The manufacturer is the name of the manufacturer that manufactured the pachinko gaming machine 1 of the model. For example, the name of the manufacturer for each model of the pachinko gaming machine 1 such as “Manufacturer S” or “Manufacturer T” is stored in the manufacturer.

  The type is the type of the pachinko gaming machine 1 of the model. The types of the pachinko gaming machine 1 include, for example, a jackpot probability zone segment type segmented by a jackpot probability zone and a function category type segmented by function.

The jackpot probability zone classification types include a max type, a middle type, a light middle type, a light type (sweet digital type), a minimum type, and the like.
The max type is a type to which the pachinko gaming machine 1 whose hit probability is close to the upper limit hit probability (1/400) determined for the current pachinko gaming machine 1, for example, the hit probability is 1/399 or 1/397. , 1/394 pachinko machines 1 are included in this type.
The middle type is a type to which the pachinko gaming machine 1 having a slightly higher hit probability than the max type belongs. For example, a pachinko gaming machine 1 having a jackpot probability of around 1/300 is included in this type.
A light middle type is a type to which a pachinko gaming machine 1 whose jackpot probability is an intermediate probability between a light type and a middle type belongs, for example, a pachinko gaming machine 1 whose jackpot probability is 1/120 to 1/220. included.
The light type (sweet digital type) is a type to which the pachinko gaming machine 1 having a jackpot probability of about 1/100 belongs.
The minimum type is a type to which the pachinko gaming machine 1 having a jackpot probability of about 1/50 belongs.

  The function classification type includes the first type (so-called digipachi), the second type (so-called blade mono), and the first type / two type mixer.

FIG. 8 is a diagram illustrating an example of a data configuration of the difference count database 360.
The difference count database 360 stores difference count data in which the difference numbers are totaled for each store.
The difference count data for each store stores the store name, date, slot difference count data, and pachinko difference count data.

In the slot difference count total data, a slot ID, difference medal data, and operation time are stored in association with each other for each total time period.
The slot ID corresponds to the slot ID of the slot machine 1000 installed in the store stored in the slot management data.
The difference medal data is time series data of the difference medal of the slot machine 1000 of the slot ID in the total time zone.
The operation time is an operation time of the slot machine 1000 with the slot ID in the total time zone.

In the pachinko difference count data, the pachinko ID, the difference data, and the operation time are stored in association with each other for each time period.
The pachinko ID corresponds to the pachinko ID of the pachinko gaming machine 1 installed in the store stored in the pachinko management data.
The difference ball data is time series data of the difference balls of the pachinko gaming machine 1 with the pachinko ID in the total time zone.
The operating time is the operating time of the pachinko gaming machine 1 with the pachinko ID in the counting time zone.

FIG. 9 is a diagram illustrating an example of a data configuration of the individual aggregation database 370.
The individual total database 370 stores individual total data for each store.
Stored in the individual tabulation data are store names, dates, slot individual tabulation data 371, and pachinko individual tabulation data 372.

  The slot individual total data 371 includes a slot ID, an operation time, a difference medal minimum value, a difference medal maximum value, a difference medal index value, a threshold excess flag, and a threshold excess ratio for each aggregation time zone. Correspondingly stored.

The difference medal minimum value and the difference medal maximum value are the difference medal in the slot machine 1000 of the slot ID corresponding to the time slot of the time difference data stored in the difference medal data of the slot difference count total data, respectively. Minimum and maximum values.
The difference medal index value is a difference index value calculated according to the above-described equation (1) using the minimum value and the maximum value of the difference medal.
The threshold excess flag is a flag that is set to “ON” when the difference medal index value has reached the slot threshold. The threshold excess flag is set to “OFF” in the initial setting.
The threshold excess ratio (%) is the ratio of the slot machines 1000 whose difference medal index value has reached the slot threshold, and “(the number of slot machines with the threshold excess flag set to ON / the number of installed machines) × 100 Is calculated.

  In the pachinko individual tabulation data 372, the pachinko ID, operation time, difference ball minimum value, difference ball maximum value, difference ball index value, threshold excess flag, threshold excess ratio, Are stored in association with each other.

The difference ball minimum value and the difference ball maximum value are the difference ball data of the pachinko machine 1 of the corresponding pachinko ID in the counting time zone in the difference ball data (difference ball time series data) of the pachinko difference count data. Minimum and maximum values.
The difference index value is a difference index value calculated according to the above-described formula (1) using the minimum value and the maximum value of the difference ball.
The threshold excess flag is a flag that is set to “ON” when the difference ball index value has reached the pachinko threshold. The threshold excess flag is set to “OFF” in the initial setting.
The percentage exceeding the threshold (%) is the percentage of the pachinko gaming machine 1 whose difference index value has reached the threshold for pachinko, and “(the number of pachinko gaming machines with the threshold exceeding flag set / ON)” Calculated as “× 100”.

FIG. 10 is a diagram illustrating an example of a data configuration of the total summary database 380. As illustrated in FIG.
The total tabulation database 381 stores total tabulation data 381 for each tabulation time zone.
The total data 381 stores total data corresponding to the type of gaming machine. There are two types of gaming machines, a slot machine 1000 and a pachinko gaming machine 1.

When the gaming machine type is the slot machine 1000, the slot machine 1000 is configured so that it can be tabulated by type, type, store, and set value.
When the gaming machine type is pachinko gaming machine 1, the pachinko gaming machine 1 is configured to be capable of being tabulated by machine type, type, and store.

  FIG. 11 is a view showing an example of the data configuration of various total summary data 381 for the slot machine 1000. Note that numerical values based on the results of the total tabulation are stored in each item column constituting various total tabulation data 381 described below, but in the drawing, each item is blank for simplification.

FIG. 11 (1) shows model-specific slot total data 381A, which is total data of the model-specific slot machine 1000, and the model name, the number of installed machines, and the difference medal index value item are associated with each other. Remembered.
The difference medal index value item includes an average value, a maximum value, a number exceeding the threshold, and a threshold excess ratio of the difference medal index value of the slot machine 1000 of the model.

FIG. 11 (2) shows type total slot total data 381B which is total total data of the slot machines 1000 by type, and stores the type, the number of installed units, and the difference medal index value item in association with each other. Is done.
The difference medal index value items include an average value, a maximum value, a threshold excess number, and a threshold excess ratio of the difference medal index value of the slot machine 1000 of the type.

FIG. 11 (3) shows slot total tabulation data 381C for each store, which is the total tabulation data for the slot machines 1000 for each store. The store name, the number of installed units, and the difference medal index value item are associated with each other. Remembered.
The difference medal index value item includes an average value, a maximum value, a number exceeding the threshold, and a threshold excess ratio of the slot medal index value of the slot machine 1000 installed in the store.

FIG. 11 (4) shows slot total tabulation data 381D by setting value, which is the total tabulation data of the slot machine 1000 by setting value, and the setting value, the number of installed units, and the difference medal index value item correspond to each other. It is memorized.
The difference medal index value item includes an average value, a maximum value, a number exceeding the threshold, and a threshold excess ratio of the difference medal index value of the slot machine 1000 in which the setting value is set.

  The average value of the difference medal index values in the total aggregate data for the above various slots is the average value of the index values for each model, the average value of the index values for each type, the average value of the index values for each store, and the set value. The management device 1250 outputs these average values in an identifiable manner. In addition, the maximum value of the difference medal index value in the total summary data for the various slots described above is the maximum index value for each model, the maximum index value for each type, the maximum index value for each store, and the setting. It corresponds to the maximum value of the index value for each value, and the management device 1250 outputs these maximum values in an identifiable manner.

FIG. 12 is a diagram illustrating an example of a data configuration of various total summary data 381 for the pachinko gaming machine 1.
FIG. 12 (1) shows model-specific pachinko total tabulation data 381P, which is total tabulation data for each type of pachinko gaming machine 1, and associates the model name, the number of installed units, and the difference index value item. Is remembered.
The difference ball index value items include the average value, the maximum value, the number of over-threshold values, and the over-threshold ratio of the difference ball index values of the pachinko gaming machine 1 of the model.

FIG. 12 (2) shows type-specific pachinko total data 381Q, which is total data of pachinko machines 1 by type, with the type, the number of installed units, and the difference index value item associated with each other. Remembered.
The difference ball index value items include the average value, the maximum value, the number of over-threshold values, and the over-threshold ratio of the type of pachinko gaming machine 1.

FIG. 12 (3) shows the pachinko total tabulation data 381R by store, which is the total tabulation data of the pachinko gaming machine 1 by store, and the store name, the number of installed units, and the difference index value item are associated with each other. Is remembered.
The difference ball index value item includes an average value, a maximum value, a number exceeding the threshold, and a threshold excess ratio of the difference ball index value of the pachinko gaming machine 1 installed in the store.

  The average value of the difference index values in the above-mentioned total aggregate data for pachinko machines is equivalent to the average value of the index value for each model, the average value of the index value for each type, and the average value of the index value for each store. The management device 1250 outputs these average values so as to be specified. In addition, the maximum value of the difference index value in the aggregate data for the above various pachinko is the maximum value of the index value for each model, the maximum value of the index value for each type, and the maximum value of the index value for each store. Correspondingly, the management device 1250 outputs these maximum values in a identifiable manner.

  In addition, the number of over-thresholds and the over-threshold ratio in the above-mentioned total data for slots and pachinko are the gaming machines in which the index values based on the minimum difference value and the maximum difference value in a predetermined period of the difference values reach a predetermined value. The management device 1250 outputs the gaming machine information in an identifiable manner.

[1-5. Process flow]
FIG. 13 is a diagram illustrating an example of the flow of management processing executed by the CPU 1252 of the management device 1250 according to the management program 310 stored in the storage device 1254.
First, the CPU 1252 determines whether or not a threshold setting operation has been performed via the input device 1255 (A1), and if it is determined that it has been performed (A1; Yes), determines a setting target gaming machine (A3). If it is determined that it has not been made (A1: No), the CPU 1252 moves the process to A9.

  If the game machine to be set is a “slot machine” (A3; slot machine), the CPU 1252 sets a threshold for slots according to the operation content from the input device 1255 and stores it in the difference index value threshold setting data 320. Slot threshold setting processing is performed (A5). If the setting target gaming machine is a “pachinko gaming machine” (A3; pachinko gaming machine), the CPU 1252 sets a threshold for pachinko according to the operation content from the input device 1255, and the difference index value threshold setting data. The pachinko threshold setting process stored in 320 is performed (A7).

  After A5 or A7, the CPU 1252 determines whether or not game data has been received from the hall computer 1200 of the store (A9). If it is determined that the game data has been received (A9; Yes), the received game data is stored by store. It is stored in the game database 330 (A11). If it is determined that it has not been received (A9; No), the CPU 1252 shifts the processing to A15.

  Next, the CPU 1252 performs a difference count process (A13). Specifically, for each slot machine 1000 installed in the store for the total time zone specified by the administrator based on the store-specific game data stored in the store-specific game database 330 Then, the slot difference count total data is generated. Specifically, based on the time-series number of IN medals and OUT medals in the total time zone, a difference medal at each time is calculated, and a slot difference number in which a slot ID, difference medal data, and operating time are associated with each other. Generate aggregate data.

  In addition, the CPU 1252 generates pachinko difference count data for each pachinko gaming machine 1 installed in the store for the total time zone specified by the administrator. Specifically, a difference ball at each time is calculated based on the number of shot balls and the number of prize balls in time series in the total time zone, and a pachinko difference in which a pachinko ID, difference data, and operation time are associated with each other. Generate count data.

  Then, the CPU 1252 collects the store name, date, slot difference count data, and pachinko difference count data, and stores them in the difference count database 360 as the difference count data of the store.

  Next, the CPU 1252 determines whether or not it is the individual count timing (A15). For example, the individual counting timing may be set to a predetermined time unit timing (one hour unit, two hour unit, half day unit, one day unit) or a timing at which an instruction operation for performing individual tabulation is performed by the administrator. it can.

  If it is determined that it is the individual aggregation timing (A15; Yes), the CPU 1252 executes the individual aggregation processing according to the individual aggregation program 311 stored in the storage device 1254 (A17). The individual tabulation process will be described later in detail. If it is determined that it is not the individual count timing (A15; No), the CPU 1252 shifts the processing to A19.

  Next, the CPU 1252 determines whether or not it is the total count timing (A19). Similar to the individual counting timing, the total counting timing is, for example, a timing in a predetermined time unit (1 hour unit, 2 hour unit, half day unit, 1 day unit) or an instruction operation for performing total tabulation by an administrator. Timing can be defined.

  If it is determined that it is the total count timing (A19; Yes), the CPU 1252 executes a total count process according to the total count program 312 stored in the storage device 1254 (A21). The total tabulation process will be described later in detail. If it is determined that it is not the total count timing (A19; No), the CPU 1252 shifts the processing to A23.

  Next, the CPU 1252 determines whether or not to end the process (A23). For example, when an instruction operation to turn off the power supply of the management apparatus is performed, it is determined that the process is to be ended. When the process is continued (A23; No), the CPU 1252 returns the process to A1. On the other hand, when ending the process (A23; Yes), the CPU 1252 ends the management process.

FIG. 14 is a flowchart illustrating an example of the flow of individual tabulation processing.
First, the CPU 1252 controls the display device 1256 to start displaying the individual aggregation screen (B1). The individual aggregation screen is a screen for the administrator to perform individual aggregation. In addition, illustration is abbreviate | omitted about an individual total screen. Then, the CPU 1252 sets the total time zone in accordance with the manager's instruction operation (B3).

  Next, the CPU 1252 determines the aggregation target gaming machine in accordance with the manager's instruction operation (B5). If the aggregation target gaming machine is a slot machine (B5; slot machine), the CPU 1252 executes the process of loop A for each store (B7 to B21). In the loop A, the CPU 1252 executes the process of the loop B for each of the slot machines 1000 installed in the store (B9 to B19).

  In the loop B, the CPU 1252 refers to the slot difference count data of the store stored in the difference count database 360, and for the slot machine 1000, the maximum value of the difference medals in the count time zone set in B3 and The minimum value is specified (B11). Then, the CPU 1252 calculates a difference medal index value according to the equation (1) using the specified maximum and minimum values of the difference medal (B13).

  Next, the CPU 1252 determines whether or not the difference medal index value calculated in B13 has reached the slot threshold stored in the difference index value threshold setting data 320 (B15), and determines that it has been reached. If so (B15; Yes), the threshold excess flag of the slot machine 1000 is set to “ON” (B17). Then, the CPU 1252 shifts the processing to the next slot machine 1000. If it is determined that the difference medal index value has not reached the slot threshold value (B15; No), the CPU 1252 shifts the processing to the next slot machine 1000.

  If the processing of B11 to B17 is performed for all slot machines 1000 of the store, the CPU 1252 ends the processing of loop B (B19). Then, the CPU 1252 shifts the processing to the next store. Then, if the process of loop B is performed for all stores, the CPU 1252 ends the process of loop A (B21).

  On the other hand, if the aggregation target gaming machine is a pachinko gaming machine (B5; pachinko gaming machine), the CPU 1252 executes processing of loop C for each store (B23 to B37). In the loop C, the CPU 1252 executes the process of the loop D for each pachinko gaming machine 1 installed in the store (B25 to B35).

  In the loop D, the CPU 1252 refers to the pachinko difference count data of the store stored in the difference count database 360, and for the pachinko gaming machine 1, the maximum value of the difference balls in the count time zone set in B3. And the minimum value is specified (B27). And CPU1252 calculates a difference ball index value according to Formula (1) using the specified maximum value and minimum value of the difference ball (B29).

  Next, the CPU 1252 determines whether or not the difference ball index value calculated in B29 has reached the pachinko threshold value stored in the difference number index value threshold setting data 320 (B31), and determines that it has been reached. If so (B31; Yes), the threshold excess flag of the pachinko gaming machine 1 is set to “ON” (B33). Then, the CPU 1252 shifts the processing to the next pachinko gaming machine 1. If it is determined that the difference index value has not reached the pachinko threshold (B31; No), the CPU 1252 moves the process to the next slot machine 1000.

  If the process of B27-B33 is performed about all the pachinko machines 1 of the said store, CPU1252 will complete | finish the process of the loop D (B35). Then, the CPU 1252 shifts the processing to the next store. If the processing of loop D is performed for all stores, the CPU 1252 ends the processing of loop C (B37).

  Data aggregated by performing the processing of loop A or loop C is stored in the individual aggregation database 370 as individual aggregation data. Then, the CPU 1252 updates the display of the individual aggregation screen based on the aggregation result (B39).

  Next, the CPU 1252 determines whether or not to end the counting (B41). For example, when an instruction operation for ending individual aggregation is performed by the administrator, it is determined that the individual aggregation is ended. When continuing the individual aggregation (B41; No), the CPU 1252 returns the process to B3. On the other hand, when the individual tabulation is to be ended (B41; Yes), the CPU 1252 ends the individual tabulation processing.

FIG. 15 is a flowchart illustrating an example of the flow of the total tabulation process.
First, the CPU 1252 controls the display device 1256 to start displaying the total tabulation screen (C1). The total tabulation screen is a screen for the administrator to perform total tabulation. Note that illustration of the total tabulation screen is omitted. Then, the CPU 1252 sets the total time zone according to the instruction operation by the administrator (C3).

  Next, the CPU 1252 determines the aggregation target gaming machine in accordance with the manager's instruction operation (C5). If the counting target gaming machine is a slot machine (C5; slot machine), the CPU 1252 determines the counting target items in accordance with an instruction operation by the administrator (C7).

  If the aggregation target item is “model” (C7; model), the CPU 1252 executes the model-specific slot total aggregation processing (C9). Specifically, based on the slot management data stored in the slot management database 340, the individual tabulation 1000 related to the slot machine 1000 of each slot ID of each store stored in the slot individual tabulation data 371 of the individual tabulation database 370. Sort data by model. Then, for each model, the maximum value of the difference medal index value is specified, and the average value of the difference medal index values is calculated. Further, for each model, the number of slot machines 1000 for which the threshold excess flag is set to “ON” is counted to determine the number exceeding the threshold, and the number of excess thresholds relative to the number of installed slot machines 1000 of the model is determined. The ratio is calculated as a threshold excess ratio. Then, the model-specific slot total tabulation data 381A in which the model name, the number of installed units, and the difference medal index value item are associated with each other is generated and stored in the total tabulation database 380.

  If the tabulation target item is “type” (C7; type), the CPU 1252 executes type-based slot total tabulation processing (C11). Specifically, based on the slot management data stored in the slot management database 340, the individual tabulation 1000 related to the slot machine 1000 of each slot ID of each store stored in the slot individual tabulation data 371 of the individual tabulation database 370. Sort data by type. Then, for each type, the maximum value of the difference medal index values is specified, and the average value of the difference medal index values is calculated. Further, for each type, the number of slot machines 1000 for which the threshold value excess flag is set to “ON” is counted to determine the number exceeding the threshold value. The ratio is calculated as a threshold excess ratio. Then, the type total slot total data 381B in which the type, the number of installed units, and the difference medal index value items are associated with each other is generated and stored in the total tabulation database 380.

  If the aggregation target item is “store” (C7; store), the CPU 1252 executes a store-specific slot total aggregation process (C13). Specifically, based on the slot management data stored in the slot management database 340, the individual tabulation 1000 related to the slot machine 1000 of each slot ID of each store stored in the slot individual tabulation data 371 of the individual tabulation database 370. Sort data by store. Then, for each store, the maximum value of the difference medal index value is specified, and the average value of the difference medal index values is calculated. In addition, for each store, the number of slot machines 1000 for which the threshold excess flag is set to “ON” is counted to determine the number exceeding the threshold, and the number of excess thresholds relative to the number of slot machines 1000 installed in each store is determined. The ratio is calculated as a threshold excess ratio. Then, the slot total tabulation data 381C for each store in which the store name, the number of installed units, and the difference medal index value items are associated with each other is generated and stored in the total tabulation database 380.

  If the aggregation target item is “setting value” (C7; setting value), the CPU 1252 executes slot total aggregation processing for each setting value (C15). Specifically, based on the slot management data stored in the slot management database 340, the individual tabulation 1000 related to the slot machine 1000 of each slot ID of each store stored in the slot individual tabulation data 371 of the individual tabulation database 370. Sort data by set value. Then, for each set value, the maximum value of the difference medal index value is specified, and the average value of the difference medal index values is calculated. Further, for each set value, the number of slot machines 1000 for which the threshold excess flag is set to “ON” is counted to determine the number exceeding the threshold, and the set value exceeds the threshold for the number of installed slot machines 1000. The ratio of the number is calculated as the threshold excess ratio. Then, the total aggregate data 381D for each set value in which the set value, the number of installed units, and the difference medal index value item are associated with each other is generated and stored in the general aggregate database 380.

  On the other hand, if the aggregation target gaming machine is a pachinko gaming machine (C5; pachinko gaming machine), the CPU 1252 determines the aggregation target item in accordance with an instruction operation by the administrator (C17).

  If the aggregation target item is “model” (C17; model), the CPU 1252 executes the model-specific pachinko total aggregation process (C19). Specifically, based on the pachinko management data stored in the pachinko management database 350, the individual pachinko machine 1 of each pachinko ID of each store stored in the pachinko individual total data 372 of the individual total database 370 Sort the aggregated data by model. For each model, the maximum value of the difference index value is specified, and the average value of the difference index values is calculated. Further, for each model, the number of pachinko gaming machines 1 for which the threshold excess flag is set to “ON” is counted to determine the number exceeding the threshold, and the threshold exceeds the number of installed pachinko gaming machines 1 of the model. The ratio of the number is calculated as the threshold excess ratio. Then, model-specific pachinko total tabulation data 381P in which the model name, the number of installed units, and the difference index value items are associated with each other is generated and stored in the total tabulation database 380.

  If the tabulation target item is “type” (C17; type), the CPU 1252 executes a pachinko total tabulation process by type (C21). Specifically, based on the pachinko management data stored in the pachinko management database 350, the individual pachinko machine 1 of each pachinko ID of each store stored in the pachinko individual total data 372 of the individual total database 370 Sort aggregated data by type. Then, for each type, the maximum value of the difference index value is specified, and the average value of the difference index values is calculated. Further, for each type, the number of pachinko gaming machines 1 for which the threshold excess flag is set to “ON” is counted to determine the number exceeding the threshold, and the threshold is exceeded with respect to the number of installed pachinko gaming machines 1 of that type. The ratio of the number is calculated as the threshold excess ratio. And the pachinko total tabulation data 381Q classified by type which matched the type, the number of installation, and the difference index value item is produced | generated, and it memorize | stores in the total tabulation database 380.

  If the aggregation target item is “store” (C17; store), the CPU 1252 executes a pachinko comprehensive aggregation process for each store (C23). Specifically, based on the pachinko management data stored in the pachinko management database 350, the individual pachinko machine 1 of each pachinko ID of each store stored in the pachinko individual total data 372 of the individual total database 370 Sort the aggregated data by store. And about each store, while specifying the maximum value of difference index value, the average value of difference index value is calculated. Further, for each store, the number of pachinko gaming machines 1 whose threshold excess flag is set to “ON” is counted to determine the number exceeding the threshold, and the threshold is exceeded with respect to the number of pachinko gaming machines 1 installed in the store. The ratio of the number is calculated as the threshold excess ratio. Then, the pachinko total tabulation data 381R for each store in which the store name, the number of installed units, and the difference index value items are associated with each other is generated and stored in the total tabulation database 380.

  The data aggregated by performing C9 to C15 is stored in the total aggregation database 380 as slot total aggregation data 381 (381A to 381D). Moreover, the data totaled by performing C19-C23 is memorize | stored in the total total database 380 as pachinko total total data 381 (381P-381R). Then, the CPU 1252 updates the display of the total tabulation screen based on the tabulation result (C25).

  Next, the CPU 1252 determines whether or not to end the counting (C27). For example, it is determined that the total tabulation is to be ended when the manager performs an instruction operation to end the total tabulation. When continuing the total tabulation (C27; No), the CPU 1252 returns the process to C3. On the other hand, when the total tabulation is ended (C27; Yes), the CPU 1252 ends the total tabulation processing.

  It is possible to print from the printing apparatus 1258 the individual aggregation screen on which the result of the individual aggregation is displayed in the individual aggregation processing and the total aggregation screen on which the result of the total aggregation is displayed in the total aggregation processing. Specifically, when the CPU 1252 determines that the individual total screen or the total count screen is printed via the input device 1255, the CPU 1252 controls the printing device 1258 to print the screen. In other words, the aggregated data aggregated by the individual aggregation process or the total aggregation process can be printed out from the printing apparatus 1258.

  In addition, the aggregated data aggregated by the individual aggregation process and the total aggregation process can be transmitted to the hall computer 1200 of each store via the communication unit 1257. Specifically, the CPU 1252 controls the communication unit 1257 to transmit the total data to the communication unit 1207 of the hall computer 1200 when it is determined that the total data transmission operation has been performed via the input device 1255.

[1-6. Effect]
In the first gaming system, the management device 1250 manages the pachinko gaming machine 1 and the slot machine 1000 as a plurality of gaming machines. Specifically, the CPU 1252 determines the number of OUT medals and the number of prize balls given to the player who plays the game machine, the number of IN medals and the number of hits used as the game value used by the player. The difference medals and difference balls that are the difference values from the number of balls included are counted. Then, based on the difference medal and difference ball totaling results, the CPU 1252 determines the difference medal index value, which is an index value based on the minimum value and the maximum value in the aggregation time period that is a predetermined period, of the difference medal and difference ball, and Aggregate the difference index value. Then, the CPU 1252 aggregates gaming machine information related to gaming machines that have reached a difference index value that is a predetermined difference medal index value. Further, the CPU 1252 variably sets the difference index value based on the threshold setting operation.

  The gaming machine information collected by the CPU 1252 is displayed and output by the display device 1256. Specifically, the display device 1256 includes, for example, the number of over-thresholds and the over-threshold ratio of the slot machine 1000 in which the difference medal index value has reached the slot threshold and the pachinko gaming machine 1 in which the difference ball index value has reached the pachinko threshold. Is output. The gaming machine information is printed out by the printing device 1258 and transmitted (output) from the communication unit 1257 to the hall computer 1200.

  According to this, the game machine information related to the gaming machine in which the index value based on the minimum difference value and the maximum difference value in the predetermined period of the difference value between the granted game value and the used game value has reached the predetermined value can be specified. By doing so, it is possible to effectively grasp the rate and performance of the gaming machine. Further, by making it possible to set a predetermined value, it is possible to specify gaming machine information related to a gaming machine whose index value has reached a predetermined value using a plurality of predetermined values.

In the present embodiment, the management device 1250 counts the difference for a plurality of stores in which gaming machines are installed, and outputs the difference index value for the gaming machines installed in the plurality of stores so as to be specified. .
According to this, compared with the case of grasping | ascertaining the rate and performance of the gaming machine in one store, it is possible to accurately grasp the rate and performance of the gaming machine.

[1-7. Modified example]
[1-7-1. Items subject to aggregation]
In the above-described embodiment, the total target item has been described as any one of the model type, the type, the store, and the set value in the total tabulation related to the slot machine 1000, but the tabulation target item is not limited to these. . For example, for the first gaming machine in which the first setting value is set, the maximum difference value index value among the second gaming machines in which the second setting value smaller than the first setting value is set is the first gaming machine. It is also possible to perform aggregation using a second gaming machine larger than that as an aggregation target item.

  Specifically, for the slot machine 1000 installed in each store, for example, the slot machine 1000 set with the setting value “6” is set as the first slot machine, and the slot machine set with the setting value “5” is set. Let 1000 be the second slot machine. Then, among the second slot machines, a second slot machine having a maximum difference index value larger than that of the first slot machine is specified, and the number of second slot machines and the number of installed stores in each store are set. The percentage of the second slot machine in the total may be aggregated and output in an identifiable manner.

  Similarly, the slot machine 1000 set with the setting value “5” is set as the first slot machine, the slot machine 1000 set with the setting value “4” is set as the second slot machine, or the setting value “4” is set. The slot machine 1000 in which the setting value is set as the first slot machine and the slot machine 1000 in which the setting value “3” is set may be counted as the second slot machine. Further, the slot machine 1000 in which the setting value “3” is set is set as the first slot machine, the slot machine 1000 in which the setting value “2” is set is set as the second slot machine, or the setting value “2” is set. The slot machine 1000 that has been set may be set as the first slot machine, and the slot machine 1000 in which the setting value “1” is set may be counted as the second slot machine.

  According to the above, it is possible to identify a slot machine with a large difference index value even though the setting is low, and a slot machine that can be shown to the player as if the output rate value is high even with a low setting. I can grasp it.

  In addition, the slot machine 1000 in which the same set value is set may be aggregated by model, type, and store. That is, it is good also as aggregating by using the same setting machine classification, the same setting type distinction, and the same setting store different amusement machine as an aggregation object item.

FIG. 16A is a diagram illustrating an example of a data configuration of the same set machine type slot total tabulation data 381E, which is the total tabulation data when the tabulation target items are set to the same set machine type.
In the same set machine type slot total data 381E, the model name of the slot machine 1000, the set value, the installed number, and the difference medal index value item are stored in association with each other.

  The slot machine 1000 of each model is different from the above-described embodiment in that the installed number and the difference medal index value item can be totaled for each of the set values “1” to “6”. That is, for the slot machine 1000 in which the same set value is set, total tabulation can be performed for each model.

  It should be noted that, even when performing total tabulation for the same setting type and for the same setting store, the same data as the above-mentioned same set machine type slot total tabulation data may be generated. Specifically, the same set type-specific slot total data and the same-set store-specific total data may be generated and stored in the total data database 380.

  FIG. 16 (2) illustrates a part of C3 to C25 in FIG. 15 extracted from the total tabulation process executed by the CPU 1252 of the management apparatus 1250 in this case.

  After C3, the CPU 1252 determines the aggregation target item in C7, and if it is determined that the aggregation target item is the same setting model (C7: the same setting model), executes the same setting machine type slot total aggregation processing ( C31). Specifically, based on the slot management data stored in the slot management database 340, the individual tabulation 1000 related to the slot machine 1000 of each slot ID of each store stored in the slot individual tabulation data 371 of the individual tabulation database 370. Sorts data by model with the same setting value. Then, for each model set with the same setting value, the maximum value of the difference medal index value is specified, and the average value of the difference medal index values is calculated. Further, for each model set with the same setting value, the number of slot machines 1000 whose threshold excess flag is set to “ON” is counted to determine the number exceeding the threshold, and the slot machine 1000 of the model is determined. The ratio of the number exceeding the threshold to the number of installed units is calculated as the ratio exceeding the threshold. Then, the same set value machine type slot total tabulation data 381E in which the model name, the set value, the number of installed units, and the difference medal index value item are associated is generated and stored in the total tabulation database 380.

  If it is determined that the tabulation target items are the same setting type (C7: the same setting model), the CPU 1252 executes the slot setting tabulation process for the same setting type (C33). Specifically, based on the slot management data stored in the slot management database 340, the individual tabulation 1000 related to the slot machine 1000 of each slot ID of each store stored in the slot individual tabulation data 371 of the individual tabulation database 370. Sort data by type with the same set value. Then, for each type for which the same set value is set, the maximum value of the difference medal index value is specified, and the average value of the difference medal index values is calculated. Further, for each type for which the same set value is set, the number of slot machines 1000 for which the threshold excess flag is set to “ON” is counted to determine the number exceeding the threshold, and the number of slot machines 1000 of that type is determined. The ratio of the number exceeding the threshold to the number of installed units is calculated as the ratio exceeding the threshold. Then, the slot total tabulation data for the same set value type in which the type, the set value, the number of installed units, and the difference medal index value item are associated with each other is generated and stored in the total tabulation database 380.

  If it is determined that the aggregation target item is the same setting store (C7: same setting store), the CPU 1252 executes the same setting machine type slot total aggregation processing (C35). Specifically, based on the slot management data stored in the slot management database 340, the individual tabulation 1000 related to the slot machine 1000 of each slot ID of each store stored in the slot individual tabulation data 371 of the individual tabulation database 370. The data is sorted by store for the slot machine 1000 in which the same set value is set. Then, for each store, the maximum value of the difference medal index value is specified, and the average value of the difference medal index values is calculated. In addition, for each slot machine 1000 for which the same set value is set, for each store, the number of slot machines 1000 whose threshold excess flag is set to “ON” is counted to determine the number exceeding the threshold, The ratio of the number exceeding the threshold to the number of installed slot machines 1000 in the store is calculated as the ratio exceeding the threshold. Then, the total aggregate data for the same set value stores by associating the store name, the set value, the number of installed units, and the difference medal index value item is generated and stored in the general aggregate database 380.

  If the processing of C31 to C35 is performed, the CPU 1252 shifts the processing to C25. The subsequent processing is the same as in FIG.

  The difference index value calculated according to the equation (1) is not proportional to the set value set in the slot machine 1000. That is, just because the set value is high does not necessarily mean that the difference index value is actually high. For example, the maximum value of the difference index value of the slot machine 1000 in which the odd set values (“1”, “3”, “5”) are set is the even set values (“2”, “4”, “6”) may be larger than the maximum difference index value of the slot machine 1000 for which “6”) is set. In this case, the output rate value of the slot machine 1000 set with an odd set value is set to be lower than the output rate value of the slot machine 1000 set with an even set value. At first glance, there may be a case where the slot machine 1000 in which the odd setting value is set appears more out than the slot machine 1000 in which the even setting value is set.

  For example, considering the turnout rate in one business day, a gaming machine with a large difference index value has a positive balance of a player who plays a game during that time period compared to a gaming machine with a small difference index value. Therefore, a gaming machine with a large difference index value can increase the player's willingness to play even if the payout rate is actually negative.

  As described above, for slot machines 1000 with the same set value set, the difference index value is set for each set value, model type, type unit, and store unit by performing aggregation for each model, type, and store. Therefore, it is possible for the store side to know which set value of the slot machine 1000 actually has a high output rate value.

  In the above-described embodiment, only for the slot machine 1000, depending on which setting value is set, the output rate value that is the ratio of the number of granted game media to the number of used game media However, as with the slot machine 1000, the pachinko gaming machine 1 can be set to adjust the output rate value, and the above-described total tabulation is performed for each setting of the pachinko gaming machine 1. You may make it perform.

[1-7-2. Count by difference index value threshold]
In the above embodiment, as the difference index value threshold value, only one difference index value threshold value can be set for each of the pachinko gaming machine 1 and the slot machine 1000, but a plurality of difference index value threshold values are set. It may be possible to perform aggregation for each difference index value threshold.

FIG. 17 is a diagram illustrating an example of a data configuration of the difference index value threshold setting data 320 in this case.
In the difference index value threshold setting data 320, a slot threshold and a pachinko threshold are defined as the difference index value threshold, but the first slot threshold to the third slot threshold are set as the slot threshold. Three threshold values are defined. For example, “2000” is set as the first slot threshold, “4000” is set as the second slot threshold, and “6000” is set as the third slot threshold.

  In addition, three threshold values of a first pachinko threshold value to a third pachinko threshold value are defined as the pachinko threshold values. For example, “3000 rounds” are defined as the first pachinko threshold, “6000 rounds” as the second pachinko threshold, and “9000 rounds” as the third pachinko threshold.

  When a plurality of difference index value thresholds are set as described above, for example, total aggregation is performed for each set difference index value, and the slot machine 1000 and the difference ball whose difference medal index value has reached the threshold for each slot. If the gaming machine information related to the pachinko gaming machine 1 whose index value has reached each pachinko machine threshold, for example, the number of over-thresholds and the over-threshold ratio described in the above embodiment are aggregated and can be output for each difference index value. Good.

[1-7-3. Calculation of difference value]
In the above embodiment, the CPU 1252 of the management device 1250 has been described as calculating the difference number (difference ball and difference medal), but instead, the CPU 1202 of the hall computer 1200 may calculate the difference number. . In this case, the hall computer 1200 includes the calculated difference number in the game data for each store and transmits it to the management device 1250. Then, the CPU 1252 of the management device 1250 may count the difference number of each gaming machine in each store based on the difference number included in the store-specific data received from the hall computer 1200 of each store.

[2. Second Embodiment]
[2-1. Game system]
FIG. 18 is a diagram illustrating an example of a system configuration of a second gaming system in the second embodiment.
In the second gaming system, unlike the first gaming system, the management center (management device 1250) is not provided, and the hall computer 1200 installed in each store serves as a management device, which is a pachinko gaming machine in the own store. 1 and the slot machine 1000 are aggregated. In this case, the aggregation performed by the hall computer 1200 is the same as the individual aggregation and the total aggregation described in the first embodiment.

  Specifically, the CPU 1202 of the hall computer 1200 calculates and counts the difference numbers (difference balls and difference medals) based on signals input from the pachinko gaming machine 1 and the slot machine 1000 installed in its own store, The difference index value (difference index value and difference medal index value) in the aggregation time zone is calculated and aggregated individually. Then, using the tabulation result of individual tabulation, as in the above embodiment, in the case of the slot machine 1000, total tabulation is performed for each model, each type, and each set value, and in the case of the pachinko gaming machine 1, Execute total tabulation for each model and type. Then, the CPU 1202 causes the display device 1206 to display and output the individual total data generated by the individual total and the total total data totaled by the total total. Further, the CPU 1202 causes the printing apparatus 1208 to print out the individual total data and the total total data.

[2-2. Aggregation method]
Specifically, the CPU 1202 of the hall computer 1200, for each pachinko gaming machine 1 installed in the store, similarly to the first embodiment, the number of prize balls and the number of shots based on the prize ball signal and the shot signal. The number of balls is specified, and the difference balls are calculated and totaled using the specified number of winning balls and the number of shot balls. Then, the CPU 1202 uses the calculated difference ball to calculate a difference ball index value in a predetermined period according to the formula (1), and determines the pachinko gaming machine 1 in which the difference ball index value has reached the pachinko threshold, Aggregate by type. Then, the CPU 1202 causes the display device 1206 to display and output the aggregated data, causes the printing device 1208 to print out, and transmits (outputs) the communication data from the communication unit 1207 to the gaming device provided in the own store.

  Similarly, the CPU 1202 of the hall computer 1200 specifies the number of OUT medals and the number of IN medals for each slot machine 1000 installed in the store, based on the medal OUT signal and the medal IN signal, as in the first embodiment. Then, using the specified OUT medal number and IN medal number, the difference medal is calculated and tabulated. Then, the CPU 1202 uses the calculated difference medal to calculate the difference medal index value in a predetermined period according to the equation (1), and determines the slot machine 1000 whose difference medal index value has reached the slot threshold as the model type or type. Separate to the set value. Then, the CPU 1202 causes the display device 1206 to display and output the aggregated data, causes the printing device 1208 to print out, and transmits (outputs) the communication data from the communication unit 1207 to the gaming device provided in the own store.

  As described in the modification of the first embodiment, the slot machines 1000 whose difference medal index value has reached the slot threshold are tabulated by the same setting machine type or the same setting type, and the tabulated result is displayed. It may be displayed on the device 1206.

[2-3. Effect]
In this embodiment, the hall computer 1200 counts the difference for one store where the gaming machine is installed, and the difference index value for a predetermined period is set to a predetermined threshold for the gaming machine installed in the store. Aggregate gaming machine information about the reached gaming machines and output them in an identifiable manner.
According to this, it is possible to grasp the exit rate and performance of gaming machines in one store.

[3. Third Embodiment]
[3-1. Game system]
FIG. 19 is a diagram illustrating an example of a system configuration of a third gaming system in the third embodiment.
In the third gaming system, corresponding to the pachinko gaming machine 1 and the slot machine 1000, a calling lamp device 1300 is provided on these gaming machines.

  The calling lamp device 1300 is a type of gaming device and information display device that has a horizontally long box shape when viewed from the front. The calling lamp device 1300 is used by a player playing a game on a gaming machine to call a store clerk. Receiving a signal from the machine, game information relating to the gaming machine can be displayed on a display 1302 provided on the front surface.

  In the present embodiment, the hall computer 1200 includes two communication units, a first communication unit 1207 and a second communication unit 1208. The first communication unit 1207 is configured to be able to communicate with the management device 1250, transmits game data for each store to the management device 1250, and receives aggregated data from the management device 1250.

  In addition, the first communication unit 1207 inputs a machine identification signal output from the pachinko gaming machine 1 and the slot machine 1000 via the platform terminal 1220. Unlike the embodiment described above, no prize ball signal is output from the pachinko gaming machine 1 to the hall computer 1200, and no driving signal is output from the out ball counter 1120 to the hall computer 1200. Only the identification signal is output from the pachinko gaming machine 1 to the hall computer 1200. Similarly, in the slot machine 1000, the medal OUT signal and the medal IN signal are not output from the slot machine 1000 to the hall computer 1200, and only the machine identification signal is output from the slot machine 1000 to the hall computer 1200.

  In addition, a prize ball signal output from the pachinko gaming machine 1 is input to the calling lamp device 1300, and a driving signal output from the out ball counter 1120 is input to the calling lamp device 1300. Further, the medal OUT signal and the medal IN signal output from the slot machine 1000 are input to the calling lamp device 1300.

  In this case, the CPU of the call lamp device 1300 specifies the number of prize balls as the number of game media to be awarded and the number of balls to be in play as the number of game media to be used based on the input prize ball signal and the shot signal. Further, the CPU of the calling lamp device 1300 specifies the number of OUT medals as the number of game media to be awarded and the number of IN medals as the number of game media to be used based on the input medal OUT signal and medal IN signal.

  The second communication unit 1208 is communicably connected to a calling lamp device 1300 provided corresponding to the gaming machine. The second communication unit 1208 inputs the number of prize balls and the number of hit balls from the calling lamp device 1300 provided corresponding to the pachinko gaming machine 1 via the platform terminal 1220. Further, the second communication unit 1208 inputs the number of OUT medals and the number of IN medals from the calling lamp device 1300 provided corresponding to the slot machine 1000 via the base terminal 1220.

[3-2. Aggregation method]
In the third gaming system, the CPU 1202 of the hall computer 1200 receives a prize ball output from a call lamp device 1300 provided corresponding to each gaming machine installed in the own store that is input to the second communication unit 1208. Store-specific game data relating to each gaming machine installed in the store is generated using the number, the number of balls to be hit, the number of OUT medals, and the number of IN medals. Then, the CPU 1202 transmits the generated store-specific game data from the first communication unit 1207 to the management device 1250. And CPU1252 of the management apparatus 1250 is based on the game data according to store received from the hall computer 1200 of a some store. Individual tabulation and total tabulation are performed using a method similar to the method described in the first embodiment.

That is, in the third gaming system, unlike the first gaming system, the management device 1250 does not perform individual tabulation and total tabulation based on signals output from each gaming machine of a plurality of stores, Individual tabulation and total tabulation are performed based on information output from a call lamp device 1300, which is a type of gaming device provided corresponding to each gaming machine in the store.
Aggregate.

[3-3. Effect]
In the third gaming system, a call lamp device 1300, which is a type of gaming device, is provided for each of a plurality of gaming machines. The management device 1250 has a hall computer 1200 installed in each of a plurality of stores, with information indicating the number of game media granted to a player who plays a game machine and the number of game media used by the player for the game. Is received from the calling lamp apparatus 1300. Then, the management device 1250 calculates and counts the difference numbers based on the information received from the calling lamp device 1300, performs individual tabulation and total tabulation, and outputs the tabulation results in an identifiable manner.
According to this, the difference between the number of granted game media and the number of used game media based on the information that can be specified from the game device provided for the gaming machine and the number of granted game media and the number of used game media. Numbers can be aggregated. In addition, the administrator of the management device 1250 can grasp the rate and performance of gaming machines in a plurality of stores.

[3-4. Modified example]
[3-4-1. Game equipment]
In the third gaming system, a card unit 1100 may be provided as a gaming device corresponding to the gaming machine instead of the calling lamp device 1300.

FIG. 20 is a diagram illustrating an example of a system configuration of a third gaming system as a modified example.
In the third gaming system, a card unit 1100 is provided next to these gaming machines corresponding to the pachinko gaming machine 1 and the slot machine 1000.

  The card unit 1100 is a type of gaming device and recording medium processing device that has a vertically long box shape when viewed from the front. Details will be described later with reference to FIG. 21 and FIG. 22, but the card unit 1100 can be used for a visitor card, which is a game recording medium issued to a visitor who has not registered as a member in the game hall, or in a game hall. A membership card, which is a game recording medium issued to a registered member player, is accepted and specified from the visitor card or the game value identification information (prepaid balance or card balance) recorded on the membership card. Based on the value of the valuable value, the processing for renting game media used for gaming on the gaming machine and the gaming media acquired by gaming on the gaming machine are counted. A process of paying out game media within the range of the number of game media is performed.

  In this case, similarly to the third gaming system described with reference to FIG. 19, the management device 1250 uses a card computer 1100 provided corresponding to the gaming machine of the store via the hall computer 1200 installed in each store. Information that can specify the number of granted game media and the number of used game media is received. Then, the management device 1250 calculates and counts the difference number based on the received information that can specify the number of granted game media and the number of used game media, and similarly to the above-described embodiment, Aggregation and total aggregation.

[3-4-2. Aggregation subject]
In the third gaming system shown in FIGS. 19 and 20, the hall computer 1200 counts the difference between the number of granted game media and the number of used game media and outputs it in an identifiable manner, similar to the second game system. You may make it do. In other words, the hall computer 1200 targets all the gaming machines installed in the store, and the number of game media and the game media used received from the calling lamp device 1300 and the card unit 1100 provided corresponding to each gaming machine. The number of differences may be calculated and aggregated based on information that can identify the number, the individual aggregation and the total aggregation described above may be performed, and the aggregation result may be output in an identifiable manner.

[3-4-3. Information that can specify the number of granted game media and the number of game media used]
The above gaming device may output difference information to the hall computer 1200 as information that can specify the number of granted game media and the number of game media to be used. Specifically, as shown in FIG. 19 and FIG. 20, instead of the calling lamp device 1300 or the card unit 1100 provided corresponding to the pachinko gaming machine 1 outputting the number of winning balls and the number of balls to be hit, The difference ball may be output to the hall computer 1200. Further, the calling lamp device 1300 and the card unit 1100 provided corresponding to the slot machine 1000 may output the difference medal to the hall computer 1200 instead of outputting the OUT medal number and the IN medal number.

[3-4-4. Detection of number of game media granted and number of game media used by sensor]
In the above-described embodiment, the gaming device has been described as receiving a signal from the corresponding gaming machine and identifying the number of granted game media and the number of used game media. However, instead of this, the gaming apparatus may autonomously detect the number of game media to be used and the number of game media to be used by a sensor.

  Specifically, for example, the number of game media granted to a player by a prize ball is counted as the number of granted game media, and a predetermined number of game media possessed by the player (held ball, possession medal) A configuration is possible in which the card unit 1100 includes a counting payout unit that performs control for paying out game media as the number of game media used.

  In this case, the counting payout unit functions as a sensor that detects the number of granted game media and the number of used game media. Then, the card unit 1100 may output the number of granted game media and the number of used game media detected by the counting payout unit to the hall computer 1200. According to this, the card unit 1100 does not need to input a signal from the gaming machine, and can detect the number of game media used and the number of game media used by the built-in sensor.

[3-4-5. Information transmitted by gaming device]
Unlike the third embodiment, the management device 1250 and the hall computer 1200 obtain some of the information necessary for the difference number and the difference index value to be aggregated. The game information such as 1100 may be transmitted, and the remaining information may be transmitted from another device. That is, the configuration is not limited to a configuration in which all information necessary for the management device 1250 and the hall computer 1200 to perform aggregation is transmitted from the gaming device, but a configuration in which some information is transmitted from the gaming device may be employed.

  For example, for the pachinko gaming machine 1, information that can specify the number of prize balls is transmitted from the gaming device to the hall computer 1200, and information that can specify the number of shot balls from the out ball counter 1120. May be transmitted to the hall computer 1200.

[4. Fourth Embodiment]
In the fourth embodiment, the gaming machine according to the present invention includes an encapsulated pachinko gaming machine 1 ′ in which a game ball is encapsulated inside the device and a game, and a gaming point system slot machine 1000 ′ in which a game is played by a gaming point system. It is an embodiment in the case of doing.

[4-1. Game system]
21 and 22 are diagrams showing an example of the system configuration of the fourth gaming system in the fourth embodiment.
In the fourth gaming system, as a gaming machine, an encapsulated pachinko gaming machine 1 ′ is provided instead of the pachinko gaming machine 1, and a gaming point system slot machine 1000 ′ is provided instead of the slot machine 1.

[4-2. Enclosed pachinko machine]
In the above-described embodiment, the gaming machine supplies, for example, a game ball that is used for a game in the pachinko gaming machine 1 from the hitting ball supply tray 3 and the game ball that is launched into the gaming area wins the input area. The prize balls are paid out to the tray 3 or the surplus ball receiving tray 4, but the gaming machine does not require the game balls to be inserted from the outside of the gaming machine or the gaming balls to be paid out to the outside of the gaming machine. An encapsulated pachinko gaming machine 1 ′ (hereinafter referred to as “encapsulated pachinko gaming machine”) may be used.

  Aggregation of game data when such an encapsulated pachinko gaming machine 1 ′ is installed will be described with reference to FIGS. 21 and 22. In such an encapsulated pachinko gaming machine 1 ′, a game ball is enclosed inside, and when the player operates the hitting operation handle, the firing motor is driven to hit the game ball into the game area one by one. It is configured to play games. Here, the launch of the game ball is detected by a ball raising switch electrically connected to a payout control board 1B (see FIG. 22) including a microcomputer (CPU, RAM, ROM, etc.). In addition, out of the game balls that have been thrown into the game area, the out ball that has entered the out port flows down the out ball flow path and is detected by an out ball detection switch provided in the middle. Further, the foul balls that have been returned without the jumping game balls jumping to the game area flow down through the foul ball return path, and are detected by a foul ball detection switch provided in the middle thereof. Both the out ball detection switch and the foul ball detection switch are electrically connected to the payout control board 1B.

  In addition, all winning balls that are won at each winning opening (for example, the first starting winning opening, the second starting winning opening, the large winning opening, the winning opening of the normal winning device) are collected at the back of the gaming machine and passed through the collected balls. Guided to the route. Similarly, out balls and foul balls are also guided to the collection ball passing path. In the collection ball passage route, a shot ball detection switch that is electrically connected to the payout control board 1B is provided. For this reason, all the winning balls, out balls, and foul balls are detected by the firing ball detection switch. The game ball that has passed through the collection ball passage route is returned to the hit ball launch position. Then, when the player operates the hitting operation handle, the game ball at the hitting position is hit again into the game area. When the detected number of the shot ball switches is equal to the number of shots of the game balls shot by the shot motor, it can be determined that all of the shot game balls have been collected.

  As described above, the ball raising switch, the out ball detecting switch, the foul ball detecting switch, and the firing ball detecting switch are all electrically connected to the payout control board 1B, and the operation of each switch on the payout control board 1B. That is, it is possible to detect the passage of the game ball. In addition, the game balls that have won in each winning opening are detected by a winning sensor provided corresponding to each winning opening. The winning sensor is electrically connected to a main control board 1A (see FIG. 22) including a microcomputer (CPU, RAM, ROM, etc.), and the main control unit that detects the winning by the winning sensor is the winning that the game ball has won. A winning signal capable of specifying the mouth is transmitted to the payout control board 1B. It should be noted that the payout control board 1B receives the type of prize opening from the main control board 1A when the pachinko gaming machine 1 ′ is turned on (for example, the first starting prize opening, the second starting prize opening, the big prize opening, the prize winning of the normal prize winning device) ) And the number of winning balls corresponding to each winning opening (the number of balls to be paid out when a game ball wins each winning opening) is received, so that the winning received from the main control board 1A is received. Based on the signal, it is possible to specify the number of winning balls corresponding to the winning opening where the game ball has won.

[4-3. Card unit]
Next to the encapsulated pachinko gaming machine 1 ′ and a gaming point system slot machine 1000 ′ described later, a card unit 1100 is provided as a gaming device corresponding to the gaming machine. On the front side (player side) of the card unit 1100, a bill insertion slot 1103, a display 1102 provided in a protruding portion formed protruding from the front side of the apparatus in the forward direction of the apparatus, and a prepaid card (non-member registration is not performed) A card insertion slot 1101 into which a visitor card that can be used by a member player and a member card that can be used by a member player who has registered is inserted. A player inserts a prepaid card into the card insertion slot 1101 and manages it with a remaining amount management device (not shown) in association with a card ID read by a card reader / writer (hereinafter referred to as a card R / W). The remaining amount can be used to play a game on a gaming machine that is communicably connected to the card unit 1100. Further, the bill inserted from the bill insertion slot 1103 is identified as authenticity and type by a money discriminator (not shown), and the amount corresponding to the identified type is the card ID of the prepaid card accepted by the card R / W. Is added to the prepaid balance managed by the balance management device.

  As shown in FIG. 22, the card unit 1100 is provided with a card unit control unit (hereinafter referred to as a CU control unit) 1120 constituted by a microcomputer or the like. The CU control unit 1120 is a main control function unit of the card unit 1100, and includes a CPU serving as a control center, a ROM storing programs and control data for operating the CPU, and a RAM functioning as a work area for the CPU. In addition, an input / output interface and the like are provided for maintaining signal consistency with peripheral devices. The above-described money discriminator and card R / W are electrically connected to the CU control unit 1120. The display unit 1102 outputs display data converted by the display control unit 1110 electrically connected to the CU control unit 1120.

  The CU control unit 1120 is provided with an external communication unit (not shown) for communicating with the hall server 1230 that performs security management. The hall server 1230 is communicably connected to the hall computer 1200. The CU control unit 1120 is connected to a security board (not shown) for communicating with the payout control board 1B of the pachinko gaming machine 1 'while ensuring security. This security board is a security monitoring function unit of the card unit 1100. The card unit 1100 is provided with a connection portion to the encapsulated pachinko gaming machine 1 ′. These connection parts are comprised, for example with the connector. Serial communication is performed between the payout control board 1B and the CU control unit 1120, and serial communication is performed between the CU control unit 1120 and the hall server 1230 via a stand terminal (not shown).

  When a player plays a game with the enclosing method pachinko gaming machine 1 ′, the player operates the ball lending button provided in the enclosing method pachinko gaming machine 1 ′ or the card unit 1100, and associates it with the card ID of the prepaid card to be used. A part or all of the prepaid balance managed by the balance management device is converted into the “number of game balls” to start the game. That is, the valuable value owned by the player is converted into a game value usable for the game. For example, the prepaid value for 500 yen can be converted into 125 game balls. The number of game balls is stored in the CU control unit 1120 and is also transmitted to the payout control board 1B of the pachinko gaming machine 1 'and stored in the RAM of the payout control board 1B.

  The payout control board 1B is the number of in-game balls stored in the RAM (the number of balls that have not been detected by the shot ball detection switch after launching) and is floated in the game area when the launch of the game ball is detected by the ball raising switch. 1 is added to the number of floating balls), and 1 is added to the value of the subtraction counter (the storage area for the number of balls to be subtracted from the number of game balls). When the payout control board 1B receives a winning signal from the main control board 1A, the payout control board 1B adds the number of winning balls corresponding to the winning opening indicated by the winning signal to an addition counter (a storage area for the number of balls to be added to the number of game balls). Add to the value. Further, when a foul ball is detected by the foul ball detection switch, the payout control board 1B adds 1 to the value of the addition counter and subtracts 1 from the number of balls in the game. The payout control board 1B subtracts 1 from the number of in-game balls when the collection of the game balls that have been thrown by the firing ball detection switch is detected.

  In the payout control board 1B, the number of balls in the game is managed in this way. If the number of balls in the game becomes an abnormal value, there is a possibility of clogging or fraud. Is notified. Further, in the payout control board 1B, when the value of the subtraction counter or the value of the addition counter is updated, the value of the updated subtraction counter (the number of subtraction balls) or the value of the updated addition counter is updated to the CU control unit 1120. Send the value (number of balls to add). Then, the payout control board 1B subtracts the updated value of the subtraction counter from the stored “number of game balls” and clears the value of the subtraction counter to zero. Further, the updated addition counter value is added to the stored “number of game balls”, and the addition counter value is cleared to zero. On the other hand, when the value of the subtraction counter (the number of subtraction balls) is received, the CU control unit 1120 cumulatively adds the received subtraction ball value to the total subtraction ball number stored in the RAM and stores the “game ball number” ”Is subtracted from the number of subtraction balls received. Further, when the value of the addition counter (number of balls to be added) is received, the value of the number of balls to be added is cumulatively added to the total number of balls to be stored in the RAM, and the ball to be added received in the “number of balls to be played” is stored. Add a number.

  In this way, the “number of game balls” is updated in the CU control unit 1120, and this “game ball number” is displayed on the display 1102 and can be confirmed by the player. The CU control unit 1120 includes the updated “game balls” stored in the CU control unit 1120 and the updated “game balls” stored in the payout control board 1B received from the payout control board 1B. And if both do not match, control to shift to an error state is performed. The encapsulated pachinko gaming machine 1 ′ has a display device for displaying game information such as the number of game balls. In the encapsulated pachinko gaming machine 1 ′, the “game ball number” stored in the payout control board 1B is displayed. You may be made to do. Further, a display device of the encapsulated pachinko gaming machine 1 ′ may be connected to the display control unit 1120, and “the number of game balls” stored in the CU control unit 1120 may be displayed on the display device.

  The “number of game balls” can be converted into the “number of balls” according to the player's operation (for example, according to the operation of an unillustrated checkout button or the return operation of the prepaid card). The “number of possessed balls” is a value acquired by the player in the game of the day and is not deposited in the game hall (not managed by the storage management device). The “number of balls” is managed by the ball server in association with the card ID of the prepaid card, and is changed to “number of balls” according to the player's operation (for example, operation of a ball play button not shown). It can be converted. In addition, the “number of balls” of the member player is converted into “number of balls” after the business of the day ends or by a store operation of the game hall clerk on that day. The “number of stored balls” is a value acquired by the player in the game and is stored in the game hall (managed by the stored ball management device). The “number of balls” is managed by the ball management device in association with the card ID of the membership card, and can be converted into “number of balls” according to the player's operation (for example, operation of a replay button not shown). It is. Note that “the number of balls” and “the number of balls” can be displayed on the display 1102.

  When the payout control board 1B of the encapsulated pachinko gaming machine 1 ′ is electrically connected to the CU control unit 1120, the main chip ID recorded on the main chip of the main control board 1A is the payout control board 1B and the CU. The data is transmitted to the hall server 1230 and the hall computer 1200 via the control unit 1120. The transmitted main chip ID is managed by the hall computer 1200 in association with the unit number of the encapsulated pachinko gaming machine 1 ′. This makes it possible to manage game information in units of main control boards (game units) rather than in units of enclosures of the encapsulated pachinko gaming machine 1 '. When the main chip ID includes information that can identify the model of the encapsulated pachinko gaming machine 1 ′, the hall computer 1200 may associate the machine number with the model of the encapsulated pachinko gaming machine 1. It becomes possible.

  In addition, the CU control unit 1120 communicates with the hall server 1230 at a predetermined timing (for example, every predetermined time interval or every time the total number of added balls or the total number of subtracted balls is updated), Send the number of added balls and the total number of subtracted balls. The hall computer 1200 communicates with the hall server 1230 to update the “safe number” of the game data table based on the total number of balls received from the hall server 1230 and based on the total number of subtraction balls received from the hall server 1230. Update “out number” in game data table.

  Note that the “safe number” and “out number” in the hall computer 1200 are updated when the preset game end time has elapsed (hereinafter, the “safe number” and “out number” may not be updated). (When confirmed). Further, the total number of subtraction balls and the total number of additional balls stored in the CU control unit 1120 are transmitted from the hall computer 1200 when the update of the “safe number” and the “out number” in the hall computer 1200 is completed. It is assumed that both are reset to 0 based on the reception of the tightening process signal.

  Here, since the format of the output data output from the gaming machine (encapsulation type pachinko gaming machine 1 ′, gaming point type slot machine 1000 ′) differs depending on the gaming machine manufacturer, the CU control unit 1120 has various formats. The output data is calculated (converted) into a predetermined format and output to the hall server 1230 via the terminal. Setting data for the calculation (conversion) is input to the CU control unit 1120 and stored therein. The “predetermined format” is, for example, assignment of output pins for transmission information and output length of signals.

  Since the data reception format differs depending on the specifications and settings of the hall computer 1200, the hall server 1230 matches the format of the output data output from the card unit 1100 with the data reception format of the hall computer 1200. It is made to convert and to transmit to the hall computer 1200.

  Here, when the data output format in the card unit 1200 matches the data reception format of the hall computer 1200, format conversion by the hall server 1230 can be made unnecessary. In this case, the card unit 1100 and the hall computer 1200 may be communicably connected without going through the hall server 1230. Further, even if the data output format in the card unit 1100 does not match the data reception format of the hall computer 1200, a terminal terminal interposed between the card unit 1100 and the hall computer 1200 is connected from the card unit 1100. When the format of the output data to be output is converted to a format matching the data reception format of the hall computer 1200 and transmitted to the hall computer 1200, the format conversion by the hall server 1230 may be unnecessary. it can. In this case, the card unit 1100 and the hall computer 1200 may be communicably connected via the platform terminal without going through the hall server 1230.

[4-4. Game point type slot machine]
In the above embodiment, the gaming machine, for example, inserts a medal to be used for a game in the slot machine 1000 from the medal insertion unit 1029, and when a winning combination is achieved (or the settlement switch 1028 is operated to return credits). ), The medal is paid out from the medal payout opening 1030, and the gaming machine plays a game without requiring insertion of a medal from the outside of the gaming machine or paying out the medal to the outside of the gaming machine in this way. It may be a gaming point type slot machine 1000 ′ (hereinafter referred to as “game point type slot machine”). As shown in FIG. 22, the gaming point type slot machine 1000 ′ includes a gaming control board 1000A including a microcomputer (CPU, RAM, ROM, etc.) serving as a main control unit for controlling the gaming in the slot machine 1000 ′, An external output board 1000B for outputting a signal input from the game control board 1000A to an external device.

  Aggregation of game data when such a game point type slot machine 1000 ′ is installed will be described with reference to FIGS. 21 and 22. In such a gaming point type slot machine 1000 ′, the prepaid value is converted into “game points” by the corresponding card unit 1100 and used in the game, like the enclosing type pachinko gaming machine 1 ′. The “game point” corresponds to the “number of game balls” in the encapsulated pachinko gaming machine 1 ′. That is, the valuable value owned by the player is converted into a game value usable for the game. For example, the prepaid value for 1000 yen can be converted into 50 game points (game point 1 corresponds to one medal). The game points are stored in the CU control unit 1120.

  In such a game point type slot machine 1000 ', the number of bets is set using game points. When setting the number of bets using “game points = 1” corresponding to one medal, when operating the one-sheet BET switch and setting the maximum number of bets determined according to the gaming state Operates the MAXBET switch. The rotation start of each reel according to the operation of the start switch and the rotation stop of each reel according to the operation of each stop button are the same as those in the slot machine 1000 of the medal insertion method.

  Here, when the start switch is operated, the game point corresponding to the set bet number becomes the subtraction point, and the subtraction point is added to the value of the subtraction counter stored in the RAM of the game control board 1000A. When all the reels are stopped, one game is finished, and when a predetermined symbol combination on the activated pay line is stopped as a display result of each reel, a winning occurs, The game points determined according to the winnings are added points, and the added points are added to the value of the addition counter stored in the RAM of the game control board 1000A.

  In addition, in the game control board 1000A, when the value of the subtraction counter or the value of the addition counter is updated, the updated value of the subtraction counter (number of subtraction points) or the value of the addition counter after the update is sent to the CU control unit 1120. (Addition points) is transmitted. Then, the game control board 1000A subtracts the value of the updated subtraction counter from the stored “game point” and clears the value of the subtraction counter to zero. Also, the updated addition counter value is added to the stored “game point”, and the addition counter value is cleared to zero. On the other hand, when the value of the subtraction counter (the number of subtraction points) is received, the CU control unit 1120 cumulatively adds the received subtraction point value to the total subtraction point value stored in the RAM, and receives it from the stored “game point”. Subtract points. When the value of the addition counter (addition score) is received, the received addition score value is cumulatively added to the total addition score stored in the RAM, and the received addition score is added to the stored “game score”.

  Further, the CU control unit 1120 communicates with the hall server 1230 at a predetermined timing (for example, every predetermined time interval or every time the total addition score or the total subtraction score is updated), and the total addition score And the total number of subtraction points. The hall computer 1200 updates the “safe number” of the game data table based on the total number of points received from the CU control unit 1120 via the hall server 1230, and the total number received from the CU control unit 1120 via the hall server 1230. The “out number” of the game data table is updated based on the subtraction points.

  As described above, the card unit 110 that is a gaming device is capable of communicating with the gaming machine and the hall computer 1200, and includes transmission means (CU control unit 1120) that transmits information generated by the gaming machine to the hall computer 1200. The transmission means includes information conversion means (external communication unit) for relaying information generated by the gaming machine to an apparatus (hall server, terminal terminal) for converting and transmitting the information to the hall computer 1200. According to this, even if the information generated by the gaming machine cannot be directly identified by the hall computer 1200, the information generated by the gaming machine is converted and input for the hall computer 1200. The game information of gaming machines can be aggregated.

  Further, in the card unit 1100 provided corresponding to the gaming machine, it is possible to count the used gaming value (total number of subtraction balls, total number of subtraction points) used in the game in the gaming machine, and in the game in the gaming machine It is possible to tabulate the assigned game value (total number of added balls, total number of added points).

  Similarly to the card unit 1100, in the calling lamp device 1300 provided corresponding to the gaming machine, the used gaming value (total number of subtraction balls, total number of subtraction points) used in the game in the gaming machine can be totaled. At the same time, it is possible to be able to count the granted game value (total number of added balls, total number of added points) given in the game in the gaming machine.

[4-5. Aggregation method]
The management device 1250 stores, from the hall computer 1200, a game for each store including the total number of added points (total number of added balls) and the total number of subtracted points (total number of subtracted balls) in the encapsulated pachinko gaming machine 1 ′ and the game point type slot machine 1000 ′. Receive data. Then, based on the received game-specific game data, the difference between the total added points and the total subtracted points of each gaming machine of each store is calculated and aggregated, and based on the maximum value and the minimum value of the point difference in a predetermined period The score difference index value is calculated. Then, the gaming machine information related to the gaming machines for which the calculated score difference index value has reached a predetermined threshold score is totalized and output so as to be specified.

  In place of the management device 1250, the hall computer 1200 uses the total number of added points (total number of added balls) and the total number of subtracted points (total number of subtracted balls) in the enclosure type pachinko gaming machine 1 ′ and the game point type slot machine 1000 ′. Information may be received. Then, based on the received information, the difference between the total added points and the total subtracted points of each game machine of the own store is calculated and aggregated, and the point difference is calculated based on the maximum value and the minimum value of the point difference in a predetermined period. An index value may be calculated, and gaming machine information related to gaming machines whose score difference index value has reached a predetermined threshold score may be aggregated and output in an identifiable manner.

[4-6. Calculation of gains or losses on sales of used machines by management equipment]
Nowadays, at the amusement hall, the initial introduction cost of gaming machines can be reduced by introducing second-hand machines, or after a certain period of time has elapsed since the installation of a new type of gaming machine that can be newly introduced, The management method of securing the profit on sale by selling as a machine is adopted. Under such circumstances, the price of used machines in the used machine market is an important index in the management of amusement halls, and it is appropriate to determine when to sell gaming machines installed in amusement halls. There is a need. The management device 1250 shown below predicts the actual price of the gaming machine in the used machine market based on the gaming machine failure information, gaming information, etc. acquired from the hall computer 1200 of each gaming hall, and appropriate profit and loss at the gaming hall. Prediction is possible.

  As shown in FIG. 23, the management device 1250 is provided outside the game arcade and is communicably connected to a hall computer 1200 installed in each game arcade via a communication line. Further, it is possible to communicate with the repair history input terminal 2000 owned by the repair company of the gaming machine. For example, the management device 1250 is managed by a game hall chain that manages a plurality of game halls, and can communicate with a hall computer 1200 installed in a game hall belonging to the game hall chain. The management device 1250 is not limited to such a form, and is managed by a used machine dealer, and communicates with a hall computer 1200 of a registered game hall (for example, a game hall that sells used machines). It may be possible. In addition, the management device 1250 is not limited to one provided outside the game arcade, but may be provided within the game arcade (for example, the main store of a game arcade chain).

  The management device 1250 is managed by a gaming machine manufacturer. The hall ID of each gaming arcade where the gaming machine of the gaming machine manufacturer is introduced, the main chip ID of the gaming machine installed in each gaming arcade, and the installation date and time May be a manufacturer-side device that is stored in the installation history table in association with each other. When the gaming machine is resold and installed in another game hall, the hall ID and the main chip ID of the installed (resold) gaming machine are obtained from the hall computer 1200 of the other gaming hall. It may be transmitted to the management device 1250 which is the side device, and a new hole ID and installation date and time may be stored in the installation history table in association with the main chip ID. By doing so, it becomes possible for the gaming machine manufacturer to confirm the resale history of gaming machines sold by the company to the game hall. In addition, the management device 1250 as such a manufacturer side device can communicate with a manufacturer side device of another gaming machine manufacturer, and stores information on an installation history table managed by the manufacturer side device of another gaming machine manufacturer. It may be obtainable. As a result, the resale history of game machines sold by other game machine makers to the game hall can be confirmed. Although the management device 1250 is not managed by the gaming machine manufacturer (not the manufacturer side device), it can communicate with the manufacturer side device of each gaming machine manufacturer, and the installation history as described above from each manufacturer side device. The table information may be acquired. Thereby, it becomes possible to confirm the resale history of the gaming machines sold by each gaming machine manufacturer to the game hall.

  The input terminal 2000 is capable of inputting a main chip ID and a failure location of a gaming machine when an engineer of a repair company repairs the gaming machine that has failed in the gaming hall. In this embodiment, the hall computer 1200 stores the game data table shown in FIG. 24, and the management device 1250 stores the management data table shown in FIG. 25 and the price data table shown in FIG. It shall be.

  In the management data table of FIG. 24, the “main chip ID” corresponding to the machine number in association with the machine number of the gaming machine installed in the game hall, and the “model” of the gaming machine specified from the main chip ID. ”,“ Purchase price ”that is the price when the game room purchases the gaming machine,“ Operating time ”that is the time that the game was played on the gaming machine, and the number of safes in the gaming machine (total The number of added balls, the total number of added points), the number of outs in the game machine (the total number of subtracted balls, the total number of subtracted points), and the “number of difference balls” calculated by [out number-safe number] are stored. . The “main chip ID” is output from the gaming machine and input to the hall computer 1200 when the gaming machine is installed in the game hall and connected to the hall computer 1200.

  The “main chip ID” includes information that can specify the model of the gaming machine, and the “model” of the gaming machine is specified based on the main chip ID. The main chip ID may not include information that can identify the model of the gaming machine. In this case, the hall computer 1200 communicates with a device that manages the main chip ID and model of each gaming machine, and acquires the model corresponding to the main chip ID received from the gaming machine from the device. May be. In addition, the hall computer 1200 stores in advance a list of main chip IDs corresponding to each model (a numerical range of main chip IDs for each model), and selects a model corresponding to the main chip ID received from the gaming machine. It may be specified. The “purchase price” is a price when the gaming machine is purchased at the game hall, and is input by the manager of the game hall using the input device 1205, for example. If the gaming machine is not a used machine, a new price is input, and if the gaming machine is a used machine, a used price is input. That is, the “purchase price” may be a new price or a used price.

  As described above, from the card unit 1100 corresponding to the encapsulated pachinko gaming machine 1 ′ or the gaming point type slot machine 1000 ′, the total number of added balls (total number of added points) or Each time the total number of subtraction balls (total number of subtraction points) is updated, the total number of additional balls (total number of subtraction points) and the total number of subtraction balls (total number of subtraction points) are transmitted. The hall computer 1200 stores the received total number of added balls (total number of added points) as the “safe number” of the day, and the received total number of subtracted balls (total number of subtracted points) as the “out number” of the day. I remember it. The increase in the “safe number” and “out number” due to the memory update means that the player is playing a game, that is, the gaming machine is operating. “Operating time” increases either “safe number” or “out number” within a predetermined period (for example, within 2 minutes) from the timing when either “safe number” or “out number” increases. In such a case, the period from the previous increase timing to the subsequent increase timing is determined as “operating state”, and within the predetermined period (for example, within 2 minutes) from the timing when the “safe number” or “out number” increases. If neither the “safe number” nor the “out number” has increased, it can be counted by determining the “non-operating state” after the previous increase timing. If the “model” is a model of a pachinko machine, the operating time may be totaled by [out number / 6000], for example, by setting the number of shots per hour to 6000.

  Each information of the game data table can be displayed on the display device 1256. As described above, the hall computer 1200 can manage game information (operating time, safe number, out number, difference ball number) in association with the main chip ID. The game information in the game data table is managed every business day, and the game information of the day is transmitted to the management device 1250 after the business hours of the game hall are over. When information is transmitted from the hall computer 1200 to the management apparatus 1250, a hall ID that can identify the hall computer 1200 (game hall where the hall computer 1200 is installed) is also transmitted. It is possible to specify from which hall computer 1200 (that is, which game hall) the received information is transmitted, and information management for each game hall is possible.

  The management device 1250 stores the management data table of FIG. In this management data table, in association with the “main chip ID” received from the hall computer 1200, the “model” of the gaming machine identified from the main chip ID and the “failure date and time” when the gaming machine has failed. ”,“ Failure location ”that is the location of the failed gaming machine,“ hall ID ”that can identify the amusement hall where the gaming machine is installed, and“ installation ”that is the date of installation of the gaming machine “Day”, “Purchase Price” of the gaming machine, “Total Working Time”, which is the total operating time during the period in which the gaming machine was installed in the hall of “Hall ID”, and the number of safes during the same period Of “total safe number”, the total number of outs in the same period, “total number of outs” in the same period, “total difference number”, and “Hall ID” The play at the amusement hall It is amortized balance of the machine and the "amortization balance" is managed. Here, the fact that the “total difference ball number” is a positive value means that a profit is generated in the hall of the hall ID, and the “total difference ball number” is a negative value. Means that a loss has occurred in the hall of the hall ID. A method for updating each item will be described later. Each information of the management data table can be displayed on the display device 1256. Further, each information of the management data table can be transmitted from the management device 1250 to the hall computer 1200 of each game hall, and each information of the management data table can be displayed on the display device 1206 of the hall computer 1200.

  The management device 1250 stores the price data table of FIG. In this price data table, in relation to the “model” of the gaming machine, “introduction start date”, which is the date when the gaming machine of the model is started to be introduced in the amusement hall (that is, the start date of the gaming machine of the model) , "New price", which is the price when purchasing a game machine of the model as a new, and "used standard price", which is the used average price when purchasing the game machine of the model as a used machine, A “model curve” that is a curve that matches the transition of the “second-hand reference price” is managed. Here, in the price data table, the transition of the second-hand standard price for each week from the introduction start date of the gaming machine is stored for each model. For example, the management device 1250 acquires the used average price for each model periodically (for example, every week) from a server (not shown) of a used machine sales company that manages the used average price for each model. The latest “second-hand reference price” is additionally stored for each time.

  In the example of FIG. 26, the model “CR AAA” has a new price of 420,000 yen, but the used base price after 1 week is 400000 yen, the used base price after 2 weeks is 380000 yen, after 3 weeks. The second-hand standard price is 360000 yen. In addition, the model “CR BBB” has a new price of 450,000 yen, the used base price one week after the start of introduction is 450,000 yen, the used base price after two weeks is 450,000 yen, and the used base price after three weeks is 460000 yen, ... The second-hand standard price after 10 weeks is 510000 yen, which is higher than the new price at the beginning of sales.

  The management apparatus 1250 identifies a “model curve” indicating the transition of the used standard price for each model based on the transition of the used standard price. FIG. 27 shows an example of a model curve. In the example of FIG. 27, four curves of “premier type”, “high popularity type”, “medium popularity type”, and “low popularity type” are defined as model curves. These model curves are based on the assumption that the “new price” for a given model at the date of introduction is defined as a price factor of 1.0, and the used reference price / new price is taken as the price factor every week from the date of introduction. The relationship between the elapsed time and the price factor when calculated is shown. These model curves are created based on actual second-hand base price transition data acquired by the management apparatus 1250 for each model. Each model curve can be displayed on the display device 1256. In addition, each model curve can be transmitted from the management device 1250 to the hall computer 1200 of each game hall and displayed on the display device 1206 of the hall computer 1200.

  For example, in a model corresponding to the premier type, there is a period in which the used standard price changes without falling below the new price from the introduction start date, and is higher than the new price. Moreover, in the models corresponding to the high popularity type, the middle popularity type, and the low popularity type, the used standard price gradually decreases as the period elapses from the introduction start date. For models that fall under the popular model, the decline in the second-hand standard price from the start date of introduction is small, and even during the period of 10 to 20 weeks after the start date of introduction, it is about 10 to 20% lower than the new product price. Stays. In addition, models that fall under the popular model have a larger decline in the second-hand standard price than the highly popular model, and the new product price has fallen by about 30 to 40% in the period of 10 to 20 weeks after the date of introduction. It has become. And the model that falls under the low popularity model has a larger drop in the second-hand standard price than the medium popularity model, and it has fallen by more than 50% of the new product price in the period of 10 to 20 weeks after the introduction start date. ing.

  The CPU 1252 specifies which of the four model curves matches the transition of the new product price and the used reference price of each model in the price data table. For example, for a given model, calculate the square error between the price coefficient corresponding to the second-hand base price and the price coefficient of each model curve every week from the date of introduction, and the model curve that minimizes the sum of the calculated square errors Is identified as a model curve that matches the model and stored in the price data table. This model curve is used to predict the second-hand base price.

  In this example, four model curves are defined, but the number of model curves may be larger or smaller. In addition, it is not a method of specifying a model curve in advance and specifying which one is matched, but for each model, an approximate curve by the least square method etc. based on the price coefficient corresponding to the second-hand second-hand base price It is also possible to calculate (including an approximate line) and store the formula of the approximate curve. That is, a relational expression that makes it possible to predict a future used reference price based on the actual used reference price transition may be acquired.

  Further, the management device 1250 stores the price coefficient curve of FIG. The above-mentioned “second-hand reference price” is an average used price in a used machine market of a certain model, but when actually buying and selling a used machine, the used price is determined in consideration of the actual situation unique to the machine. For example, if the operating time of a pachinko machine becomes longer, there is a higher possibility that a game ball will not be fired with an appropriate strength even if the handle is rotated, or that a push button for a production, a controller, etc. will not be effective. . In addition, if the operating time of the slot machine becomes longer, there is a higher possibility that a problem such as a start button, a stop button, or the like becomes less effective. Furthermore, as the operating time is longer, the appearance of the operation unit of these players changes from the beginning, and external damage such as discoloration, dullness, and scratches accumulates. Without considering the actual situation of each gaming machine, there are cases where the profit expected from the sale of a gaming machine as a second-hand machine is not expected and the expected gain on sale may not be obtained. It is possible that the field may suffer unexpected damage. In this embodiment, an appropriate profit and loss prediction is made possible by taking into account price fluctuations according to the operating time of each gaming machine using the price coefficient curve shown in FIG.

  This price coefficient curve shows a price coefficient corresponding to the total operating time of the gaming machine when the used average price of a certain type of gaming machine, that is, the price coefficient of the used standard price is 1.0. For example, when the total operating time of the gaming machine is less than the number of installation days in which the gaming machine is installed at the game hall × 4 (h) (that is, when the operating time per day is less than 4 hours) As a result, the price factor is higher than the used base price, assuming that it is shorter than the total operating time of the gaming machine assumed in the used base price. In addition, the total operating time of the gaming machine is equal to or longer than the number of installation days of the gaming machine installed in the game hall × 4 (h), and is less than the installation days of the gaming machine installed in the gaming hall × 8 (h). (That is, when the operating time per day is 4 hours or more and less than 8 hours), it is assumed that the total operating time of the gaming machine is assumed in the used base price, Become. In addition, when the total operating time of the gaming machine is equal to or longer than the number of installation days x 8 (h) when the gaming machine is installed in the amusement hall (that is, when the operating time per installation day is 8 hours or more) The price coefficient is lower than the used base price, assuming that it is longer than the total operating time of the gaming machine assumed at the used base price.

  The price coefficient curve can be displayed on the display device 1256. In addition, the price coefficient curve can be transmitted from the management device 1250 to the hall computer 1200 of each game arcade, and the price coefficient curve can be displayed on the display device 1206 of the hall computer 1200. The price coefficient curve is created based on the actual installation date and total operating time of the gaming machine acquired by the management device 1250 and the individual used price. Here, in the example of FIG. 28, the price coefficient curve is common regardless of the model, but the price coefficient curve may be defined for each model.

  In the example of FIG. 28, an example is shown in which a price coefficient is set in accordance with the operating hours per day of installation. However, the present invention is not limited to such a method. If the time is less than 300 hours, the price coefficient is higher than 1.0, and if the total operation time is 300 hours or more and less than 600 hours, the price coefficient is 1.0, and the total operation time is 600. If it is more than time, the price coefficient may be lower than 1.0.

(Operation of management device)
Next, the processing of the gaming machine, the hall computer 1200, and the management device 1250 when a gaming machine is installed in each gaming hall will be described with reference to FIG. When a gaming machine is installed (SA01), the main chip ID read from the gaming machine (main control board 1A for pachinko machine 1 ′, gaming control board 1000A for slot machine 1000 ′) is read from the gaming machine. It is transmitted to the hall computer 1200 (SA02). In the hall computer 1200, in the gaming data table, the received “main chip ID” in association with the “machine number” of the gaming machine that has transmitted the main chip ID, and the “model” identified from the main chip ID. Are stored in association with each other (SB03). This makes it possible to manage game information for each main chip ID. In this embodiment, since the main chip ID includes information that can identify the model of the gaming machine, if the main chip ID is transmitted from the hall computer 1200 to the management device 1250, the management device In 1250, the model of the gaming machine is identified based on the main chip ID, but if the main chip ID does not include information that can identify the model of the gaming machine, the hall computer 1200 sends a management device 1250 to the management device 1250. Thus, the main chip ID and the model associated with the main chip ID in the game data table may be transmitted.

  Then, hall computer 1200 accepts an input of a purchase price. For example, a purchase price input screen is displayed on the display device 1206 and a message “Please enter the purchase price of the machine number XX” is displayed to prompt the game hall administrator to input the purchase price. . The purchase price can be input by the input device 1205. At this time, the manager of the game hall inputs an actual new price if the installed gaming machine is new, and inputs an actual used price if it is a used machine. When the game hall manager inputs the purchase price of the designated machine number, the input “purchase price” is stored (SB04).

  Next, the hall computer 1200 transmits the stored main chip ID, purchase price, and installation information including the hall ID stored in the hall computer 1200 to the management device 1250 (SB05). The management device 1250 stores the main chip ID included in the received installation information, the model specified from the main chip ID, the purchase price, and the hall ID in the management data table in association with each other, and the year and month when the installation information is received The date is stored as the “installation date” (SC07).

  In this way, the “installation date” is stored when the gaming machine is installed, together with the main chip ID of the gaming machine and the hall ID that can identify the gaming hall where the gaming machine is installed. The installation date when a gaming machine is purchased as a new product and the installation date when the gaming machine is purchased as a used machine can be managed. That is, the resale history of the gaming machine can be grasped. For example, in FIG. 25, a plurality of hall IDs (“H122” and “H155”) are stored in association with one main chip ID for each gaming machine (model “CRAAA”) whose main chip ID is P1510 to 1512. As a new machine, it was installed in the hall with Hall ID “H122” and then sold as a second-hand machine, and then it can be tracked as a used machine in the hall with Hall ID “H155”. It has become.

  The information in the management data table can be transmitted to the requesting hall computer 1200 by the management apparatus 1250 in response to a request from the hall computer 1200. The information in the management data table can be acquired from the management device 1250 by the hall computer 1200 and displayed on the display device 1206. Therefore, in each amusement arcade, the used gaming machine purchased by the game machine has a resale history. Can be confirmed. For example, it is possible to confirm whether or not the resale history presented by the used machine sales company that is the seller of the used machines matches.

  Next, the processing of the repair company input terminal 2000 and the management device 1250 when the failed gaming machine is repaired will be described with reference to FIG. The input terminal 2000 is preferably, for example, a tablet computer (that is, an information display device and a touch panel display that is also an input device).

  An engineer of a game machine repair company, upon completion of repair of a broken gaming machine at the request of the game hall, inputs the main chip ID of the gaming machine (SD11), and selects the failed part (SD12). For example, when a two-dimensional code indicating the main chip ID of the gaming machine is displayed at a specific location of the gaming machine that can be viewed by an engineer, by imaging the two-dimensional code with the camera of the input terminal 2000, It is preferable to read the main chip ID. The failure location is an option displayed on the input terminal 2000, for example, A.I. Workings, B. A player operation unit, C.I. In addition, it is good to choose from.

  In addition, in this example, although it divides into the said 3 fault location of AC, it is not restricted to such a form, You may make it subdivide a fault location further. For example, if the gaming machine is a pachinko machine, Operational features are as follows: 1. Opening / closing control function of winning a prize opening (start winning a prize opening or big winning a prize opening) 2. Directorial effects provided in the game area; You may make it classify | categorize into the effect | action thing displayed outside the housing | casing of a game machine. If the gaming machine is a pachinko machine, The player operation unit Handle, 2. Direction buttons, 3. You may make it classify | categorize into the controller for productions. When the gaming machine is a slot machine, The player operation unit 1. Start button, 2. Stop button, You may make it classify | categorize into the controller for productions. When the gaming machine is a slot machine, C.I. Others: Medal selector, 2. You may make it divide into a winning line display lamp.

  The input terminal 2000 transmits the input main chip ID and failure information including the selected failure location to the management device 1250 (SD13). In the management data table, the management device 1250 stores the failure information reception date and time as “failure date and time” in association with the main chip ID included in the received failure information (SC14), and the “failure location” included in the failure information. Is stored (SC15).

  In this way, by inputting the main chip ID and the failure location to the input terminal 2000 of the repair company, the management device 1250 can manage the failure history for each main chip ID. The information in the management data table can be acquired by the hall computer 1200 of the game hall and displayed on the display device 1206. Therefore, in each game hall, the used game machine purchased by itself is a game machine having a failure history. You can check if it exists. For example, it is also possible to confirm whether or not it matches with a failure history presented by a used machine sales company that is a seller of used machines.

  In this embodiment, the main chip ID and the failure location are input to the repair company's input terminal. However, the present invention is not limited to this, and an engineer of the repair company can specify the game machine to be repaired. By inputting the failure location, failure information including the main chip ID and failure location information is output from the gaming machine, and the failure information is transmitted to the management device 1250 via the hall computer 1200. good. Further, when the gaming machine has a self-check function for self-diagnosis of the failure location, failure information including the main chip ID and failure location information is output during the self-diagnosis of the gaming machine, and the failure information is stored in the hall computer. It may be transmitted to the management apparatus 1250 via 1200.

  Next, the processing of the hall computer 1200 and the management device 1250 after the business hours of the game hall have ended will be described using FIG. When the game hall business end time has elapsed (SB21), the hall computer 1200 displays the operating time, safe number, out number, and difference number associated with the main chip ID together with the main chip ID corresponding to each unit number. The included game information is transmitted to the management device 1250 (SB22).

  The management device 1250 that has received the game information stores the received game information of the day (SC23). Thereby, in the management device 1250, it becomes possible to manage game information for each gaming machine (each main chip ID) by business day, for example, it is possible to manage the transition of the operating time and the number of difference balls. Become. Next, in the management data table, the management device 1250 adds the operation time included in the game information to the “total operation time” associated with the main chip ID included in the received game information, and sets the “total safe number”. The safe number included in the game information is added, the out number included in the game information is added to the “total out number”, and the difference number included in the game information is added to the “total difference number” ( SC24). Here, when a plurality of hole IDs are stored in association with the main chip ID included in the received gaming information (when the gaming machine has a resale history), the last installation date (currently the gaming machine is The operation included in the game information in the “total operation time” associated with the “Hall ID” (the hall ID of the game hall where the gaming machine is currently installed) corresponding to the setting date of the installed game hall) Add the time, add the safe number included in the game information to the "total safe number", add the out number included in the game information to the "total out number", and add the "total difference number" The number of difference balls included in the game information is added.

  And the unit loan value that is the amount required for lending per game medium (for example, 4 yen if the “model” is a pachinko machine model, 20 yen if it is a slot machine model) ) (Total difference number x unit loan value) is calculated as the amortization amount of the gaming machine (SC25). In the hall computer 1200, the unit loan value may be stored for each gaming machine (for each main chip ID), and the unit loan value may be transmitted to the management apparatus 1250 as installation information. The management device 1250 can calculate the depreciation amount of the gaming machine by multiplying the updated total difference ball number by the unit lending value associated with the main chip ID.

  Next, the management device 1250 refers to the management data table and identifies the “purchase price” corresponding to the main chip ID (SC26). Then, the amortization residual amount (purchase price−amortization amount) obtained by subtracting the calculated “amortization amount” from the identified “purchase price” is calculated, and the calculated “remaining amortization amount” is stored in association with the main chip ID (SC27). . Then, the depreciation information including the calculated remaining depreciation amount and the main chip ID corresponding thereto is transmitted to the hall computer 1200 (SC28).

  The hall computer 1200 that has received the depreciation information identifies the unit number corresponding to the main chip ID included in the depreciation information, and displays the unit number and the remaining depreciation included in the depreciation information on the display device 1206 (SB29). . As a result, the amortization balance of each gaming machine can be grasped at the game hall. Here, the displayed amortization balance is the purchase price of the gaming machine purchased by the game hall (which may be a new price or a used price) and the operation of the game machine purchased at the game hall. The result is based on time. In this embodiment, the calculation of the remaining depreciation for each gaming machine is shown as being executed by the management device 1250. However, the present invention is not limited to this mode, and the calculation of the remaining depreciation for each gaming machine is performed in the hall. The amortization balance for each gaming machine that is executed by the computer 1200 and calculated from the hall computer 1200 to the management device 1250 may be transmitted.

  Next, with reference to FIG. 32, a description will be given of a simulation of gains or losses on sale when the game arcade sells gaming machines as used machines. First, the game hall manager selects a machine number of a gaming machine to be sold as a used machine in the hall computer 1200 (SB31). For example, it is preferable to use the input device 1205 to select the machine number of the gaming machine scheduled for sale from the machine numbers displayed on the display device 1206. In addition, by specifying a specific model from among the types of gaming machines installed in the game hall, all the machine numbers of the gaming machines of that model may be selected.

  The hall computer 1200 identifies a main chip ID corresponding to the selected machine number in the game data table, and transmits sale information including the main chip ID to the management device 1250 (SB32). In the management apparatus 1250 that has received the sale information, the latest (latest) second-hand used is determined from the “used reference price” stored in the price data table in association with the “model” identified from the main chip ID included in the sale information. A reference price is specified (SC33). Then, the “total operating time” associated with the main chip ID included in the sale information is specified (SC34). In addition, when a plurality of hole IDs are stored in association with the main chip ID included in the sale information, the total value of the total operation time associated with each hole ID is calculated, and the total value is calculated as the total value. The following processing is executed as the operation time. That is, when the gaming machine with the main chip ID included in the sale information has a history of resale, the total operating time including the operating time in the game hall where the gaming machine was installed before the game hall is calculated. The actual price and sale profit / loss in SB41 of FIG. 32 to be described later, and the predicted second-hand price and sale profit / loss in SB64 of FIG. can do.

  Next, the management device 1250 specifies a price coefficient corresponding to the total operating time based on the price coefficient curve shown in FIG. Specifically, in the management data table, the number of days from the “installation date” associated with the main chip ID (the first installation date if multiple “installation dates” are stored) to the current day Is calculated as “number of installation days” to calculate how many times the total operation time is the number of installation days (that is, the operation time per installation day is calculated by total operation time ÷ installation days). Then, in the price coefficient curve, a price coefficient corresponding to a multiple of the calculated installation days (operating hours per installation day) is specified (SC35).

  Next, the management apparatus 1250 uses the amount obtained by multiplying the used base price specified in SC33 by the price coefficient specified in SC35 (used base price × price coefficient) as the used price when there is no failure history “ Calculated as “Price” (SC36). Next, the management device 1250 calculates the “failure subtraction amount” based on the failure date and time and the failure location associated with the main chip ID in the management data table. In this example, A.I. 10% of the “no-failure second-hand price” for each failure of a movable accessory; C. 5% of “no-fault second-hand price” for each failure of the player operation unit; For each other failure, 3% of the “no-failure used price” is the “failure subtraction amount”. In the example of the main chip ID “P1511” in FIG. 25, the failure location A (working accessory) is stored in association with one failure date and time (2014/12/10 14:00). The “subtraction amount” is 5% of the “no trouble second-hand price”. In addition, the subtraction ratio according to these failure locations shall be the statistical value calculated based on the relationship between the failure log | history for every gaming machine which the management apparatus 1250 acquired, and a used price.

  Next, the management device 1250 calculates, as the “actual price”, an amount obtained by subtracting the “failure subtraction amount” calculated in SC37 from the “no-failure used price” calculated in SC36 (no failure used price−failure subtraction amount). (SC38). That is, the “actual price” is a predicted price when the gaming machine is sold at the current timing. This is based on the fact that when gaming machines are actually traded in the used machine market, gaming machines with a failure history are reduced more than gaming machines without a failure history.

  Next, the management device 1250 calculates an amount obtained by subtracting “remaining amortization” associated with the received main chip ID from the “actual price” calculated in SC38 (actual price−remaining amortization) as “gain on sale”. (SC39). That is, the “gain / loss on sale” is the expected gain / loss when selling the gaming machine at the current timing. Even if a gaming machine can be sold at a high price in the used machine market, if the amortization balance of the gaming machine is large, even if the gaming machine is sold at that timing, there is a possibility that the gaming hall may suffer a loss. On the other hand, even if a gaming machine is traded at a low price in the used machine market, if the amortization balance of the gaming machine is small, there is a possibility that the amusement hall can secure profits by selling at that timing. . Therefore, when selling a gaming machine as a used machine, it is appropriate to make a decision based on the amortization status. In this embodiment, by calculating the “gain / loss on sale” based on the amortization status of the gaming machine and providing it to the amusement hall, it is possible to make an appropriate profit / loss judgment.

  Next, the management apparatus 1250 transmits the received main chip ID, the calculated actual price, and the sale profit / loss information including the calculated sale profit / loss to the hall computer 1200 (SC40). The hall computer 1200 that has received the sale profit / loss information displays the actual price and the sale profit / loss included in the sale profit / loss information together with the unit number corresponding to the main chip ID included in the sale profit / loss information (SB41). As a result, the amusement hall can grasp the actual price when selling the selected gaming machine and the profit / loss of sale, and can appropriately determine whether or not the gaming machine should be sold at the current timing.

  As described above, in this embodiment, the actual price is calculated based on the individual usage history (operating time and failure history) for each gaming machine. Can be appropriately grasped for each gaming machine. In this embodiment, since the actual price is calculated in consideration of important price determining factors in the used machine market such as the operating time of the gaming machine and the failure history, a more accurate profit / loss judgment can be made. In particular, in this embodiment, since the actual price is calculated based on the actual operating time included in the game information acquired from the hall computer 1200 of each game hall, more accurate profit / loss judgment can be made. In addition, in this embodiment, it is possible to accurately grasp not only the selling price but also the actual profit and loss by calculating the profit or loss when selling the gaming machine in consideration of the amortization balance of the gaming machine. it can.

  By selecting a specific model in SB31, the management device 1250 calculates the actual price and gain / loss on sale for all the gaming machines of the selected model, and all the gaming machines of the selected model. An average actual price and gain / loss on sale may be calculated and transmitted to the hall computer 1200. That is, not only the actual price and sale profit / loss of individual gaming machines, but also the average actual price and sale profit / loss for the specified model may be displayed.

  Next, with reference to FIG. 33, description will be given of a simulation of gains / losses on sale when a game arcade sells a gaming machine as a used machine in the future. First, the game hall manager selects the machine number of the gaming machine for which the profit / loss for sale is predicted in the hall computer 1200 (SB51). For example, using the input device 1205, it is preferable to select the machine number of the gaming machine for which the profit / loss for sale is predicted from the machine numbers displayed on the display device 1206. In addition, by specifying a specific model from among the types of gaming machines installed in the game hall, all the machine numbers of the gaming machines of that model may be selected.

  The hall computer 1200 identifies a main chip ID corresponding to the selected machine number in the game data table, and transmits predicted machine information including the main chip ID to the management device 1250 (SB52). The management device 1250 that has received the prediction base information specifies the model curve stored in the price data table in association with the “model” specified from the main chip ID included in the prediction base information. Then, in the identified model curve, the price coefficient after n weeks to be predicted (price coefficient after x + n weeks from the introduction start date if it is x weeks after the introduction start date) is specified, and the new price of the model is determined. Then, by multiplying the specified price coefficient (new product price × price coefficient), the “predicted second-hand reference price” is calculated (SC54). That is, the second-hand standard price after n weeks is predicted.

  Next, the management device 1250 determines the total operation time after n weeks (the last installation date at the present time) based on the transition of the “operation time” for each business day stored in association with the main chip ID included in the prediction base information. If m weeks later, the total operation time after m + n weeks from the last installation date) is predicted (SC55). For example, an elapsed time (X) from the installation date (the last installation date when a plurality of “installation dates” are stored in association with one main chip ID) and the installation date An approximate curve (including an approximate straight line) showing a relationship with the cumulative value (Y) of the operating time is calculated by the least square method or the like. Then, in the calculated approximate curve, when the elapsed time (X) from the installation date is m + n weeks, the cumulative value (Y) of the operation time from the installation date is calculated.

  When a plurality of “installation dates” are not stored in association with one main chip ID (that is, when there is no resale history), the calculated operating time cumulative value (Y) is set to “predicted total operating time”. " Here, the cumulative value (Y) of the calculated operation time is a “predicted value of the total operation time at the current store” calculated based on the transition of the operation time at the current store. On the other hand, when a plurality of “installation dates” are stored in association with one main chip ID (that is, when there is a resale history), the “total” associated with a hall ID other than the hall ID of the game hall The total value of “operating time” (that is, the total operating time until installation in the current store) + the cumulative value (Y) of the calculated operating time is defined as “predicted total operating time”. In this way, the total operation time after n weeks is predicted. Note that the present invention is not limited to this, and the “predicted total operating time” may be calculated by (current total operating time) × {(m + n) / m}.

  Next, the management device 1250 specifies a price coefficient corresponding to the predicted total operating time based on the price coefficient curve shown in FIG. 28 (SC56). Specifically, in the management data table, “installation date” associated with the main chip ID (when a plurality of “installation dates” are stored in association with one main chip ID, the first installation date is set. ) To calculate the number of days in the period up to n weeks from the present time as “installation days”, and calculate how many times the estimated total operation time is the number of installation days (that is, install according to the predicted total operation time ÷ installation days) Calculate the working hours per day). Then, in the price coefficient curve, a price coefficient corresponding to a multiple of the calculated installation days (operating hours per installation day) is specified as a “predicted price coefficient”.

  Next, the management device 1250 calculates an amount (predicted used reference price × predicted price coefficient) obtained by multiplying the predicted used reference price calculated in SC54 by the predicted price coefficient specified in SC56 as “no-failure predicted used price” ( SC57). Next, the management device 1250 calculates the “failure subtraction amount” corresponding to the number of failures and the failure location by the same method as in SC37 described above (SC58).

  Next, the management apparatus 1250 obtains an amount obtained by subtracting the “failure subtraction amount” calculated in SC58 from the “no failure prediction second-hand price” calculated in SC57 (no-failure predicted second-hand price minus failure subtraction amount). (SC59). That is, the “predicted second-hand price” is a predicted price when the gaming machine is sold at a timing after n weeks. This is based on the fact that when gaming machines are actually traded in the used machine market, gaming machines with a failure history are reduced more than gaming machines without a failure history.

  Next, the management device 1250, based on the transition of the “difference number” for each business day stored in association with the main chip ID included in the prediction table information, If m weeks after the installation date, the total number of balls after m + n weeks from the last installation date) is predicted (SC60). For example, an elapsed time (X) from the installation date (the last installation date when a plurality of “installation dates” are stored in association with one main chip ID) and the installation date An approximate curve (including an approximate straight line) indicating the relationship with the cumulative value (Y) of the difference ball number is calculated by the least square method or the like. Then, in the calculated approximate curve, when the elapsed time (X) from the installation date is m + n weeks, a cumulative value (Y) of the number of balls from the installation date is calculated.

  Then, the cumulative value (Y) of the calculated number of difference balls is set as the “predicted total difference ball number”. Here, the calculated cumulative value (Y) of the number of difference balls is a “predicted value of the total number of differences in the current store” calculated based on the transition of the number of difference balls in the current store. In this way, the total number of balls after n weeks is predicted. Note that the present invention is not limited to this form. For example, the total number of balls currently in the current store × (predicted total operating time in the current store / current total operating time in the current store). May be calculated.

  Next, the management apparatus 1250 uses the “purchase price” corresponding to the last hole ID (that is, the hall ID of the current store) associated with the main chip ID included in the predicted base information, and the “predicted total difference ball” calculated in SC60. Based on the “number”, the “estimated remaining balance” is calculated (SC61). For example, a unit lending value that is the amount required for lending per game medium (for example, 4 yen if the “model” is a pachinko machine model and 20 yen if it is a slot machine model) is added to the predicted total difference The multiplied amount (predicted total difference ball number × unit loan value) is calculated as the predicted depreciation amount of the gaming machine. Then, the “predicted depreciation balance” is calculated by subtracting the calculated predicted depreciation amount from the “purchase price” corresponding to the hall ID of the current store (purchase price−predicted depreciation amount). In this way, the remaining amortization amount after n weeks is predicted.

  Next, the management device 1250 calculates an amount obtained by subtracting the “predicted residual amount” calculated in SC61 from the “predicted used price” calculated in SC59 (predicted used price−predicted residual amount) as “predicted sale profit / loss”. (SC62). That is, the “forecast sale profit / loss” is the expected profit / loss when selling the gaming machine after n weeks.

  Next, the management device 1250 transmits the received main chip ID, the calculated predicted second-hand price, and the predicted profit / loss information including the calculated predicted sale profit / loss to the hall computer 1200 (SC63). In the hall computer 1200 that has received the predicted profit / loss information, the predicted second-hand price and the predicted sale profit / loss included in the predicted profit / loss information are displayed together with the unit number corresponding to the main chip ID included in the predicted profit / loss information (SB64). As a result, the amusement hall can grasp the predicted second-hand price and the predicted gain / loss when selling the selected gaming machine n weeks later, and appropriately determine at what timing the gaming machine should be sold. can do.

  In this way, in this embodiment, the predicted used price is calculated based on the individual usage history (operating time and failure history) for each gaming machine, so the gaming machine sells the gaming machine as a future used machine in the future. In this case, the selling price can be appropriately predicted for each gaming machine. Further, in this embodiment, since the predicted used price is calculated in consideration of important price determining factors in the used machine market such as the operating time of the gaming machine and the failure history, more accurate profit / loss prediction is possible. In particular, in this embodiment, since the predicted used price is calculated based on the actual operating time included in the game information acquired from the hall computer 1200 of each game hall, more accurate profit / loss prediction is possible. In addition, in this embodiment, by taking into account the future amortization balance of the gaming machine, calculating the expected sale profit or loss when the machine is sold in the future, it is possible to accurately determine the actual profit and loss as well as the expected sale price. Can be predicted.

  In addition, by selecting a specific model in SB51, the management device 1250 calculates the predicted second-hand price and the predicted gain / loss on all the gaming machines of the selected model, and all the selected models. The average predicted second-hand price and predicted sale profit / loss for the gaming machine may be calculated and transmitted to the hall computer 1200. In other words, not only the predicted used price and the estimated sale profit / loss of each gaming machine but also the average predicted used price and the estimated sale profit / loss for the designated model may be displayed.

  In addition, it is possible to calculate the predicted second-hand price and the predicted gain / loss on sale at any timing after one week, two weeks, three weeks,..., N weeks by the method shown in FIG. As described above, the relationship between the sale time (X-axis) and the predicted sale profit / loss (Y-axis) or the predicted second-hand price (Y-axis) can be graphed and displayed on the display device 1206 of the hall computer 1200. Thereby, it is possible to appropriately determine at what timing the gaming machine side can obtain the optimum profit by selling the gaming machine as a used machine. For example, in the example of FIG. 34, it can be grasped that the maximum sale profit can be obtained by selling four weeks later.

  (1) In the above embodiment, an example in which the actual price and the predicted second-hand price are calculated based on the operating time and the failure history has been described. However, the actual price and the estimated price based on the installation period are not limited to such usage history. The predicted used price may be calculated. Here, in the management device 1250, when the gaming machine is installed, the main chip ID is received from the gaming machine, so that the installation date in the game hall can be specified. Therefore, it is possible to reflect the installation period as a usage history in the actual price and the predicted second-hand value by a simple method. In the above embodiment, the management device may manage not only the installation date when the gaming machine is installed in the game hall, but also the removal date when the gaming machine is removed from the gaming hall. For example, the removal date may be input to the hall computer 1200 and transmitted to the management device 1250, and the game information (for example, the total number of outs) corresponding to the main chip ID of the gaming machine is a predetermined period (for example, 3 The date may be specified based on not being updated. According to this, it becomes possible to accurately specify the period during which the gaming machine was actually installed in each game hall.

  (2) Further, the actual price and the predicted used price may be calculated based on the number of resale, that is, [the number of hole IDs stored in association with one main chip ID-1]. According to this, it is not necessary to sequentially acquire game information such as operating time from the hall computer 1200, and the number of resales can be reflected as a usage history in the actual price and the predicted used value by a simple method. When a gaming machine is installed as in the methods shown in (1) and (2) above, the gaming machine identification information (main chip ID) that can identify the gaming machine is received, and the gaming machine By managing the installation period and the number of resales, it is possible to easily grasp the usage history in the management device.

  (3) In the above embodiment, the example in which the calculation of the actual price and the predicted used price, the calculation of the profit / loss of sale and the profit / loss of the predicted sale is executed by the management apparatus 1250 is described. This calculation may be executed by the hall computer 1200. In the above-described embodiment, the example in which the hall computer 1200 stores the game data table for managing information for calculating and predicting gain / loss on sale shown in FIG. Separately, an apparatus for managing information for calculating and predicting such sales gains and losses may be provided. That is, the game data table shown in FIG. 24 is stored separately from the hall computer 1200 of the first to third gaming systems described above, and a device communicable with the management device 1250 is provided in the game hall. You may do it.

  (4) In the above embodiment, an example has been described in which a failure point is input to the input terminal 2000 of the repair company and transmitted to the management device 1250. The shop clerk inputs the failure location corresponding to the main chip ID (unit number) of the gaming machine to be repaired, so that the input failure location is stored and transmitted to the management device 1250 together with the main chip ID. You may make it. When a repair company input terminal is connected to a local area network (LAN) in a game arcade and a failure location is input to the input terminal 2000, the failure location is connected to the main chip ID via the hall computer 1200. At the same time, it may be transmitted to the management apparatus 1250.

  (5) The actual price and predicted second-hand price calculation, the sale profit and loss and the predicted sale profit and loss in the management device 1250 are calculated by the gaming machine using the encapsulated pachinko gaming machine 1 ′ shown in the fourth embodiment, Not only in the case of the slot machine 1000 ′ of the system, but also in the case of the pachinko gaming machine 1 that is not the encapsulated system shown in other embodiments or the slot machine 1000 that is not the game point system. When the gaming machine is the pachinko gaming machine 1 shown in another embodiment, as described above, the number of outs is added when the driving signal is input to the hall computer 1200, and the winning ball signal is input. It is better to add a safe number. When the gaming machine is a slot machine 1000, as described above, the number of outs is added when the medal IN signal is input to the hall computer 1200, and the safe number is increased when the medal OUT signal is input. It is good to add. When a machine identification signal is output from such a gaming machine, the hall computer 1200 and the management device 1250 associate the gaming machine identification information identified from the machine identification signal with the machine identification signal. Various information (for example, information associated with the main chip ID in the game data table of FIG. 24 or the management data table of FIG. 25) may be managed. In addition, when a machine identification signal is not output from such a gaming machine, an administrator of the game hall inputs gaming machine identification information using the input device 1205 of the hall computer 1200, or a two-dimensional code of an information terminal The two-dimensional code indicating the gaming machine identification information attached to the gaming machine (or displayed on the gaming machine) by the reader may be read (for example, the two-dimensional code is imaged by the imaging function of the information terminal). Then, the gaming machine identification information may be transmitted from the hall computer 1200 to the management device 1250 together with the hall ID.

  (6) In the above-described embodiment, the sales profit / loss and the predicted sales profit / loss may be calculated in consideration of the fee of the used machine dealer. For example, it is equivalent to the fees of used machine dealers from gains / losses on sales and expected gains / losses on sales (for example, if the fee is a fixed amount regardless of the sales amount, the fixed amount; if the fee varies depending on the sales amount, the actual price) Or equivalent to 10% of the estimated used price). In addition, the amount obtained by subtracting the fee equivalent (for example, equivalent to 10%) from the calculated actual price or predicted used price is used as the actual purchase price or predicted purchase price of the used machine dealer as [actual purchase price-amortization balance]. And the expected sale gain / loss may be calculated by [predicted purchase amount−estimated amortization remaining amount].

[5. Fifth Embodiment]
[5-1. Game system]
FIG. 35 is a diagram illustrating an example of a system configuration of a fifth gaming system in the fifth embodiment.
In the fifth gaming system, the calling lamp device 1300 described with reference to FIG. 19 is provided corresponding to the pachinko gaming machine 1 and the slot machine 1000.

  The calling lamp device 1300 provided corresponding to the pachinko gaming machine 1 is configured to be able to input a prize ball signal and a driving signal from the corresponding pachinko gaming machine 1. Further, the calling lamp device 1300 provided corresponding to the slot machine 1000 is configured to be able to input a medal IN signal and a medal OUT signal from the corresponding slot machine 1000.

  The calling lamp device 1300 provided corresponding to the pachinko gaming machine 1 is configured to be able to input pachinko threshold setting data, which is pachinko threshold setting data, from the hall computer 1200, and for the setting owned by the store clerk. Pachinko threshold setting data can be received from the remote controller 1400 by wireless communication.

  In addition, the calling lamp device 1300 provided corresponding to the slot machine 1000 is configured so that slot threshold setting data, which is slot threshold setting data, can be input from the hall computer 1200, and is also set by a store clerk. Slot remote controller 1400 can receive slot threshold setting data by wireless communication.

[5-2. Aggregation method]
In the fifth gaming system, instead of the hall computer 1200, the CPU of the calling lamp device 1300 performs individual tabulation regarding the gaming machines provided correspondingly.

  Specifically, the CPU of the calling ramp device 1300 provided corresponding to the pachinko gaming machine 1 determines the number of prize balls and the shot balls based on the prize ball signal and the shot signal output from the pachinko gaming machine 1. The number is specified, the difference ball is calculated using the specified number of winning balls and the number of balls to be hit, and the difference index value is calculated according to the formula (1) based on the minimum difference ball and the maximum difference ball in a predetermined period. . Then, the CPU determines whether or not the difference index value has reached the pachinko threshold based on the pachinko threshold setting data. If the CPU determines that the difference index value has reached, the difference index of the pachinko gaming machine 1 is determined. A message indicating that the value has reached the threshold value is displayed on the display unit 1302. Further, the CPU of the calling lamp device 1300 notifies the hall computer 1200 that the difference ball index value of the pachinko gaming machine 1 has reached the threshold value.

  Further, the CPU of the call lamp device 1300 provided corresponding to the slot machine 1000 specifies the number of OUT medals and the number of IN medals based on the medal OUT signal and the medal IN signal output from the slot machine 1000. Then, the CPU calculates a difference medal using the specified number of OUT medals and the number of IN medals, and calculates a difference medal index value according to the formula (1) based on the minimum difference medal and the maximum difference medal in a predetermined period. Then, the CPU determines whether or not the difference medal index value has reached the slot threshold value based on the slot threshold setting data. If it is determined that the difference medal index value has reached, the CPU determines the difference medal index value of the slot machine 1000. Is displayed on the display unit 1302. Further, the CPU of the calling lamp device 1300 notifies the hall computer 1200 that the difference medal index value of the slot machine 1000 has reached the threshold value.

  Note that the call lamp device 1300 is displayed on the display 1302 by, for example, a difference index value (difference index value, difference medal index value) on the day of the pachinko gaming machine 1 and the slot machine 1000 provided correspondingly, It is possible to display and output the maximum value and the average value of the daily difference index values during a period (for example, the past 3 days or the past week). In addition, regardless of whether or not the difference index value of the day has reached the threshold value, whether or not the maximum value or average value of the daily difference index values in the past predetermined period has reached the difference index value threshold value. It may be displayed on the display device 1302.

[5-3. Effect]
According to this, the calling lamp device 1300 is provided corresponding to the pachinko gaming machine 1 and the slot machine 1000 which are gaming machines. The CPU of the calling lamp device 1300 determines the difference between the number of game media granted to a player playing a game machine and the number of game media used by the player for the game. Then, the CPU of the calling lamp apparatus 1300 determines whether or not the difference number index value calculated based on the minimum difference number and the maximum difference number in a predetermined counting time zone among the difference numbers has reached a predetermined threshold value. . Then, the determination result is displayed on the display unit 1302 and output to the hall computer 1200. Further, the CPU of the call lamp device 1300 is configured to be able to set a difference index value threshold value.

  According to this, in the calling ramp device 1300 provided corresponding to the pachinko gaming machine 1 and the slot machine 1000, the player can grasp the exit rate and performance of the pachinko gaming machine 1 and the slot machine 1000. It becomes. In addition, the store manager can check the rate and performance of the pachinko gaming machine 1 and the slot machine 1000 installed in the store with the hall computer 1200.

[5-4. Modified example]
[5-4-1. Card unit]
In the above embodiment, the gaming device provided corresponding to the gaming machine has been described as the calling lamp device 1300, but the gaming device is not limited to this. For example, the card unit 1100 described with reference to FIG. 20 may be provided corresponding to the gaming machine.

  Although not shown, in the fifth gaming system as this modification, the card unit 1100 provided in correspondence with the pachinko gaming machine 1 can input a prize ball signal and a driving signal from the corresponding pachinko gaming machine 1 Configured. The card unit 1100 provided corresponding to the slot machine 1000 is configured to be able to input a medal IN signal and a medal OUT signal from the corresponding slot machine 1000.

  The card unit 1100 provided corresponding to the pachinko gaming machine 1 is configured to be able to input pachinko threshold setting data, which is pachinko threshold setting data, from the hall computer 1200, and from a setting remote control 1400 possessed by a store clerk. The pachinko threshold setting data is configured to be received by wireless communication.

  Similarly, a card unit 1100 provided corresponding to the slot machine 1000 is configured so that slot threshold setting data, which is slot threshold setting data, can be input from the hall computer 1200 and is used for setting owned by a store clerk. Slot threshold setting data can be received from the remote controller 1400 by wireless communication.

  In this case, instead of the hall computer 1200, the card unit 1100 counts up the corresponding gaming machines. Specifically, the card unit 1100 provided corresponding to the pachinko gaming machine 1 specifies the number of winning balls and the number of balls to be hit based on the winning ball signal and the driving signal output from the pachinko gaming machine 1. The difference ball is calculated using the specified number of winning balls and the number of balls to be hit. And based on the minimum difference ball and the maximum difference ball in a predetermined period, a difference index value is calculated according to the equation (1). Then, based on the pachinko threshold value setting data, it is determined whether or not the difference index value has reached the pachinko threshold value. Output. Further, the card unit 1100 notifies the hall computer 1200 to that effect.

  The card unit 1100 provided corresponding to the slot machine 1000 specifies the number of OUT medals and the number of IN medals based on the medal OUT signal and the medal IN signal output from the slot machine 1000, and specifies the specified OUT medal. The difference medal is calculated using the number and the IN medal number. Then, based on the minimum difference medal and the maximum difference medal in the predetermined period, the difference medal index value is calculated according to the equation (1). Then, based on the slot threshold setting data, it is determined whether or not the difference medal index value has reached the slot threshold value. If it is determined that the difference medal index value has reached, information indicating that fact is displayed on the display 1102. Output. Further, the card unit 1100 notifies the hall computer 1200 to that effect.

  Note that the indicator 1102 of the card unit 1100 has a difference index value (difference index value, difference medal) of the day of the pachinko gaming machine 1 and the slot machine 1000 provided correspondingly, similarly to the calling lamp device 1300 described above. Index value), and the maximum value or average value of the difference index values for each day in the past predetermined period (for example, the past three days or the past one week) can be displayed. Also, whether the difference index value of the day has reached the difference index value threshold, or whether the maximum or average of the daily difference index values in the past predetermined period has reached the difference index value threshold. It may be displayed on the display 1102.

  In the above embodiment, the call lamp device 1300 and the card unit 1100 are set so that the hall computer 1200 and the store clerk have the difference index value threshold setting data (pachinko threshold setting data, slot threshold setting data). The remote control 1400 has been described as being receivable. However, it is not always necessary to set the difference index value threshold value using both of them, and only one of the difference index value threshold values may be set. For example, the setting based on the difference index value threshold by the setting remote controller 1400 may be preferentially performed.

  Further, instead of using the setting remote controller 1400, it is possible that the store clerk operates the operation button provided in the calling lamp device 1300 to set the difference index value threshold value manually.

[5-4-2. Aggregation system]
In the fifth gaming system described above, the calling lamp device 1300 or the card unit 1100, which is a type of gaming device, has been described as performing the aggregation relating to the difference index value for the corresponding gaming machine. However, instead of this, gaming devices such as the calling lamp device 1300 and the card unit 1100 acquire information regarding gaming machines corresponding to other gaming devices installed in the store through the hall computer 1200. By doing this, it is also possible to perform aggregation related to the difference index value for each gaming machine installed in the own store. For example, for all the gaming machines installed in the store, the gaming device performs aggregation related to the difference index value for each machine type, type, and setting value (slot machine). Also good.

  In addition, by connecting the gaming devices to each other by wired communication using a communication cable or by wireless communication using a wireless communication method, information on the corresponding gaming machines is provided between the gaming devices. It is also possible to perform transmission with each other, and for each gaming machine installed in the own store, the summation related to the difference index value similar to the above may be performed.

In other words, a gaming device provided corresponding to a gaming machine,
Receiving means for receiving information about games in a plurality of gaming machines from an external device;
Based on the information received by the receiving means, a difference value that totals a difference value between a given game value given to a player who plays in each of the plurality of gaming machines and a used game value used by the player in the game Aggregation means;
A game that outputs, in a identifiable manner, gaming machine information relating to a gaming machine in which an index value based on a minimum difference value and a maximum difference value in a predetermined period of the difference values reaches a predetermined value based on the aggregation by the difference value aggregation means. Machine information output means,
Predetermined value setting means capable of setting the predetermined value;
You may comprise the game apparatus characterized by providing.

  According to this, the game machine information related to the gaming machine in which the index value based on the minimum difference value and the maximum difference value in the predetermined period of the difference value between the granted game value and the used game value has reached the predetermined value can be specified. By doing so, the player can effectively grasp the rate and performance of the gaming machine. In addition, by making it possible to set a predetermined value, it is possible to specify and output gaming machine information related to a gaming machine whose index value has reached a predetermined value using a plurality of predetermined values.

  In addition, the game device such as the calling lamp device 1300 and the card unit 1100 collects the number of differences from the management device 1250 and the hall computer 1200 by summing up the number of differences for each gaming machine in a plurality of stores and own stores. Data may be received, and a difference index value for each gaming machine in a predetermined period may be calculated based on the received difference count data. Then, the gaming machine information regarding the gaming machine in which the calculated difference index value reaches the difference index value threshold may be output in an identifiable manner.

  In addition, the above gaming device receives difference index value aggregation data that is data obtained by aggregating difference index values for each gaming machine in a plurality of stores or its own store from the management device 1250 or the hall computer 1200. Based on the received difference index value total data, the gaming machine information related to the gaming machine whose difference index value has reached the difference index value threshold may be output in an identifiable manner.

  In addition, the management device such as the management device 1250 and the hall computer 1200 and the gaming device such as the calling lamp device 1300 and the card unit 1100 share the above-described processes related to the totalization, and the management device and the gaming device. Aggregate data may be exchanged between the devices.

Specifically, for example, the gaming device counts the difference number, the management device calculates the difference index value based on the difference count data received from the gaming device, and the difference index value is the threshold value. The gaming machine information related to the gaming machines that have reached the above may be aggregated and output in an identifiable manner. In addition, for example, a game device that aggregates a difference number and a difference index value, and a management device has a game in which the difference index value reaches a threshold value based on difference index value aggregation data received from the gaming device. You may make it output the game machine information regarding a machine so that identification is possible.
In addition, the variation of the sharing of processing related to the aggregation is not limited to the above, and can be appropriately changed.

[6. Other Embodiments]
Embodiments to which the present invention can be applied are not limited to the above-described embodiments, and can be appropriately changed without departing from the spirit of the present invention. Hereinafter, other embodiments will be described. In addition, about the same structure as said each embodiment, the same code | symbol is attached | subjected and description for the second time is abbreviate | omitted.

[6-1. Management device]
In the first embodiment, the management device according to the present invention is described as a management device installed in a management center, and in the second embodiment, the management device according to the present invention is described as a hall computer installed in a store. . However, the management device is not limited to these. For example, in each store, a base terminal installed for each amusement island may be used as a management device, or a relay computer that relays a base terminal and a hall computer is installed, and this relay computer may be used as a management device according to the present invention. Good.

  Also, a possession management computer (moment management server) for managing a player's possession and medal, and a member management computer (member management server) for managing information of member players registered as members. A card management computer (card management server) for managing information on membership cards and visitor cards possessed by the player is installed in the store, and these management computers (management servers) can be used as the management device according to the present invention. Good.

  A computer having two or more functions among the hall computer, the possession management computer, the member management computer, and the card management computer may be used as the management apparatus according to the present invention.

[6-2. Game equipment]
In the embodiment described above, the calling lamp device and the card unit have been described as examples of the gaming device that counts and outputs the difference number, but the gaming device is not limited thereto. For example, a data display device that is installed on a gaming machine and displays game data related to a game on the gaming machine to a player using a large liquid crystal display may be used as the gaming device according to the present invention.

  Further, an inter-counter counting unit, which is installed next to a gaming machine and has the above-described counting payout unit, which is a unit capable of counting the number of game media to be used and the number of used game media by each unit counting system, according to the present invention. It may be a gaming device.

[6-3. Game value]
In the above embodiment, the assigned game value given to the player who plays with the gaming machine is the number of granted game media given to the player, and the used game value used by the player for the game is the number of used game media. The case has been described as an example.

  However, as described in the fourth embodiment, the added game value and the used game value may be the number of points to be added or the number of points to be subtracted in a game machine of an enclosing method or a game point method. In this case, the same difference as that in the above-described embodiment may be performed using the difference between the added points and the subtracted points as the difference value according to the present invention. Specifically, the score difference between the added score and the subtracted score is calculated and aggregated, and the minimum value and the maximum value of the score difference in the predetermined period are used, and the calculation method similar to Equation (1) is used. A score difference index value is calculated. Then, the gaming machine information relating to the gaming machines for which the calculated score difference index value has reached a predetermined threshold value may be aggregated and output so as to be specified.

  In addition, in each vehicle counting system in which a player can play a game without touching the game medium, an assigned equivalent card amount corresponding to the number of granted game media given to the player and an assigned equivalent prepaid frequency are given. The used card value and the prepaid frequency used by the player for the game may be used as the used game value. In this case, the difference card amount between the grant equivalent card amount and the use card amount, or the difference prepaid frequency between the grant equivalent prepaid frequency and the use equivalent prepaid frequency is used as a difference value according to the present invention, and the same totalization as in the above embodiment Can be done. However, the card amount is a yen amount, and the prepaid frequency is a frequency calculated by “card amount ÷ 100”.

[6-4. Difference index value]
In the above embodiment, the difference number index value α is calculated according to the equation (1) using the maximum difference number δ _MAX and the minimum difference number δ _MIN in a predetermined period as the index values according to the present invention. However, the index value according to the present invention is not limited to this.

Specifically, the difference index value may be calculated using the absolute value of the maximum difference number δ _{MAX and} the absolute value of the minimum difference number δ _MIN during a predetermined period. For example, the difference index value β may be calculated according to the following equation (2).
β = | δ _MIN | − | δ _MAX | (2)

Further, based on the ratio between the absolute value of the maximum difference number δ _{MAX and} the absolute value of the minimum difference number δ _MIN during a predetermined period, the difference index value is calculated according to an arithmetic expression in which the value increases as the ratio decreases. May be. For example, the difference index value γ may be calculated according to the following equation (3).
γ = (δ _MAX −δ _MIN ) / (| δ _MAX | / | δ _MIN |) (3)

  As for the difference index value β and the difference index value γ calculated according to the equations (2) and (3), as described in the above embodiment, each difference index value is set as a difference index value threshold value. It may be determined whether the difference index value has reached the difference index value threshold, and the gaming machine information relating to the gaming machines that have reached the difference index value threshold may be aggregated and output in an identifiable manner.

Further, for example, the first difference average value that is an average value of the difference numbers (including the minimum difference number δ _MIN ) that is less than or less than the negative first threshold value in the predetermined period, and the difference in the predetermined period. Using the second difference number average value that is the average value of the difference numbers (including the maximum difference number δ _MAX ) that are greater than or equal to the positive second threshold value, the expressions (1) to (3) and The difference index value may be calculated using a similar arithmetic expression.

[6-5. Predetermined period]
In the above embodiment, the predetermined period according to the present invention has been described as a period corresponding to the total time period such as 1 hour unit, 2 hour unit, half day unit, 1 day unit, but the predetermined period is not limited to these, It may be a period corresponding to a total time period longer than one day, such as a unit of two days, a unit of three days, or a unit of one week.

  In addition, the total time zone for individual tabulation and the total time zone for total tabulation are not necessarily the same total time zone, and the total time zone for individual tabulation and the total time zone for total tabulation may be different. For example, the aggregation time zone in the individual aggregation may be an aggregation time zone in units of 1 hour or 2 hours, and the aggregation time zone in the overall aggregation may be an aggregation time zone in units of half day or 1 day.

[6-6. Game machines to be counted
In the above embodiment, the gaming machines to be counted are pachinko gaming machines (ordinary pachinko gaming machine 1 and encapsulated pachinko gaming machine 1 ′) and slot machines (ordinary slot machine 1000 and gaming point type slot machine 1000 ′). However, both of the gaming machines do not necessarily have to be counted. Of course, only one of the pachinko gaming machine and the slot machine may be counted. It is.

[6-7. Aggregation method using information]
In the first embodiment and the second embodiment described above, the management device 1250 and the hall computer 1200 do not aggregate the difference index value based on the signal output from the gaming machine, but are output from the gaming machine. The information and the information output from the gaming device may be used in combination to perform the aggregation related to the difference index value.

  For example, only a machine identification signal is transmitted from the gaming machine to the management device 1250 and the hall computer 1200, and the above management device receives the machine identification signal received from the gaming machine (pachinko gaming machine 1, slot machine 1000). Based on the above, the ID of each gaming machine and the correspondence between each gaming machine and each gaming device are specified.

  Further, difference data (difference time series data: difference data, difference medal data) is transmitted from the gaming device to the management device 1250 and the hall computer 1200, and the above management device is used for gaming. The difference number is calculated based on the difference number data received from the apparatus. Then, based on the ID data of each gaming machine identified based on the signal transmitted from the gaming machine, each gaming machine, each gaming device, and difference data identified based on the information transmitted from the gaming device, The number of differences calculated for each gaming machine may be aggregated to perform the above-described individual aggregation and total aggregation.

[6-8. Aggregation under different settings]
Further, in the above-described embodiment, it has been described that in the aggregation related to the slot machine 1000, the aggregation is performed for the slot machine 1000 in which the same setting value is set. However, it is not always necessary to perform such aggregation, and aggregation may be performed for the slot machine 1000 in which different setting values are set. For example, the slot machine 1000 in which the setting value “5” is set and the slot machine 1000 in which the setting value “6” is set have a high payout rate and machine discount, and the player is particularly interested. For the slot machine 1000 set to “5” and the slot machine 1000 set to the setting value “6”, the numbers and percentages of the gaming machines whose difference index values have reached the difference index value threshold respectively It may be calculated and output so that each can be compared.

[6-9. Simulation function]
Hereinafter, embodiments related to a simulation function in which management devices such as the management device 1250 and the hall computer 1200 described in the above embodiment perform various simulations for the pachinko gaming machine 1 will be described.

[6-9-1. First simulation function]
The hall computer 1200 as a management device related to the first simulation function shown in FIG. 36 manages game information generated in a game in a pachinko gaming machine as a gaming machine arranged side by side on a plurality of gaming islands in the game hall. To do. The game information includes a pachinko gaming machine and an out ball counter that is provided corresponding to the pachinko gaming machine and that is used for gaming in the pachinko gaming machine and that is discharged from the pachinko gaming machine (out ball). Is summed up based on various signals output from. For example, the hall computer 1200 tabulates the balance of operating rate, number of balls, etc. for each time zone of each gaming machine installed in the game hall as game information.

  The hall computer 1200 of this simulation function has a CPU 1202 as storage control means for executing various processes performed by the hall computer 1200, a RAM 1203 used as a work memory, etc., on a data bus 1201 for transmitting and receiving data inside the computer. , A storage device 1204 composed of a magnetic disk or a magneto-optical disk, an input device 1205 such as a keyboard and a mouse, a display device 1206 for displaying and outputting various screens, a communication for performing data communication with a gaming machine, a gaming device, etc. It is a normal computer to which a communication unit 1207 as means is connected. The storage device 1204 stores, as game information, an operation rate for each time zone of each gaming machine installed in the game hall.

The storage device 1204 stores a simulation program for calculating the operation of the pachinko gaming machine in addition to a processing program in which various processing contents executed by the hall computer 1200 are described. These programs are read into the RAM 1203 by the CPU 1202 and executed.
As described above, the pachinko gaming machine 1 to be simulated in this example launches a game ball, which is a game medium, into a game area by a launching device, and plays a game in a prize area such as a prize opening provided in the game area. It is assumed that when a ball wins, a predetermined winning value is given to the player. Furthermore, a variable display unit capable of variably displaying a special symbol (identification information) (also referred to as “variation”) based on the fact that the game ball has passed through the start area provided in the game area is provided. As a display result of the variable display in, it is assumed that the specific game state (so-called jackpot game state) is controlled based on a predetermined display result (big hit symbol) derived and displayed. The derived display is to stop and display the symbol. In the specific game state, a predetermined game value is given to the player. The winning value means that a winning ball is paid out or a score or a prize is given in accordance with the winning of a game ball in the winning area. In addition, the game value means that when a specific display result is obtained, the state of the variable winning ball apparatus provided in the gaming area of the gaming machine becomes an advantageous state for a player who is easy to win, and for the player. For example, a right to be advantageous can be generated, and a condition for paying out a winning ball can be easily established.

  In addition to the various signals output from the gaming machine and the gaming device, the communication unit 1207 also receives statistical data managed by the management device 1250 provided in the management center outside the game hall. A management device 1250 provided in the management center is communicably connected to an information management device (for example, a hall computer) provided in each of a plurality of game halls. The management device 1250 collects game information from the information management device of each game hall, creates statistical data based on this, and provides it to the information management device of each game hall.

  The CPU 1202 executes a depreciation simulation program shown in FIG. 37 in response to a predetermined operation, for example, the “depreciation simulation icon” displayed on the display device 1206 is selected by the input device 1205. The amortization simulation program is a kind of simulation program, and simulates the amortization days of a gaming machine based on an assumed operating rate according to the specifications of the gaming machine.

  In the amortization simulation, first, it is confirmed whether the assumed operating rate of the gaming machine is a suburban type or a downtown type (S101). Whether the assumed occupancy rate is a suburban type or a city center type is set in advance by the manager of the game hall using the input device 1205 in consideration of the location of the game hall. It is stored in a predetermined area of the storage device 1204. Next, a list of gaming machine models to be subjected to amortization simulation is displayed on the display device 1206 (S102). Here, for example, a newly announced new model is displayed in a list. The administrator can select a model to be introduced from the new models displayed in the list using the input device 1205. According to this, it is possible to examine whether or not introduction is possible by executing a depreciation simulation for a model scheduled to be introduced into the amusement hall. Further, for example, when a gaming machine in a game hall is communicably connected to the hall computer 1200, a manufacturer ID indicating the manufacturer of the gaming machine from the gaming machine and a model indicating the model (model) of the gaming machine. When machine identification information including an ID is output, a list of gaming machine models specified based on the machine identification information may be displayed. According to this, it is possible to execute a depreciation simulation for a gaming machine installed in a game hall and to consider replacement of gaming machines. The management apparatus 1250 may store a list of models and provide it in response to a request from the hall computer 1200.

  When selection of the model from the list display is completed (YES in S103), an operation rate curve of the selected model is acquired from the management apparatus 1250. In this example, depending on whether the assumed operation rate that has been set is a suburban type or an urban type, and whether the jackpot probability of the selected model is low or high (so-called MAX type or light type), A different operation rate curve is acquired from the management apparatus 1250 (S104). Here, the jackpot probability is a ratio at which the display result of the variable display unit becomes the specific display result. In this example, the model having the lowest ratio (for example, 1/399) is the MAX type, and the ratio is the highest. A model (for example, 1/99) is called a light type.

  As shown in FIG. 38 (a), in the case of the suburb type, the operating rate of the MAX type gradually increases from the opening (10:00) to the evening and rapidly decreases after the evening. This is selected in the MAX type because it usually takes a certain amount of time before a big hit occurs, so it is selected when the remaining time until the time when the game hall must be exited is small, such as time to return home or closing time. This is because it is difficult. On the other hand, the occupancy rate of the light type has been lower than the MAX type from the opening of the store to the evening, that is, in the time zone where a long game can be performed, but from the MAX type to the closing of the store close to the evening. The occupancy rate is also high. In the case of the light type, since it can be expected that a big hit will occur relatively early after the game is started, it is easy to be selected even when the remaining time until the time to leave the game hall is small. This is because of the circumstances. As described above, the operating rate is reversed between the MAX type and the light type in a predetermined period before the end of business hours of the amusement hall, in this example, from 17:00 to 22:00.

  On the other hand, as shown in FIG. 38 (b), in the case of the city center type, the operating rate of the MAX type changes at an operating rate close to that of the light type from the opening (10:00) to the evening. This is due to the fact that there are many office workers compared to the suburban type, and there are many needs to play games in idle time, so there is a situation that it is easy to select a light type that easily generates big hits in a short time. . In addition, for both the MAX type and the light type, the operation rate increases rapidly from the evening to the night (16:00 to 20:00). This is because the office worker after work starts playing. Then, when the office worker finishes the game in consideration of the time to go home, the operating rate decreases more rapidly than the suburban type after 20:00. In the case of the city center type, as in the suburb type, the light type operating rate exceeds the MAX type operating rate in the predetermined period before the end of the game hall business hours, in this example from 18:00 to 22:00. Change. As described above, in both the suburban type and the city center type, there is a situation that the light type exceeds the operating rate of the MAX type for a predetermined period before the end of the business hours of the game hall.

  Each operation rate curve shown in FIG. 38 is an example of statistical data created by the management device 1250 based on the game information received from the hall computer 1200 of each game hall. Here, the hall computer 1200 counts the operating rate transition of each gaming machine during business hours. For example, the operation determination of each gaming machine is performed based on input of a driving signal or the like. Then, after the business hours are over, the operating rate transitions for each model are tabulated, and the tabulated results are transmitted to the management apparatus 1250. The management device 1250 can manage the operating rate transition for each model for each game arcade. In addition, it is possible to calculate average data of a plurality of game halls. For example, it is possible to calculate an average utilization rate curve for a plurality of game halls for each model.

  Further, when the total result is transmitted from the hall computer 1200 to the management apparatus 1250, the identification information of the hall computer 1200 is transmitted. On the management device 1250 side, information (for example, a zip code) that can identify the address of the game arcade where the hall computer 1200 related to the identification information is installed is managed in association with the identification information. Therefore, in the management device 1250, it is possible to specify whether the hall computer 1200 is installed in a game center in the city center or a game room in the suburbs based on the identification information. Therefore, the management apparatus 1250 can calculate an average availability curve for a suburban game arcade for each model, and can also calculate an average availability curve for a city arcade. The average operating rate curve for each predetermined model (MAX type, light type) and predetermined location condition (suburban type, downtown type) calculated in this way is managed as statistical data by the management device 1250, and is used as a hall computer. It can be provided in response to a request from 1200.

  Therefore, although each game hall is not introduced into its own game hall, it is also possible to obtain an average operating rate curve of a model that is introduced into other game halls. According to this, it is possible to execute a simulation based on the operation results in other amusement halls for the models that have not been introduced. In addition, when the management apparatus 1250 is requested for an operation rate curve of a model that is not introduced in any game arcade, the management apparatus 1250 can also provide an operation rate curve regarding a model having a specification close to that model. In addition, when the management apparatus 1250 is requested to have an operation rate curve of a model not introduced in any game arcade, the model is a so-called series product, for example, a new model with a common character, story, or theme as a motif In this case, it is possible to provide an operation rate curve related to the previous model related to the series. In addition, in the hall computer 1200 of each game hall, an operating rate curve may be created based on the total result of its own gaming hall, and a depreciation simulation based on the operating rate curve may be executed. Moreover, in the hall computer 1200 of each amusement hall, an arbitrary operating rate curve may be created and a depreciation simulation based on the operating rate curve may be executed.

  In S <b> 104, the operating rate curve of the suburban type MAX type and light type and the city center type MAX type and light type is acquired from the management device 1250 according to the setting content and the selected model. Further, the initial value is set as the remaining amount of depreciation = the price of the selected model (S105). Here, the price of the selected model may be directly input by the input device 1205, or the price of each model displayed as a list in the hall computer 1200 may be stored in advance. The management device 1250 may store the price of each model and provide it in response to a request from the hall computer 1200.

  Next, a balance ratio input field is displayed on the display device 1206 (S110). The balance ratio is the magnitude of the game value acquired with respect to the game value used by the player in the game. For example, if a player obtains a game medium equivalent to 12,000 yen as a result of renting a game medium equivalent to 10,000 yen, the balance ratio is 120%. On the other hand, if a player rents a game medium equivalent to 10,000 yen and plays a game, and only a game medium equivalent to 8000 yen can be obtained, the balance ratio is 80%. In other words, when the balance ratio> 100%, it is a player's profit, and when the balance ratio <100%, it is a profit of the game hall. The amusement hall can depreciate the gaming machine in a predetermined period by setting a predetermined balance ratio such that the balance ratio <100%.

  When the balance ratio is input (YES in S111), a customer attraction index curve corresponding to the input balance ratio is acquired from the management device 1250 (S112). FIG. 39 shows an example of a customer acquisition index curve. The index for attracting customers is how the daytime of the introduction of gaming machines is 1 with the average daily operating rate (hereinafter sometimes referred to as daytime average operating rate) as 1 It is a curve which shows whether an average operation rate changes. This customer attraction index curve is also an example of statistical data provided from the management device 1250. Normally, the day-to-day average occupancy rate gradually decreases with the peak date of introduction. Here, the operating rate curves shown in FIGS. 38A and 38B described above are curves showing the operating rate transition during business hours on the first day of introduction, that is, the number of days of introduction (customer acquisition index = 1). ing. Customer attraction index can be said to be a coefficient of occupancy rate for each introduction day.

  Further, the customer attraction index curve differs depending on the set balance ratio. This reflects the fact that the average occupancy rate during the day fluctuates according to the balance ratio. For example, as shown in FIG. 39, when the balance ratio is 85% than when the balance ratio is 95%, the customer attraction index decreases at an early stage. This is because the customer attraction index tends to decrease when the balance of payment is set unfavorable for the player.

  Here, the hall computer 1200 totals the daytime average operating rate of each gaming machine, and also totals the balance of each gaming machine. It also manages the number of days (introduction days) since the introduction date of each gaming machine. The balance of each gaming machine is calculated based on, for example, the number of difference balls (the number of shot balls-the number of winning balls). Then, after the business hours are over, the daytime average operating rate and the balance of the day for each gaming machine are transmitted to the management device 1250 together with the number of days of introduction of each gaming machine. In the management device 1250, the relationship between the number of days of introduction and the daytime average occupancy rate is tabulated for each balance ratio (for example, every 5%) of the gaming machine, and the result is managed as a customer attraction index curve for each balance ratio. The customer attraction index curve is managed for each game arcade, and the management device 1250 can provide a customer attraction index curve related to the amusement hall in which the hall computer 1200 is installed in response to a request from the hall computer 1200.

  Next, the number of days of introduction is set to 0 (S113), and the occupancy rate value (Y-coordinate value) related to the occupancy rate curve acquired in S104 is multiplied by the customer acquisition index (initially 1) for the number of days of introduction (initially 0). Thus, the operation rate curve for the introduction days is determined (S114). The operation rate curve corresponding to each introduction day is determined by S114. Then, the depreciation amount (the depreciation amount per day) in the introduction days is calculated based on the set balance ratio and the determined operating rate curve. For example, if the upper limit of the number of game balls to be thrown per hour is 10000 and the lending value of game media is 4 yen per ball, the number of balls to be thrown when operating at an operation rate of 100% per hour is calculated. The lending value will be 40,000 yen. In this case, if the balance ratio is set to 95%, 2000 yen per hour of operation is depreciated, and if the balance ratio is set to 85%, it is 6000 yen per hour of operation. Yen is the depreciation amount.

  In this simulation function, the operating rate for every hour is specified based on the operating rate curve for the introduction date determined in S114, and (operating rate per hour / 100) × 40000 × ((100−balance ratio) ) / 100) to calculate the depreciation amount per hour. Then, the transition of the depreciation amount per hour and the transition of the remaining depreciation amount associated therewith are stored. The transition of the depreciation amount and the remaining depreciation amount stored in this manner can be displayed on the display device 1206 by a predetermined operation. Then, the total depreciation amount from the business start time to the business end time in the introduction days is calculated as the depreciation amount in the introduction days (S115).

  In the above example, the hourly operating rate is specified based on the determined operating rate curve and the hourly depreciation amount is calculated. However, the present invention is not limited to this. The average daytime operating rate during business hours in the introduction days is calculated from the operating rate curve, and (average daytime operating rate / 100) × daily business hours (for example, 12 hours) × 40000 × ((100−balance) It is also possible to calculate the depreciation amount for the number of introduction days according to the ratio) / 100). Next, the depreciation remaining amount is subtracted and updated by subtracting the depreciation amount calculated in S115 from the current depreciation remaining amount (S116). Then, 1 is added to the number of introduction days (S117). Then, it is determined whether the depreciation balance after the subtraction update is 0 or less (S118). If it is not less than 0 (NO in S118), the process proceeds to S114, the operating rate curve for the updated introduction days is determined, the depreciation amount for the introduction days is calculated, and the process for updating the remaining depreciation is repeated. (S114 to S116). On the other hand, when the depreciation balance after subtraction update becomes 0 or less in S118 (YES in S118), the current introduction days are displayed on the display device 1206 as the depreciation days (S119), and the depreciation simulation is completed.

  By the process of S119, as shown in FIG. 40, the calculated number of depreciation days is displayed together with the model selected in S103 and the balance ratio input in S111. The depreciation simulation can be continuously executed by changing the model selected in S103 and the balance ratio input in S111. As a result, as shown in FIG. 40, the number of depreciation days for each model is displayed together with the input balance ratio. Thereby, the manager of the game hall can compare the depreciation days for each model. In this example, when the MAX type CR-AAA is set to 90%, the depreciation period is calculated as 20 days, and when the light type CR-BBB is set to 90%, the depreciation is calculated. The number of days is calculated as 16 days.

  The amortization days calculated in this way are simulation results that reflect the fact that models with a high jackpot probability are more likely to be selected than models with a low jackpot probability during a predetermined period before the end of the game hall business hours. is there. If the simulation is executed without reflecting the actual situation before the closing of the game hall business hours, a reliable result will not be obtained, and the game hall may be damaged due to miscalculation of the depreciation days. It might be. In this simulation function, the reliability of the calculated amortization days is improved by executing a simulation in accordance with the turn of the player before the end of business hours.

  FIG. 41 is a graph showing the transition of the remaining depreciation amount as the number of introduction days elapses, and is displayed on the display device 1206 during execution of the depreciation simulation. A state in which the remaining amount of depreciation gradually decreases due to the transition of the bar graph corresponding to the update of the remaining amount of depreciation in S116. In this example, the remaining depreciation amount is 0 when the number of introduction days is 18, and in this case, the number of depreciation days is 18.

  Further, in this simulation function, as shown in FIG. 38, different operation rate curves are provided depending on whether it is a suburban type or a city center type. This makes it possible to execute a highly reliable simulation according to the location of the amusement hall. In addition, in this simulation function, a depreciation simulation that reflects the fact that the operating rate decreases according to the number of days elapsed from the date of introduction of the gaming machine is executed, so the operating rate is constant regardless of the number of elapsed days Compared to the above, it is possible to execute a highly reliable simulation that matches the actual player's turn.

[6-9-2. Second simulation function]
Next, the hall computer 1200 as a management apparatus related to the second simulation function will be described with respect to differences from the first simulation function. The hall computer 1200 related to the second simulation function is different from the first simulation function in that the player who plays a game on the gaming machine is a player who has received membership registration as a member of the game hall or has received membership registration. The amortization simulation is executed by varying the operating rate of the gaming machine before the end of the business hours of the game hall, depending on whether it is a non-visitor player.

  In the amortization simulation related to the second simulation function shown in FIG. 42, first, a list of gaming machine models to be subjected to the amortization simulation is displayed on the display device 1206 (S202). When selection of the model from the list is completed (YES in S203), an initial value is set as the remaining depreciation amount = price of the selected model (S204). These processes are the same as those in the first simulation function.

  Next, a screen for selecting whether to execute the depreciation simulation based on the operating rate curve of the member model or the visitor model is displayed (S205). Next, an operation rate curve corresponding to the selected model, that is, either the member model or the visitor model is acquired (YES in S205 and S206 is executed). Here, as shown by the solid line in FIG. 43, the utilization rate curve of the member model is obtained as a player who plays a game on a gaming machine to be simulated and receives a member registration for becoming a member of the game hall. It is an operation rate curve when assuming the player who is. In addition, as shown by the dotted line in FIG. 43, the utilization rate curve of the visitor model is an operation when a visitor who has not received a membership registration is assumed as a player who plays a game on a gaming machine to be simulated. It is a rate curve.

  The difference in these operating rate curves is the operating rate in a predetermined period (here, 1 hour just before the end of business hours) before the end of business hours of the amusement hall. A member player has a membership card by performing membership registration. After the game is over, the number of game media at hand can be added to the number of stored balls managed in association with the card ID (or member ID) of the member card. For example, when a member player adds the number of game media at hand to the number of stored balls, the member player inserts a member card into a game media counter installed at an island edge of the game hall, etc., and counts the number of game media Thus, the counted number of game media is added to the number of stored balls managed in association with the card ID (or member ID) of the member card.

  The number of stored balls is the value of the stored game value that can be reused by members of the player, and the next time you play the game, it will be within the range of stored balls without having to put cash into the card unit and lend the ball. It is possible to play a game using a stored ball. For example, by inserting a membership card into the storage ball replay device provided in the game hall, entering the PIN number, and then entering the number of storage balls to be used, the entered number of storage balls is provided, and this is re-used in the game. Can be used. On the other hand, a visitor player who does not have a membership card needs to exchange the number of game media at hand for a prize according to the number of game media after the game is over. In the time zone just before the end of business hours of the game hall, there are many cases where the prize exchange counter is crowded with the players who have finished the game, and the player rounds up the game early in anticipation of this. For this reason, the probability that a visitor player will end the game is higher than the probability that the member player will end the game during the predetermined period before the end of business hours at the game hall (in this example, one hour just before the end of business hours). Become. The utilization rate curve shown in FIG. 43 reflects such a player's turn.

  In addition, there is a case where each counter is provided corresponding to the gaming machine. Each stand counting device is a device provided corresponding to each gaming machine and capable of counting the number of gaming media paid out to the player. When a game is played by inserting a member card into a card unit provided with each counter, the number of game media counted during business hours is managed as the number of balls and can be used for the game of the day. On the other hand, after the end of business hours, the number of possessed balls will be automatically added to the number of accumulated balls, and it can be used for the game after the next day. Therefore, the member player does not need to perform a special work for adding the number of balls at the end of the game to the number of stored balls. On the other hand, even when each counter is provided, since the visitor player cannot store balls, it is necessary to exchange prizes according to the number of balls at the end of the game. Therefore, even if each car counter is provided, the probability that the member player will end the game for a predetermined period before the end of the business hours of the game hall (in this example, one hour just before the end of the business hours) The probability that the visitor player will end the game is higher than

  Each operation rate curve shown in FIG. 43 is an example of statistical data created by the management device 1250 based on game information received from the hall computer 1200 of each game hall. The hall computer 1200 can count changes in the number of member players and the number of visitor players during business hours. When a membership card is inserted into a card unit provided corresponding to each gaming machine, the hall computer 1200 detects the insertion of the membership card, and when the membership card is discharged from the card unit, It detects the discharge of the membership card. Therefore, the number of card units (that is, the number of gaming machines) in which member cards are inserted can be counted as the number of member players who are playing games. The hall computer 1200 receives a driving signal from an out-ball counter provided corresponding to each gaming machine. Therefore, the number of gaming machines in which a member card is not inserted into the corresponding card unit but a driving signal is output can be counted as the number of visitor players who are playing a game. Thereby, it becomes possible to tabulate the transition of the number of member players and the number of visitor players who are playing games during business hours. Then, after the business hours are over, the transition information of the number of member players and the number of visitor players on the day is transmitted to the management device 1250.

  The management device 1250 manages the received transition information for each game hall, and based on this, the utilization rate transition when a member player plays a game in a predetermined gaming machine, and the visitor player plays a game. Modeling the transition of the utilization rate when For example, the average number of member players per hour from the start of business at each game hall to 1 hour before the end of business hours (normal average number of members) is calculated, and the average of the member players for 1 hour before the end of business hours The number of members (average number of members before the end) is calculated, and the member decrease ratio is calculated by the average number of members before the end / average number of members at the normal time. Also, the average number of visitor players per hour from the start of business at each game hall to 1 hour before the end of business hours is calculated (the average number of visitors during normal times), and the average number of visitor players during the 1 hour before the end of business hours The number (average number of visitors before the end) is calculated, and the visitor reduction ratio is calculated by the average number of visitors before the end / the average number of visitors at the normal time. Furthermore, based on the average operating rate (60% in the example of FIG. 43) of the gaming machines from the start of business at the game hall to 1 hour before the end of business hours, the average operating rate x member reduction ratio 1 Calculate the utilization rate of the member model over time, and determine the utilization rate curve of the member model. Further, based on the average operating rate (60% in the example of FIG. 43) of the gaming machines from the start of business at the game hall to 1 hour before the end of business hours, the average operating rate x visitor reduction ratio 1 The visitor model utilization rate in time is calculated, and the visitor model utilization rate curve is determined. In response to a request from the hall computer 1200, the management device 1250 can provide an operation rate curve of a member model or a visitor model related to the game hall where the hall computer 1200 is installed. Note that the management device may create an average utilization rate curve based on the transition information received from a plurality of amusement halls and provide it in response to a request from the hall computer 1200. In addition, in the hall computer 1200 of each game hall, an operating rate curve may be created based on the total result of its own gaming hall, and a depreciation simulation based on the operating rate curve may be executed. Moreover, in the hall computer 1200 of each amusement hall, an arbitrary operating rate curve may be created and a depreciation simulation based on the operating rate curve may be executed.

  In S210 and subsequent steps, the same processing as that in S110 and subsequent steps shown in the first simulation function is executed. Then, in S219, as shown in FIG. 44, the amortization days calculated together with the model selected in S203 and the model (member model or visitor model) selected in S205 are displayed. The depreciation simulation can be continuously executed by changing the model selected in S203, the model selected in S205, and the balance ratio input in S211. As a result, as shown in FIG. 44, the number of depreciation days corresponding to the member model and the visitor model is displayed together with the selected model and the input balance ratio. Thereby, the manager of the game hall can compare the depreciation days of the member model and the visitor model. In this example, when the selected model is CR-CCC, the depreciation period is calculated as 23 days when the balance ratio is set to 95% in the member model, and depreciated when the balance ratio is set to 95% in the visitor model. The number of days is calculated as 25 days.

  The amortization days calculated in this way reflect the fact that member players are more likely to continue playing games than visitor players at a predetermined time (1 hour in this example) prior to the end of the game hall business hours. It is a simulation result. If the simulation is executed without reflecting the actual situation before the closing of the game hall business hours, a reliable result will not be obtained, and the game hall may be damaged due to miscalculation of the depreciation days. It might be. In this simulation function, the reliability of the calculated amortization days is improved by executing a simulation in accordance with the turn of the player before the end of business hours. In addition, the amortization simulation related to the second simulation function makes it possible for the game hall to quantitatively grasp the advantage of increasing the number of member players, which can be used for management of the game hall.

[6-9-3. Third simulation function]
Next, the hall computer 1200 as a management apparatus related to the third simulation function will be described with respect to differences from the first simulation function. Unlike the first simulation function, the hall computer 1200 related to the third simulation function varies the operating rate of the gaming machine before the end of the business hours of the game hall according to the rental value of the gaming media used in the gaming machine. A depreciation simulation is executed. In this example, it is assumed that a game ball of 4 yen per ball and a game ball of 1 yen per ball are assumed as game media used in the game machine, and 4 game machines using 4 ball per ball are used. A gaming machine in which a one-ball gaming machine is used is called a one-yen gaming machine.

  In the amortization simulation according to the third simulation function shown in FIG. 45, first, the model of the gaming machine to be executed for the amortization simulation is displayed in a list on the display device 1206 (S302). When selection of the model from the list display is completed (YES in S303), an initial value is set as the remaining depreciation amount = price of the selected model (S304). These processes are the same as those in the first simulation function.

  Next, a screen for selecting whether to execute the depreciation simulation based on the operating rate curve of the 4-yen model or the operating rate curve of the 1-yen model is displayed (S305). Next, an operation rate curve corresponding to the selected model, that is, either the 4-yen model or the 1-yen model is acquired (YES in S305 and S306 is executed). Here, the operating rate curve of the 4-yen model is an operating rate curve assuming that the gaming machine to be simulated is a 4-yen gaming machine, as shown by the solid line in FIG. Further, the utilization rate curve of the 1-yen model is an utilization rate curve assuming that the gaming machine to be simulated is a 1-yen gaming machine, as shown by the dotted line in FIG.

  The difference between these operating rate curves will be described. In the case of a 4-yen game machine, the balance of the balance is larger than that of a 1-yen game machine, so that even if the player has a positive balance, the balance will deteriorate as the game continues. We are strongly aware of the risks Therefore, when the balance is positive, the timing of the end of the game is advanced, for example, when the high base state is entered after the end of the big hit gaming state, the game is immediately terminated at the end of the high base state Will increase. In particular, during a predetermined period before the end of business hours, there is a strong desire to end the game of the day with a positive balance, so the probability of immediately ending the game increases with the end of the high base state. On the other hand, in the case of a one-yen game machine, since the balance of payment is smaller than that of a four-yen game machine, the risk of a worsening of the balance due to continuation of the game is not so conscious. Accordingly, there is a situation that the probability of continuing the game even after the high base state ends is higher than that of the 4-yen game machine. The above situation is reflected in the occupancy rate curve of the 4-yen model and the occupancy rate curve of the 1-yen model shown in FIG. 46, and the occupancy rate of the 4-yen game machine is 1-yen game machine from the opening time to 18:00. The operating rate of 1-yen gaming machines is higher than that of 4-yen gaming machines after 18:00.

  46 is an example of statistical data created by the management device 1250 based on the game information received from the hall computer 1200 of each game hall. The hall computer 1200 can tabulate the operating rate transitions of 4-yen gaming machines and 1-yen gaming machines provided in the game hall. The hall computer 1200 can specify the period during which the driving signal from the out ball counter corresponding to the 4-yen gaming machine is input as the operating period of the 4-yen gaming machine, and the out-ball corresponding to the 1-yen gaming machine. The period during which the driving signal from the counter is input can be specified as the operating period of the one-yen game machine. As a result, it is possible to aggregate the change in the operating rate of the 4-yen gaming machine and the change in the operating rate of the 1-yen gaming machine during the game hall business hours. Then, after the end of business hours, the utilization rate transition information of the 4-yen game machine and the 1-yen game machine on that day is transmitted to the management device 1250.

  The management device 1250 manages the received operation rate transition information for each game hall, and creates a 4-yen model operation rate curve and a 1-yen model operation rate curve for each game site. In response to a request from the hall computer 1200, the management device 1250 can provide an operation rate curve of the 4-yen model or the 1-yen model related to the game hall where the hall computer 1200 is installed. The management device may create an average operating rate curve based on operating rate transition information received from a plurality of amusement halls, and provide the average operating rate curve in response to a request from the hall computer 1200. In addition, in the hall computer 1200 of each game hall, an operating rate curve may be created based on the total result of its own gaming hall, and a depreciation simulation based on the operating rate curve may be executed. Moreover, in the hall computer 1200 of each amusement hall, an arbitrary operating rate curve may be created and a depreciation simulation based on the operating rate curve may be executed.

  Next, a balance ratio input field is displayed on the display device 1206 (S310). When the balance ratio is input (YES in S311), the management apparatus 1250 generates the customer acquisition index curve corresponding to the gaming machine model (4 yen model or 1 yen model) selected in S305 and the balance ratio input in S310. (S312). FIG. 47 shows an example of a customer attraction index curve related to the third simulation function. In the third simulation function, a customer attraction index curve for each balance ratio is provided for each of the 4-yen model and the 1-yen model. This reflects the fact that the change rate of the operating rate with the passage of the number of introduction days differs between the 4-yen game machine and the 1-yen game machine.

  Here, the hall computer 1200 tabulates the average daytime occupancy rates of the 4-yen game machine and the 1-yen game machine, and also the balance of each gaming machine. It also manages the number of days (introduction days) from the introduction date of 4-yen gaming machines and 1-yen gaming machines. The balance of each gaming machine is calculated based on, for example, the number of difference balls (the number of shot balls-the number of winning balls). Then, after the business hours are over, the daytime average occupancy rate and the balance of the day for the 4-yen game machine and the 1-yen game machine are transmitted to the management device 1250 together with the number of days of introduction of each game machine. The management device 1250 aggregates the relationship between the number of introduction days and the daytime average occupancy rate for each 4% gaming machine balance ratio (for example, every 5%), and the result is the customer acquisition index for each balance ratio according to the 4 yen model. It is managed as a curve. In addition, for each Yen gaming machine balance ratio (for example, every 5%), the relationship between the number of days introduced and the daytime average occupancy rate is tabulated, and the result is managed as a customer attraction index curve for each Yen model. doing. The customer attraction index curve is managed for each game arcade, and the management device 1250 can provide a customer attraction index curve related to the amusement hall in which the hall computer 1200 is installed in response to a request from the hall computer 1200.

  Comparing the customer attraction index curve of the 4-yen model shown in FIG. 47 (a) with the customer-attraction index curve of the 1-yen model shown in FIG. 47 (b), the 1-yen model shows that the number of days of introduction is longer than that of the 4-yen model. The accompanying drop in customer attraction index (occupancy rate coefficient) is moderate. When new models are introduced, many of them are introduced as 4-yen gaming machines, and the number of introduced as 1-yen gaming machines is limited. In that case, since the number of new one-yen gaming machines is small compared to the number of players who want to play with one-yen gaming machines, the operating rate of one-yen gaming machines increases as a result, and even if the number of introduction days elapses. Customer attraction index is unlikely to drop. In addition, when a game is played with a 4-yen game machine, a disadvantage of the player due to setting a low balance ratio is great. Therefore, as shown in the example shown in FIG. 47 (a) (balance ratio 85% with respect to balance ratio 95%), the customer attraction index tends to decrease sharply by setting the balance ratio low. On the other hand, when a game is played with a one-yen game machine, there is a tendency to play a game even if the balance ratio is somewhat low due to interest in the new model. Therefore, as shown in the example shown in FIG. 47B (balance ratio 85% with respect to balance ratio 95%), even if the balance ratio is set low, the customer attraction index does not decrease as sharply as the 4-yen game machine. The customer attraction index curve shown in FIG. 47 reflects these circumstances.

  In S313 and later, the same processing as that in S113 and later shown in the first simulation function is executed. Then, in S319, as shown in FIG. 48, the number of depreciation days calculated together with the model selected in S303 and the model selected in S305 (4-yen model or 1-yen model) and the income and expenditure ratio input in S311 Is displayed. The depreciation simulation can be continuously executed by changing the model selected in S303, the model selected in S305, and the balance ratio input in S311. As a result, as shown in FIG. 48, the depreciation days corresponding to the 4-yen model and the 1-yen model are displayed together with the selected model and the set balance ratio. Thereby, the manager of the game hall can compare the depreciation days of the 4-yen model and the 1-yen model. In this example, when the selected model is CR-AAA, when the balance ratio is set to 95% in the 4 yen model, the depreciation period is calculated to be 26 days, and when the balance ratio is set to 85% in the 1 yen model The number of depreciation days is calculated as 24 days.

  The amortization days calculated in this manner are such that a 1-yen game machine is more likely to play a game than a 4-yen game machine in a predetermined period (18: 0 to 22:00 in this example) before the game hall is closed. This simulation result reflects the fact that it is easy to continue. If the simulation is executed without reflecting the actual situation before the closing of the game hall business hours, a reliable result will not be obtained, and the game hall may be damaged due to miscalculation of the depreciation days. It might be. In this simulation function, the reliability of the calculated amortization days is improved by executing a simulation in accordance with the turn of the player before the end of business hours. Further, the result of the depreciation simulation related to the third simulation function can be an important index for examining the introduction ratio of the 4-yen machine and the 1-yen game machine when the new model is introduced.

  In particular, in this simulation function, in the case of a 1-yen game machine, a depreciation simulation is performed that reflects the fact that the operating rate does not decrease as quickly as the 4-yen game machine even if the balance ratio is reduced to some extent. If a simulation that does not reflect such a situation is executed, the result is that the amortization period of the one-yen game machine becomes extremely long or difficult. With this simulation function, it is possible to calculate an appropriate depreciation period by executing a simulation reflecting the above situation.

[6-9-4. Fourth simulation function]
Next, the hall computer 1200 as the management apparatus according to the fourth simulation function will be described with respect to differences from the first simulation function. Unlike the first simulation function, the hall computer 1200 according to the fourth simulation function executes an amortization simulation by varying the operating rate of the gaming machine before the end of business hours of the game hall according to the game balance in the gaming machine. It is. For example, if the game balance is positive, the player wants to end the game on the current day without deteriorating the balance, so the probability of ending the game during a predetermined period before the end of business hours increases. On the other hand, when the game balance is negative, the player wants to recover the balance even a little and end the game of the day, so there is a tendency to continue the game as late as possible. In the fourth simulation function, a depreciation simulation reflecting such a player's turn is executed.

  In the amortization simulation according to the fourth simulation function shown in FIG. 49, first, a list of gaming machine models to be subjected to the amortization simulation is displayed on the display device 1206 (S402). These processes are the same as those in the first simulation function. When the selection of the model from the list is completed (YES in S403), the specification (so-called specification) and price of the selected model are acquired from the management device 1250 (S404, S405). Further, the initial value is set as the remaining amount of depreciation = the price of the selected model (S405). Here, the management device 1250 stores the specification and price of the model corresponding to the manufacturer ID and the model ID indicating the model (model) of the gaming machine, in response to a request from the hall computer 1200. The specifications and price of the selected model can be provided. The hall computer 1200 may store specifications and prices for each model.

  Here, as an example, a gaming machine having the specifications shown in FIG. The gaming machine has a first variable display means for performing variable display of the first identification information (see FIG. 1) based on the winning of the game ball in the first start area, and the game ball in the second start area. Based on the above, there is provided second variable display means for performing variable display of the second identification information (see FIG. 2). The second start area is controlled to be opened and closed by a variable winning ball device (so-called electric Chu), so that a game ball can be won when it is in an open state. In addition, the gaming machine includes a normal symbol variable display unit that performs variable display of a normal symbol based on the fact that the game ball has passed a predetermined passing area (gate). When the display result of the normal symbol variable display section becomes a predetermined display result, the variable winning ball apparatus is controlled to be released, and the game ball can win in the second starting area.

  When the display result of the first variable display means or the second variable display means becomes the specific display result, the game is controlled to a big hit gaming state advantageous to the player. Here, the big hit gaming state includes a probability variable big hit in which the probability that the specific display result is derived and displayed after the end of the big hit gaming state is increased, and the ratio that the specific display result is derived and displayed after the big hit gaming state ends. There is a normal jackpot that results in a low probability state that is not raised. Then, after any of the big hit gaming states, the frequency of the variable winning ball apparatus being controlled to be released is increased, so that the high base state (time-short state) that makes it easy for the gaming ball to win in the second starting area is controlled. In the case of a promising big hit, the high probability / high base state continues from the end of the big hit gaming state to the next big hit occurrence. Normally, in the case of a big hit, the low probability / high base state is reached until a predetermined variable display number after the big hit gaming state is finished, and when the predetermined variable display number is finished, the low probability / low base state is entered.

  In this example, as shown in FIG. 51A, the probability that the specific display result is derived and displayed in the low probability state (shown as normal time in the figure) is 1/399, and the high probability state (in the figure) In this case, the probability that the specific display result is derived and displayed is 1/40. In addition, after the probable big hit, the high base state continues until the next big hit occurs (shown as a short duration in the figure), but after the normal big hit, the high base state ends when the fluctuation display is executed 70 times (see FIG. (In the figure, it is shown as up to 70 fluctuations in short time).

  Further, in this example, as shown in FIG. 51 (b), when the display result of the variable display by the first variable display unit becomes the specific display result, a normal big hit of 10R is made at a rate of 40% and 1200 shots are made. Can be expected. Here, the round (R) is a unit in which the special variable winning ball apparatus controlled to be released in the big hit gaming state is in an open state, and one round is a special variable winning in a predetermined number (for example, eight) of game media. The process ends when either the winning of the ball apparatus or the predetermined time (for example, 29 seconds) elapses from the release state is satisfied. When a game medium wins the special variable winning ball apparatus, a predetermined number (for example, 15) of winning balls are paid out. The 10 round (R) jackpot gaming state is a jackpot gaming state in which one round is executed 10 times. If 120 rounds (for example, 15 × 8) can be expected per round, 1200 rounds can be expected in 10 rounds. Further, in this example, when the display result of the variable display by the first variable display unit is the specific display result, it becomes a probable big hit of 10R at a rate of 35%, and 1200 balls can be expected. And when the display result of the variable display by the 1st variable display part turns into a specific display result, it becomes a probable big hit suddenly at the rate of 25%. In the case of a sudden probability big hit, the special variable winning ball apparatus is controlled to be released in a very short time (for example, 0.5 seconds), so that the winning of the game ball cannot be expected and the output is substantially zero. It should be noted that after completion of the opening control of the special variable winning ball apparatus related to the sudden probability variation big hit, the high probability / high base state is controlled.

  In this example, as shown in FIG. 51 (c), when the display result of the variable display by the second variable display unit is the specific display result, the normal big hit of 7R is made at a rate of 40%, and 840 shots are made. Can be expected. Further, in this example, when the display result of the variable display by the second variable display unit is the specific display result, the probability change big hit of 7R at a rate of 10%, and 840 rounds can be expected. And when the display result of the variable display by the second variable display unit becomes the specific display result, it becomes a probable big hit of 15R at a rate of 50%, and 1800 rounds can be expected.

  After acquiring the specifications of the selected model, the number of game media required per variable display when the game state is the normal state (low probability / low base state) and the game state is the short state (high probability / high A column for inputting the number of game media required for one variable display when the base state or low probability / high base state) is displayed (S406). The number of game media input here is an index indicating the ease of winning the game ball in the first start area and the ease of winning the game ball in the second start area. In game halls, the ease of winning in the first starting area is usually adjusted by preparing game nails that form a winning path for gaming balls in the first starting area. The ease of winning in the second starting area is adjusted by preparing the game nails that form the path. Accordingly, the number of game media input in S405 is an index reflecting the nail adjustment status around the first starting area, and an index reflecting the nail adjustment status around the gate.

  Here, each game machine outputs a symbol confirmation signal to the hall computer 1200 every time the variable display by the first variable display unit and the second variable display unit is finished and the display result is derived and displayed. . In addition, when each gaming machine is in a time-short state (high base state), a time-short signal is output. Further, as described above, the out ball counter provided corresponding to each gaming machine outputs a driving signal that enables the number of game balls that have been fired to be identified (for example, the number of shot balls of 10 shots). One pulse output signal is output for each). Therefore, in the hall computer 1200, when the gaming state is the normal state (low probability / low base state) based on the number of symbol determination signals input and the number of input signals during the period in which the time reduction signal is not input. It is possible to calculate the number of game media required per one variable display. In addition, based on the number of symbol confirmation signals input and the number of input signals during the period in which the time reduction signal is input, the gaming state is a time reduction state (high probability / high base state or low probability / high base state). It is possible to calculate the number of game media required per one variable display.

  Furthermore, a prize ball signal that allows the number of game balls given as prize balls to be specified is output from each gaming machine to the hall computer 1200 (for example, one pulse for every ten shot balls). For each model, “the number of game media required per variable display in the normal state” and “the number of game media required per variable display in the short time state” for each model. It is possible to aggregate the balance information such as the number of difference balls in association with. Then, after the end of business hours, “the number of game media required per variable display in the normal state” and “the number of game media required per variable display in the short time state” on the day, The obtained number of difference balls is transmitted to the management apparatus 1250 as information for each model.

  In the management device 1250, for each game hall and each model, “the number of game media required per variable display in the normal state”, “the number of game media required per variable display in the short time state”, and Statistical data of balance information (for example, the number of difference balls) corresponding to this is created and managed. These statistical data can be provided in response to a request from the hall computer 1200. The management device 1250 can also calculate average data of a plurality of game halls. For example, for each model, “the number of game media required per variable display in the normal state” and “shortening time” It is possible to calculate average balance information in accordance with “the number of game media required per variable display in the state”.

  Therefore, each game hall is not introduced in its own game hall, but the number of game media required for one variable display in the normal state of the models introduced in other game halls and It is also possible to acquire average balance information according to “the number of game media required per variable display when the time is short”. According to this, it is possible to execute a simulation based on the operation results in other amusement halls for the models that have not been introduced.

  When displaying the input field of the number of game media in S405, from the management device 1250, “the number of game media required per variable display in the normal state” and “variable display per time in the short-time state” It is also possible to obtain balance information according to the “number of required game media” and present it. Thereby, it is possible to perform input based on the relationship between the number of game media required per variable display and the balance. It should be noted that in the hall computer 1200 of each game hall, “the number of game media required per variable display in the normal state” and “variable display 1 in the short time state” based on the total result of the own game hall. It is also possible to calculate balance information according to the “number of game media required per turn” and present it.

  When the number of game media required for one variable display is input (YES in S407), the number of days of introduction is set to 0 (S408), and the simulation business hours are started (S409). For example, the virtual time is set to 10:00. Next, a game execution simulation is executed (S410). In the game execution simulation, a balance in a period from when one player starts a game with a predetermined gaming machine to when the game ends is simulated. FIG. 50 shows a flowchart of the game execution simulation.

  In the game execution simulation, it is first determined whether or not a game is started (S420). Here, the determination of whether or not the game has started is made based on a predetermined determination criterion, as shown in FIG. In this example, when the virtual time is 10:00 to 18:00, it is determined that the game is started at a rate of 60%, and when the virtual time is 18:00 to 20:00, 20% It is determined that the game has been started at a rate, and when the virtual time is from 20:00 to 22:00, it is determined that the game has been started at a rate of 5%.

  Here, the hall computer 1200 receives the driving signal as described above, and specifies the period during which the driving signal is input as the gaming period and the period during which the driving signal is not input as the non-game period. Is possible. Therefore, the probability that the game is started within a predetermined time in the non-game period can be tabulated for each time zone. For example, what percentage of games will start within 15 minutes in the non-game period for each time zone (10:00 to 18:00, 18: 00 to 20:00, 20: 00 to 22:00) Can be counted. In addition, the hall computer 1200 transmits these total results to the management device 1250, so that the management device 1250 creates statistical data for each game hall or average of a plurality of game halls. It is possible to provide it to a playground. The determination criterion shown in FIG. 52A is an example of statistical data (for example, statistical data based on the aggregation result for the previous month) of the game hall obtained from the management device 1250. It should be noted that the hall computer 1200 of each amusement hall may create a determination criterion based on the total result of its own game hall and execute a depreciation simulation based on the determination criterion. Moreover, in the hall computer 1200 of each amusement hall, an arbitrary determination criterion may be created, and a depreciation simulation based on the determination criterion may be executed.

  In the example shown in FIG. 52 (a), there is a simulation that reflects the fact that the probability of starting a game decreases after 18:00 and the probability of starting a game further decreases when the virtual time passes 20:00. Executed. If it is determined in S420 that the game has not started, business hours are added. For example, it is assumed that 15 minutes is added to the virtual time. Then, it is determined whether or not the business hours have ended (virtual time is after 22:00) (S421). If the business hours have not ended (NO in S421), the processing after S420 is executed again. To do. If the business hours are over (YES in S421), the game execution simulation is completed.

  If it is determined in S420 that the game has been started (YES), it is determined whether or not a big hit is made based on the determination criteria in the normal state (low probability / low base state), that is, the low probability state (S422). . In this example, it is determined to be a big hit with a probability of 1/399. Furthermore, the fluctuation time (for example, average fluctuation time) from when the variable display is started in the normal state to when the display result is derived and displayed is added to the business hours. For example, it is assumed that 10 seconds is added to the virtual time. Further, the number of game media required for one variable display in the normal state is added to the number of shot balls (S423).

  Then, it is confirmed whether or not it is determined to be a big hit (S424). If it is determined that the game is out of place (NO in S424), it is determined whether or not to end the game (S450). If it is determined that the game is not to be ended (NO in S450), the processing from S422 is executed again. If it is determined that the game is to be ended (YES in S450), the game execution simulation is completed. On the other hand, if it is determined to be a big hit (YES in S424), the big hit type is determined (S425). Here, when the gaming state is a low probability state, the jackpot type is determined at the rate shown in FIG. 51 (b), and when the gaming state is a high probability state, it is shown in FIG. 51 (c). The jackpot type is determined at a certain rate. Whether the gaming state is a high-probability state or a low-probability state is determined based on whether the previous big hit (determination in S430 to be described later) was a probability big hit or a normal big hit. If no big hit has occurred on the business day, the jackpot type is determined at the rate shown in FIG.

  Then, the number of balls according to the determined jackpot type is added to the number of winning balls (S426). In addition, business hours are added according to the type of jackpot. For example, in the case of 15R big hit, 3 minutes are added to the virtual time, and in the case of 7R big hit, 1 minute 30 seconds are added to the virtual time. Then, it is determined whether or not business hours have ended (virtual time is after 22:00) (S427). If business hours have not ended (NO in S427), the process proceeds to S430 and subsequent steps. . If the business hours are over (YES in S427), the game execution simulation is completed.

  In S430, it is confirmed whether the determined big hit type is a probable big hit or a normal big hit. If it is a promising big hit (YES in S430), it is determined whether or not to make a big hit based on the criterion in the high probability state (S431). In this example, it is determined to be a big hit with a probability of 1/40. Further, a change time (for example, an average change time) from when variable display is started in the short-time state (high base state) to when a display result is derived and displayed is added to business hours. For example, it is assumed that 3 seconds is added to the virtual time. Further, the number of game media required for one variable display in the short time state is added to the number of shot balls (S432).

  Then, it is confirmed whether or not it is determined to be a big hit (S433). If it is determined to be a big hit (YES in S433), the processing after S425 is executed again. If it is determined to be out of date (NO in S433), it is determined whether or not business hours have ended (virtual time is after 22:00) (S434). If the business hours have not ended (NO in S434), the processing after S431 is executed again. If the business hours are over (YES in S434), the game execution simulation is completed.

  In S430, if it is not a probable big hit, that is, if it is a normal big hit (NO), it is determined whether or not to make a big hit based on the criterion in the low probability state (S435). In this example, it is determined to be a big hit with a probability of 1/399. Further, a change time (for example, an average change time) from when variable display is started in the short-time state (high base state) to when a display result is derived and displayed is added to business hours. For example, it is assumed that 3 seconds is added to the virtual time. Further, the number of game media required for one variable display in the short time state is added to the number of shot balls (S436).

  Then, it is confirmed whether or not it is determined to be a big hit (S437). If it is determined to be a big hit (YES in S437), the processing after S425 is executed again. If it is determined to be out of date (NO in S437), it is determined whether or not business hours have ended (virtual time is after 22:00) (S438). If the business hours have ended (YES in S438), the game execution simulation is completed. If the business hours have not ended (NO in S438), it is determined whether or not the short-time state has ended, that is, whether or not variable display has been executed 70 times from the normal big hit (S439). If the time saving state has not ended (NO in S439), the processing from S435 is executed again. If the time saving state has been completed (YES in S439), the processing from S422 is executed again.

  As described above, when it is determined in S421, S427, S434, and S438 that the business hours have ended, the game execution simulation is completed. In S450 described above, it is determined whether or not to end the game based on a determination criterion described below. In the determination process of S450, if 15 minutes have not elapsed since the virtual time when the determination process of S450 was executed last time, it is determined as NO, and the processes after S422 are executed again. That is, the determination process of S450 is executed with an interval of 15 minutes or more of the virtual time.

  As shown in FIG. 52 (b), when the virtual time at the time of determination in S450 is in the range of 10:00:00 to 20:00, depending on the range of the number of difference balls calculated from the number of balls to be hit-the number of prize balls Thus, it is determined that the game is ended at a different rate. Here, when the number of difference balls> 0, the balance for the game hall is positive, and when the number of difference balls <0, the balance for the player is positive. First, when 2500> the number of difference balls> −2500, it is determined that the game is finished at a rate of 25%. Further, when 2500 ≦ the number of difference balls, it is determined that the game is finished at a rate of 25%. In addition, when the number of difference balls ≦ −2500, it is determined that the game is finished at a rate of 35%.

  On the other hand, as shown in FIG. 52 (b), when the virtual time in the determination of S450 is in the range of 20: 00 to 22:00, the game is played at a rate of 35% when 2500> the number of difference balls> −2500. Is determined to end. Further, when 2500 ≦ the number of difference balls, it is determined that the game is finished at a rate of 30%. In addition, when the number of difference balls ≦ −2500, it is determined that the game is finished at a rate of 60%. In other words, during a predetermined period (2 hours) before the end of business hours, if the player's balance is a plus greater than or equal to a predetermined value, the player wants to end the game of the day without deteriorating the balance. The rate of ending the game is high. Compared to this, if the player's balance is more than a predetermined value, the player wants to recover the balance as much as possible and end the game of the day. There is a tendency to continue. The setting of the game end probability shown in FIG. 52 (b) reflects such a situation. In addition, since it is after business hours end after 22:00, it is determined that the game is ended at a rate of 100%.

  Here, the hall computer 1200 receives a driving signal and a prize ball signal corresponding to each gaming machine as described above. The period in which the driving signal is input can be specified as the gaming period, and the period in which the driving signal is not input can be specified as the non-game period. Thereby, it is possible to specify a game period (start and end of game) by one player, and it is possible to add up the balance in the game machine period from the difference between the number of balls and prize balls in that game period. . Therefore, the game end probabilities corresponding to the balance (for example, the number of difference balls) can be tabulated in each time zone during business hours. For example, it is possible to count what percentage of games will be finished within 15 minutes according to the balance. In addition, since each game machine outputs a time signal when it is controlled to the high base state, the hall computer 1200 is in a period during which the time signal is not input (a period in which the high base state is exited). The game end probabilities according to the balance (for example, the number of difference balls) can be tabulated. For example, it is possible to tabulate what percentage of games will end within 15 minutes according to the balance in the normal state. As a result, it is possible to tabulate appropriate data serving as a reference for determining the end of the game in S450. In addition, the hall computer 1200 transmits these total results to the management device 1250, so that the management device 1250 creates statistical data for each game hall or average of a plurality of game halls. It is possible to provide it to a playground. The determination criterion shown in FIG. 52 (b) is an example of statistical data of the game hall obtained from the management device 1250 (for example, statistical data based on the aggregation result for the previous month).

  Returning to FIG. 49, when the game execution simulation of S410 is completed, the number of balls and prize balls related to the game execution simulation are once reset to zero. The difference ball number at this time is reset to 0 after being stored in the corresponding storage area as a result of the game execution simulation. Then, it is determined whether or not the business hours have ended (whether the virtual time is after 22:00) (S411). If the business hours have not ended (NO in S411), the game execution simulation in S410 is executed again. On the other hand, if the business hours are over (YES in S411), the difference in the number of introduction days is calculated (S412). The difference in the number of introduction days is calculated as a total value of the difference in the game execution simulation related to the introduction days.

  Then, the depreciation amount in the introduction days is calculated based on the difference ball number calculated in S412 (for example, in the case of a 4-yen game machine, the difference ball number × 4), and the depreciation amount calculated from the current amortization remaining amount is subtracted. (S413). Then, 1 is added to the number of introduction days (S415). Then, it is determined whether or not the depreciation balance after the subtraction update is 0 or less (S416). If it is not less than 0 (NO in S416), the processing after S409 is executed again. That is, a game execution simulation related to the next business day is executed. On the other hand, if the remaining depreciation amount after subtraction update is 0 or less in S416 (YES in S416), the current introduction days are displayed on the display device 1206 as the depreciation days (S417), and the depreciation simulation is completed.

  As a result of the processing in S417, as shown in FIG. 53, the calculated number of depreciation days is displayed together with the model selected in S403 and the number of shot balls required for one change input in S406 (normal time and short time). . The depreciation simulation can be continuously executed by changing the model selected in S403 and the number of shot balls input in S406. As a result, as shown in FIG. 53, the number of depreciation days for each model is displayed together with the number of input balls. Thereby, the manager of the game hall can compare the number of depreciation days for every number of balls required for one change. In this example, regarding CR-AAA, when the number of shots required for one change at normal time is set to 16 shots, and the number of shots required for one change at time reduction is set to 4 shots, the depreciation period is 20 days. When the number of shots required for one change in normal time is set to 14 and the number of shots required for one change in time reduction is set to 4 shots, the depreciation period is calculated as 23 days.

  The amortization days calculated in this way indicate that it is easier for a player with a negative balance to continue to play a game than a player with a positive balance during a predetermined period before the closing of the game hall. This is a reflected simulation result. If the simulation is executed without reflecting the actual situation before the closing of the game hall business hours, a reliable result will not be obtained, and the game hall may be damaged due to miscalculation of the depreciation days. It might be. In this simulation function, the reliability of the calculated amortization days is improved by executing a simulation in accordance with the turn of the player before the end of business hours.

  FIG. 54 is a graph showing the transition of the remaining depreciation amount as the number of days introduced, and is displayed on the display device 1206 during the execution of the depreciation simulation. It shows how the remaining amount of depreciation gradually decreases due to the transition of the bar graph corresponding to the update of the remaining amount of depreciation in S413. In this example, the remaining depreciation amount is 0 when the number of introduction days is 21, and the number of depreciation days in this case is 21 days. In this simulation function, whether or not the jackpot in the game execution simulation is determined is whether the random number extracted at the timing of the determination matches any of the jackpot determination values set in the jackpot determination table. Based on whether or not. The jackpot determination table referenced in the normal state (low probability state) has a narrow range of jackpot determination values, and the jackpot determination table referenced in the high probability state has a wide range of jackpot determination values. Thereby, in the game execution simulation which concerns on this simulation function, the frequency with which a big hit is generated is randomized and it is set as the form similar to the actual game form. Therefore, as shown in FIG. 54, depending on the business day, there is a day when the balance of the playground is positive (a day when the amortization balance decreases) and a day when it becomes negative (a day when the amortization balance increases more than the previous day) ), Which is the same form as the actual depreciation form.

(Modification of the first simulation function)
In the first simulation function described above, an example in which the number of depreciation days is calculated based on an operation rate curve created as statistical data in advance has been described. However, the present invention is not limited to this example. The amortization days may be calculated on the basis of a game execution simulation assuming this game. For example, as shown in FIG. 55, the game start rate and the game end rate corresponding to the MAX type are set for each time zone, and the amortization days are calculated by executing a game execution simulation for the MAX type. Anyway. Here, the game start rate is a probability that a game is started within a predetermined period (for example, 15 minutes) in a gaming machine in which no game is played, and the game end rate is a predetermined period (in a game machine in which a game is played) For example, the probability is that the game will be finished within 15 minutes). Alternatively, the amortization days may be calculated by setting a game start rate and a game end rate corresponding to the light type for each time zone and executing a game execution simulation for the light type. In the example shown in FIG. 55, in the predetermined period (20: 00 to 22:00) before the end of business hours, the probability of starting the game with the MAX type is lower than that of the light type, and the game with the MAX type is ended. This reflects the fact that the probability is higher than the light type.

(Modification of the second simulation function)
In the second simulation function described above, an example in which the number of depreciation days is calculated based on an operation rate curve created in advance as statistical data has been described. However, the present invention is not limited to this example. The amortization days may be calculated on the basis of a game execution simulation assuming this game. For example, as shown in FIG. 56, a game start rate and a game end rate corresponding to the member model are set for each time period, and a game execution simulation for the member model is executed to calculate the depreciation days. Anyway. Here, the game start rate is a probability that a game is started within a predetermined period (for example, 15 minutes) in a gaming machine in which no game is played, and the game end rate is a predetermined period (in a game machine in which a game is played) For example, the probability is that the game will be finished within 15 minutes). Alternatively, the amortization days may be calculated by setting a game start rate and a game end rate corresponding to the visitor model for each time period and executing a game execution simulation for the visitor model. In the example shown in FIG. 56, the fact that the probability that the game in the visitor model is ended is higher than that in the member model in the predetermined period (21:00 to 22:00) before the end of business hours is reflected.

(Modification of third simulation function)
In the third simulation function described above, the example in which the depreciation days are calculated based on the operation rate curve created as statistical data in advance has been described. However, the present invention is not limited to this, and the actual situation in the gaming machine is similar to the fourth simulation function. The amortization days may be calculated on the basis of a game execution simulation assuming this game. For example, as shown in FIG. 57, a game start rate and a game end rate corresponding to the 4-yen model are set for each time period, and a game execution simulation for the 4-yen model is executed to calculate the number of amortization days. You may make it do. Here, the game start rate is a probability that a game is started within a predetermined period (for example, 15 minutes) in a gaming machine in which no game is played, and the game end rate is a predetermined period (in a game machine in which a game is played) For example, the probability is that the game will be finished within 15 minutes). Alternatively, the amortization days may be calculated by setting a game start rate and a game end rate corresponding to the one-yen model for each time period and executing a game execution simulation for the one-yen model. In the example shown in FIG. 57, the fact that the probability that the game in the 4-yen model is ended is higher than that in the 1-yen model in the predetermined period (20:00 to 22:00) before the end of business hours is reflected. Yes.

(Modification of the fourth simulation function)
In the fourth simulation function, as in the first simulation function, a depreciation simulation that reflects a decrease in the operation rate with the passage of days of introduction may be executed. For example, as with the first simulation function, a customer attraction index curve corresponding to input balance information (the number of driving balls required for one change in the fourth simulation function) is acquired, and the introduction to the customer attraction index curve is performed. You may make it multiply the game start rate shown in Fig.52 (a) by the customer acquisition index which concerns on the number of days. That is, the game start rate in FIG. 52 (a) is set as the game start rate on the first day of the introduction of the gaming machine, and the game start rate × the customer acquisition index relating to the introduction days is determined as the game start rate relating to the introduction days. Anyway. Also, the game completion rate shown in FIG. 52B may be multiplied by [the reciprocal of the customer acquisition index related to the number of introduction days in the customer acquisition index curve]. That is, the game end rate in FIG. 52 (b) is set as the game end rate on the first day of introduction of the gaming machine, and the game end rate × [the reciprocal of the customer acquisition index related to the introduction days] is the game end rate related to the introduction days May be determined.

(Any combination of the first simulation function to the fourth simulation function)
Of the first simulation function to the fourth simulation function, a plurality of simulations may be combined and executed. For example, you may make it perform the simulation which made the difference of the rental value of the specification of a gaming machine, and the gaming media used with the gaming machine. In this case, for example, the occupancy rate of the light type exceeds the occupancy rate of the MAX type after 17:00, and the occupancy rate of 1 yen gaming machine after 18:00 is 4 yen gaming machine. A simulation reflecting the actual situation that the operating rate changes above the operating rate (the predetermined period before the closing of the game hall is different) is possible.

(Modification of management device)
In the above simulation function, the management device aggregates attribute information such as the player's investment amount, game time, number of times of movement, gender, age, etc. at each game hall, and manages each game hall management device (for example, a hall computer) as statistical data. The management device side may perform a game execution simulation based on the received statistical data. In the game execution simulation, it is preferable to execute a simulation with different game time and investment amount according to the attribute information of the player.

(Modification of gaming machine and gaming device)
In the above simulation function, an example in which the gaming machine is a pachinko gaming machine has been described. However, the gaming machine is not limited to this and may be a slot machine. For example, as a gaming machine to be simulated according to the first simulation function, a simulation may be executed for a slot machine to which ART (assist replay time) is given and a slot machine to which ART is not given. In this case, during a predetermined period before the end of the game hall business hours, a depreciation simulation reflecting the increase in the operating rate of the slot machine not provided with ART compared to the slot machine provided with ART is executed. It is good to make it. Also, for example, as a gaming machine to be simulated according to the first simulation function, a simulation may be performed for a slot machine with a low big bonus probability and a slot machine with a high big bonus probability. good. In this case, the amortization reflecting the increased availability of slot machines with a high probability of big bonuses compared to slot machines with a low probability of occurrence of big bonuses for a predetermined period before the end of business hours at the amusement hall It is better to run a simulation.

  In the above simulation function, a pachinko gaming machine or an out ball that is provided corresponding to the pachinko gaming machine and is used for gaming in the pachinko gaming machine and counts out the game balls (out balls) discharged from the pachinko gaming machine. Although the example in which the output signal from the counter is input to the hall computer 1200 has been described, the signal output from the gaming machine or the out ball counter at this time is the gaming state (big hit) as shown in the example of the gaming machine described later. Signals that are switched ON / OFF according to gaming state and high base state) and pulse signals for each event occurrence (predetermined number of prize balls or balls to be hit), and signal lines corresponding to each signal are determined. Therefore, identification of each signal is very easy. On the other hand, there is one in which security is improved by encrypting output information from the gaming machine. Even if the external output information from such a gaming machine is directly input to an information management device such as the hall computer 1200 or the like, if it does not have a function such as decoding of the external output information, There is a problem that game information cannot be aggregated. It is preferable to install the following gaming devices (for example, card units) corresponding to such gaming machines.

  In other words, it is possible to communicate with the above gaming machine and information management device, and includes a transmission means for transmitting information generated by the gaming machine to the information management device, and the transmission means sends the information generated by the gaming machine to the information management device. Information conversion means (for example, an external output terminal) is provided for relaying to a device that converts and transmits or converts. According to this, even when the information generated by the gaming machine cannot be directly identified by the information management device, the information generated by the gaming machine is converted and input for the information management device. The game information of gaming machines can be aggregated.

  In addition, in the gaming machine as described above, it is possible to give a predetermined game point by generating a prize and to play a game using the game point. The above gaming device provided corresponding to this further provides information that can identify a game point to be added using at least a part of the accepted money based on accepting the lending operation. Game point transmission means to be transmitted to the machine (for example, information that can specify a game point to be added using at least a part of the accepted money based on the operation of the ball lending button accepted by the card unit. Is transmitted to the gaming machine), and based on the acceptance of the counting operation, the game point receiving means (for example, each by the card unit) receives information from the gaming machine that can identify the gaming point stored in the gaming machine. Based on the reception of the counting operation by the table counting device, information that can identify the gaming points stored in the gaming machine is transmitted from the gaming machine).

  According to this, the gaming machine can give a predetermined game point by the occurrence of a prize and can play a game using the game point, and is accepted based on the fact that the lending operation is accepted by the gaming device. Based on the fact that information that can identify game points to be added using at least a part of the coins is transmitted to the gaming machine and the counting operation is accepted, the gaming points stored in the gaming machine can be identified. Information is received from the gaming machine. For this reason, it is possible to provide a gaming apparatus capable of providing a predetermined gaming point by the occurrence of a winning and corresponding to a gaming machine capable of playing a game using the gaming point.

  The gaming device is further communicably connected to a management device such as the gaming machine and a key management server, and transfers data in the exchange of communication between the gaming machine and the management device for authenticating the gaming machine. An authentication data transfer means (for example, an authentication / communication control circuit) is provided.

  According to this, the gaming device is communicably connected to the gaming machine and the management device, and data is transferred by the gaming device in the exchange of communication between the gaming machine and the management device for authenticating the gaming machine. The Therefore, it is possible to provide a gaming device that can contribute to improving the security of the gaming machine.

  The information management apparatus described above can manage game information related to each of the first gaming machine, the second gaming machine, and the third gaming machine shown below. In addition, the information management device can simulate the operations of the first gaming machine, the second gaming machine, and the third gaming machine, respectively, and can calculate the number of depreciation days as described above, for example. . In the following, first, the first gaming machine and the information management apparatus for managing the gaming information will be described, then the second gaming machine and the information management apparatus for managing the gaming information will be described, and finally, the first 3 gaming machine and an information management device for managing the gaming information will be described.

[Management device for managing first gaming machine and gaming information thereof]
A hall computer 1200 as an information management device shown in FIG. 58 manages game information generated in a game in the pachinko gaming machine 1 as a first gaming machine arranged in parallel on a plurality of gaming islands arranged in the game hall. . The game information is aggregated based on various signals output from the pachinko gaming machine 1 shown in FIG. 59, an out ball counter 1120 provided corresponding to the pachinko gaming machine 1, and the like.

(First game machine)
The overall configuration of the pachinko gaming machine 1 that is an example of the first gaming machine will be described. FIG. 59 is a front view of the pachinko gaming machine 1 as seen from the front.

  The pachinko gaming machine 1 includes an outer frame (not shown) formed in a vertically long rectangular shape, and a game frame attached to the inside of the outer frame so as to be opened and closed. Further, the pachinko gaming machine 1 has a glass door frame 2 formed in a frame shape that is provided in the game frame so as to be opened and closed. The game frame includes a front frame (not shown) that can be opened and closed with respect to the outer frame, a mechanism plate (not shown) to which mechanism parts and the like are attached, and various parts (games to be described later) attached to them. A structure including the board 6).

  On the lower surface of the glass door frame 2 is a hitting ball supply tray (upper plate) 3. Under the hitting ball supply tray 3, there are provided a surplus ball receiving tray 4 for storing game balls that cannot be accommodated in the hitting ball supply tray 3, and a hitting operation handle (operation knob) 5 for firing the hitting ball. A game board 6 is detachably attached to the back surface of the glass door frame 2. The game board 6 is a structure including a plate-like body constituting the game board 6 and various components attached to the plate-like body. In addition, a game area 7 is formed on the front surface of the game board 6 in which a game ball that has been struck can flow down.

  The game area 7 includes a left game area 7A (first game area) on the left side and a right game area 7B (second game area) on the right side when viewed from the top of the effect display device 9 provided in the center. The left game area 7 </ b> A that is the first game area and the right game area 7 </ b> B that is the second game area may be divided, for example, by the end face of the effect display device 9 or the arrangement of the game nails in the game area 7. When the game ball launched from the ball striking device and driven into the game area 7 is guided to the left game area 7A, the game ball is guided to the right game area 7B, for example, by being guided along the array of game nails. When it is impossible to guide or difficult to guide, and when it is guided to the right game area 7B, it is impossible to guide to the left game area 7A or difficult to guide by being guided along the arrangement of the game nails, for example.

  Below the effect display device 9 arranged in the center of the game area, a game ball is received from the inflow port 92, and the received game ball is moved to the first start winning port 13a and the second start winning port 13b by the swing member 93. A distribution device 90 that distributes alternately is provided. In the right game area 7B, a gate 32 is provided on the right side of the effect display device 9, and a special variable winning ball device 20 is provided above the guide member 39b.

  Here, the inflow port 92 is provided directly below the effect display device 9, but when a left-handed game ball is shot to aim at the left game area 7A, the game ball easily flows in, and the right game area 7B. When the player hits the game ball rightward with the aim of the game ball, it is difficult for the game ball to flow in due to the arrangement of the game nails and guide members 39a to 39c provided on the flow path of the game ball. The winning device having the first start winning port 13a is provided at a position where the game balls distributed to the left game area 7A side by the allocating device 90 can win, and the winning device having the second starting winning port 13b is The game balls distributed to the right game area 7B side by the minute device 90 are provided at positions where winning can be achieved. As described above, both the first start winning opening 13a and the second starting winning opening 13b are arranged at positions where game balls via the sorting device 90 can be won. A variable winning ball device 15 is provided on the upper right side of the second start winning opening 13b. The variable winning ball device 15 is opened by the tilt control of the movable blade piece. When the variable winning ball device 15 is in the open state, the gaming ball launched into the right gaming area 7B can win the second start winning opening 13b.

  Thus, in this embodiment, since the variable winning ball device 15 is provided corresponding to the second starting winning hole 13b, the winning of the game ball to the variable winning ball device 15 is the second starting winning port. This is equivalent to winning a game ball to 13b. That is, the second start condition for variably displaying the second special symbol based on the winning of the game ball to the variable winning ball device 15 is established.

  In this embodiment, a gate 32 is provided in the right game area 7B as a passing area through which game balls can pass. When the player is left-handed, the game ball does not pass through the gate 32, so the variable winning ball device 15 will not be in the open state, but the game ball that has passed through the sorting device 90 is It can be expected to win the 2 start winning opening 13b. On the other hand, when the player is making a right-hand hit, the game ball passes through the gate 32, so that the normal symbol variable display is started. When the winning symbol is derived and displayed, the variable winning ball device 15 is It can be expected that the game ball launched into the right game area 7B will enter the second start winning opening 13b in the open state. That is, it can be expected that the game ball will win the second start winning opening 13b both in the case of left-handed and right-handed.

  The distribution device 90 will be described with reference to FIGS. As shown in FIG. 60, the allocating device 90 includes members 92a to 92c projecting from the game board 6 to the game area side, and a swinging member 93 provided in the allocating area surrounded by the members 92a to 92c. Consists of. The members 92a and 92b form an inflow port 92, the members 92a and 92c form a game ball path from the swing member 93 to the first start winning opening 13a, and the members 92b and 92c perform a second start from the swing member 93. A game ball path to the winning opening 13b is formed. As shown in FIG. 60, when the variable winning ball device 15 is not in the open state, the game ball cannot pass between the lower end portion of the member 92b and the second starting winning port 13b, and the distribution device 90 A game ball that does not pass through is unable to win the second start winning opening 13b. On the other hand, as shown in FIG. 61, when the variable winning ball apparatus 15 is in the open state, the gaming ball can pass between the lower end of the member 92b and the second starting winning hole 13b, A game ball launched into the right game area 7B that does not pass through the device 90 can win the second start winning opening 13b.

  The swing member 93 that can swing left and right is configured to be rotatable about a shaft portion 93a. A left protrusion 93c and a right protrusion 93b that restrict the rotational movement of the swing member 93 are disposed at the lower left and the lower right of the swing member 93, respectively. The swing member 93 includes a first ball receiving portion 93e that guides the game ball flowing in from the inflow port 92 toward the first start winning opening 13a located on the lower left side, and the game ball flowing in from the inflow port 92 in the lower right direction. And a second ball receiving portion 93d that leads toward the second start winning opening 13b. The center of gravity of the game ball that has entered each ball receiving portion is configured to be shifted from the shaft portion 93a in the left-right direction. The swinging member 40 is rotated by the weight of the game ball that has entered, and the game balls are distributed alternately left and right.

  Next, with reference to FIG. 62, a manner of distributing game balls by the swing member 93 will be described. Due to the inclination of the swing member 93, the game ball that has flowed in from the inflow port 92 flows into one of the ball receiving portions. As shown in FIG. 62 (a), the center of gravity of the game ball that has entered the first ball receiving portion 93e is shifted to the left from the shaft portion 93a, and rotates counterclockwise with respect to the shaft portion 93a. To do. When the swinging member 93 moves by a predetermined angle, the swinging member 93 hits the left protrusion 93c, and the rotational movement is restricted, so that the state shown in FIG. The game ball that has entered the first ball receiving portion 93e falls from the first ball receiving portion 93e and flows down toward the first start winning opening 13a. In this state, the second ball receiving portion 93d is arranged at a position where a game ball can be entered. Next, the game ball that has entered from the inflow port 92 enters the second ball receiving portion 93d as shown in FIG. 62 (c). The center of gravity of the game ball that has entered the second ball receiving portion 93d is shifted to the right side from the shaft portion 93a and rotates clockwise relative to the shaft portion 93a. When the swinging member 93 moves by a predetermined angle, the swinging member 93 hits the right protrusion 93b, and the rotational movement is restricted, and the state shown in FIG. 62 (d) is obtained. The game ball that has entered the second ball receiving portion 93d falls from the second ball receiving portion 93d and flows down toward the second start winning prize opening 13b. In this state, the first ball receiving portion 93e is arranged at a position where a game ball can be entered. Next, the game ball that has entered from the inflow port 92 enters the first ball receiving portion 93e as shown in FIG. By repeatedly executing such an operation, the game balls that have flowed into the inflow port 92 are alternately distributed to the first start winning port 13a and the second starting winning port 13b in accordance with the flow order.

  The game ball that has won the first start winning opening 13a is guided to the back of the game board 6 and detected by the first start opening switch 14a. The game ball won in the second start winning opening 13b is guided to the back of the game board 6 and detected by the second start opening switch 15a. The variable winning ball device 15 is opened by a solenoid 16. When the variable winning ball device 15 is in the open state, as shown in FIG. 61, a gaming ball that has not been routed through the sorting device 90 that has been launched into the right game area 7B can be awarded to the second start winning port 13b. It becomes an advantageous state for the player. When the variable winning ball device 15 is controlled to be in the open state, the game ball directed to the variable winning ball device 15 that is launched into the right game area 7B is very likely to win the second start winning port 13b. In addition, in a state where the variable winning ball device 15 is in a closed state, a game ball that does not pass through the distribution device 90 does not win the second start winning port 13b. Therefore, when left-handed is executed, game balls flow into the inflow port 92, and game balls win alternately at the first start winning port 13a and the second starting winning port 13b in the order of inflow. On the other hand, when the right strike is executed, the game ball that does not pass through the sorting device 90 wins the second start winning opening 13b, so that the winning to the second start winning opening 13b continues. .

  Hereinafter, the first start winning opening 13a and the second start winning opening 13b may be collectively referred to as a start winning opening or a starting opening.

  During the big hit gaming state, the special variable winning ball apparatus 20 is opened. The special variable winning ball apparatus 20 is disposed above the guiding member b, and is in a position where the gaming ball guided by the guiding member 39a or the game nail is likely to win when it is hit right.

  When the player is in the normal state (low probability / low base state), the player is not able to release the special variable winning ball device 20, and even if the player makes a right turn and passes the game ball through the gate 32, the variable winning is achieved. Since the ball device 15 is not released at a high rate, the player strikes the game ball with the left game area 7 </ b> A, and attempts to enter the game ball into the inflow port 92. In other words, the game ball is going to be awarded to the first start winning opening 13a or the second starting winning opening 13b via the distribution device 90. When the gaming state is a high base state (high probability / high base state or low probability / high base state), if a game ball is passed through the gate 32, the variable winning ball device 15 is released at a high rate, so the right game area The player hits the game ball with the right hand hitting 7B, and wins the game ball in the second start winning opening 13b. In the big hit gaming state, the special variable winning ball device 20 is opened, so that the right hitting the game ball is aimed at the right game area 7B and the special ball winning ball device 20 is won.

  An effect display device 9 composed of a liquid crystal display device (LCD) is provided near the center of the game area 7. The display screen of the effect display device 9 includes an effect symbol display area for performing variable display of the effect symbol in synchronization with the variable display of the first special symbol or the second special symbol. Therefore, the effect display device 9 corresponds to a variable display device that performs variable display of effect symbols. The effect symbol display area includes a symbol display area for variably displaying, for example, three decorative (effect) effect symbols of “left”, “middle”, and “right”. The symbol display area includes “left”, “middle”, and “right” symbol display areas, but the position of the symbol display area does not have to be fixed on the display screen of the effect display device 9. Three areas of the display area may be separated. The effect display device 9 is controlled by an effect control microcomputer (not shown) mounted on the effect control board. When the first special symbol display 8a is executing variable display of the first special symbol, the effect control microcomputer causes the effect display device 9 to execute the effect display along with the variable display, and the second special symbol display 8a executes the second special display. When the variable display of the second special symbol is executed on the symbol display 8b, the effect display is executed by the effect display device 9 along with the variable display, so that the progress of the game can be easily grasped. .

  When the display result of the symbol that is variably displayed on the effect display device 9 is a big hit symbol (for example, a combination of symbols in which the left, middle, and right symbols are aligned in the same symbol), it becomes “big hit”, and the variable display state ends. In addition, when the display result of the symbol variably displayed on the effect display device 9 is not a big hit symbol, it becomes “out of” and the variation display state ends. A player plays a game while enjoying how to generate a big hit.

  In the upper right part of the display screen of the effect display device 9, there are provided fourth symbol display areas 9c and 9d for displaying a fourth symbol after the effect symbol, a special symbol described later, and a normal symbol. In this embodiment, a fourth symbol display area 9c for the first special symbol in which the variation display of the fourth symbol for the first special symbol is performed in synchronization with the variation display of the first special symbol described later, There is provided a fourth symbol display area 9d for the second special symbol in which the variation display of the fourth symbol for the second special symbol is performed in synchronization with the variation display of the special symbol.

  The 4th symbol for the first special symbol and the 4th symbol for the 2nd special symbol may be collectively referred to as the 4th symbol, and the 4th symbol display area 9c for the 1st special symbol and the 2nd special symbol The 4th symbol display area 9d for symbols may be collectively referred to as a 4th symbol display area.

  A first special symbol display (first variable display unit) 8 a that variably displays a first special symbol as identification information is provided at the lower right of the effect display device 9. In this embodiment, the first special symbol display 8a is realized by a simple and small display (for example, 7 segment LED) capable of variably displaying numbers 0 to 9. In other words, the first special symbol display 8a is configured to variably display numbers (or symbols) from 0 to 9. A second special symbol display (second variable display unit) 8b that variably displays the second special symbol as identification information is displayed on the lower right side of the effect display device 9 (next to the right of the first special symbol display 8a). Is also provided. The second special symbol display 8b is realized by a simple and small display (for example, 7 segment LED) capable of variably displaying numbers 0 to 9. That is, the second special symbol display 8b is configured to variably display numbers (or symbols) from 0 to 9.

  The small display is formed in a square shape, for example. In this embodiment, the type of the first special symbol and the type of the second special symbol are the same (for example, both 0 to 9), but the types may be different. Further, the first special symbol display 8a and the second special symbol display 8b may be configured to variably display numbers (or two-digit symbols) of, for example, 00 to 99, for example.

  Hereinafter, the first special symbol and the second special symbol may be collectively referred to as a special symbol, and the first special symbol indicator 8a and the second special symbol indicator 8b are collectively referred to as a special symbol indicator (variable display unit). There are things to do.

  The variable display of the first special symbol is a variable display start condition (for example, the first display condition) after the first start condition that is the variable display execution condition is satisfied (for example, the game ball passes through the first start winning opening 13a). Based on the fact that the number of reserved memories is not 0, the variable display of the first special symbol and the second special symbol is not executed, and the state is not controlled to the big hit gaming state) When the variable display time (fluctuation time) elapses, the display result (stop symbol) is derived and displayed. Note that the passing of a game ball means that the game ball has passed through a predetermined area such as a prize opening or a gate, and that includes a game ball entering (winning) a prize opening. It is. Deriving and displaying the display result is to finally stop and display a symbol (an example of identification information).

  The variable display of the second special symbol is a variable display start condition (for example, the second display condition) after the second start condition that is the variable display execution condition is satisfied (for example, the game ball passes through the second start winning opening 13b). Based on the fact that the number of reserved memories is not 0, the variable display of the first special symbol and the second special symbol is not executed, and the state is not controlled to the big hit gaming state) When the variable display time (fluctuation time) elapses, the display result (stop symbol) is derived and displayed.

  In this embodiment, the variable display of the first special symbol and the second special symbol is executed according to the order in which the first start condition and the second start condition are satisfied. Accordingly, when left-handed is being executed, the game ball will alternately win the first start winning opening 13a and the second starting winning opening 13b via the sorting device 90. The variable display and the variable display of the second special symbol are executed alternately. On the other hand, when the right strike is executed, the game ball continuously wins the second start winning opening 13b without passing through the sorting device 90, so that the variable display of the second special symbol is continuously made. Will be executed.

  Above the first special symbol display 8a, four effective start winning numbers for the first starting winning port 13a, that is, a first reserved memory number (the reserved memory is also referred to as a start memory or a start prize memory) are displayed. A first special symbol storage memory display 18a comprising a display is provided. The effective start winning is a winning of a game ball to the first starting winning opening 13a in a state where the first reserved memory number does not reach the upper limit (4 in this example), or the second reserved memory number is the upper limit. It means winning of the game ball to the second start winning opening 13b in a state where (4 in this example) has not been reached. The first special symbol storage memory display 18a increases the number of indicators that are turned on by 1 every time there is an effective start winning for the first winning opening 13a. Then, each time the variable display on the first special symbol display 8a is started, the number of indicators to be turned on is reduced by one.

  Also, above the second special symbol display 8b, a second special symbol hold memory display 18b comprising four indicators for displaying the effective start winning number to the second start winning opening 13b, that is, the second reserved memory number. Is provided. The second special symbol storage memory display 18b increases the number of indicators to be lit by 1 every time there is an effective start winning for the second start winning opening 13b. Then, each time the variable display on the second special symbol display 8b is started, the number of indicators to be turned on is reduced by one.

  In addition, at the lower part of the display screen of the effect display device 9, there is provided a total pending storage display unit 18c for displaying the total number (total number of pending pending storage) that is the sum of the first reserved memory count and the second reserved memory count. ing. The total pending storage display portion 18c is provided with a display area (display areas 1 to 8) of the pending storage display corresponding to the total number of total reserved memories that is 8. When an effective start winning at the first start winning opening 13a occurs, the first hold is displayed in the leftmost display area (for example, display area 1) of the display areas where the hold storage display is not displayed in the combined hold storage display unit 18c. Among the display areas in which a storage display (for example, a white hold ball display) is displayed and no hold storage display is displayed in the combined hold storage display unit 18c when an effective start winning is generated in the second start winning opening 13b A second reserved storage display (for example, a blue reserved ball display) is displayed in the leftmost display area (for example, display area 2). By providing the summed pending storage display unit 18c for displaying the total number, it is possible to easily grasp the total number of execution conditions that have not met the variable display start condition. As described above, in this embodiment, in the total hold storage display unit 18c, the first hold storage display and the second hold storage display are displayed side by side in the winning order to the first start winning opening 13a and the second starting winning opening 13b. At the same time, it is displayed in a manner capable of recognizing whether the display is the first hold storage display or the second hold storage display.

  The effect display device 9 is for decoration (for effects) during the variable display time of the first special symbol by the first special symbol display 8a and during the variable display time of the second special symbol by the second special symbol display 8b. A variable display of the effect symbol as the symbol is performed. The variable display of the first special symbol on the first special symbol display 8a and the variable display of the effect symbol on the effect display device 9 are synchronized. Further, the variable display of the second special symbol on the second special symbol display 8b and the variable display of the effect symbol on the effect display device 9 are synchronized. In addition, when the jackpot symbol is stopped and displayed on the first special symbol display 8a and when the jackpot symbol is stopped and displayed on the second special symbol display 8b, the effect display device 9 causes the jackpot to be recalled. The combination of is stopped.

  In this embodiment, a game control microcomputer (not shown) that controls the change display of special symbols transmits a change pattern command that can specify the change time, and the change received by the effect control microcomputer. The variation display of the effect symbol is controlled according to the variation time specified by the pattern command. Therefore, since the variation time is specified based on the variation pattern command, the variation display of the special symbol and the variation display of the effect symbol are executed in synchronization in principle.

  In the decorative part around the effect display device 9, there is provided a movable member 78 that is attached to the rotating shaft of the motor 86 and moves forward of the effect display device 9 when the motor 86 rotates. For example, the movable member 78 notifies the player of the big hit by operating when the big hit symbol is stopped.

  As shown in FIG. 59, the right game area 7B is provided with a special variable winning ball apparatus 20 that forms a big winning opening. The special variable winning ball apparatus 20 includes an opening / closing plate, and when the specific display result (big hit symbol) is derived and displayed on the first special symbol display 8a, and the specific display result (big hit symbol) on the second special symbol display 8b. When the open / close plate is controlled to be open by the solenoid 21 in the specific game state (big hit game state) that occurs when the symbol is derived and displayed, the big winning opening serving as the winning area is opened. A game ball won in the big prize opening is detected by the count switch 23a.

  On the left side of the effect display device 9, a normal symbol display 10 for variably displaying normal symbols is provided. In this embodiment, the normal symbol display 10 is realized by a simple and small display (for example, 7 segment LED) capable of variably displaying numbers 0 to 9. That is, the normal symbol display 10 is configured to variably display numbers (or symbols) from 0 to 9. Moreover, the small display is formed in, for example, a square shape. Note that the normal symbol display 10 may be configured to variably display a number (or a two-digit symbol) of, for example, 00 to 99. In addition, the normal symbol display 10 is not limited to a 7-segment LED or the like, for example, a display capable of lighting a predetermined symbol display (for example, a decoration lamp capable of alternately lighting and displaying “O” and “X”). It may be comprised.

  When the game ball passes through the gate 32 and is detected by the gate switch 32a, a hit determination random number (MR5) based on the passage of the gate is extracted. The extracted random number for judgment is stored as normal symbol hold memory on the condition that the normal symbol hold memory number does not reach the upper limit (for example, 4), and the normal symbol hold memory number is incremented by 1 accordingly. The Then, the normal symbol holding storage number is not 0, the normal symbol variable display is not executed, and the opening control period of the variable winning ball apparatus 15 (a plurality of releases) when the winning symbol is derived and displayed. When the control is performed, variable display of the display of the normal symbol display 10 is started on the condition that it is not a period from the start to the end of a series of opening control). Is done.

  When the stop symbol in the normal symbol display 10 is a predetermined symbol (a winning symbol, for example, a symbol “7”), the variable winning ball apparatus 15 is opened for a predetermined number of times. In other words, the state of the variable winning ball apparatus 15 is such that when the stop symbol of the normal symbol is a winning symbol, the player is in an advantageous state from a disadvantageous state for the player (the right-handed game ball wins the second start winning opening 13b). Change to a possible state). In the vicinity of the normal symbol display 10, a normal symbol holding storage display 41 having a display unit with four LEDs for displaying the number of winning balls that have passed through the gate 32 is provided. The normal symbol hold memory display 41 lights up a number of LEDs corresponding to the number of normal symbol hold memories. Each time a game ball passes through the gate 32, that is, every time a game ball is detected by the gate switch 32a, the normal symbol storage memory display 41 increases the number of LEDs to be turned on by one. Each time variable display on the normal symbol display 10 is started, the number of LEDs to be lit is reduced by one.

  The left game area 7A is provided with winning ports 29a to 29c of a normal winning device, and the game balls won in the winning ports 29a to 29c are detected by the winning port switch 30a. The right game area 7B is provided with a winning opening 29d of a normal winning device, and a game ball won in the winning opening 29d is detected by a winning opening switch 30b. Each of the winning holes 29a to 29d constitutes a winning area provided in the game board 6 as an area for accepting game balls and allowing winning. The first start winning opening 13a, the second starting winning opening 13b, and the large winning opening of the special variable winning ball apparatus 20 also constitute a winning area that accepts game balls and allows winning.

  At the lower part of the game board 6, there is an out-port 26 through which a hit ball that has not won is taken. In addition, four speakers 27 that emit sound effects and sounds as predetermined sound outputs are provided on the left, right, top, and bottom of the outside of the game board 6. On the outer periphery of the game board 6, a top frame LED 28a, a left frame LED 28b, and a right frame LED 28c are provided. The top frame LED 28a, the left frame LED 28b, and the right frame LED 28c are examples of decorative light emitters provided in the gaming machine.

  The members constituting the hitting ball supply tray 3 are provided with operation buttons 120 as operation means that can be operated by the player. The operation button 120 is provided with a push button switch that can be pressed by the player. The operation button 120 is provided not only with a push button switch that can be pressed by the player, but also with a dial that can be rotated by the player. The player can perform a predetermined selection (for example, selection of effects) by rotating the dial.

  The gaming machine is provided with a ball hitting device (not shown) that hits the game ball and launches it into the game area 7 in response to the player operating the hitting operation handle 5. The hit ball launching device includes a launch motor (not shown) controlled by a circuit on a touch sensor substrate (not shown), and launches a game ball toward the game area 7 as the launch motor rotates. The touching of the player with the hitting operation handle 5 is detected by a touch sensor and a touch sensor circuit (a circuit including a detection circuit for detecting whether or not the player is touching the hitting operation handle 5). When the signal from the sensor circuit indicates an off state, the driving of the firing motor is stopped.

  A touch sensor substrate (not shown) has a pulse generator that intermittently generates repeated pulses (pulse signals supplied to each phase of the firing motor as a stepping motor) and a single pulse generator that generates a single pulse. And are provided. When the signal from the touch sensor circuit indicates an on state, a pulse generated by the pulse generator is supplied to the firing motor. Further, a firing stop switch (not shown) is provided in the ball hitting operation handle 5 or in the vicinity of the ball hitting operation handle 5, and the pulse output of the pulse generator is stopped when the shot stop switch is operated.

  The pulse output of the pulse generator is also stopped when the firing control signal from the payout control board (not shown) is turned off. Further, the hitting ball launching device is provided with a single shot switch, and when the single shot switch is operated, a single pulse generated by the single pulse generator is supplied to the launch motor.

  In the example shown here, the pulse generator is provided on the touch sensor substrate, but the dispensing control substrate may have a function of generating a pulse supplied to the firing motor. In that case, for example, the dispensing control microcomputer generates a pulse, and the generated pulse is relayed by the touch sensor substrate and supplied to the firing motor. Also, the output of the firing stop switch is input to the payout control microcomputer. The payout control microcomputer is in a state where the lower pan is full or the supply ball is full, and when the output of the fire stop switch is turned off. Then, the pulse output is stopped.

  Further, the hitting ball launcher is a hitting hammer for hitting a game ball into the game area 7, a coil spring for biasing the hitting hammer, and a hitting hammer biased by the coil spring for releasing from the biased position. A cam mechanism is provided, and the cam mechanism is driven by a firing motor. Then, the biasing force of the spring is adjusted by changing the fixed position of the coil spring by the rotation of the hitting operation handle 5, and as a result, the force (launch strength) for hitting the game ball of the hitting hammer is adjusted.

  As a hitting ball launching device, there is a hitting motor using a stepping motor or a type of hitting a game ball by directly fixing a hitting hammer to the shaft of a rotary solenoid. In such a configuration, the rotation angle (position) of the hitting operation handle 5 is detected by the variable resistor, and the operating speed of the stepping motor and the rotary solenoid as the drive source is increased according to the detection result. This adjusts the force (launch strength) for launching a game ball.

  In each of the above-described configurations, the firing strength operation means capable of adjusting the firing strength of the ball striking device corresponds to the rotatable ball striking operation handle 5. Note that the launch stop operation means capable of stopping the launch of the game ball by the hitting ball launcher corresponds to a launch stop switch.

  A game ball launched from the ball striking device enters the game area 7 through a ball striking rail formed in a circular shape so as to surround the game area 7, and then descends the game area 7. When the game ball enters the first start winning port 13a and is detected by the first start port switch 14a, if the variable display of the first special symbol can be started (for example, the variable display of the special symbol ends, 1), the variable display (variation) of the first special symbol is started on the first special symbol display 8a, and the variable display of the effect symbol is started on the effect display device 9. In other words, the variable display of the first special symbol and the effect symbol corresponds to winning in the first start winning opening 13a. If the variable display of the first special symbol cannot be started, the first reserved memory number is increased by 1 on the condition that the first reserved memory number has not reached the upper limit value.

  When the game ball enters the second start winning port 13b and is detected by the second start port switch 15a, if the variable display of the second special symbol can be started (for example, the special symbol variable display ends, 2), the second special symbol display 8b starts variable display (variation) of the second special symbol, and the effect display device 9 starts variable display of the effect symbol. That is, the variable display of the second special symbol and the effect symbol corresponds to winning in the second start winning opening 13b. If the variable display of the second special symbol cannot be started, the second reserved memory number is increased by 1 on condition that the second reserved memory number has not reached the upper limit value.

  In this embodiment, the jackpot gaming state (specific gaming state) is a control for opening the big winning opening over a predetermined number of rounds (for example, 15 rounds) after being notified that the big hit is started, This is the state until the end of the big round winning opening in the final round and the notification of the end of the big hit.

  In this embodiment, the low base state is a game state in which the game ball is not controlled so as to facilitate effective start winning at the start winning opening, and the high base state is a state where the game ball is more than the low base state. The gaming state is controlled so that it is easy to make an effective start winning in the start winning opening (for example, the execution condition of variable display in the first special symbol display 8a and the second special symbol display 8b is easily established).

  In this embodiment, the low probability state is a determination value in the low probability state (a value in a range narrower than the determination value in the high probability state) as a big hit determination value in the big hit determination processing at the start of special symbol variation. This is a state in which the probability of a big hit is not increased. The high probability state is a state in which the judgment value at the time of the high probability state (a value in a wider range than the low probability state) is used as the jackpot judgment value in the jackpot judgment processing at the time of starting the special symbol variation. The state that is raised.

  When the game control microcomputer starts variable display of a special symbol, it performs a jackpot determination process for determining whether or not the display result is a jackpot symbol. Further, when it is determined that the display result is the big hit symbol in the big hit determination process, it is further determined whether the display result is the probability variation big hit symbol or the normal big hit symbol. That is, it is determined whether the big hit type is a probable big hit or a normal big hit.

  If the special symbol variable display result is a probable big hit symbol, the game state is shifted to the high probability / high base state at the end of the big hit gaming state, and the high probability / high base until the next big hit gaming state is started. The state continues. When the special symbol variable display result is a normal jackpot symbol, the gaming state is shifted to the low probability / high base state at the end of the jackpot gaming state, and the special symbol variable display is executed 50 times or The low probability / high base state is continued until the next jackpot gaming state is started. If the game state is shifted to the low probability / high base state at the end of the big hit gaming state, and then the special symbol variable display is executed 50 times without starting the big hit gaming state, the subsequent gaming state is low. Probability / low base state.

  In this embodiment, there are a low probability / low base state, a high probability / high base state, and a low probability / high base state as gaming states. In the following description, the low probability / low base state may be referred to as a normal state. In the normal state, the player strikes left and tries to cause the game ball to flow into the inflow port 92 to win the game ball into the first start winning port 13a and the second starting winning port 13b. In addition, in the jackpot gaming state and the high base state (low probability / high base state, high probability / high base state), the player makes a right strike, and the big winning opening and the variable winning ball device 15 that are opened in the big hit gaming state are An attempt is made to win a game ball in the second start winning opening 13b when the open state is controlled.

  The game control microcomputer executes hit determination using a hit determination random number (MR5) extracted when the game ball passes through the gate 32 when starting the variable display of the normal symbol. When it is determined that the winning is determined in the hit determination, the winning symbol is derived and displayed on the normal symbol display 10 as a variable display result. The symbol 10 is derived and displayed as a variable display result on the device 10.

  Here, in the low base state (normal state), when the hit determination is executed, the hit is determined at a predetermined rate (for example, 2/13). Further, the variation time of the normal symbol is a predetermined time (for example, 10 seconds). Further, when the symbol is derived and displayed on the normal symbol display 10, release control for a predetermined period (for example, release control for 0.5 seconds × one time for a total of 0.5 seconds) is executed.

  On the other hand, in the high base state (low probability / high base state, high probability / high base state), when the hit determination is executed, the hit is determined at a rate higher than the predetermined rate (for example, 11/13). Further, the normal symbol variation time is shorter than the predetermined time (for example, 1 second). When the symbol is derived and displayed on the normal symbol display 10, release control longer than the predetermined period (for example, release control of 2.5 seconds × 2 times for a total of 5 seconds) is executed.

  As described above, in the high base state, the normal symbol shortening variation control in which the variation time (variable display time) of the normal symbol is shortened, the normal symbol probability variation control in which the probability that the variable symbol display result is a hit symbol is increased, And the opening / extension control is performed in which the time during which the variable winning ball device 15 is in the open state is extended based on the variable symbol display result of the normal symbol. Further, special symbol shortening variation control is performed in which the variation time (variable display time) of the special symbol is shortened. By executing these four controls in the high base state, it becomes easy to make an effective start winning in the second start winning opening 13b.

  In other words, the normal symbol shortening variation control reduces the variation time of the normal symbol (for example, the variation time is 10 seconds when the normal symbol shortening variation control is not performed, whereas the normal symbol shortening variation control is performed. The rate at which the change of the normal symbol is increased, and as a result, the frequency at which the normal symbol is hit is increased, and the variable winning ball apparatus 15 is in the open state. As a result, it becomes easier to make an effective start winning in the second starting winning opening 14. Further, the normal symbol probability change control increases the probability that the stop symbol in the normal symbol display unit 10 becomes a winning symbol (for example, the probability when the normal symbol probability change control is not executed is 2/13, whereas the normal symbol probability change control). The probability that the control is executed becomes 11/13), the frequency at which the variable winning ball device 15 is opened is increased, and it is easy to make an effective start winning at the second start winning opening 13b. In addition, the time during which the variable winning ball device 15 is in the open state when the stop symbol in the normal symbol display 10 becomes a winning symbol is extended by the opening extension control (for example, the opening time when the opening extension control is not executed). Is 0.5 seconds x 1 time (0.5 seconds in total), but when the opening extension control is executed, the opening time is 2.5 seconds x 2 times (total 5 seconds)) It becomes easy to make an effective start winning in the second start winning opening 13b. Furthermore, the special symbol shortening variation control that shortens the special symbol variation time (variable display period) shortens the special symbol variation time, so the frequency of the special symbol variation is increased (in other words, The digestion of the first reserved memory and the second reserved memory becomes faster), and the situation in which an invalid start prize is generated can be reduced to facilitate the effective start prize.

  In this embodiment, in the high base state, the opening time in one opening / closing operation of the variable winning ball device 15 is extended (from 0.5 seconds to 2.5 seconds), and the number of times of opening is increased. Although an example (from 1 to 2) is shown, the opening time in one opening / closing operation may be extended so that the number of opening does not change (for example, 5.0 seconds × 1), The opening time in one opening / closing operation is not extended, and the number of opening times may be increased (for example, 0.5 seconds × 10 times). In any case, the total time for which the variable winning ball apparatus 15 is opened increases as the stop symbol in the normal symbol display 10 becomes a winning symbol.

  As described above, in the embodiment, although the normal symbol shortening variation control, the normal symbol probability variation control, and the opening extension control are performed, an example in which the rate at which the variable winning ball apparatus is controlled to open is shown. The rate at which the variable winning ball apparatus is controlled to open is also increased by executing any one or two of normal symbol shortening variation control, normal symbol probability changing control, and opening extension control.

  In this simulation function, as shown in FIG. 59, the gate 32 is provided in the right game area 7B, and a part of the game balls launched into the right game area 7B in the right-handed state is arranged above the gate 32. It is guided by the game nail and passes through the gate 32.

  The game ball launched into the right game area 7B collides with the game nail disposed below the gate 32 and flows down while changing the course, but finally the guide member 39a disposed further below the gate 32. Alternatively, the variable winning ball device 15 is dropped by a high probability on the guiding surface (upper surface) of the guiding member 39b, and the guiding members 39a to 39c and the game nails arranged between the guiding member 39b and the variable winning ball device 15 are used. Be guided to. That is, most of the game balls launched into the right game area 7B are guided to the variable winning ball apparatus 15. Therefore, when the variable winning ball apparatus 15 is in the open state, the gaming ball guided by the gaming nail wins the second start winning opening 13b with a high probability.

  Note that the game ball guided by the guide member 39a or the game nail is guided toward the special variable winning ball device 20, and if it is in an open state, the game ball is won in the big winning opening of the special variable winning ball device 20. ing. Therefore, in the big hit gaming state, if the player hits the right and puts the game ball into the right game area 7B, it can be expected that the game ball will win the big winning opening of the special variable winning ball device 20.

  The game control microcomputer detects a payout control board (in accordance with a winning detection based on one of the first starting port switch 14a, the second starting port switch 15a, the count switch 23a, and the winning port switches 30a and 30b being turned on. An award ball number command (award ball number signal) as a payout control command indicating the number of award balls is output to a payout control microcomputer mounted on an unillustrated). The payout control microcomputer drives a ball payout device (not shown) by supplying a drive signal according to the number of prize balls indicated by the prize ball number command. The ball payout device is provided with a payout motor for paying out a prize ball. When the payout motor is rotationally controlled by the payout control microcomputer, the number of prize balls designated by the payout control microcomputer is paid out from the ball payout device.

  In this case, a payout ball is detected on the payout control board side, and a prize board signal is provided at the upper part on the back side of the pachinko gaming machine 1 every time ten prize balls are paid out (not shown). Is output externally.

  In this embodiment, the first symbol confirmation signal indicating that the first special symbol is confirmed when the display of the display result is derived and displayed on the first special symbol indicator 8a after the variation display of the special symbol is terminated. Externally output via the terminal board. When the special symbol variation display is finished and the display result is derived and displayed on the second special symbol display 8b, a second symbol confirmation signal indicating that the second special symbol is confirmed is externally connected via the terminal board. Is output. The first symbol determination signal and the second symbol determination signal are both pulse signals having a predetermined width.

  In this embodiment, when a game ball is detected by the first start port switch 14a, the first start port passing signal indicating that the game ball has won the first start winning port 13a is displayed on the terminal board. Output externally. When a game ball is detected by the second start port switch 15a, a second start port passing signal indicating that the game ball has won the second start winning port 13b is output to the outside via the terminal board. The first start port passage signal and the second start port passage signal are both pulse signals having a predetermined width.

  In this embodiment, when the jackpot gaming state is controlled, a jackpot signal indicating that the jackpot gaming state is controlled is output to the outside via the terminal board. The jackpot signal is a signal that is output (turned ON) from the start of the jackpot gaming state to the end of the jackpot gaming state (end of the final round). Also, when controlled to a high base state (low probability / high base state, high probability / high base state), a time signal indicating that the base state is controlled is output to the outside via the terminal board. Is done. The time reduction signal is a signal that is output (turned ON) from the start of the high base state to the end of the high base state.

  Further, in this embodiment, during a period in which the high base state is not controlled, the second start port switch 15a detects the game ball by a predetermined number of times or more (for example, 5 times) without detecting the game ball by the first start port switch 14a. ) When continuous winning abnormality detected continuously is detected, a security signal indicating abnormality detection is output to the outside via the terminal board. For example, the CPU 56 determines whether or not a value indicating “second” is continuously stored for a predetermined number of times or more in the reserved specific area described above within the period controlled to the low base state. This is checked every time memory occurs, and if a value indicating “second” is continuously stored for a predetermined number of times or more within the period controlled to the low base state, a security signal indicating abnormality detection is externally Is output. In this embodiment, the security signal is also externally output when magnetism is detected by a magnetic detection sensor (not shown) or when an illegal radio wave is detected by a radio detection sensor (not shown). That is, when the CPU 56 detects any abnormality in the gaming machine, a common security signal indicating abnormality detection is output. The security signal is a pulse signal having a predetermined width.

  Further, as described above, a prize ball signal is output from the terminal board every time ten prize balls are paid out. The prize ball signal is a pulse signal having a predetermined width.

  Returning to FIG. 58, below the pachinko gaming machine 1 described above, an out ball counter that counts the game balls (out balls) used in the game in the pachinko gaming machine 1 and discharged from the pachinko gaming machine 1. 1120 is provided. Every time a predetermined number (for example, 10 balls) of out balls is counted, a driving signal is output from the out ball counter 1120. The driving signal is a pulse signal having a predetermined width.

  Prize ball signal output from terminal board, first symbol determination signal, second symbol determination signal, first starting port passing signal, second starting port passing signal, jackpot signal, time reduction signal, security signal, and out The driving signal output from the ball counter 1120 is input to the communication unit 1207 of the hall computer 1200 via a relay device such as the base terminal 1220 and a communication cable, whereby each pachinko gaming machine 1 The game information can be tabulated.

  Output signals from a plurality of pachinko gaming machines 1 (and corresponding out ball counters 1120) are input to the relay device such as the base terminal 1220. From the relay device such as the stand terminal 1220, stand identification information (for example, discriminating the pachinko gaming machine 1 that outputs the signal corresponding to the input signal (or corresponds to the out ball counter 1120 that outputs the signal) (for example, (Identification information attached corresponding to the signal input terminal of the relay device) is output. Thereby, in the information management apparatus such as the hall computer 1200, it becomes possible to manage game information for each machine number corresponding to the machine identification information. In this embodiment, the hall computer 1200 can communicate with each pachinko gaming machine 1 connected via a relay device such as the base terminal 1220, and counts game information of each pachinko gaming machine 1.

(First abnormality determination method)
Next, a first abnormality determination method executed by the hall computer 1200 will be described. The CPU 1202 inputs the winning ball signal, the driving signal, the first symbol determination signal, the second symbol determination signal, the first starting port passage signal, the second starting port passage signal, and the security signal, and the jackpot signal and time It waits for a short signal to be switched (change from OFF to ON and from ON to OFF). Along with these detections, an aggregation process is executed according to the detection results.

  When the CPU 1202 detects the input of the first start port passing signal, the CPU 1202 adds 1 to the total start winning number, and adds 1 to the first start winning number. Then, 1 is added to the first start winning consecutive number, the second starting winning consecutive number is reset to 0, and it is determined whether or not the first starting winning consecutive number has reached a predetermined number (for example, 5). If the first start winning consecutive number has not reached the predetermined number, the process is terminated. If the first start winning consecutive number has reached the predetermined number, a continuous winning abnormality is notified based on the fact that the predetermined number or more of winnings to the first start winning port 13a are continued. The notification of the consecutive winning abnormality is performed, for example, by displaying the unit number in which the consecutive winning abnormality is detected on the display device 1206.

  For example, as a factor that the first start winning consecutive number has reached a predetermined number, there may be a case where a game ball is continuously winning through the first start winning port 13a due to an abnormality of the sorting device 90 or the like. In such a case, the administrator can take appropriate measures by notifying the abnormality in the hall computer 1200.

  When the CPU 1202 detects the input of the second start port passing signal, the CPU 1202 adds 1 to the total start winning number and adds 1 to the second start winning number. Then, 1 is added to the second start winning consecutive number, the first starting winning consecutive number is reset to 0, and it is determined whether or not the time signal is ON. If the time reduction signal is ON, the process is terminated. If the time reduction signal is in an OFF state, it is determined whether or not the time reduction signal is within a predetermined winning number (for example, 4) after the time reduction signal is switched from ON to OFF. For example, when the short time signal is switched from ON to OFF, the value of the winning number counter after the time shortening is reset to 0, and the value of the winning number counter after the short time end is added each time the total starting winning number is added. 1 is added. Then, it is determined whether or not the value of the winning number counter after the short-time end is equal to or less than a predetermined value (for example, 4).

  If it is within a predetermined number of winnings after the time signal is turned off, the process is terminated. If the predetermined number of winnings has been exceeded after the time signal is turned off, it is determined whether or not the second start winning consecutive number has reached a predetermined number (for example, 5). If the second start winning consecutive number has not reached the predetermined number, the process is terminated. If the second start winning consecutive number has reached the predetermined number, a continuous winning abnormality is notified based on the fact that the predetermined number or more of winnings to the second start winning port 13b are continued.

  For example, as a factor that the second start winning consecutive number has reached a predetermined number in a period other than the high base state, a game ball wins continuously at the second start winning opening 13b due to an abnormality of the sorting device 90 or an illegal act. The case is considered. In such a case, the administrator can take appropriate measures by notifying the abnormality in the hall computer 1200. In particular, in a gaming machine, it is more advantageous for the player when the display result of the second special symbol is a big hit symbol than when the display result of the first special symbol is a big hit symbol (for example, the number of rounds In many cases, the ratio determined to the big hit type is set high. In such a gaming machine, there is a risk that an illegal act of continuously winning in the second start winning port 13b that does not continuously win in a normal state may be executed. In such a case, there is a continuous winning abnormality on the hall computer 1200 side. By being notified, the amusement hall can recognize the possibility of fraud and take appropriate measures.

  In this embodiment, left-handed in the normal state causes the game ball to alternately win the first start winning opening 13a and the second starting winning opening 13b. By hitting the game ball, the game ball can be continuously awarded to the second start winning opening 13b. Accordingly, a situation in which a game ball continuously wins in the first start winning port 13a in which no corresponding variable winning ball device is provided is a case that cannot normally occur regardless of the opening control status of the variable winning ball device. For this reason, regardless of whether or not the high base state is set, a continuous winning abnormality is immediately notified. On the other hand, a situation in which a game ball wins continuously at the second start winning opening 13b provided with the corresponding variable winning ball device 15 may occur (in a high base state) depending on the opening control state of the variable winning ball device. Since this is a case that can be obtained, normally, a continuous winning abnormality is notified only when the time-short signal in which a continuous winning cannot occur is in an OFF state. As described above, in the gaming machine in which the left-hand strike is performed in the normal state and the game balls are alternately distributed to the first start winning opening 13a and the second starting winning opening 13b, appropriate abnormality notification can be performed.

  When the CPU 1202 detects the input of the security signal, it first determines whether or not the time reduction signal is in an ON state. If the time signal is in the ON state, a notification is made that a gaming machine error that does not include the possibility of continuous winning abnormality is detected. If the time signal is OFF, a notification is made that a gaming machine error including the possibility of a continuous winning abnormality is detected. Here, the consecutive winning abnormality is a consecutive winning abnormality detected on the gaming machine side. The gaming machine error is an abnormality detected on the gaming machine side. The notification of the gaming machine error is, for example, a predetermined message together with the machine number on the display device 1206 ("Machine machine error other than continuous winning abnormality with machine number xx", "Machine machine error with machine number xx (continuous winning abnormality There is a possibility))) is displayed.

  As described above, in the pachinko gaming machine 1 in this simulation function, the first start port switch 14a detects the game ball without detecting the game ball during the period when the high base state is not controlled (period when the time signal is OFF). 2 When a continuous winning abnormality is detected in which the game ball is continuously detected a predetermined number of times or more (for example, five times) by the start switch 15a, a security signal indicating abnormality detection is output. Even when it is detected, a common security signal is output because of the limitation of the number of terminals. Even if the hall computer 1200 side receives a security signal, it cannot identify what kind of gaming machine error it is. However, when the time-shortening signal is OFF by inputting the time-shortening signal from the gaming machine, at least It is possible to identify a gaming machine error other than a continuous winning abnormality and notify that fact. Thereby, the player can grasp that it is a gaming machine error other than continuous winnings, and can take appropriate measures.

  In the hall computer 1200 related to the simulation function described above, as shown in FIG. 63, within the period in which the time reduction signal from the pachinko gaming machine 1 is input (in the period of (1) to (2) in the figure) ), Even if the second start port passing signal is continuously input more than a predetermined number of times, no continuous winning abnormality is notified, but the second start port passing signal is not received within the period when the time signal from the pachinko gaming machine 1 is not input. Is continuously input for a predetermined number of times (period (3) and thereafter in the figure), a continuous winning abnormality is notified.

  Here, if the number of winnings is within the predetermined number of winnings (4 in the example of FIG. 63) after the high base state ends, the continuous winning abnormality is not notified (periods (2) to (3) in the figure). ). Here, when the variable winning ball apparatus 15 is controlled to be released after the high base state ends, the display result of the normal symbol variable display that has already started at the end of the high base state becomes the winning symbol. There is a case in which the game ball fired in the right game area 7B continuously wins the second start winning opening 13b even after the high base state ends. Therefore, if a continuous winning abnormality is notified based on such a winning at the second start winning opening 13b, confusion will be caused. Therefore, in this simulation function, the number of winnings after the end of the high base state is predetermined. When the number is within 4 (for example, 4), the continuous winning abnormality is not notified, and more appropriate continuous winning abnormality is notified.

(Second abnormality determination method)
Next, the second abnormality determination method will be described. Unlike the first abnormality determination method, the hall computer 1200 according to the present simulation function is not based on the first start port passing signal or the second start port passing signal but continuously based on the first symbol determining signal or the second symbol determining signal. This is to determine whether the prize is abnormal. The output signal from the gaming machine according to this simulation function is the same as that in the first abnormality determination method.

  When the CPU 1202 detects the input of the first symbol determination signal, the CPU 1202 adds 1 to the total number of start times and adds 1 to the special figure 1 start number. Then, 1 is added to the special figure 1 start continuous number, the special figure 2 start continuous number is reset to 0, and it is determined whether or not the special figure 1 start continuous number has reached a predetermined number (for example, 5). If the special figure 1 start continuous number has not reached the predetermined number, the first symbol determination signal input process is terminated. If the special figure 1 start continuous number has reached a predetermined number, a continuous winning abnormality is notified based on the fact that the variable display of the first special symbol has continued for a predetermined number or more.

  For example, as a factor that the special figure 1 start continuous number has reached a predetermined number, there may be a case where a game ball is continuously won at the first start winning opening 13a due to an abnormality of the sorting device 90 or the like. In such a case, the administrator can take appropriate measures by notifying the abnormality in the hall computer 1200.

  When the CPU 1202 detects the input of the second symbol determination signal, the CPU 1202 adds 1 to the total number of start times, and adds 1 to the special figure 2 start number. Then, 1 is added to the special figure 2 start continuous number, the special figure 1 start continuous number is reset to 0, and it is determined whether or not the time reduction signal is in an ON state. If the time reduction signal is ON, the second symbol determination signal input process is terminated. If the time reduction signal is in an OFF state, it is determined whether or not the time reduction signal is within a predetermined number of fluctuations (for example, 5) after the time reduction signal is switched from ON to OFF. For example, when the short-time signal is switched from ON to OFF, the value of the fluctuation counter after the completion of the short-time is reset to 0, and the value of the fluctuation counter after the completion of the short-time is changed every time the total start count is added. 1 is added. Then, it is determined whether or not the value of the variation counter after the time reduction is less than or equal to a predetermined value (for example, 5).

  If the number of fluctuations is within a predetermined number of times after the time signal is turned off, the second symbol determination signal input process is terminated. If the predetermined fluctuation number has been exceeded since the time-short signal is turned off, it is determined whether or not the special figure 2 start continuous number has reached a predetermined number (for example, 5). If the special figure 2 start continuous number does not reach the predetermined number, the second symbol determination signal input process is terminated. If the special figure 2 start consecutive number has reached the predetermined number, a continuous winning abnormality based on the fact that the variable display of the second special symbol has continued for a predetermined number or more is notified.

  For example, as a factor that the special figure 2 start continuous number has reached a predetermined number during a period other than the high base state, the game ball wins continuously at the second start winning opening 13b due to an abnormality of the sorting device 90 or an illegal act. The case is considered. In such a case, the administrator can take appropriate measures by notifying the abnormality in the hall computer 1200. In particular, in a gaming machine, it is more advantageous for the player when the display result of the second special symbol is a big hit symbol than when the display result of the first special symbol is a big hit symbol (for example, the number of rounds In many cases, the ratio determined to the big hit type is set high. In such a gaming machine, there is a risk that an illegal act of continuously winning in the second start winning port 13b that does not continuously win in a normal state may be executed. In such a case, there is a continuous winning abnormality on the hall computer 1200 side. By being notified, the amusement hall can recognize the possibility of fraud and take appropriate measures.

  In the second abnormality determination method described above, as shown in FIG. 64, within the period in which the time reduction signal from the pachinko gaming machine 1 is input (within the period (1) to (2) in the figure). Even if the second symbol confirmation signal is continuously input for a predetermined number of times or more, a continuous winning abnormality is not notified, but the second symbol determination signal is generated a predetermined number of times within a period in which the time signal from the pachinko gaming machine 1 is not input. When continuously input (period (3) and thereafter in the figure), a continuous winning abnormality is notified.

  Here, when the number of fluctuations is within 5 (5 in the example of FIG. 64) after the end of the high base state, the continuous winning abnormality is not notified (period (2) to (3) in the figure). ). This is because, after the high base state ends, the second special symbol variable display based on the second reserved memory is executed, and the second symbol determination signal may be continuously output. For example, assuming that the swinging member 93 of the sorting device 90 is in the state shown in FIG. 62 (c) at the time when the right strike in the high base state is started (that is, the game ball received next time is the second start winning prize. If the second reserved memory number has reached the upper limit value (4 in this example) at the end of the high base state, the second hold is assumed after the high base state ends. The variable display of the second special symbol is continuously executed up to the upper limit value of memory number + 1 times (a total of 5 times in this example). Therefore, if a continuous winning abnormality is notified within this period, it will cause confusion. Therefore, in this simulation function, the variable display count after the end of the high base state is a predetermined number (for example, the second reserved storage number upper limit value). In the case of + 1 = 5) or less, the continuous winning abnormality is not notified, and more appropriate continuous winning abnormality is notified.

(Third abnormality determination method)
Next, a third abnormality determination method will be described. Unlike the first abnormality determination method, the hall computer 1200 according to the present simulation function determines continuous winning abnormality based on the state of the second start opening signal instead of the state of the time signal. Note that the output signal from the gaming machine according to this simulation function differs from the first abnormality determination method when the variable display of the first special symbol is executed and when the variable display of the second special symbol is executed. And a common symbol confirmation signal is output. Further, a second start port opening signal that is ON during a period (open state) in which the variable winning ball device 15 is controlled to open and is OFF during a period (closed state) in which the opening control is not performed is output.

  When the CPU 1202 detects the input of the second start opening passage signal, the CPU 1202 first adds 1 to the total start winning number and adds 1 to the second starting win number. Then, 1 is added to the second start winning consecutive number, the first starting winning consecutive number is reset to 0, and it is determined whether or not the second start opening release signal is ON. If the second start port opening signal is ON, the second start port passing signal input process is terminated. If the second start port opening signal is in an OFF state, it is determined whether or not the second start port opening signal is within a predetermined winning number (for example, 1) after the second start port opening signal is switched from ON to OFF. For example, when the second start port opening signal is switched from ON to OFF, the value of the winning counter is reset to 0 after completion of opening, and the number of winnings after completion of opening each time the total starting winning number is added. The counter value is incremented by one. Then, it is determined whether or not the value of the winning number counter after completion of opening is equal to or less than a predetermined value (for example, 1).

  If it is within the predetermined number of winnings after the second start opening signal is turned off, the process is terminated. If the predetermined number of winnings has been exceeded after the second starting port opening signal is turned off, it is determined whether or not the second starting winning consecutive number has reached a predetermined number (for example, 5). If the second start winning consecutive number has not reached the predetermined number, the second start port passage signal input processing is terminated. If the second start winning consecutive number has reached the predetermined number, a continuous winning abnormality is notified based on the fact that the predetermined number or more of winnings to the second start winning port 13b are continued.

  For example, as a factor that the number of consecutive second start winning prizes reaches a predetermined number during a period other than the opening control period of the variable winning ball apparatus 15, the second start winning prize opening 13b continues due to an abnormality of the sorting apparatus 90 or an illegal act. A case where a game ball is won can be considered. In such a case, the administrator can take appropriate measures by notifying the abnormality in the hall computer 1200. In particular, in a gaming machine, it is more advantageous for the player when the display result of the second special symbol is a big hit symbol than when the display result of the first special symbol is a big hit symbol (for example, the number of rounds In many cases, the ratio determined to the big hit type is set high. In such a gaming machine, there is a risk that an illegal act of continuously winning in the second start winning port 13b that does not continuously win in a normal state may be executed. In such a case, there is a continuous winning abnormality on the hall computer 1200 side. By being notified, the amusement hall can recognize the possibility of fraud and take appropriate measures.

  When the CPU 1202 detects the input of the security signal, it first determines whether or not the second start port opening signal is in an ON state. If the second start port opening signal is in the ON state, a notification is made that a gaming machine error that does not include the possibility of continuous winning abnormality is detected. If the second start port opening signal is in the OFF state, it is notified that a gaming machine error including the possibility of a continuous winning abnormality is detected.

  In the third abnormality determination method described above, as shown in FIG. 65, within the period during which the second start port opening signal from the pachinko gaming machine 1 is input ((1) to (2) in the figure). Even if the second start port passing signal is continuously input more than a predetermined number of times within the period, the continuous winning abnormality is not notified, but the second start port opening signal from the pachinko gaming machine 1 is not input within the period. 2 When the start port passage signal is continuously input a predetermined number of times or more (period (3) in the figure), a continuous winning abnormality is notified.

  Here, the above-described determination process completes the opening control of the variable winning ball device 15 (when the opening control is executed a plurality of times in association with the derivation and display of one winning symbol, all the opening controls). When the number of winnings is within a predetermined number (1 in the example of FIG. 65), the continuous winning abnormality is not notified (period (2) to (3) in the figure). For example, when the swinging member 93 of the sorting device 90 is in the state shown in FIG. 62 (c) at the time when the opening control is started (that is, a state in which the game ball received next time is distributed to the second start winning opening 13b). As soon as the release control is finished, the game ball will first win the second start winning opening 13b, and this will cause confusion if the continuous winning abnormality is notified. In this simulation function, when the number of winnings after the completion of the opening control of the variable winning ball apparatus 15 is within a predetermined number (for example, 1), the continuous winning abnormality is not notified, and more appropriate continuous winning abnormality is notified. I am doing so.

(Fourth abnormality determination method)
Next, a fourth abnormality determination method will be described. Unlike the first abnormality determination method, the hall computer 1200 according to the present simulation function determines a consecutive winning abnormality based on the passing situation of the game ball of the gate 32, not the situation of the time signal. Note that the output signal from the gaming machine according to this simulation function differs from the first abnormality determination method when the variable display of the first special symbol is executed and when the variable display of the second special symbol is executed. And a common symbol confirmation signal is output. A pulse-like gate passage signal is output based on the game ball passing through the gate 32.

  When the CPU 1202 detects the input of the second start opening passage signal, the CPU 1202 first adds 1 to the total start winning number and adds 1 to the second starting win number. Then, the second start winning consecutive number is incremented by 1, the first starting winning consecutive number is reset to 0, and the corresponding pachinko gaming machine 1 is turned on within a predetermined period (for example, the first gate passing signal after turning on the power). It is determined whether or not it is within the period until is input. If it is within a predetermined period after the power is turned on, the process is terminated. For example, during the period from when the pachinko gaming machine 1 is powered on until the first gate passage signal is input, the elapsed time from the input of the gate passage signal, for example, by resetting the value of a gate passage timer to be described later May become unknown. For this reason, during the period from when the power is turned on until the first gate passage signal is input, a more appropriate abnormality notification is performed by not reporting a continuous prize abnormality.

  When a predetermined period has passed since the corresponding pachinko gaming machine 1 is turned on, it is determined whether or not the gate passing timer set when the gate passing signal is input has timed out. That is, it is determined whether or not a predetermined period has elapsed since the passage of the gate. If the gate passage timer has not timed out, the second start port passage signal input processing is terminated. If the gate passing timer has timed out, it is determined whether or not it is within a predetermined winning number (for example, 1) from the timeout of the gate passing timer. For example, when the gate passing timer times out, the value of the winning number counter after time-out is reset to 0, and the value of the winning number counter after time-out is incremented by one every time the total starting winning number is added. Keep it. In S446D, it is determined whether or not the value of the post-timeout winning prize counter is equal to or less than a predetermined value (for example, 1).

  If it is within the predetermined number of winnings from the time-out of the gate passing timer, the second start port passing signal input processing is terminated. If the predetermined number of winnings has been exceeded from the timeout of the gate passing timer, it is determined whether or not the second start winning consecutive number has reached a predetermined number (for example, 5). If the second start winning consecutive number has not reached the predetermined number, the second start port passage signal input processing is terminated. If the second start winning consecutive number has reached the predetermined number, a continuous winning abnormality is notified based on the fact that the predetermined number or more of winnings to the second start winning port 13b are continued.

  Normally, in a state where the right strike is executed, the game balls pass through the gate 32 at a predetermined rate. Therefore, when a predetermined period has passed without the gate passing signal being input, that is, when the gate passing timer has timed out, it is estimated that the right-handed is not executed. During such a period, as a factor that the number of consecutive second start winning prizes has reached a predetermined number, game balls are continuously won at the second start winning opening 13b due to an abnormality of the sorting device 90 or an illegal act. Cases are considered. In such a case, the administrator can take appropriate measures by notifying the abnormality in the hall computer 1200. In particular, in a gaming machine, it is more advantageous for the player when the display result of the second special symbol is a big hit symbol than when the display result of the first special symbol is a big hit symbol (for example, the number of rounds In many cases, the ratio determined to the big hit type is set high. In such a gaming machine, there is a risk that an illegal act of continuously winning in the second start winning port 13b that does not continuously win in a normal state may be executed. In such a case, there is a continuous winning abnormality on the hall computer 1200 side. By being notified, the amusement hall can recognize the possibility of fraud and take appropriate measures.

  When the CPU 1202 detects the input of the gate passage signal, the CPU 1202 adds 1 to the total gate passage number and sets the gate passage timer. For example, when the right strike is being performed, the intervals at which the game balls pass through the gate 32 are counted, and the longest interval among the obtained counting results is set as the timer value.

  When the CPU 1202 detects the input of the security signal, it first determines whether or not the gate passing timer has timed out. If the gate passing timer has not timed out, a notification is made that a gaming machine error that does not include the possibility of a continuous winning abnormality is detected. If the gate passing timer has timed out, it is notified that a gaming machine error including the possibility of a continuous winning abnormality is detected.

  In the fourth abnormality determination method described above, as shown in FIG. 66, the second start port passes within the period until the gate passage timer times out (in the period (1) to (2) in the figure). Even if the signal is continuously input a predetermined number of times or more, a continuous winning abnormality is not notified, but when the second start port passing signal is continuously input a predetermined number of times or more within the period when the gate passing timer times out (see FIG. During the middle period (3) and subsequent periods), a continuous winning abnormality is notified.

  Here, when the gate passing timer times out within the predetermined number of winnings (1 in the example of FIG. 66), the consecutive winning abnormality is not notified (periods (2) to (3) in the figure). ). For example, when the swing member 93 of the sorting device 90 is in the state shown in FIG. 62 (c) when the gate passage timer is set (that is, the game ball received next time is distributed to the second start winning opening 13b). If it is in a state), immediately after the time-out of the gate passing timer, the game ball will first win the second start winning opening 13b. become. In this simulation function, when the number of winnings after the time-out of the gate passing timer is within a predetermined number (for example, 1), the continuous winning abnormality is not notified, and more appropriate continuous winning abnormality is notified. .

[Second Game Machine and Management Device for Managing Game Information]
A hall computer 1200 as a management device shown in FIG. 67 manages game information generated in a game in the pachinko gaming machine 1 as a second gaming machine arranged side by side on a plurality of gaming islands arranged in the game hall. The game information is aggregated based on various signals output from the pachinko gaming machine 1 shown in FIG. 68, the out ball counter 1120 provided corresponding to the pachinko gaming machine 1, and the like.

(Second game machine)
The overall configuration of the pachinko gaming machine 1 that is an example of the second gaming machine will be described. Here, differences from the first gaming machine will be described. FIG. 68 is a front view of the pachinko gaming machine 1 as seen from the front.

  In the left game area 7A, a left gate 32 is provided on the left side of the effect display device 9, and a first start winning opening 13a is provided below the effect display device 9. In the right game area 7B, a right gate 33 is provided on the right side of the effect display device 9, and a special variable winning ball device 20 is provided below the effect display device 9.

  Here, the first start winning opening 13a is provided immediately below the effect display device 9. However, when the left-handed game ball is shot to aim at the left game area 7A, the game ball is easy to win, When the player hits the game area 7B and hits the game ball rightward, the game ball is difficult to win due to the arrangement of the game nails and the guide members 39a to 39c provided on the flow path of the game ball. Further, the variable winning ball device 15 having the second start winning opening 13b is provided below the first starting winning opening 13a. The variable winning ball device 15 is opened by the tilt control of the movable blade piece.

  In this embodiment, a left gate 32 and a right gate 33 are provided in the left game area 7A and the right game area 7B, respectively, as passing areas through which game balls can pass. When the player is left-handed, the game ball passes through the left gate 32, so that the normal symbol variable display is started. When the winning symbol is derived and displayed, the variable winning ball device 15 is opened. It becomes a state and it can be expected that the game ball wins the second start winning opening 13b. In addition, when the player is making a right strike, the game ball passes through the right gate 33, whereby the variable display of the normal symbol is started. When the winning symbol is derived and displayed, the variable winning ball apparatus 15 Is opened, and it can be expected that the game ball will win the second start winning opening 13b. In other words, the variable winning ball apparatus 15 may be in an open state in both cases of left-handed and right-handed, so that the game ball wins the second start winning opening 13b. I can expect.

  Further, the special variable winning ball apparatus 20 is opened during the big hit gaming state. The special variable winning ball device 20 is arranged immediately below the variable winning ball device 15, but is in a position where the game ball guided by the guide member 39 b and the game nail 40 is easy to win when it is hit right.

  When the player is in the normal state (low probability / low base state), the player cannot open the special variable winning ball device 20 and the variable winning ball device 15 is high even if the game ball is passed through the right gate 33. Since it is not released at a frequency, a left strike is made in which a game ball is shot aiming at the left game area 7A, and the game ball is awarded to the first start winning opening 13a. When the gaming state is a high base state (high probability / high base state or low probability / high base state), if the game ball is passed through the right gate 33, the variable winning ball device 15 is released at a high frequency. The player hits the game ball rightward aiming at the area 7B, and wins the game ball in the second start winning opening 13b. In the big hit gaming state, the special variable winning ball device 20 is opened, so that the right hitting the game ball is aimed at the right game area 7B and the special ball winning ball device 20 is won.

  Below the effect display device 9, a winning device having a first start winning port 13a is provided. The game ball that has won the first start winning opening 13a is guided to the back of the game board 6 and detected by the first start opening switch 14a.

  A variable winning ball device 15 having a second starting winning port 13b through which a game ball can be won is provided below the winning device having the first starting winning port (first starting port) 13a. The game ball that has won the second start winning opening (second start opening) 13b is guided to the back of the game board 6 and detected by the second start opening switch 15a. The variable winning ball device 15 is opened by a solenoid 16. When the variable winning ball apparatus 15 is in the open state, the game ball can be won in the second start winning opening 13b (it is easy to start winning), which is advantageous for the player. In a state where the variable winning ball device 15 is in the open state, it is easier for the game ball to win the second starting winning port 13b than the first starting winning port 13a. In addition, in a state where the variable winning ball device 15 is in the closed state, the game ball does not win the second start winning opening 13b. Therefore, in a state where the variable winning ball device 15 is in the closed state, it is easier for the game ball to win the first starting winning opening 13a than the second starting winning opening 13b. In the state where the variable winning ball device 15 is in the closed state, it may be configured so that it is difficult to win, but it is possible to win (that is, the game ball is difficult to win).

  Hereinafter, the first start winning opening 13a and the second start winning opening 13b may be collectively referred to as a start winning opening or a starting opening.

  When the variable winning ball device 15 is controlled to be in the open state, the game ball heading for the variable winning ball device 15 is very likely to win the second start winning port 13b. The first start winning opening 13a is provided directly below the effect display device 9, but the interval between the lower end of the effect display device 9 and the first start winning port 13a is further reduced, or the first start winning port is set. It is difficult to guide the game balls to the first start winning opening 13a by arranging the nails densely around 13a, or to arrange the nail arrangement around the first starting winning opening 13a. The direction may be higher than the winning rate of the first start winning opening 13a.

  In this embodiment, as shown in FIG. 68, the variable winning ball apparatus 15 that opens and closes only with respect to the second start winning opening 13b is provided, but the first starting winning opening 13a and the second start winning opening 13a are provided. Any of the start winning openings 13b may be provided with a variable winning ball device that performs opening and closing operations.

  Also, at the lower part of the display screen of the effect display device 9, there are provided a first reserved memory display unit 18c for displaying the first reserved memory number and a second reserved memory display unit 18d for displaying the second reserved memory number. ing. In this embodiment, the first on-hold storage display unit 18c is in the lower left part of the display screen of the effect display device 9, and the second on-hold storage display unit 18d is in the lower right part of the display screen of the effect display device 9. Is provided. Therefore, it is possible to easily grasp the number of execution conditions that are not satisfied by the variable display start condition in each of the first special symbol display 18a and the second special symbol display 18b. In addition, you may make it provide the sum total pending | holding memory display part which displays the total number (sum total pending memory count) which is the sum total of the 1st pending memory number and the 2nd pending memory number on the display screen of the effect display device 9.

  As shown in FIG. 68, a special variable winning ball device 20 that forms a big winning opening is provided below the variable winning ball device 15. The special variable winning ball apparatus 20 includes an opening / closing plate, and when the specific display result (big hit symbol) is derived and displayed on the first special symbol display 8a, and the specific display result (big hit symbol) on the second special symbol display 8b. When the open / close plate is controlled to be open by the solenoid 21 in the specific game state (big hit game state) that occurs when the symbol is derived and displayed, the big winning opening serving as the winning area is opened. A game ball won in the big prize opening is detected by the count switch 23a.

  When a game ball passes through the left gate 32 and is detected by the gate switch 32a, or when it passes through the right gate 33 and is detected by the second gate switch 33a, a random number (MR5) for hit determination based on the passage of the gate is extracted. Is done. The extracted random number for judgment is stored as normal symbol hold memory on the condition that the normal symbol hold memory number does not reach the upper limit (for example, 4), and the normal symbol hold memory number is incremented by 1 accordingly. The Then, the normal symbol display unit 10 is not subject to the fact that the normal symbol holding storage number is not 0, variable display of the normal symbol is not executed, and opening / closing control of the variable winning ball device 15 is not executed. The variable display of the display is started, and the normal symbol reserved storage number is subtracted by 1 accordingly.

  When the stop symbol in the normal symbol display 10 is a predetermined symbol (a winning symbol, for example, a symbol “7”), the variable winning ball apparatus 15 is opened for a predetermined number of times. In other words, the state of the variable winning ball device 15 is a state that is advantageous from a disadvantageous state for the player when the stop symbol of the normal symbol is a winning symbol (a state in which a game ball can be won in the second start winning port 13b). To change. In the vicinity of the normal symbol display 10, a normal symbol holding storage display 41 having a display unit with four LEDs for displaying the number of winning balls that have passed through either the left gate 32 or the right gate 33 is provided. The normal symbol hold memory display 41 lights up a number of LEDs corresponding to the number of normal symbol hold memories. Each time a game ball passes through the left gate 32 and the right gate 33, that is, every time a game ball is detected by the gate switches 32a and 33a, the normal symbol hold storage display 41 increases the number of LEDs to be turned on by one. Each time variable display on the normal symbol display 10 is started, the number of LEDs to be lit is reduced by one.

  Here, in the low base state (normal state), the normal symbol control table A shown in FIG. 69A is selected when the hit determination is executed or when the opening / closing control of the variable winning ball device 15 is executed. The As shown in the normal symbol control table A, in the normal state, it is determined to be a win at a ratio of 3/13 (MR5 = 1 to 3), and at a ratio of 10/13, it is determined to be a shift (MR5 = 4 to 13). ). Furthermore, when it is determined to be a hit, it is determined per short opening (MR5 = 1, 2) at a rate of 2/3, and per long opening (MR5 = 3) at a rate of 1/3. In the case of per short opening, the variable winning ball apparatus 15 executes the opening control for 0.5 seconds once, and in the case of the long opening, the variable winning ball apparatus 15 performs one opening control for 5 seconds. Is done. In the case of per short opening, the winning percentage to the variable winning ball apparatus 15 is low, and virtually no winning can be expected, whereas in the case of long opening, the winning to the variable winning ball apparatus 15 is achieved. Even when the ratio is high and the player is left-handed in the low base state, it is possible to expect winning in the variable winning ball apparatus 15. In addition, the fluctuation time of the normal symbol in the normal state is 10 seconds.

  On the other hand, in the high base state (low probability / high base state, high probability / high base state), when the hit determination is executed or when the opening / closing control of the variable winning ball device 15 is executed, FIG. The normal symbol control table B shown is selected. As shown in the normal symbol control table B, in the high base state, it is determined to be a hit at a ratio of 11/13 (MR5 = 1 to 11), and at a ratio of 2/13, it is determined to be a shift (MR5 = 12, 13). Further, when it is determined that the winning is achieved, the variable winning ball apparatus 15 executes the opening control for 2.5 seconds twice. Therefore, when the player is making a right turn in the high base state, it is possible to expect winning to the variable winning ball apparatus 15. The fluctuation time of the normal symbol in the high base state is 1 second.

  On the other hand, in the low base state in this embodiment, in principle, none of the above-described normal symbol shortening variation control, normal symbol probability variation control, open extension control, and special symbol shortening variation control is executed. In this embodiment, the opening time for one opening / closing operation (5.0 seconds) may be performed when the opening control is performed for 5 seconds. In this example, the opening time is longer than the opening time (0.5 second) in one opening / closing operation in the case of per short opening, and the number of opening times is the same (one time). May be common and the number of times of opening may be increased (for example, 0.5 seconds × 10 times). In any case, the total time for which the variable winning ball device 15 is opened increases as the stop symbol in the normal symbol display 10 becomes a winning symbol.

  In this simulation function, as shown in FIG. 68, the left gate 32 is provided in the left game area 7A, and a part of the game balls launched into the left game area 7A in the left-handed state is located above the left gate 32. It is guided by the placed game nail and passes through the left gate 32. In addition, a right gate 33 is provided in the right game area 7B, and a part of the game balls launched to the right game area 7B in the right-handed state are guided by game nails arranged above the right gate 33, Pass through the right gate 33.

  The game ball launched into the right game area 7B collides with the game nail disposed below the gate 32 and flows down while changing the course, but finally the guide member 39a disposed further below the gate 32. Alternatively, the variable winning ball device 15 is dropped by a high probability on the guiding surface (upper surface) of the guiding member 39b, and the guiding members 39a to 39c and the game nails arranged between the guiding member 39b and the variable winning ball device 15 are used. Be guided to. That is, most of the game balls launched into the right game area 7B are guided to the variable winning ball apparatus 15. Therefore, when the variable winning ball apparatus 15 is in the open state, the gaming ball guided by the gaming nail wins the second start winning opening 13b with a high probability.

  The game balls guided by the guide members 39b and 39c and the game nails are further guided toward the special variable winning ball device 20 in a state where the variable winning ball device 15 is not opened, and special if the variable winning ball device 15 is opened. The variable winning ball apparatus 20 is designed to win a large winning opening. Therefore, in the big hit gaming state, if the player hits the right and puts the game ball into the right game area 7B, it can be expected that the game ball will win the big winning opening of the special variable winning ball device 20.

  The second gaming machine outputs a prize ball signal, a jackpot signal, and a time reduction signal similar to those of the first gaming machine, and these signals are output to the outside via the terminal board. .

  From this second gaming machine, the special symbol is confirmed when the display of the display result is derived and displayed after the variation display of the special symbol is finished on the first special symbol display 8a or the second special symbol display 8b. A symbol confirmation signal is output. The symbol determination signal is a pulse signal having a predetermined width.

  In addition, machine identification information including a manufacturer ID indicating the manufacturer of the pachinko gaming machine 1 and a model ID indicating the model (model) of the pachinko gaming machine 1 is output from the second gaming machine. The machine identification information is a signal having a predetermined data length that is output after a predetermined time (for example, 8 seconds) has elapsed since the power of the pachinko gaming machine 1 is turned on, and is output by being divided into frame units including a start bit and a stop bit. . Further, when magnetism is detected by a magnetic detection sensor (not shown) or when an abnormal winning is detected, a security signal indicating abnormality detection is output. The security signal is a pulse signal having a predetermined width.

  Further, when a game ball is detected from the second game machine by the first start port switch 14a or the second start port switch 15a, the game ball is placed in the first start winning port 13a or the second start winning port 13b. A start port passing signal indicating that a prize has been won is output. The start-port passage signal is a pulse signal having a predetermined width. In this embodiment, the common start-port passage signal is used when a game ball is detected by either the first start-port switch 14a or the second start-port switch 15a. A signal is output through a common signal line.

  Further, a gate passing signal indicating that the game ball has passed through the left gate 32 or the right gate 33 from the second gaming machine when the game ball is detected by the first gate switch 32a or the second gate switch 33a. Is output. The gate passing signal is a pulse signal having a predetermined width, and in this embodiment, the common gate passing signal is the same regardless of whether the game ball is detected by either the first gate switch 32a or the second gate switch 33a. Output through the signal line.

  The symbol determination signal, security signal, start port passage signal, and gate passage signal are output to the outside through the terminal board.

(Aggregation of game information)
Below the pachinko gaming machine 1 described above, an out ball counter 1120 is provided that counts the game balls (out balls) used in the pachinko gaming machine 1 and discharged from the pachinko gaming machine 1. Yes. Every time a predetermined number (for example, 10 balls) of out balls is counted, a driving signal is output from the out ball counter 1120. The driving signal is a pulse signal having a predetermined width.

  Machine identification signal, prize ball signal, symbol determination signal, start port passing signal, jackpot signal, time-short signal, gate passing signal, security signal output from the terminal board, and hitting output from the out ball counter 1120 The input signal is input to the communication unit 1207 of the hall computer 1200 via a relay device such as the base terminal 1220 and a communication cable, so that the hall computer 1200 can collect the game information of each pachinko gaming machine 1. ing.

  Output signals from a plurality of pachinko gaming machines 1 (and corresponding out ball counters 1120) are input to the relay device such as the base terminal 1220. From the relay device such as the stand terminal 1220, stand identification information (for example, discriminating the pachinko gaming machine 1 that outputs the signal corresponding to the input signal (or corresponds to the out ball counter 1120 that outputs the signal) (for example, (Identification information attached corresponding to the signal input terminal of the relay device) is output. Thereby, in the information management apparatus such as the hall computer 1200, it becomes possible to manage game information for each machine number corresponding to the machine identification information.

  Next, in the storage device 1206 of the hall computer 1200 related to the simulation function, in addition to a processing program in which various processing contents executed by the hall computer 1200 are described, a model database shown in FIG. 70 and a game shown in FIG. A history table is stored.

  As shown in FIG. 70, the model database corresponds to “manufacturer ID” for identifying the manufacturer of the gaming machine and “model ID” for identifying the model of the gaming machine manufactured by the manufacturer. In addition, the “model name” specified from the model and the “gate position” which is the gate position in the game area in the model specified from the model are stored. For example, if a gate is provided only on the left of the game area, it is `` left '', if a gate is provided only on the right, `` right '', if a gate is provided on either side “Left / Right” is stored. The CPU 1203 updates the model database to the latest information by downloading the information updated at any time in the information management server (not shown) through the Internet during the time period before the game hall starts business. .

  In the gaming history table, as shown in FIG. 71, the “model name” of the pachinko gaming machine 1 and the gate in the gaming area are associated with the machine number of each pachinko gaming machine 1 installed in the game hall. The “gate position” that is the position, the “big hit signal” that indicates whether the big hit signal is ON or OFF (whether or not it is controlled to the big hit gaming state), and the short time signal is ON or OFF “Time signal” indicating whether or not the vehicle is controlled to a high base state, “Total number of award balls” indicating the total number of award balls paid out on the day, and the hit balls hit on the day The total number of balls that indicate the total number of balls, the total number of balls that are calculated by calculating the total number of balls that are hit-the total number of winning balls, and the number of times the special symbol is displayed on the day “Total number of start times”, “Total number of big hits” indicating the number of occurrences of big hits on the day, and the first on the day The total value of the “total starting winning number” indicating the total number of winning prizes for the moving opening 13a and the second starting opening 13b, and the passing number of the left gate 32 and the passing number of the right gate 33 on the day. It is determined that it is based on the passage of the left gate 32 and the number of passages of the left gate indicating the number of passages of the left gate 32 and the passage of the right gate 33 on the day. “Right gate passing number” indicating the number of passed gates, “Left area hitting ball number” indicating the number of hit balls determined to have been shot into the left game area 7A on that day, and Right game area 7B on the same day. “Right area driving ball number” indicating the number of driving balls determined to have been driven, [Left gate passing number / Left area driving ball number] × 100, “Left gate passing rate”, [ “Right gate passage number divided by right area shot number of balls] × 100” Rate ".

  All the contents of the game history table can be displayed on the display device 1206, and based on the displayed information, the manager of the game hall can grasp the operating status, winning status, etc. of each gaming machine. it can.

(First tabulation process)
Next, the first counting process executed by the hall computer 1200 will be described. The CPU 1202 inputs a machine identification signal, a prize ball signal, a driving signal, a symbol determination signal, a start port passing signal, a gate passing signal, and a security signal, and switching between a jackpot signal and a probability changing signal (OFF to ON, ON (Change from OFF to OFF), and with these detections, a totaling process according to the detection results is executed.

  When the CPU 1202 detects the input of the machine identification signal, the CPU 1202 first extracts the manufacturer ID and the model ID from the input machine identification signal, and refers to the model database to extract the manufacturer ID and the model. Specify the model name and gate position that match the ID. Then, the specified model name and gate position are registered as “model name” and “gate position” of the corresponding machine number in the game history table. Thereby, the manager of the game hall can grasp the model name and gate position of each gaming machine.

  The aggregation process described below is an aggregation process corresponding to models whose “Gate Position” is “Left / Right”. For models whose “Gate Position” is “Left” or “Right”, An aggregation process different from the aggregation process described below is executed without individually counting the number of right gate passages and without individually counting the number of left area shots and the number of right area shots. In this manner, the CPU 1202 executes a totaling process according to the “gate position” of the gaming machine that has output various signals. Thus, based on the machine identification signal that is output when the gaming machine is turned on, the gaming machine to be managed is identified as a gaming machine having both the left gate and the right gate, and appropriate tabulation processing is performed. Like to do.

  When the CPU 1202 detects the input of a prize ball signal, first, 10 is added to the total number of prize balls in the game history table, and the total number of difference balls is calculated by [total number of shot balls-total number of prize balls after update]. Update.

  When the CPU 1202 detects the input of the driving signal, first, 10 is added to the total driving ball number in the game history table, and the total difference ball is calculated by [total driving ball number after updating−total winning ball number]. Update the number. Further, it is determined whether or not the non-aggregation timer has timed out. The non-total timer is set at the start of the big hit gaming state and at the end of the high base state.

  If the non-counting timer has timed out, it is determined whether the right-handed flag is set. The right-handed flag is set when the big hit gaming state starts and is reset when the high base state ends. Note that when the power-on of the pachinko gaming machine 1 is detected (for example, when a machine identification signal is input), the right-handed flag is in a reset state (non-set state). If the right hit flag is not set, 10 is added to the number of left area shots in the game history table, and the left gate passing rate is updated based on the updated number of left area shots. If the right hit flag is set, 10 is added to the number of right area shots in the game history table, and the right gate passing rate is updated based on the updated number of right area shots.

  If the non-aggregation timer has not timed out, the process is terminated. That is, if a predetermined period has not elapsed since the occurrence of the big hit gaming state, or if the predetermined period has not elapsed since the high base state has ended, left-handed to right-handed or right-handed to left-handed Since there is a case where switching to hitting is performed, it is unclear which of the left game area 7A and the right game area 7B the game ball was fired, so the number of left area shot balls and the number of right area shot balls The aggregation is not performed.

  When the CPU 1202 detects the input of the symbol confirmation signal, the CPU 1202 adds 1 to the total number of start times in the game history table. When the CPU 1202 detects the input of the start port passing signal, the CPU 1202 adds 1 to the total start winning number in the game history table.

  When the CPU 1202 detects the switching (rise) of the big hit signal from OFF to ON, first, the big hit signal is updated to ON in the game history table, and the total number of big hits is incremented by one. In addition, a right-handed flag is set, and a non-total timer is set. The right-handed flag is set for a period from the start of the big hit gaming state to the end of the high base state, and it is possible to determine that right-handed is being executed at the time of setting. In addition, the non-aggregation timer is set at the start of the big hit gaming state and at the end of the high base state, and as described above, the individual counting of the left area driving number and the right area driving number is not executed, as described above, The counting of the left gate passage number and the right gate passage number, which will be described later, is not executed.

  When the CPU 1202 detects switching (falling) from ON to OFF of the jackpot signal, the CPU 1202 updates the jackpot signal to OFF in the game history table. When the CPU 1202 detects the switching (rise) of the time reduction signal from OFF to ON, the CPU 1202 updates the time reduction signal to ON in the game history table.

  When the CPU 1202 detects the switching (falling) of the time reduction signal from ON to OFF, first, the CPU 1202 updates the time reduction signal to OFF in the game history table. In addition, the right-hand flag is reset and a non-total timer is set. That is, when the high base state ends, the gaming state may be changed to the normal state and then left-handed, so the right-handed flag is reset (non-set state). Further, during the period until the non-counting timer times out, the individual counting of the number of left area driving balls, the number of right area driving balls, the number of left gate passing and the right gate passing is not executed.

  When the CPU 1202 detects the input of the gate passage signal, first, the CPU 1202 adds 1 to the total gate passage number in the game history table. Further, it is determined whether or not the non-aggregation timer has timed out.

  If the non-counting timer has timed out, it is determined whether the right-handed flag is set. If the right-handed flag is not set, the left gate passage number is incremented by 1 in the game history table, and the left gate passage rate is updated based on the updated left gate passage number. If the right-handed flag is set, the right gate passage number is incremented by 1 in the game history table, and the right gate passage rate is updated based on the updated right gate passage number.

  If the non-total timer has not timed out, the process at the time of gate passing signal input is terminated. That is, if a predetermined period has not elapsed since the occurrence of the big hit gaming state, or if the predetermined period has not elapsed since the high base state has ended, left-handed to right-handed or right-handed to left-handed There is a case where switching to hitting is performed, and it is unclear which of the left game area 7A and the right game area 7B the game ball was fired, so the number of left gate passes and the number of right gate passes are not individually counted I am going to do that.

  When the CPU 1202 detects the input of the security signal, the CPU 1202 first blinks the machine number of the pachinko gaming machine 1 that has output the security signal in the gaming history table and outputs a predetermined alarm sound. When a reset switch provided in the pachinko gaming machine 1 is operated, a reset signal output from the pachinko gaming machine 1 is input to the hall computer 1200, and the CPU 1202 receives the reset number of the pachinko gaming machine 1 that has transmitted the reset signal. The blinking display is terminated and the alarm sound output is also terminated.

  Next, with reference to FIG. 72, an individual counting method of the left gate passage number and the right gate passage number in the simulation function will be described. In the figure, the timing at which the big hit occurs in the normal state and is controlled to the big hit gaming state is shown as (1), the timing at which the big hit gaming state is finished and the high base state is controlled is shown as (2), Thereafter, the timing at which the high base state is terminated after the variable symbol special symbol display is executed 50 times without generating the big hit gaming state is shown as (3).

  When the gaming state is the normal state, the player is left-handed until the big hit gaming state occurs, and the right-handed flag is not set. Therefore, when the gate passage signal is input before the timing (1), it is determined that the gate passage signal is based on the left gate passage. When the big hit occurs in the normal state and the big hit gaming state is started (timing (1)), the right-handed flag is set because the player makes a right-hand hit.

  Here, at the timing after the big hit gaming state is started, game balls launched into the left gaming area before the big hit gaming state is started may pass through the left gate, so the big hit gaming state is If it is determined that the gate passage signal is based on the passage of the right gate at the start timing, an erroneous determination may occur. Similarly, at the timing after the big hit gaming state is started, game balls launched into the left game area before the big hit gaming state is started may be counted by the out ball counter 1120. If it is determined that the driving signal is based on driving into the right gaming area, triggered by the timing at which the big hit gaming state is started, an erroneous determination may occur. Therefore, in this simulation function, such a misjudgment is prevented by setting a predetermined period after the big hit gaming state is started as a non-aggregation period. For example, the non-counting period is a period required from when the game ball is launched until it is counted by the out ball counter 1120, and is set to 10 seconds, for example.

  After the non-aggregation period has elapsed, it is determined that the input gate passage signal is based on the right gate passage on the condition that the right-handed flag is set. In this simulation function, the right-handed flag is set even at the timing of (2) when the big hit gaming state ends and becomes the high base state, so that the input gate passing signal is continuously based on the right gate passing. It is judged as a thing. Then, after entering the high base state, the right-handed flag is reset at the timing of (3) when the variable base of the special symbol is executed 50 times and the high base state ends.

  Here, at the timing after the high base state ends, the game ball launched into the right game area before the high base state ends may pass through the right gate, so the high base state has ended. If it is determined that the gate passage signal is based on the passage of the left gate with the timing as a trigger, an erroneous determination may occur. Similarly, at the timing after the high base state ends, game balls launched into the right game area before the high base state ends may be counted by the out ball counter 1120. If it is determined that the driving signal is based on driving into the left game area at the timing when the state ends, an erroneous determination may occur. Therefore, in this simulation function, such a misjudgment is prevented by setting the predetermined period after the high base state is ended as a non-aggregation period. For example, the non-counting period is a period required from when the game ball is launched until it is counted by the out ball counter 1120, and is set to 10 seconds, for example.

  Then, after the non-aggregation period has elapsed, it is determined that the input gate passage signal is based on the left gate passage on the condition that the right hand flag is not set.

  Thus, it is determined whether the input gate passage signal is based on the passage of the left gate 32 or the passage of the right gate 33, and the number of left gate passages and the number of right gate passages are individually determined. Can be aggregated. Further, in this embodiment, the ratio of the left gate passing number to the left area driving ball number is totaled as the left gate passing ratio, and the ratio of the right gate passing number to the right area driving ball number is totaled as the right gate passing ratio. These can be contrasted and displayed on the display device 1206 of the hall computer 1200. The game hall manager can individually grasp the left gate passage rate and the right gate passage rate and change the passage frequency of the left gate and the passage frequency of the right gate by adjusting the nail.

  In addition, in the display device 1206 of the hall computer 1200 of this simulation function, it is possible to present the input state of the gate passing signal in correspondence with the right-handed period and the left-handed period. In this simulation function, it is possible to identify that the gaming state is the normal state (low probability / low base state) if neither the big hit signal nor the short time signal is inputted, and if the big hit signal is inputted, the game It is possible to identify that the state is a big hit gaming state, and if a short time signal is input, it is possible to identify that the gaming state is a high base state, so it is possible to grasp the time change of the gaming state It is. In addition, since the input of the gate passing signal is also sequentially detected, for example, as shown in FIG. 73, the time transition of the gaming state is presented for each vehicle, and the input state of the gate passing signal in each gaming state (FIG. (Indicated by a pulse in the figure) can be compared and presented. In this example, the transition of the gaming state and the input timing of the gate passing signal are displayed side by side, and the input timing of the gate passing signal and the input frequency in each gaming state can be determined by visually comparing both of them vertically. It is possible to grasp. Note that the time at which the big hit signal is turned on or off, the time at which the hourly signal is turned on, or the time at which the hourly signal is turned off may be stored as a history.

  As a result, the gaming state has changed to a normal state (“normal” in the figure), a big hit gaming state (“big hit” in the figure), and a high base state (“short time” in the figure), and It is possible to visually grasp the period of the gaming state. Also, it is understood that the gate passing signal input in the left-handed gaming state is based on the passage of the left gate 32, and the gate passing signal input in the right-handed gaming state is based on the passage of the right gate 33 Therefore, it is possible to visually grasp the frequency at which the gate passing signal is input in each gaming state. For example, in a big hit gaming state or a high base state that is a right-handed period, if a gate passing signal is frequently input, it is understood that the right gate 33 easily passes, and in a normal state that is a left-handed period If almost no gate passing signal is input, the left gate 32 can be recognized as being extremely difficult to pass, and the game nails can be adjusted individually on the left and right.

(Second tabulation process)
Next, the second tabulation process will be described. Here, from the pachinko gaming machine 1 related to the second counting process, unlike the gaming machine related to the first counting process, when the game ball wins the first starting winning opening 13a, the first starting port passing signal is displayed. Is output, and the second starting port passing signal is output when the game ball wins the second starting port 13b. In this embodiment, the first start port passage signal and the second start port passage signal are output from different signal lines. Therefore, on the stand terminal 1220 and the hall computer 1200 side, both signals can be distinguished depending on which signal line the signal is output from. However, the present invention is not limited to this form, and each signal may be output in a distinguishable manner from a common signal line.

  When the CPU 1202 detects the input of the driving signal, first, 10 is added to the total driving ball number in the game history table, and the total difference ball is calculated by [total driving ball number after updating−total winning ball number]. Update the number.

  Further, it is determined whether the left-handed determination timer has timed out. The left-handed determination timer is set when the first start port passage signal is input. That is, the counting process is executed assuming that the left-handed determination timer is timed out after the winning to the first start winning opening 13a is confirmed until the left-handed determination timer times out. If the left hit determination timer has not timed out, 10 is added to the number of left area shots in the game history table, and the left gate passing rate is updated based on the updated number of left area shots. If the left-handed determination timer has timed out, 10 is added to the number of right area shots in the game history table, and the right gate passing rate is updated based on the updated number of right area shots.

  In other words, during the period in which left-handed is being executed, winning to the first start winning opening 13a occurs at a predetermined rate. Therefore, for the subsequent predetermined period, the counting process is performed assuming that left-handed is being executed. ing. On the other hand, when a predetermined period has passed since the winning to the first start winning opening 13a is not confirmed, the counting process is performed assuming that the left-handed is not executed and the right-handed is executed. .

  When the CPU 1202 detects the input of the first start port passage signal, the CPU 1202 adds 1 to the total start winning number in the game history table, and sets the left-handed determination timer. For example, the value of the left-handed determination timer may be set to the longest period in consideration of the winning interval to the first start winning port 13a in the state where the left-handed is continued, for example, 30 seconds. It is good to set to.

  When the CPU 1202 detects the input of the second start port passing signal, the CPU 1202 adds 1 to the total start winning number in the game history table, and determines whether the left-handed determination timer has timed out. If the left-handed determination timer has timed out, the process is terminated.

  If the left-handed determination timer has not timed out, 1 is added to the number of winnings during long open, and the “long-opening winning rate” is calculated by [long-opening winnings / left area driven-in balls] × 100. ,Update. Note that the total number of winnings during long opening, the winning rate during long opening, the number of long opening times and the number of winnings per long opening described later are all managed in the game history table, and other total data (for example, left It is possible to display on the display device 1206 together with the gate passage rate and the number of left area driving balls).

  In this embodiment, when left-handed is being executed, when winning per short opening shown in FIG. 46, winning to the variable winning ball device 15 can hardly be expected, so left-handed is being executed. In the state, when the winning to the second start winning opening 13b occurs, all are counted as winnings in the long open state (5 seconds × 1 time) based on the fact that it is per long open. In this way, the number of winnings in the long open state can be totaled. Also, since the percentage of the game balls launched in the left game area that won the second start winning opening 13b is indicated as “long open prize rate”, the left gate passing rate and the long open prize rate are compared. The game nail can be adjusted appropriately. For example, if the winning rate during the long opening is low relative to the left gate passing rate, it is possible to take measures to facilitate the winning by adjusting the game nail on the route to the second start winning port 13b. In other words, in this embodiment, the “long open winning rate” can also be referred to as a “second starting winning port winning rate” indicating the winning rate to the second starting winning port 13b.

  Further, it is determined whether or not the continuous winning timer has timed out. The continuous winning timer is a timer that is set when the first winning is generated in one long open state and times out after the end of the long open state. If the continuous winning timer has timed out, that is, if it is determined that the winning is in a long open state different from the previous winning, the number of occurrences of the long open state on that day (occurrence per long open on that day) 1) is added to the number of long open times indicating the number of times), and a continuous winning timer is set. The set value of the continuous winning timer may be, for example, the opening time (5 seconds in this example) of the variable winning ball device 15 per long opening. Further, the “number of winnings per long opening” is calculated and updated by [number of winnings during long opening / number of times of long opening]. If the continuous winning timer has not timed out, that is, if it is determined that the winning is in the same long opening state as the previous winning, the long opening 1 is based on the updated long opening winning number. Update the number of winnings per round.

  In this way, the number of winnings per long open state can be totaled. For example, if the number of winnings per one long opening is small, it is possible to adjust the game nail on the route to the second start winning opening 13b to make it easy to win.

  When the CPU 1202 detects switching (rise) of the big hit signal from OFF to ON, it updates the big hit signal to ON in the game history table and adds 1 to the total number of big hits. When the CPU 1202 detects the switching (falling) of the time reduction signal from ON to OFF, the CPU 1202 updates the time reduction signal to OFF in the game history table.

  When the CPU 1202 detects the input of the gate passage signal, first, the CPU 1202 adds 1 to the total gate passage number in the game history table. Further, it is determined whether the left-handed determination timer has timed out. If the left-handed determination timer has not timed out, 1 is added to the left gate passage number in the game history table, and the left gate passage rate is updated based on the updated left gate passage number. If the left-handed determination timer has timed out, 1 is added to the right gate passage number in the game history table, and the right gate passage rate is updated based on the updated right gate passage number.

  Next, with reference to FIG. 74, an individual counting method of the left gate passage number and the right gate passage number in this simulation function will be described. In the figure, the timing at which the game ball is won at the first start winning opening 13a and the first start opening pass signal is output is shown as (1), based on the input of the first start opening pass signal. The timing when the set left-handed determination timer times out is shown as (2).

  In the period after the left-handed determination timer is set based on the input of the first start-port passing signal and before the set left-handed determination timer times out ((1) in the figure) (Period (2)), when a gate passage signal is input, it is determined that the gate passage signal is based on the passage of the left gate 32. On the other hand, in the period after the left-handed determination timer times out (period after (2) in the figure), when the gate passing signal is input, the gate passing signal is based on the passage of the right gate 33. Is determined (S496).

  Thus, it is determined whether the input gate passage signal is based on the passage of the left gate 32 or the passage of the right gate 33, and the number of left gate passages and the number of right gate passages are individually determined. Can be aggregated. Further, in this embodiment, the ratio of the left gate passing number to the left area driving ball number is totaled as the left gate passing ratio, and the ratio of the right gate passing number to the right area driving ball number is totaled as the right gate passing ratio. These can be contrasted and displayed on the display device 1206 of the hall computer 1200. The game hall manager can individually grasp the left gate passage rate and the right gate passage rate and change the passage frequency of the left gate and the passage frequency of the right gate by adjusting the nail.

  Also, in this simulation function, the number of winnings to the second start winning opening 13b that is left-handed is counted based on the input of the second start opening passing signal within the period determined to be left-handed. The Thereby, it is possible to grasp the winning ratio to the second start winning opening 13b with respect to the number of left area driving balls, and appropriately adjust the game nails around the second starting winning opening 13b. Here, it is possible to count the number of winnings in the long open state by determining that all winnings to the second start winning port 13b within the period determined to be left-handed have occurred in the long open state. In addition, the continuous winning timer is set based on the first winning in the long open state, and the winning to the second start winning opening that occurs until the continuous winning timer times out occurs in the same long open state. It is possible to count the number of occurrences of the long open state by considering it as a winning prize. Thereby, the number of winnings in one long open state can be grasped, and the game nails around the second start winning opening 13b can be adjusted appropriately.

(Third tabulation process)
Next, a difference between the third tabulation process and the first tabulation process will be described.

  When the CPU 1202 detects the input of a prize ball signal, first, 10 is added to the total number of prize balls in the game history table, and the total number of difference balls is calculated by [total number of shot balls-total number of prize balls after update]. Update.

  Further, based on the number of prize balls input within the last 10 seconds, the number of prize balls increased within the last 10 seconds is calculated and updated. For example, the CPU 1202 sequentially stores time information such as the time when the prize ball signal is input, and includes the input time of the prize ball signal at the timing when the prize ball signal is input. The number of prize ball signals for the past 10 seconds is counted, and the number of prize balls increased within the last 10 seconds is calculated from [number of prize ball signals counted × 10].

  When the CPU 1202 detects the input of the driving signal, first, 10 is added to the total driving ball number in the game history table, and the total difference ball is calculated by [total driving ball number after updating−total winning ball number]. Update the number.

  Further, it is determined whether or not the number of prize balls increased within the last 10 seconds is 30 or more. If the number of prize balls increased within the last 10 seconds is less than 30, the process at the time of driving signal input is terminated. If the number of prize balls increased within the last 10 seconds is 30 or more, add 10 to the right area shot ball in the game history table and update the right gate passing rate based on the updated right area shot ball count. To do.

  In other words, if the number of winning balls increased within the last 10 seconds is 30 or more, it is very likely that a winning game with a large number of winning balls has been won. As the number of winning balls is increased and right-handed is performed, a totaling process of the number of right area shots is performed.

  When the CPU 1202 detects the switching (rise) of the big hit signal from OFF to ON, first, the big hit signal is updated to ON in the game history table, and the total number of big hits is incremented by one.

  When the CPU 1202 detects the switching (falling) of the time reduction signal from ON to OFF, the CPU 1202 updates the time reduction signal to OFF in the game history table.

  When the CPU 1202 detects the input of the gate passage signal, first, the CPU 1202 adds 1 to the total gate passage number in the game history table.

  Further, it is determined whether or not the number of prize balls increased within the last 10 seconds is 30 or more. If the number of prize balls increased within the last 10 seconds is less than 30, the process at the time of gate passing signal input is terminated. If the number of prize balls increased within the last 10 seconds is 30 or more, the right gate passage number is incremented by 1 in the game history table, and the right gate passage rate is updated based on the updated right gate passage number.

  In other words, if the number of winning balls increased within the last 10 seconds is 30 or more, it is very likely that a winning game with a large number of winning balls has been won. As a result, the number of winning balls is increased, and the right gate passing number is summed up on the assumption that the right hand is being made.

  Next, with reference to FIG. 75, an individual counting method of the number of right gate passages in the simulation function will be described. In the figure, the timing when the number of prize balls increased within the last 10 seconds becomes 30 or more is shown as (1).

  In this simulation function, individual counting of the left gate passage number and the right gate passage number is not executed in a period before (1) in which the number of prize balls increased within the last 10 seconds is less than 30. On the other hand, in the period after (1) when the number of prize balls increased within the last 10 seconds is 30 or more, there is a high possibility that a winning in a large winning opening with a large number of prize balls has occurred. Assuming that the right-handed game is executed in the big hit gaming state, it is determined that the input gate passing signal is based on the passage of the right gate 33.

  In this way, it is possible to determine whether or not the input gate passage signal is based on the passage of the right gate 33 and to add up the right gate passage number individually. Further, in this embodiment, the ratio of the number of right gate passages to the number of right area shot balls is counted as the right gate passage rate, and this can be displayed on the display device 1206 of the hall computer 1200. Yes. The manager of the game hall can grasp the right gate passing rate and change the passing frequency of the right gate by adjusting the nail.

(Fourth counting process)
Next, the difference between the fourth tabulation process and the first tabulation process will be described.

  Here, it is assumed that a launch intensity signal indicating the launch intensity of the game ball is output from the pachinko gaming machine 1 according to the fourth counting process. In this embodiment, it is assumed that the ball hitting device is of a type in which a ball hitting hammer is directly fixed to a shot motor by a stepping motor or a shaft of a rotary solenoid and a game ball is hit. Then, the rotation angle (position) of the hitting operation handle 5 is detected by a variable resistor, and the force (launching) of the game ball is increased by increasing the operating speed of the stepping motor or rotary solenoid as a drive source according to the detection result. Strength) shall be adjusted. A launch intensity signal corresponding to the turning angle of the hitting ball operating handle 5 detected by the variable resistor is output to the outside every time the game ball is launched (input to the stand terminal 1220 or the hall computer 1200). Shall.

  In this embodiment, a single pulse weak signal is output when the emission intensity is “weak”, and a continuous pulse strong signal is output when the emission intensity is “strong”. (See FIG. 76). In this simulation function, the weak signal and the strong signal are output from a common signal line (launch intensity signal line), and on the hall computer side where these signals are input, the signal input from the launch intensity signal line is a single pulse. It is possible to determine the firing intensity based on the continuous pulse.

  When the CPU 1202 detects the input of the driving signal, first, 10 is added to the total driving ball number in the game history table, and the total difference ball is calculated by [total driving ball number after updating−total winning ball number]. Update the number.

  Further, it is determined whether the most recently input launch intensity signal is a strong signal or a weak signal. If the firing intensity signal is a weak signal, 10 is added to the number of left area shots in the game history table, and the left gate passing rate is updated based on the updated number of left area shots. If the firing intensity signal is a strong signal, 10 is added to the number of right area shots in the game history table, and the right gate passing rate is updated based on the updated number of right area shots.

  That is, when the launch intensity signal is a weak signal, the left region shot ball count is counted, assuming that the shot is being shot into the left region at a short distance from the launch position of the game ball, When the firing intensity signal is a strong signal, the right area hitting ball count processing is executed on the assumption that driving into the right area at a long distance from the launch position of the game ball is executed.

  When the CPU 1202 detects the switching (rise) of the big hit signal from OFF to ON, first, the big hit signal is updated to ON in the game history table, and the total number of big hits is incremented by one.

  When the CPU 1202 detects the switching (falling) of the time reduction signal from ON to OFF, the CPU 1202 updates the time reduction signal to OFF in the game history table.

  When the CPU 1202 detects the input of the gate passage signal, first, the CPU 1202 adds 1 to the total gate passage number in the game history table.

  Further, it is determined whether the most recently input launch intensity signal is a strong signal or a weak signal. If the firing intensity signal is a weak signal, the left gate passage number is incremented by 1 in the game history table, and the left gate passage rate is updated based on the updated left gate passage number. If the firing intensity signal is a strong signal, the right gate passage number is incremented by 1 in the game history table, and the right gate passage rate is updated based on the updated right gate passage number.

  That is, when the launch intensity signal is a weak signal, it is assumed that a shot is being shot into the left region at a short distance from the launch position of the game ball, and the number of left gate passages is counted, and the launch intensity is When the signal is a strong signal, the right gate passage count is totaled on the assumption that driving into the right region at a long distance from the launch position of the game ball is executed.

  Next, with reference to FIG. 76, an individual counting method of the left gate passage number and the right gate passage number in the simulation function will be described. The timing at which the firing intensity signal is switched from the weak signal to the strong signal is shown as (1).

  In this simulation function, it is assumed that left-handed hitting with low game ball launch intensity is executed in the period before (1) when the weak signal is input, and the input gate signal is passed through the left gate 32. It is determined that it is based. On the other hand, in the period after (1) when a strong signal is input, it is assumed that a right-handed game ball with a strong firing intensity is executed, and the input gate signal is based on the passage of the right gate 33. It is judged.

  Thus, it is determined whether the input gate passage signal is based on the passage of the left gate 32 or the passage of the right gate 33, and the number of left gate passages and the number of right gate passages are individually determined. Can be aggregated. Further, in this embodiment, the ratio of the left gate passing number to the left area driving ball number is totaled as the left gate passing ratio, and the ratio of the right gate passing number to the right area driving ball number is totaled as the right gate passing ratio. These can be contrasted and displayed on the display device 1206 of the hall computer 1200. The game hall manager can individually grasp the left gate passage rate and the right gate passage rate and change the passage frequency of the left gate and the passage frequency of the right gate by adjusting the nail.

  Moreover, since the launch intensity of the game ball is information directly linked to the launch to the left region and the launch to the right region, the number of left gate passages and the number of right gate passages can be accurately counted.

[Third gaming machine and management device for managing the gaming information]
A hall computer 1200 as a management device shown in FIG. 77 manages game information generated in a game in the pachinko gaming machine 1 as a third gaming machine arranged side by side on a plurality of gaming islands arranged in the game hall. The game information is aggregated based on various signals output from the pachinko gaming machine 1 shown in FIG. 78, the out ball counter 1120 provided corresponding to the pachinko gaming machine 1, and the like.

(Third gaming machine)
The overall configuration of a pachinko gaming machine 1 that is an example of a third gaming machine will be described. Here, differences from the first gaming machine will be described. FIG. 78 is a front view of the pachinko gaming machine 1 as seen from the front. 79 is an enlarged perspective view of the decorative member 90 shown in FIG. FIG. 80 is a diagram for explaining the features of the jackpot type control in a table format.

  Below the effect display device 9 is provided a first start winning opening 13 through which a game ball can win (enter). The first start winning opening 13 a is provided at the center in the left-right direction of the game area 7. The game ball that has won the first start winning opening 13a is guided to the back of the game board 6 and detected by the first start opening switch 14a. In the case of the present embodiment, the first start winning opening 13 is arranged such that the flow of the game ball is made by arrangement of structures and nails so that it is easier to win when “left-handed” than when “right-handed”. A road is formed.

  In addition, in the right region 7b on the right side of the first start winning opening (first starting opening) 13a, a variable winning having a second starting winning opening 13b (second starting opening) through which a game ball can win (enter). A ball device (electric tulip) 15 is provided. The variable winning ball apparatus 15 includes a pair of left and right movable pieces, and according to the state of the movable pieces, a first state in which a game ball can be won (open state) and a second state in which a game ball does not win (open state). It can be changed. Above the movable piece, there is provided a stopper member that prevents a game ball from winning from above, and in a closed state, the game ball does not win the second start winning opening 13b. The second start winning opening 13b provided in the variable winning ball apparatus 15 is a game ball by arrangement of structures and nails so that it is easier to win when “right-handed” than when “left-handed”. The flow path is formed.

  In the right region 7 b on the right side of the effect display device 9, a general gate 32 through which game balls can enter and pass is provided. The general gate 32 is provided with a general gate switch 32a for detecting a game ball that has entered (passed through) the general gate 32.

  When the game ball passes through the general-purpose gate 32 and is detected by the general-purpose gate switch 32a, the display variation of the normal symbol display 10 is started. In this embodiment, the left and right lamps (the symbols can be visually recognized at the time of lighting) are alternately turned on to perform the variable display. For example, if the left lamp is turned on at the end of the variable display, it is a hit. When the stop symbol on the normal symbol display 10 is a predetermined symbol (winning symbol “◯”), the variable winning ball device 15 is opened for a predetermined number of times. In other words, the state of the variable winning ball device 15 is a state that is advantageous from a disadvantageous state for the player when the stop symbol of the normal symbol is a winning symbol (a state in which a game ball can be won in the second start winning port 13b). To change.

  In addition, the display screen of the effect display device 9 is provided with a total pending storage display unit 18c as an area for displaying the total number (total pending memory count) that is the sum of the first reserved memory count and the second reserved memory count. It has been. In this way, by providing the summation pending storage display unit 18c that displays the total number, it is possible to easily grasp the total number of execution conditions that have not met the variable display start condition. In addition, you may make it provide each display area | region of the 1st reservation memory display part which displays the 1st reservation memory number, and the 2nd reservation memory display part which displays the 2nd reservation memory number.

  In the central area of the game area 7, there is provided a decorative member 90 that surrounds the effect display device 9 with a frame-shaped wall. At the lower end of the decorative member 90, three specific area areas, namely, a first specific area 61, a second specific area 62, and a third specific area 63, into which game balls can enter (win), are distributed concentrically. The stage part 400 provided with the formed disc-shaped specific area part 60 (also referred to as “three-hole croon”) is formed. The specific area portion 60 is inclined toward the center portion, and the game ball guided to the specific area portion 60 rolls toward the center portion.

  The stage part 400 is a stage-like (stage-like) part that receives a flowing game ball. The stage part 400 is inclined so as to descend from the left and right to the central part as viewed from the front and to descend from the rear to the front. It is formed in the shape. A specific area entrance portion 600 formed of a circular hole in which the specific area portion 60 is attached is provided in the center as viewed from the front of the stage portion 400.

  In the specific area entrance 600, the specific area 60 is provided at a position one step lower than the surrounding area. The flow-down edge 40 as the front edge of the stage unit 400 is formed in a shape that can flow downward from any position when the game ball rolls toward the front edge. That is, a space is formed between the glass of the glass door frame 2 and the front edge portion of the stage portion 400, so that the game ball that rolls forward in the stage portion 400 is below the flow-down edge portion 40. Will flow down. As a result, in the stage portion 400, a game ball in which the falling edge 40 does not enter any of the first specific region 61, the second specific region 62, and the third specific region 63 flows down to the outside of the decorative member 90. It is used as a downflow route.

  In addition, as a flow-down path through which game balls that do not enter any of the first specific area 61, the second specific area 62, and the third specific area 63 flow down to the outside of the decorative member 90, the specific area entrance 600, Alternatively, a guide path that forms an opening such as a hole into which a game ball can enter at a predetermined position outside the specific area entrance 600 and guides the game ball that has entered the opening to the game area 7 without taking it into the interior. The game ball may be released from the guide route and flow down.

  A rectangular hole 901 is formed in the right side wall portion when viewed from the front of the decorative member 90, and the ball feeding device 70 is provided so as to be inserted from the outside to the inside of the hole 901. The ball delivery device 70 is a device that receives a game ball flowing down the game area 7 outside the decoration member 90 and sends it out to the inside of the decoration member 90. The ball delivery device 70 has a curved guide path 73 having a ball inlet 71 that opens upward and a ball outlet 72 that opens downward, and blocks the entry of a game ball into the guide path 73. And a shutter-like shielding member 75 that can change between a shielding state (also referred to as a closed state) and a state where the entry of the game ball is not shielded (also referred to as an open state). It is a means for sending out. The game ball passages at each of the ball inlet 71, the guide path 73, and the ball outlet 72 in the ball delivery device 70 are wide enough to allow one game ball to pass through in order to deliver one game ball at a time. Is formed.

  In the ball delivery device 70, the shielding member 75 is driven by a solenoid, and moves in the front-rear direction inside the ball inlet 71, so that the shielding member 75 enters the open state or the closed state described above. For example, when the solenoid is in a non-excited state, the shielding member 75 is urged forward by the elastic force of a spring and is in a closed state. When the solenoid is in an excited state, the shielding member 75 resists the elastic force of the spring. It is configured to move backward and open. Below the position where the shielding member 75 is provided, a delivery area switch 33 for detecting the entry of a game ball on the guide path 73 (in other words, delivery of the game ball) is provided. The means for driving the shielding member 75 is not limited to the solenoid as long as it can be in such an open state or a closed state, and other drive means such as a motor may be provided.

  In the ball delivery device 70, in the game area 7, a flowing game ball such as a game ball guided by the obstacle nail P in the vicinity of the ball entrance 71 rolls toward the ball entrance 71. The shielding member 75 is normally in an open state (or a state in which the open state and the closed state are switched at a predetermined cycle). When the shielding member 75 is in the open state, the game ball can enter the guide path 73, and the entered game ball is guided to the ball outlet 72 in the guide path 73. When in the closed state, the game ball cannot enter the guide path 73. When the game ball enters the guiding path 73 and is detected by the delivery area switch 33 in the open state, the shielding member 75 is controlled to be closed for a predetermined closing period (for example, 5 seconds). During the period in which the shield 75 is closed, whether the game ball passes through the specific area of the first specific area 61, the second specific area 62, and the third specific area 63 after entering the ball entrance 71 Or a period sufficient to flow out of the decorative member 90. Thus, the shielding member 75 is closed as soon as one game ball enters the ball delivery device 70. Thereby, the game balls are received one by one inside the decorative member 90 including the specific area, and are sent one by one.

  Thus, since a plurality of game balls are not sent toward the specific area unit 60 at the same time, the sent game balls are stored in the first specific area 61, the second specific area 62, and the third specific area 63. It can be made easy to grasp which specific region passes or whether it flows down to the outside of the decorative member 90 without passing any specific region. In addition, since it is possible to detect the game ball sent out toward the specific area 60 by the send-out area switch 33, it is possible to execute an effect corresponding to this detection.

  The ball outlet 72 is open above the stage unit 400 in a manner facing downward. For example, the ball outlet 72 is located in the vicinity of the right end of the specific area entrance 600 when viewed from the front. The game ball guided to the ball outlet 72 in the guide path 73 is sent out from the ball outlet 72 toward the stage unit 400 including the specific area unit 60 and falls. The game ball dropped toward the stage unit 400 rolls on the stage unit 400 and enters one of the first specific region 61, the second specific region 62, and the third specific region 63, or It flows down from the falling edge 40 to the outside of the decorative member 90 without entering any of them.

  The position of the ball outlet 72 may be any position on the specific area unit 60 as long as the game ball can be sent to the specific area unit 60, and a stage other than on the specific area unit 60. The position on the part 400 may be sufficient. Moreover, the specific area provided in the specific area part 60 should just be provided with two or more, and is not restricted to three. Further, the ball outlet 72 is not at a position where the game ball is dropped from above the stage unit 400, but, for example, in a manner that the game ball rolls from the side surface of the stage unit 400 without dropping the game ball. You may provide in the position which can send out a ball | bowl.

  A game ball that has entered the first specific area 61 is detected by the first specific area switch 61a. A game ball that has entered the second specific area 62 is detected by the second specific area switch 62a. A game ball that has entered the third specific area 63 is detected by the third specific area switch 63a.

  In the right generation state (the period from when the jackpot symbol stops until the game ball enters one of the first specific area 61, the second specific area 62, and the third specific area 63), the ball sending device 70 When the game ball sent from the player enters (wins) any one of the first specific area 61, the second specific area 62, and the third specific area 63, the open control state of the big prize opening as will be described later It is controlled to (big hit gaming state). Specifically, when the game ball is detected by any one of the first specific area switch 61a, the second specific area switch 62a, and the third specific area switch 63a, the big hit game state is controlled.

  On the other hand, the shielding member 75 once closed is opened again after a predetermined period. Therefore, even when the game ball sent from the ball delivery device 70 in the right generation state does not enter any of the first specific area 61, the second specific area 62, and the third specific area 63 within a predetermined period, The game ball is again received by the ball delivery device 70 and can be delivered to the specific area 60. That is, even if a predetermined period elapses after the game ball is detected by the delivery area switch 33, any of the first specific area switch 61a, the second specific area switch 62a, the third specific area switch 63a, and the common area switch 64a. When it is not detected, control is performed so that the shielding member 75 is opened again and a game ball is received and sent to the ball delivery device 70. Until the game ball enters any one of the first specific area 61, the second specific area 62, and the third specific area 63, the game ball is repeatedly received and sent to the specific area portion 60.

  In the case of the present embodiment, each of the normal gate 32 and the ball entrance 71 of the ball delivery device 70 is provided in the right region 7b, and a game ball can enter when “right-handed”. However, the flow path of the game ball is formed by the arrangement of structures and nails so that the game ball cannot enter when “left-handed”. It is to be noted that the general gate 32 has an arrangement of structures and nails so that a game ball is easier to enter when it is “right-handed” than when it is “left-handed” (a game ball is not allowed to enter). The flow path of the game ball may be formed by, for example.

  In the pachinko gaming machine 1, when the display result of the variable display by the first special symbol display device 8a or the second special symbol display device 8b becomes a big hit display result, and an effect display corresponding to such a display result When the display result of the variable display by the device 9 is the jackpot display result, the game ball is out of the first specific area 61, the second specific area 62, and the third specific area 63 from the stop display of the jackpot display result. The period until entering either of these is controlled to the right generation state. In the right generation state, the game ball is controlled to the big hit gaming state based on the game ball entering any one of the first specific area 61, the second specific area 62, and the third specific area 63. In other words, it is controlled to the right generation state where the right to execute the opening control state of the big prize opening which is advantageous to the player has occurred.

  In the right generation state, the game ball enters the first specific area 61 and is detected by the first specific area switch 61a, enters the second specific area 62 and is detected by the second specific area switch 62a, or When the vehicle enters the third specific area 63 and is detected by the third specific area switch 63a, it is controlled to an open control state (big hit game state) of the big prize opening.

  In the present embodiment, the right generation state is entered based on the display result of the variable display being the jackpot display result. In the right generation state, the game ball is in the first specific area 61, the second specific area 62, and the third specific area. When entering any one of the areas 63, an open control state for opening the special winning opening of the special variable winning ball apparatus 20 is set. The jackpot gaming state that is advantageous to the player corresponds to the release control state after such a right generation state. Further, the right generation state does not end under conditions other than that the game ball enters the specific area (the first specific area 61, the second specific area 62, and the third specific area 63). Therefore, when the display result of the variable display becomes the jackpot display result, a predetermined condition that enables control to the jackpot gaming state (open control state) is satisfied. Whether the display result of the variable display is the jackpot display result is determined in advance before the variable display result is displayed. Therefore, such a pre-determination can be defined as a pre-determination as to whether or not to make the control possible to the release control state (big hit gaming state).

  Further, in the present embodiment, in the ball delivery device 70 and the decorative member 90, one game ball delivered from the ball delivery device 70 is the first specific area 61, the second specific area 62, and the third specific area. Since there is a flow-down edge 40 of the stage unit 400 as a flow-down path that does not enter any of the above, one game ball sent out from the ball delivery device 70 enters any specific area, and any specific flow Since it may not enter the area, it is possible to improve the interest of the game in the configuration in which the game ball is controlled to the big hit game state based on the fact that the game ball has entered one of the specific areas after the right generation state is established. it can.

  Since determining the jackpot display result as the right generation state is eventually involved in controlling to the open control state, determining the display result is a jackpot determination that determines whether or not the jackpot is determined. Sometimes called. In this embodiment, since the open control state in which the big prize opening is opened is an advantageous state for the player, only the open control state is referred to as “big hit”, but the right generation state described above is also the open control state. Since this is an advantageous state for a player that is guaranteed to be controlled, the right generation state and the release control state may be referred to as a “hit”. Therefore, in the present embodiment, when referred to as "big hit", basically indicates the open control state, for example, such as the probability of determining the jackpot display result that becomes the right generation state such as "hit probability" When the meaning of “big hit” is easier to understand, it may be called “hit” as a concept including the right generation state and the release control state.

  In the present embodiment, as described above, the ball entrance of the ball delivery device 70 is provided in the area where the special variable winning ball apparatus 20 is provided among the plurality of areas (the left area 7a and the right area 7b) in the game area 7. 71 is provided. Then, by changing the firing strength of the hitting ball launcher according to the amount of operation of the hitting operation handle 5, the player can change the area for hitting the game ball, such as right hitting or left hitting. Will be able to start the opening control state when the player has the intention to start the opening control state of the winning prize opening, preventing the opening control state from starting at a time contrary to the player's will. be able to.

  As shown in FIG. 78, in the right area 7b of the game area 7, a special variable winning ball apparatus 20 capable of winning a game ball is provided below the variable winning ball apparatus 15. The special variable winning ball apparatus 20 includes an opening / closing plate capable of opening and closing a winning opening called a big winning opening, and an open state (first state) in which a game ball can be won and a closed state (second state) in which a gaming ball does not win. The variable winning device can be changed to As a result, the special variable winning ball apparatus 20 is provided in the right area 7b, and a game ball can enter when “right-handed”, but a game ball cannot enter when “left-handed”. The flow path of the game ball is formed by the structure and the arrangement of the nails.

  In FIG. 80, (A) shows an outline of control at the time of big hit in a table format, and (B) shows the relationship between the type of the specific area and the number of rounds at the big hit (round upper limit value).

  Of the “big hit”, after being controlled to the big hit gaming state, it is determined to be a big hit compared to a low probability state (a state where the normal big hit probability is not a high probability state, also referred to as a normal state). A type of jackpot (type) that shifts to a high probability state (also referred to as a probability variation state) with a high probability is called “probability variation jackpot”.

  The type of jackpot (type) that shifts to the low probability state after being controlled to the jackpot gaming state among “hits” is called “ordinary jackpot”.

  In the present embodiment, a plurality of types of normal big hits, ie, normal big hits A to G, are provided as normal big hits, and a plurality of types of probability variable big hits, such as probability variable big hits A to G, are provided as the probability big hits. Of these jackpot types, which jackpot type is selected is the value of the random number for determining the jackpot type that is extracted when it is determined to be a jackpot when the special symbol variation display is started To be determined. When the big hit and the big hit type are decided, the game control microcomputer executes the fluctuation display by the first special symbol display 8a or the second special symbol display 8b, and the big hit symbol is derived and displayed. Based on what has been done, it shifts to the right generation state. Then, based on the fact that the game ball has passed through any one of the first specific area 61, the second specific area 62, and the third specific area 63 in the right generation state, the release mode of the special variable winning ball apparatus 20 is selected. (Determine the number of rounds)

  In FIG. 80 (A), the big hit probability after the end of the big hit gaming state, the base after the end of the big hit gaming state, the end of the big hit gaming state for each of the big hit types of the normal big hit A to G and the probability variation big hits A to G The fluctuation time, the number of times of opening (number of rounds) in the jackpot gaming state, and the opening time of each round are shown.

  Specifically, in each of the big hit gaming states of the normal big hits A to G and the probable big hits A to G, after the special variable winning ball apparatus 20 is set to the open state, a predetermined open state end condition (in the open state) The closed state is established when a predetermined period (for example, 29 seconds) elapses or when a predetermined number (for example, ten) winning balls are generated). When the opening end condition is satisfied, a continuation right is generated and the special variable winning ball apparatus 20 is opened again. The generation of the continuation right is repeated until the number of releases in the big hit gaming state reaches the upper limit (final round) of the number of rounds.

  The upper limit value of the number of rounds in each jackpot gaming state of normal jackpots A to G is, as shown in (B), among the first specific area 61, the second specific area 62, and the third specific area 63, The specific area is selected and determined according to the entry of the game ball into the release control state from the right generation state. In each of the normal big hits A to G, the upper limit value of the number of rounds corresponding to each of the first specific area 61, the second specific area 62, and the third specific area 63 is determined for each normal big hit type. The allocation is set differently.

  For example, in the case of a normal big hit A, when the game control device enters the release control state based on the entry of the game ball into the first specific area 61, the upper limit value of the number of rounds is determined to be 5 rounds. When transitioning to the release control state based on the entry of the game ball into the second specific area 62, the upper limit value of the number of rounds is determined to be 10 rounds. When transitioning to the release control state based on the entry of the game ball into the third specific area 63, the upper limit value of the number of rounds is determined to be 15 rounds.

  As shown in (B), the advantage for the player when selecting the upper limit value of the number of rounds in each of the big hit gaming states of the normal big hits A to G is the normal big hit A = B = C <D = E. = F <G.

  In addition, the upper limit of the number of rounds in each jackpot gaming state of probability variation jackpots A to G, as shown in (C), of the first specific area 61, the second specific area 62, and the third specific area 63 Of these, the specific area is selected and determined according to which entry of the game ball has triggered the transition from the right generation state to the release control state. In each of the probability variation big hits A to G, the upper limit value of the number of rounds corresponding to each of the first specific region 61, the second specific region 62, and the third specific region 63 is determined for each type of probability variation big hit. The allocation is set differently.

  As shown in (B), the advantage for the player when selecting the upper limit value of the number of rounds in each jackpot gaming state of probability variation jackpots A to G is: probability variation jackpot A = B = C <D = E = F <G.

  Thus, the 1st specific area 61, the 2nd specific area 62, and the 3rd specific area 63 are the open control state (big hit game state) which shifts when a game ball enters according to the big hit type. Since the allocation of the upper limit value of the number of rounds differs, the allocation of the value given in the open control state (big hit gaming state) that shifts when a game ball enters is different.

  In this embodiment, the game value given in the big hit gaming state is given depending on which specific area of the first specific area 61, the second specific area 62, and the third specific area 63 has passed. The number of rounds as the first game value with different magnitudes of value and which specific area of the first specific area 61, the second specific area 62, and the third specific area 63 has passed the game ball Regardless of this, there is a high probability state as the second game value in which it is determined whether or not to be given at the time of jackpot determination. In this way, the entertainment value of the game is improved by diversifying the manner of giving the game value.

  In this way, when a big hit is made, control is performed so that the number of rounds in the release control state is selected according to which specific area the game ball has entered in the right generation state.

  For each of the big hits A to G and the probable big hits A to G, big hits with different numbers of rounds can be selected. Therefore, when the big hits with different round numbers are classified as different types of big hits, in this embodiment, 5R normal Multiple types of big hits can be selected, such as big hit, 10R normal big hit, 15R normal big hit, 5R positive change big hit, 10R positive change big hit, and 15R positive change big hit.

  In this embodiment, the normal big hits such as 5R normal big hit, 10R normal big hit, and 15R normal big hit may be collectively referred to as “normal big hit”, and 5R normal big hit, 10R normal big hit, or , 15R normal big hit, such as a normal big hit with a specified number of rounds. Similarly, in this embodiment, the probability variation big hits such as the 5R probability variation big hit, the 10R probability variation big hit, and the 15R probability variation big hit may be collectively referred to as “probability variation big hit”. There is a case where the number of rounds is indicated as a specified probability big hit, such as big hit or 15R probability variable big hit.

  In the present embodiment, an example in which the selection targets (5R, 10R, and 15R) of the upper limit value of the number of rounds are the same for the normal big hits A to G and the probable big hits A to G will be described. Depending on the type of big hit, the selection target of the upper limit value of the number of rounds may be different (for example, the upper limit value of the round number to be selected is larger in the case of probability big hit than in the case of normal big hit).

  In the present embodiment, the probability variation jackpot is a jackpot in which control for shifting to the high probability / high base state is performed after the jackpot gaming state of the determined number of rounds is completed. In the case of a promising big hit, the high probability / high base state continues for a period until the condition that the next big hit occurs is satisfied, regardless of the number of display variations.

  In the present embodiment, the normal jackpot is a jackpot in which control for shifting to the low probability / high base state is performed after the jackpot gaming state of the determined number of rounds is completed. Usually, in the case of big hit, the condition that the low probability / high base state is executed a predetermined number of times of 100 times of the fluctuation display, or the condition that the next big hit is generated, whichever comes first is satisfied. It continues until the period.

  The pachinko gaming machine 1 according to the present embodiment adjusts the launch intensity by adjusting the operation amount of the hitting operation handle 5, so that the player can play the game ball in the following manner in the left region 7a or the right region 7b. By being divided into two, it is configured to be easily controlled to a state advantageous to the player.

  In the low base state, the variable winning ball device 15 is less likely to be in the open state, and the first starting winning port 13a is easier to enter the game ball than the second starting winning port 13b. Therefore, when a player wants to obtain a larger number of start winnings in the low base state, the player only has to “left-hand” aiming at the first starting winning opening 13a.

  Also, in the high base state after the big hit gaming state, the variable winning ball device 15 is more likely to be in the open state than in the low base state, and the second starting winning port 13b is more gaming ball than the first starting winning port 13a. Is easy to enter. Therefore, when it is desired to obtain a larger number of start winnings in the high base state after the big hit gaming state, in order to open the variable winning ball device 15 provided with the second starting winning port 13b, the normal gate 32 is set to open. Just aim and “right”.

  Further, when the variation display result of the special symbol and the effect symbol becomes the jackpot display result and the right generation state is entered, the game ball is in the first specific region 61, the second specific region 62, and the third specific region 63. If one of them is passed, it is controlled to the big hit gaming state that becomes the open control state of the big winning opening. Therefore, when it is desired to shift to the open control state of the special winning opening in the right generation state, it is only necessary to “right-hand” aiming at the ball entrance 71 of the ball delivery device 70.

  In addition, when the game ball passes through any one of the first specific area 61, the second specific area 62, and the third specific area 63 in the right generation state and enters the open control state of the special winning opening, special variable is possible. What is necessary is just to "right-turn" aiming at the big winning opening of the winning ball apparatus 20. FIG.

  In the third gaming machine according to this simulation function, when the first special symbol display unit 8a or the second special symbol display unit 8b finishes displaying the variation of the special symbol and the display result is derived and displayed, the special symbol is displayed. A symbol confirmation signal indicating that it has been confirmed is output. The symbol determination signal is a pulse signal having a predetermined width. In addition, when the game ball is controlled to the big hit gaming state based on having entered any one of the first specific area 61, the second specific area 62, and the third specific area 63 in the right generation state, A jackpot signal indicating that the game is controlled to the jackpot gaming state is output. The jackpot signal is a signal that is output (turned ON) from the start of the jackpot gaming state to the end of the jackpot gaming state (end of the final round). Further, when the special variable winning ball apparatus 20 is in the opening control state, an opening signal indicating that it is in the opening control state is output. The release signal is a signal that is output (turned ON) from the start of one round (start of opening of the big prize opening) to the end of one round (end of opening of the big prize opening). Further, during the period controlled to the high probability state, a probability variation signal indicating that the state is controlled to the high probability state is output from the information output circuit 159. The probability variation signal is a signal that is output (turned ON) from the start of the high probability state (end of jackpot gaming state per probability variation jackpot) to the end of the high probability state (start of jackpot gaming state). These various signals are output via the terminal board.

  Further, as described above, a prize ball signal is output from the terminal board 160 every time ten prize balls are paid out. The prize ball signal is a pulse signal having a predetermined width.

(Aggregation of game information)
Below the pachinko gaming machine 1 described above, an out ball counter 1120 is provided that counts the game balls (out balls) used in the pachinko gaming machine 1 and discharged from the pachinko gaming machine 1. Yes. Every time a predetermined number (for example, 10 balls) of out balls is counted, a driving signal is output from the out ball counter 1120. The driving signal is a pulse signal having a predetermined width.

  A winning ball signal, a jackpot signal, a release signal, a symbol determination signal, and a probability change signal output from the terminal board, and a driving signal output from the out ball counter 1120 are relay devices such as the stand terminal 1220 and a communication cable. Is input to the communication unit 1207 of the hall computer 1200, so that the hall computer 1200 can collect game information of each pachinko gaming machine 1.

  In the storage device 1206 of the hall computer 1200 related to the simulation function, in addition to the processing program in which various processing contents executed by the hall computer 1200 are described, the entire table shown in FIG. 81 and the individual history shown in FIG. The table and the table-wise statistical table shown in FIG. 83 are stored.

  In the overall table, as shown in FIG. 81, whether or not the pachinko gaming machine 1 is in a normal state (low probability state) is associated with the machine number of each pachinko gaming machine 1 installed in the game hall. (Game state) indicating whether it is (high probability state), "hit signal" indicating whether or not it is controlled to jackpot gaming state, and the current round number when controlled to jackpot gaming state “Number of rounds”, “Total number of winning balls” indicating the total number of winning balls paid out on the day, “Total number of driving balls” indicating the total number of driving balls hit on that day, "Total number of balls" calculated by "Total number of balls"-"Total number of balls", "Total number of start times" indicating the number of times the special symbol is displayed on the day, and "Total number of big balls" “Number of times”, “Total number of times of probability variation” showing the number of probability variation big hits of the day, “Number of winning balls after symbol determination” indicating the number of winning balls after the input, “Number of driving balls after symbol determination” indicating the number of balls after the last symbol determining signal input, “Number of balls included” − “Number of balls after symbol determination” calculated by “Number of prize balls after symbol determination” is stored.

  As shown in FIG. 82, the table-specific history table is provided for each unit number, and stores all jackpot histories that occurred on the day in the pachinko gaming machine 1 with the unit number. The “big hit number” is an identification number of the big hit gaming state given according to the order of the big hits that occurred on the day, and the “number of rounds” indicates the number of rounds (final round number) in the big hit gaming state. The number of difference balls is the difference in the number of balls in the period from the derivation display of the jackpot symbol related to the jackpot gaming state to the control of the jackpot gaming state (the period before the above-mentioned right generation state and right generation state). The number of balls hit in the period-the number of winning balls in the period), and the number of balls hit in the jackpot period is the difference in the number of balls hit in the jackpot gaming state (number of balls hit in the period- The number of prize balls in the period is shown.

  As shown in FIG. 83, the table-specific statistical table is provided for each table number, and stores the jackpot statistical information generated on the day in the pachinko gaming machine 1 of the table number. “Waiting period average difference” indicates the average value of “Waiting period difference” for all jackpots that occurred on the day, and “Large number of hits” indicates a number of jackpot gaming states with different numbers of rounds (in this example) In 5R, 10R, and 15R), the number of occurrences on the day is shown, and the “big hit period average difference ball number” is for each of a plurality of big hit gaming states (5R, 10R, and 15R in this example) having different numbers of rounds. The average value of “Big hit period difference” on the day is shown.

  Next, with reference to FIG. 84, a method for counting the difference balls in the hall computer 1200 when the pachinko gaming machine 1 is controlled to the big hit gaming state will be described. When the special symbol variation display is executed and the jackpot symbol is derived and displayed in the pachinko gaming machine 1, a symbol confirmation signal is input to the hall computer 1200 (this timing is indicated as (1)). As described above, the pachinko gaming machine 1 enters the right generation state after the gate invalid period, and when the game ball passes through any of the first specific area 61 to the third specific area 63 in the right generation state, the release mode A selection process is executed to determine the number of rounds in the big hit gaming state. In this example, it is assumed that 5 rounds have been determined. Then, the jackpot gaming state of the determined number of rounds is controlled, and the jackpot signal is turned ON (this timing is shown as (2)). The big winning opening is opened with the start of the big hit gaming state, and the opening signal is turned ON according to the opening period of each round (1R to 5R) (for example, the period until 10 gaming balls win or 29 seconds). Become. Then, with the end of the final round, the big hit gaming state is ended and the big hit signal is turned OFF (this timing is shown as (3)).

  In this embodiment, the hall computer 1200 calculates the number of balls in the waiting period from the input of the symbol confirmation signal until the jackpot signal is turned on, that is, the period from (1) to (2). ". Further, the total number of balls in the total period from the input of the symbol determination signal until the jackpot signal is turned off, that is, the period from (1) to (3), is totalized as “total number of balls of difference time”. Further, the difference in the number of balls in the jackpot period from when the jackpot signal is turned on to when the jackpot signal is turned off, that is, the period from (2) to (3), is counted as “number of balls in the jackpot period”. The “large hit period difference ball number” is calculated by “total period difference ball number” − “standby period difference ball number”.

(First difference counting process)
Next, the first difference counting process executed by the hall computer 1200 will be described. The CPU 1202 is waiting for input of a winning ball signal, a driving signal, and a symbol determination signal, and switching of a jackpot signal, a release signal, and a probability change signal (change from OFF to ON, ON to OFF). As a result of the detection, a counting process according to the detection result is executed.

  When the CPU 1202 detects the input of the prize ball signal, first, 10 is added to the total prize ball number in the entire table, and the total difference ball number is calculated by [total number of balls to be thrown-total number of prize balls after update]. Update. Further, 10 is added to the number of winning balls after the symbol is determined, and the number of balls after determining the symbol is updated according to [Number of shot balls after symbol determination-Number of winning balls after symbol determination]. When the CPU 1202 detects an input of a driving signal, first, the total number of driving balls is added by 10 in the entire table, and the total number of difference balls is calculated by [total number of driving balls after updating−total number of winning balls]. Update. Further, 10 is added to the number of shot balls after symbol determination, and the number of balls after symbol determination is updated according to [Number of shot balls after symbol determination-Number of prize balls after symbol determination].

  When the CPU 1202 detects the input of the symbol confirmation signal, first, the total start count is incremented by 1 in the entire table, the award ball number after symbol confirmation is reset to zero, and the number of shot balls after symbol confirmation is zero. Reset and reset the number of difference balls to 0 after symbol determination. In this way, the number of winning balls after symbol determination, the number of shot balls after symbol determination, and the number of balls after symbol determination are reset to 0 each time a symbol determination signal is input.

  When the CPU 1202 detects switching (rise) of the big hit signal from OFF to ON, first, the big hit signal is updated to ON in the entire table, and the total number of big hits is incremented by one. Further, the number of jackpots after the addition update in the table history table is stored as a jackpot number, and the number of difference balls after symbol determination in the entire table is recorded as a difference in waiting period difference in the table history table. The number of difference balls after symbol determination at this time corresponds to the number of difference balls in a period from when the big hit symbol is derived and displayed until the big hit gaming state is started.

  When the CPU 1202 detects switching (rise) of the open signal from OFF to ON, the CPU 1202 adds 1 to the number of rounds in the entire table.

  When the CPU 1202 detects switching (falling) of the big hit signal from ON to OFF, first, the big hit signal is updated to OFF in the whole table, and the round number in the whole table is set as the round number in the stand-alone history table. After making the history, the number of rounds in the entire table is reset to zero. Furthermore, the number of balls after symbol determination in the overall table is recorded as a total number of balls in the table-specific history table, and in the table-by-table history table, “total number of balls of difference”-“standby time difference of balls” It is recorded as “the number of difference balls”. The total number of difference balls at this time corresponds to the number of difference balls during the period from when the big hit symbol is derived and displayed until the big hit gaming state ends.

  As described above, the right generation state is brought about in accordance with the derivation display of the big hit symbol, and the big hit game is based on the fact that the game ball has passed one of the first specific area 61 to the third specific area 63 in the right generation state. By controlling the number of balls in the total period of the waiting period and the jackpot period as well as the jackpot period, the number of game balls actually acquired by the player when the jackpot occurs can be grasped. It becomes possible to do. For example, if it is difficult for a game ball to pass through the first specific area 61 to the third specific area 63 in the right generation state even if it is easy to win the big prize opening, the period of the right generation state Will increase the number of shots. Accordingly, the number of game balls that can be substantially acquired by the player as the jackpot is generated decreases. That is, simply counting the number of difference balls for the jackpot period cannot accurately grasp the player's advantage due to the jackpot occurrence. In the present embodiment, it is possible to accurately grasp the player's advantage due to the occurrence of the jackpot by counting the number of difference balls in the total period including the standby period as well as the jackpot period.

  Further, in this embodiment, the waiting period difference ball number in the waiting period from the derivation display of the big hit symbol to the control state in the big hit gaming state, and the big hit period difference ball number in the big hit period controlled in the big hit gaming state Can be grasped individually. The waiting period difference ball number can be used as an index when adjusting the obstacle nail P near the ball entrance 71, and the big hit period difference ball number is an index when adjusting the obstacle nail near the special variable winning ball device 20. be able to. For example, when the value of the waiting period difference ball number is small (indicating that the number of balls thrown in with respect to the number of winning balls is small and advantageous for the player), it is difficult to win the ball winning opening 71 (that is, The obstacle nail P in the vicinity of the ball entrance 71 is adjusted so that it is difficult to win a specific area. In addition, if the value of the big hit period difference ball number is large (indicating that the number of balls to be thrown in relative to the number of winning balls is disadvantageous for the player), it is easy to win the big winning opening. In addition, the obstacle nail near the special variable winning ball apparatus 20 is adjusted.

  Moreover, in this embodiment, based on the symbol determination signal and jackpot signal output from the normal pachinko gaming machine (and the corresponding out ball counter), the symbol determination signal input immediately before the jackpot signal is input. It is possible to perform the aggregation of the waiting period difference ball number and the total period difference ball number with the input timing of the waiting time as the starting point of the waiting period (that is, the starting point of the waiting period). That is, the waiting period difference ball and the total period difference ball can be totaled without using any special means for specifying the timing at which the big hit symbol is derived and displayed.

  When the CPU 1202 detects a change (rise) from ON to OFF of the probability variation signal, the CPU 1202 updates the gaming state to the probability variation state in the entire table, and adds 1 to the total probability variation number. When the CPU 1202 detects switching (falling) from OFF to ON of the probability change signal, the CPU 1202 updates the gaming state to the normal state in the entire table.

  The table statistics table shown in FIG. 83 is updated as follows based on the table history table. First, for the latest jackpot number in the table history table, if the round number, waiting period difference ball number, jackpot period difference ball number, and total period difference ball number are made into a history based on the aggregation process described above, An average value for all the waiting period difference balls in the table-specific history table is calculated and used as the waiting period average difference number in the table statistics table. In addition, based on the number of rounds (5R, 10R, or 15R) corresponding to the latest jackpot number in the table history table, the number of jackpots for the number of rounds in the table statistics table is incremented by one. In addition, the average value for the number of rounds corresponding to the latest number of rounds corresponding to the latest jackpot number (5R, 10R, or 15R) in the table-specific history table is calculated, The jackpot period average difference ball number corresponding to the number of rounds (5R, 10R, or 15R). In addition, an average value for the total number of round differences corresponding to the number of rounds (5R, 10R, or 15R) corresponding to the latest jackpot number in the table history table is calculated, The total number of average difference balls corresponding to the number of rounds (5R, 10R, or 15R) is used.

  In this way, when a release signal that can specify the number of rounds of the big hit gaming state is input, when there are a plurality of big hit gaming states with different numbers of rounds, the number of rounds of the big hit gaming state is controlled. Can be identified. Accordingly, the number of jackpots, the jackpot period average difference ball number, and the total period average difference ball number can be tabulated for each of a plurality of jackpot game states with different numbers of rounds.

(Second difference counting process)
Next, the difference between the second difference ball aggregation process and the first difference ball aggregation process will be described. In the pachinko gaming machine 1 related to the second difference ball totaling process, when the display result of the special symbol becomes a big hit symbol, the big hit symbol is derived and displayed on the first special symbol indicator 8a or the second special symbol indicator 8b. A jackpot notification LED 51 is provided that is lit before the symbol determination signal based on the derivation display of the jackpot symbol is output.

  In the simulation function, a light emission detection sensor 1210 that detects light emission of the big hit notification LED 51 is disposed. For example, the light emission detection sensor 1210 is configured by a photodiode, and outputs a predetermined light emission detection signal based on light received from the big hit notification LED 51. The light emission detection signal is a pulse signal having a predetermined width. The light emission detection signal is input to the communication unit 1207 of the hall computer 1200 together with the table identification information via a relay device such as the table terminal 1220. The CPU 1202 detects that the jackpot symbol is derived and displayed (the jackpot is generated) in the pachinko gaming machine 1 of the corresponding machine number based on the input light emission detection signal. That is, the CPU 1202 detects that the jackpot symbol is derived and displayed in the pachinko gaming machine 1 of the corresponding machine number before the jackpot symbol is derived and displayed.

  Next, a difference counting method in the hall computer 1200 according to the simulation function will be described with reference to FIG. When the special symbol variation display is executed and the jackpot symbol is derived and displayed in the pachinko machine 1, the jackpot notification LED 51 is displayed during the special symbol variation display and before the jackpot symbol derivation display (for example, immediately before the derivation display). The jackpot is informed when is lit. Accordingly, the light emission detection sensor 1210 that detects the light emission of the big hit notification LED 51 outputs a light emission detection signal, and the light emission detection signal is input to the hall computer 1200 (this timing is shown as (1)). The light emission detection flag is set at the timing (1). After that, a big hit symbol is derived and displayed, and a symbol confirmation signal is input to the hall computer 1200 (this timing is shown as (2)). The light emission detection flag is reset at the timing (2), and the aggregation flag is set. As described above, the pachinko gaming machine 1 enters the right generation state after the gate invalid period, and when the game ball passes through any of the first specific area 61 to the third specific area 63 in the right generation state, the release mode A selection process is executed to determine the number of rounds in the big hit gaming state. Then, the jackpot gaming state of the determined number of rounds is controlled, and the jackpot signal is turned ON (this timing is shown as (3)). Then, with the end of the final round, the jackpot gaming state is ended and the jackpot signal is turned OFF (this timing is shown as (4)).

  In this embodiment, the hall computer 1200 is based on the symbol determination signal input immediately after the light emission detection signal only during the period from the input of the symbol determination signal until the jackpot signal is turned off (this (2) The total flag is set during the period of (4)), and the number of award balls after symbol determination, the number of shot balls after symbol determination, and the number of difference balls after symbol determination in the entire table are totaled.

  Next, the second difference counting process executed by the hall computer 1200 will be described. The CPU 1202 waits for input of a winning ball signal, a driving signal, a symbol determination signal, and a light emission detection signal, and switching of a jackpot signal, a release signal, and a probability change signal (change from OFF to ON, ON to OFF). Along with these detections, a totaling process according to the detection results is executed.

  When the CPU 1202 detects the input of the prize ball signal, first, 10 is added to the total prize ball number in the entire table, and the total difference ball number is calculated by [total number of balls to be thrown-total number of prize balls after update]. Update. Furthermore, only when the aggregation flag is set, 10 is added to the number of award balls after symbol determination, and the number of balls after symbol determination is determined by [Number of shot balls after symbol determination-Number of award balls after symbol determination after update]. Update. That is, when the total flag is not set, the number of winning balls after symbol determination and the number of balls after symbol determination are not updated.

  When the CPU 1202 detects an input of a driving signal, first, the total number of driving balls is added by 10 in the entire table, and the total number of difference balls is calculated by [total number of driving balls after updating−total number of winning balls]. Update. Furthermore, only when the aggregation flag is set, 10 is added to the number of shot balls after symbol determination, and the difference ball after symbol determination is determined by [number of shot balls after symbol determination after update-number of winning balls after symbol determination]. Update the number. That is, when the aggregation flag is not set, the number of balls to be hit after symbol determination and the number of balls to be difference after symbol determination are not updated.

  When the CPU 1202 detects the input of the symbol determination signal, first, the CPU 1202 adds 1 to the total number of starts in the entire table. Then, only when the light emission detection flag is set, the number of winning balls after symbol determination is reset to 0, the number of balls hit after symbol determination is reset to 0, and the number of balls after symbol determination is reset to zero. Further, the aggregation flag is set and the light emission detection flag is reset. If the light emission detection flag is not set, these processes are not executed. In this way, the aggregation flag is set only for the symbol determination signal input immediately after the light emission detection signal is input, and then the number of winning balls after symbol determination, the number of balls to be hit after symbol determination, and the symbol determination The number of back difference balls will be counted.

  When the CPU 1202 detects the switching (rise) of the big hit signal from OFF to ON, the CPU 1202 executes the big hit signal ON detection process similar to the first difference counting process. When the CPU 1202 detects the switching (rise) of the opening signal from OFF to ON (Y in S304), the CPU 1202 executes an opening signal detection process similar to the first difference counting process.

  When the CPU 1202 detects the switching (falling) of the big hit signal from ON to OFF, the CPU 1202 executes the big hit signal OFF detection process similar to the first difference counting process, and further resets the total flag. When the CPU 1202 detects a change (rise) from ON to OFF of the probability variation signal, the CPU 1202 updates the gaming state to the probability variation state in the entire table, and adds 1 to the total probability variation number.

  When the CPU 1202 detects switching (falling) from OFF to ON of the probability change signal, the CPU 1202 updates the gaming state to the normal state in the entire table. When the CPU 1202 detects the input of the light emission detection signal, the CPU 1202 sets a light emission detection flag.

  In this way, in the second difference counting process, it is determined that the big hit gaming state occurs only when the light emission of the big hit notification LED 51 is detected by the light emission detection sensor 1210 and the light emission detection signal is inputted. Only if the total flag is set based on the input of the symbol confirmation signal, the number of winning balls after symbol confirmation, the number of shot balls after symbol confirmation, and the number of balls after symbol confirmation will be aggregated. The processing burden on the hall computer 1200 (CPU 1202) is reduced.

(Third difference counting process)
Next, the difference between the third difference ball aggregation process and the first difference ball aggregation process will be described. In the pachinko machine 1 related to the third difference counting process, when the display result of the special symbol becomes a big hit symbol, the big hit symbol is derived to the first special symbol display 8a or the second special symbol display 8b. A jackpot notification LED 51 that is lit after being displayed, that is, after a symbol confirmation signal based on the derivation display of the jackpot symbol is output, is provided.

  In the simulation function, a light emission detection sensor 1210 that detects light emission of the big hit notification LED 51 is disposed. For example, the light emission detection sensor 1210 is configured by a photodiode, and outputs a predetermined light emission detection signal based on light received from the big hit notification LED 51. The light emission detection signal is a pulse signal having a predetermined width. The light emission detection signal is input to the communication unit 1207 of the hall computer 1200 together with the table identification information via a relay device such as the table terminal 1220. The CPU 1202 detects that the jackpot symbol is derived and displayed in the pachinko gaming machine 1 with the unit number based on the input light emission detection signal. That is, the CPU 1202 detects that the jackpot symbol has been derived and displayed in the pachinko gaming machine 1 of the corresponding machine number after the jackpot symbol is derived and displayed.

  Next, a difference counting method in the hall computer 1200 according to the simulation function will be described with reference to FIG. When the special symbol variation display is executed and the jackpot symbol is derived and displayed in the pachinko gaming machine 1, the symbol determination signal is output and the symbol determination signal is input to the hall computer 1200 (this timing (1) ). Based on the input of the symbol determination signal, a predetermined time is set in the light emission waiting timer. The predetermined time at this time is longer than the time from when the big hit symbol is derived and displayed on the first special symbol indicator 8a or the second special symbol indicator 8b until the big hit notification LED 51 is turned on. t.

  Here, based on the input of the symbol confirmation signal (timing (1)), counting of the number of winning balls after symbol determination, the number of shot balls after symbol determination, and the number of difference balls after symbol determination in the entire table is started. . When the light emission detection signal is input, that is, when the big hit notification LED 51 is turned on within a predetermined time from the derivation display of the big hit symbol (this timing is shown as (2)), the number of winning balls after the symbol determination, the symbol The total number of balls to be hit after confirmation and the number of balls after confirmation of symbols will be continued. As described above, the pachinko gaming machine 1 enters the right generation state after the gate invalid period, and when the game ball passes through any of the first specific area 61 to the third specific area 63 in the right generation state, the release mode A selection process is executed to determine the number of rounds in the big hit gaming state. Then, the jackpot gaming state of the determined number of rounds is controlled, and the jackpot signal is turned ON (this timing is shown as (3)). Then, with the end of the final round, the jackpot gaming state is ended and the jackpot signal is turned OFF (this timing is shown as (4)).

  On the other hand, when the light emission waiting timer times out (when no light emission detection signal is input within a predetermined time), the counting invalid flag is set, and the number of winning balls after symbol determination in the entire table and the driving after symbol determination Aggregation of the number of balls and the number of balls after the symbol is determined is not continued. In this embodiment, the hall computer 1200 is based on the fact that the light emission detection signal is input immediately after the input of the symbol determination signal, and the period from when the light emission detection signal is input until the jackpot signal is turned off (this ( During the period of 2) to (4), the counting invalid flag is not set), and the total number of winning balls after symbol determination, the number of shot balls after symbol determination, and the number of difference balls after symbol determination in the entire table are continuously counted. It will be.

  Next, the difference between the third difference counting process executed by the hall computer 1200 and the first difference counting process will be described. The CPU 1202 waits for input of a winning ball signal, a driving signal, a symbol determination signal, and a light emission detection signal, and switching of a jackpot signal, a release signal, and a probability change signal (change from OFF to ON, ON to OFF). Along with these detections, a totaling process according to the detection results is executed.

  When the CPU 1202 detects the input of the prize ball signal, first, 10 is added to the total prize ball number in the entire table, and the total difference ball number is calculated by [total number of balls to be thrown-total number of prize balls after update]. Update. Furthermore, only when the count invalid flag is not set, the number of award balls after symbol determination is incremented by 10, and the difference ball after symbol determination is determined by [number of shot balls after symbol determination-number of award balls after symbol determination after update]. Update the number. That is, when the count invalid flag is set, the number of winning balls after symbol determination and the number of balls after symbol determination are not updated.

  When the CPU 1202 detects an input of a driving signal, first, the total number of driving balls is added by 10 in the entire table, and the total number of difference balls is calculated by [total number of driving balls after updating−total number of winning balls]. Update. Furthermore, only when the counting invalid flag is not set, 10 is added to the number of shot balls after symbol determination, and the difference after symbol determination according to [Number of shot balls after symbol determination after update-number of winning balls after symbol determination] Update the number of balls. That is, when the count invalid flag is set, the number of shot balls after symbol determination and the number of difference balls after symbol determination are not updated.

  When the CPU 1202 detects the input of the symbol confirmation signal, the CPU 1202 executes the symbol determination signal input processing similar to the first difference totaling processing, and further sets a predetermined time in the light emission waiting timer. Reset the aggregation invalid flag. Here, as described above, the predetermined time is longer than the time from when the big hit symbol is derived and displayed on the first special symbol display 8a or the second special symbol display 8b until the big hit notification LED 51 is turned on. .

  When the CPU 1202 detects the switching (rise) of the big hit signal from OFF to ON, the CPU 1202 executes the big hit signal ON detection process similar to the first difference counting process. When the CPU 1202 detects the switching (rise) of the opening signal from OFF to ON, the CPU 1202 executes the opening signal detection process similar to the first difference counting process.

  When the CPU 1202 detects the switching (falling) of the big hit signal from ON to OFF, the CPU 1202 executes the big hit signal OFF detection process similar to the first difference counting process. When the CPU 1202 detects a change (rise) from ON to OFF of the probability variation signal, the CPU 1202 updates the gaming state to the probability variation state in the entire table, and adds 1 to the total probability variation number.

  When the CPU 1202 detects switching (falling) from OFF to ON of the probability change signal, the CPU 1202 updates the gaming state to the normal state in the entire table. When the CPU 1202 detects the input of the light emission detection signal, the CPU 1202 clears the value of the light emission waiting timer. If the value of the light emission waiting timer is cleared, it is not determined thereafter that the light emission waiting timer has timed out.

  The CPU 1202 sets a count invalid flag when the light emission waiting timer times out. As described above, when the light emission detection signal is not input within a predetermined time (t) after the derivation display of the big hit symbol, that is, when it is determined that the big hit gaming state does not occur, the counting invalid flag is set. Therefore, after this, the number of winning balls after symbol determination, the number of shot balls after symbol determination, and the number of balls after symbol determination are not counted, and the processing load on the hall computer 1200 (CPU 1202) is reduced.

DESCRIPTION OF SYMBOLS 1 ... Pachinko machine 1 '... Enclosure type pachinko machine 1000 ... Slot machine 1000' ... Game point system slot machine 1100 ... Card unit 1200 ... Hall computer 1250 ... Management device 1300 ... Call lamp device 1400 ... Remote control for setting

Claims (3)

Storage means for storing used standard values for each type of gaming machine;
A specifying means for specifying the usage history for each gaming machine;
An output means for outputting the used history reflecting value of the gaming machine based on the used reference value and the usage history;
A management apparatus comprising: The management device according to claim 1,
A management device, further comprising a calculation means for calculating a profit or loss when a game arcade sells a gaming machine as a used machine based on the used history reflection value of the gaming machine. The management device according to claim 1 or 2,
It is connected to a gaming hall management device that manages gaming machine information of gaming machines installed in the gaming hall provided in each gaming hall,
Further comprising gaming machine information acquisition means for acquiring the gaming machine information from each gaming hall management device,
The management device characterized in that the specifying means specifies the usage history based on the gaming machine information.

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