JP2016136996A - Game machine - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a game machine capable of reducing data capacity in stop control of rotary reels and improving efficiency of stop control processing.SOLUTION: A pointer determination table 542 includes a common table part 546 that defines one of a plurality of special winning combinations as a common special winning combination for determining pointers of the plurality of special winning combinations. The common table part 546 includes an identical part 548 in which corresponding pointers are identical among the plurality of special winning combinations and that stores the identical pointer; and a non-identical part 550 in which parts of corresponding pointers are nonidentical among the plurality of special winning combinations and that stores a common code instead of pointers. Table selection means 500 includes a non-identical pointer storage table that stores pointers for rewriting the common code in the non-identical part 550 for each special winning combination, in association with a result of a winning lottery and a stop-operated rotary reel 62.SELECTED DRAWING: Figure 9

Description

  The present invention relates to a gaming machine, and more particularly to a gaming machine capable of reducing data capacity and increasing efficiency of stop control processing in stop control of a rotating reel.

  Conventionally, in a gaming machine such as a slot machine, a plurality of rotating reels capable of variably displaying a plurality of symbols, a start switch for starting a variation display of the symbols of the rotating reels by a player's operation, and a plurality of rotating reels, respectively. And a plurality of stop switches for individually stopping the change display of the symbols on the rotating reels by the player's operation after the start of the display of the change of the symbols on the plurality of rotating reels, and the progress and effect of the game And a control means for notifying the outside of various effects, and the control device is a lottery for winning or losing a role (hereinafter referred to as “role lottery”). And the combination of symbols related to the winning combination is effective, based on the result of the combination lottery and the stop switch stop operation. A judgment of whether or not aligned on emissions, and so as to impart a predetermined benefit, depending on the result of the determination.

  Here, in the stop control for stopping the rotation of the rotating reel, a plurality of stop tables corresponding to the result of the lottery by the winning lottery means and the rotating reel corresponding to the operated stop switch are provided in advance. In this case, a predetermined stop table is selected from the plurality of stop tables, and the stop position of the rotating reel is determined based on the selected stop table and the symbol position when the stop switch is operated. After rotating to the determined stop position, the rotation is stopped. In such a gaming machine, the stop position of each rotating reel is determined for each result of the winning lottery by the winning lottery means, so it is necessary to provide a stop table for each result of the winning lottery by the winning lottery means and each rotating reel. There is. Specifically, for example, a stop table for a left rotation reel, a stop table for a middle rotation reel, and a stop table for a right rotation reel when winning a cherry role are required. In this case, a large number of stop tables are required such as a stop table for the left rotating reel, a stop table for the middle rotating reel, and a stop table for the right rotating reel.

  Further, as in the assist time game (AT), when the stop control is changed according to the order in which the player operates the stop switch, that is, the so-called stop operation order (correct answer push order, incorrect answer push order), that is, the stop table is changed. Requires a stop table of all patterns according to the result of the winning lottery (the type of winning flag), the rotating reel that has been stopped, the symbol position when the stop switch is operated, and the stop operation sequence. Furthermore, if the number of winning combinations increases, the number of stop tables becomes enormous and the amount of data in the stop table becomes large.

For this reason, even if the winning combination and the rotating reels to be stopped are different, if there is a portion where the stop position is the same in the stop table, there is one that attempts to reduce the amount of data by providing a common table (Patent Document) 1).
In such a prior art (Patent Document 1), a common table is used in a portion where the stop position in the stop table is the same, and a unique table is provided for each winning combination and each rotating reel in a portion where the stop position in the stop table is different, The stop process is performed by combining the common table and the unique table.

JP 2013-34783 A

In the related art (Patent Document 1) as described above, a common table is used in a portion where the stop position is the same in the stop table. May occur or may not be created.
Furthermore, each role with a different stop position requires a unique table. Therefore, each role has a stop table that is a combination of a common table and a unique table. If the percentage of the common table that can be created is low or cannot be created when providing a stop table with a different pattern, a significant effect cannot be expected in reducing the data capacity, and the stop control process cannot be made more efficient. There was a problem.

  In view of the above-described problems, an object of the present invention described in claim 1 is to provide a gaming machine capable of reducing the data capacity and increasing the efficiency of the stop control process in the stop control of the rotating reel. And

  In addition to the object of the invention described in claim 1, the invention described in claim 2 is to store the same data repeatedly, so that no data capacity is wasted and the data capacity is compressed. An object of the present invention is to provide a gaming machine capable of saving storage capacity (memory).

  In addition to the object of the invention described in claim 2, the invention described in claim 3 uses a new parameter or a program for a new processing step using a new parameter. By using the same type of parameters used until now, it is possible to repeatedly use programs for similar processing, and the storage capacity of data and programs can be suppressed, and the storage capacity can be reduced. It is an object of the present invention to provide a gaming machine that can reduce the number of processing steps and can improve the efficiency of stop control processing.

  In addition to the object of the invention described in claim 3, the invention described in claim 4 makes it possible to repeatedly use the same processing steps in the stop control processing, and separately stores a storage table when new parameters are used. In addition, there is no need for a program for a new processing step using new parameters, and the same type of data can be used repeatedly, and the same judgment program can be used repeatedly. It is an object of the present invention to provide a gaming machine that can reduce the storage capacity, reduce the number of processing steps, and improve the efficiency of the stop control process.

In addition to the object of the invention described in claim 4, the invention described in claim 5 is stopped using the stop table previously determined according to the symbol position of the rotating reel when the stop switch is operated to stop. If it is not possible, an object is to provide a gaming machine capable of changing a symbol to be stopped by changing a stop table and performing an appropriate stop process.
In addition to the object of the invention described in claim 4 or 5, the invention described in claim 6 enables other data to be calculated from a part of the data using a predetermined calculation formula. This makes it possible to reduce the amount of data to be stored and to reduce the amount of data compared to a method in which all data is stored (stored) in advance. An object is to provide a gaming machine that can be reduced.

(Claim 1)
The invention described in claim 1 is characterized by the following points. That is, a plurality of rotating reels 62 around which a plurality of symbols 61 are arranged, a start switch 40 for starting rotation of the rotating reel 62, and a plurality of stop switches 50 for stopping the rotation of each rotating reel 62 And a lottery drawing means 120 for performing a lottery of a combination based on the operation of the start switch 40 (hereinafter referred to as “role lottery”), a result of the combination lottery of the combination lottery means 120 and the stop switch 50 A gaming machine 10 including stop control means 140 that performs stop control of the rotary reel 62 in accordance with stop operation timing, wherein the stop control means 140 is configured to rotate the stop switch 50 when the stop switch 50 is stopped. A plurality of stop tables 440 defining information on the stop position of the rotating reel 62 according to the symbol position of the reel 62, and a single stop table 440 used from the plurality of stop tables 440 Table selection means 500 to be selected, and reel stop processing means 600 for stopping the rotary reel 62 using the single stop table 440 selected by the table selection means 500, the table selection means 500 being The specific value acquisition means 520 for acquiring a specific value corresponding to the result of the combination lottery and the rotary reel 62 on which the first stop operation has been performed, the specific value, and the rotation on which the stop operation has been performed A pointer determination table 542 for determining the pointer as a parameter for selecting the single stop table 440 corresponding to the reel 62 is provided. The pointer determination table 542 is used to determine the pointer. Pointer determining means 540, and a plurality of special roles that can be won based on the result of the role lottery are provided, and the pointer determination table 542 includes the points of the plurality of special roles. A common table portion 546 that defines one of the plurality of special roles as a common special role is provided, and the common table portion 546 includes the pointer corresponding to the plurality of special roles. The same unit 548 that stores the pointers and a part of the pointers corresponding to the special roles are not identical, and a common symbol (hereinafter, “common symbol” is used instead of the pointer. The table selection means 500 stores the common symbol in the non-identical part 550 corresponding to the result of the winning lottery and the stopped rotating reel 62. A non-identical pointer storage table storing the pointer for rewriting for each special role, and as a result of the role lottery, when one of the special roles is won, the specific value and Stop operation When the position of the pointer determination table 542 corresponding to the rotated reel 62 is the same part 548, the single stop table 440 is selected based on the pointer stored in the same part 548. When the position of the pointer determination table 542 corresponding to the specific value and the stopped rotating reel 62 is the non-identical part 550, the pointer is determined using the non-identical pointer storage table, The single stop table 440 is selected based on a pointer.

In the present invention, the specific value acquisition means 520 acquires a specific value corresponding to the result of the winning lottery and the rotary reel 62 on which the first stop operation (first stop operation) has been performed.
Then, the pointer determination unit 540 determines a pointer based on the specific value acquired by the specific value acquisition unit 520 and the rotating reel 62 on which the stop operation has been performed.
The pointer determination unit 540 determines a pointer that is a new parameter based on the specific value and the rotating reel 62 on which the stop operation has been performed. Based on this pointer, a single stop table 440 is selected, and stop processing is performed using this stop table 440.
That is, finally, when a specific value corresponding to the result of the lottery and the rotating reel 62 on which the stop operation has been performed is acquired, a single stop table is obtained via the pointer based on the specific value. 440 is determined.

  Thus, there is no need for all patterns of the stop table 440 corresponding to the stop operation order for each rotary reel 62 in accordance with the winning combination. For example, when the bell role is a winning combination, when the left rotating reel 64 is stopped first (first stopping operation), the middle rotating reel 66 is then stopped second (second). The total number of stop tables 440 is compared to that having the respective stop tables when the third stop operation (third stop operation) of the right rotation reel 68 is performed next. Can be reduced. Since the number of types of the stop table 440 can be reduced, the overall data capacity in the stop control of the rotary reel 62 can be reduced.

  Further, throughout the entire stop control, a single stop table 440 is finally selected via a pointer using a parameter called a specific value. When a single stop table 440 is selected from a plurality of stop tables 440 that can be stopped, a lottery is performed, or predetermined parameters for determining a priority order for selecting a single stop table 440 (for example, a medal Processing such as calculating the amount of profits to be given to the player, such as the number of payouts, is not performed. That is, the stop control process can be made more efficient by using a parameter called a specific value throughout the stop control as compared to the stop control using many such parameters and going through many steps.

Furthermore, in the present invention, the common table portion 546 defined as one common special role among the plurality of special roles is provided without providing a table for each special role of the plurality of special roles. The common table unit 546 includes an identical unit 548 in which pointers are the same among a plurality of special roles, and an identical unit 550 in which some of the pointers are non-identical and store common symbols.
When the table selection means 500 refers to the same part 548 (when the specific value and the location corresponding to the stopped rotating reel 62 are the same part 548), the table selection means 500 uses the pointer stored in the same part 548. Based on this, a single stop table 440 is selected.

Further, when the table selection unit 500 refers to the non-identical part 550 (when the part corresponding to the specific value and the stopped rotating reel 62 is the non-identical part 550), the table selection unit 500 sets the common symbol of the non-identical part 550. A single stop table 440 is selected using data (pointer) stored in a non-identical pointer storage table for rewriting the pointer for each special role.
In the present invention, without using a table for storing pointers used for a plurality of special roles for each special role, the same part 548 and the non-identical part 550 are used and are used in common as a table for a plurality of special roles. A common table unit 546 capable of performing the above is provided.
As a result, when the corresponding pointers are the same, it is not necessary to repeatedly store the data of the same pointer by using the data stored in the same unit 548 in common. Waste can be eliminated, data capacity can be reduced, and storage capacity (memory) can be saved.

In addition, even if there are parts where the pointer data differs among multiple special roles, it is possible to use pointers stored individually in the non-identical pointer storage table via the common symbol of the non-identical part 550. can do.
Here, the “stop table 440” specifically refers to, for example, the rotation reel 62 according to the symbol position (symbol number, stop operation position) of the rotation reel 62 when the stop switch 50 is stopped. Such information includes information on the stop position (for example, the number of sliding frames). Therefore, when the specific stop table 440 used for stop control is acquired, the stop position of the rotary reel 62 is determined by the symbol position (symbol number 0 to 19) of the rotary reel 62 when the stop switch 50 is stopped. Is fixed.

  Here, “based on the pointer” is not limited to the case where the specific stop table 440 is simply determined based on the pointer. For example, the specific value is determined by the result of the lottery drawing and the rotating reel 62 that has been stopped, and the pointer is determined by the specific value and the symbol position of the rotating reel 62 when the stop switch 50 is stopped. Depending on the numerical value of the pointer, various decision branching processes are performed, a new specific value or pointer is determined again, and the same process is repeated until a single stop table 440 is specified, or Combinations of these are also included.

(Claim 2)
The invention described in claim 2 is characterized by the following points in addition to the features of the invention described in claim 1 described above. That is, in each special combination, the non-identical portion 550 is set such that the plurality of pointers determined for each rotating reel 62 that has been stopped are set to be the same.
In the present invention, in each special combination, the non-identical portion 550 is set so that the pointers determined for each rotating reel 62 that has been stopped are the same. Thereby, pointers at a plurality of locations in the non-identical portion 550 can be stored as one identical pointer. As a result, the same pointer is not repeatedly stored and the data capacity is not wasted, the data capacity can be compressed, and the storage capacity (memory) can be saved.

(Claim 3)
The invention described in claim 3 has the following features in addition to the features of the invention described in claim 2 described above. That is, whether the table selection unit 500 sets a new specific value as the specific value, sets a new pointer as the pointer, or selects the single stop table 440 based on the pointer Branch processing determining means 560 for determining any branch processing among the plurality of branch processing, and when the new specific value is set in the branch processing, the pointer determining means 540 A new pointer is determined based on the new specific value and the rotating reel 62 on which the stop operation has been performed, and the branch process is repeated based on the new pointer, and the single stop table is used in the branch process. If 440 is selected, stop processing is performed by the reel stop processing means 600 using the single stop table 440, and in the branch processing, If the common symbol of the non-identical portion 550 is rewritten to the new pointer by using the non-identical pointer storage table, wherein the branch processing is repeated on the basis of the new pointer.

  According to the present invention, the branch process determining means 560 sets a plurality of branch processes based on this pointer, such as setting a new specific value, setting a new pointer, or selecting a single stop table 440. One of the branch processes is determined from the inside.

In this branch process, when a single stop table 440 is selected, the reel stop processing means 600 performs the stop process using the selected single stop table 440.
When a new specific value is set in the branching process, the pointer determination unit 540 determines a new pointer based on the new specific value and the rotating reel 62 on which the stop operation has been performed. . Based on this new pointer, the same branching process as described above is repeated. Finally, when a single stop table 440 is selected, the reel stop processing means 600 uses the selected stop table 440 to stop the rotary reel 62.
In addition, when a new pointer is set in the branch process, the branch process determination means 560 sets a new specific value based on the new pointer or sets a new pointer. Alternatively, one of the branch processes is selected from a plurality of branch processes similar to those described above for selecting a single stop table 440. Finally, when a single stop table 440 is selected, the reel stop processing means 600 uses the selected stop table 440 to stop the rotary reel 62.
Regardless of the result of the branching process, the reel stop processing unit 600 uses the stop table 440 to stop the rotating reel 62 when the single stop table 440 is finally selected. Is done.

In the present invention, when a single stop table 440 can be selected based on the pointer, the stop table 440 is selected and the stop process is performed by the stop table 440.
If the single stop table 440 cannot be selected using the pointer as it is, a new value as a specific value that is the same type of parameter is again used without newly adopting another type of parameter. A new specific value is set, a new pointer is determined based on the new specific value and the rotating reel 62 on which the stop operation has been performed, and a similar branching process is performed based on the pointer.
When a new pointer is set, the same branching process is repeated based on the new pointer until a single stop table 440 is finally selected.
In this way, a new specific value is used as the specific value without adopting another type of parameter, and a new pointer is determined from the new specific value for subsequent processing, and branch processing is performed using this new pointer. In addition, even when a new pointer is set as a pointer, it is possible to repeatedly use the same processing steps as those performed so far, such as branch processing using the same new pointer. it can. This eliminates the need for a separate storage table using new parameters, a program for new processing steps using new parameters, etc., using specific values and pointers used so far. , The program for the same branch processing can be used repeatedly, the storage capacity of data and programs can be suppressed, the storage capacity can be reduced, the number of processing steps can be reduced, and stopped The efficiency of control processing can be improved.

(Claim 4)
The invention described in claim 4 has the following features in addition to the features of the invention described in claim 3 described above. That is, as the branching process, the pointer determined by the pointer determination unit 540 is set as a new specific value, and a new pointer is determined by the pointer determination unit 540 based on the new specific value. A first branch process in which the branch process is repeated based on a simple pointer; a second branch process in which the single stop table 440 is selected using the pointer determined by the pointer determination means 540; and the stop switch Whether or not the symbol position of the rotating reel 62 when 50 is stopped is acquired, and the specific value is transferred to a new specific value using the symbol position and the pointer determined by the pointer determination means 540 Is determined by the pointer determination means 540 and the third branch process in which the determination (hereinafter referred to as “specific value shift determination”) is performed. And a fourth branch process for determining the new pointer using the non-identical pointer storage table when the pointer is the common symbol of the non-identical part 550, and in the third branch process, As a result of the specific value transition determination, when the specific value is shifted to a new specific value, a new pointer is determined by the pointer determination means 540 based on the new specific value, and based on the new pointer The branching process is repeated.

  In the present invention, the pointer determination unit 540 determines the pointer based on the specific value acquired by the specific value acquisition unit 520 and the rotating reel 62 on which the stop operation has been performed. If the pointer is a common symbol of the non-identical part 550, a new pointer is determined using the non-identical pointer storage table. Based on the pointer or the new pointer, the branch process determining means 560 selects one of the four branch processes of the first branch process, the second branch process, the third branch process, and the fourth branch process. To decide.

By the first branching process, the pointer determined by the pointer determination unit 540 is set as a new specific value. Based on the new specific value, a new pointer is determined by the pointer determination means 540, and the same branching process is repeated based on the new pointer.
By the second branch process, a single stop table 440 is selected using the pointer determined by the pointer determination means 540. Using the selected single stop table 440, the reel stop processing unit 600 performs stop processing of the rotary reel 62.

By the third branching process, the symbol position of the rotary reel 62 when the stop switch 50 is stopped is acquired, and the specific value is changed to a new specific value by using the symbol position and the pointer determined by the pointer determination means 540. Whether to shift (specific value shift determination) is determined.
In the fourth branch process, when the pointer determined by the pointer determination unit 540 is a common symbol of a non-identical part, a new pointer is determined using the non-identical pointer storage table.

In this branch process, when the single stop table 440 is selected by the second branch process, the reel stop processing unit 600 performs the stop process using the selected single stop table 440.
In the branching process, when a new specific value is set by the first branching process or the third branching process, the pointer determination unit 540 uses the new specific value and the rotating reel on which the stop operation has been performed. 62, a new pointer is determined. Based on this new pointer, the same branching process as described above is repeated. Then, by finally selecting a single stop table 440, the reel stop processing means 600 performs the stop processing of the rotating reel 62 using the selected stop table 440.
In the branch process, when a new pointer is set by the fourth branch process, the same branch process as described above is repeated based on the new pointer. Then, by finally selecting a single stop table 440, the reel stop processing means 600 performs the stop processing of the rotating reel 62 using the selected stop table 440.

Regardless of the result of the branching process, the single stop table 440 is finally selected, and the reel stop processing unit 600 uses the stop table 440 to stop the rotating reel 62. Is done.
As a result, the same processing steps as those performed so far can be used repeatedly. This eliminates the need for a storage table when a new type of parameter is newly used, a program for a new processing step using a new type of parameter, and the specific values used so far. In addition, it is possible to repeatedly use a determination program for the same branch processing using the same type of data as the pointer. Therefore, the storage capacity of data and programs can be reduced, the storage capacity can be reduced, the number of processing steps can be reduced, and the efficiency of the stop control process can be improved.

(Claim 5)
The invention described in claim 5 has the following features in addition to the features of the invention described in claim 4. That is, in the third branch process, when the specific value is not transferred to a new specific value as a result of the specific value transition determination, the pointer is rewritten with another pointer and determined using the other pointer. In addition, when the single stop table 440 is used and the specific value shifts to a new specific value as a result of the specific value shift determination, a value obtained by adding a predetermined numerical value to the current specific value is a new value. It is set as a specific value, a new pointer is determined by the pointer determination unit 540 based on the specific value, and the branching process is repeated based on the pointer.

In the third branching process, whether the specific value is shifted (changed) to a new specific value based on the symbol position of the rotating reel 62 when the stop switch 50 is stopped and the pointer determined by the pointer determining means 540 Determination of whether or not (specific value shift determination) is performed.
As a result of this specific value transition determination, if the specific value is not shifted to a new specific value, the pointer (specifically, for example, the transition determination pointer (BTRG)) is changed to another pointer (specifically, for example, A single stop table 440 determined by using another pointer (specifically, for example, the stop table pointer (BTRP)) is used. In such a case, the specific value is not transferred, but via a pointer (specifically, for example, a transfer determination pointer (BTRG)) and another pointer (specifically, for example, a stop table pointer (BTRP)). A single stop table 440 determined in this way is used. That is, switching of the stop table 440 determined based on the specific value is not performed.

On the other hand, when a specific value is transferred to a new specific value as a result of the specific value shift determination, a value obtained by adding a predetermined numerical value (specifically, for example, “1”) to the current specific value is a new value. Based on the new specific value, a new pointer is determined by the pointer determination unit 540, and the branching process is repeated based on the new pointer. In such a case, by shifting the specific value to the new specific value, it is determined based on the new specific value from the stop table 440 that is determined based on the specific value before shifting to the new specific value. Switching to the stop table 440 is performed.
That is, it is possible to distinguish between the case where the stop table 440 is not switched and the case where the stop table 440 is switched based on the symbol position of the rotary reel 62 when the stop switch 50 is stopped. . Accordingly, when the stop switch 50 can be stopped using the stop table 440 corresponding to the specific value determined in advance according to the symbol position of the rotary reel 62, the stop table 440 It is possible to cope with the case where it cannot be stopped by using. If it is not possible to stop using the stop table 440, the symbol 61 to be stopped can be changed by changing the specific value and performing the same processing, and changing the corresponding stop table 440. Thus, an appropriate stop process can be performed.

(Claim 6)
The invention described in claim 6 is characterized by the following points in addition to the features of the invention described in claim 4 or claim 5 described above. That is, a lottery flag value is provided as a parameter corresponding to a lottery result for each special role of the plurality of special roles. In the fourth branching process, the difference between the lottery flag value of each special combination and the lottery flag value of the reference combination is substituted into a predetermined calculation formula for each stopped rotating reel 62. By adding the pointer of the reference combination to the calculated value, the pointer of each special combination is obtained. In the non-identical pointer storage table, each lottery flag of the plurality of special combinations The value and the pointer for each rotation reel 62 that has been stopped in the reference combination are stored in advance, and the pointer in the special combination other than the reference combination is the value for each rotation reel 62 that has been stopped. And characterized in that a can be calculated by Deshiki.

In the present invention, in the non-identical pointer storage table, not all of the pointers of the plurality of special roles are stored as they are, but only the pointer for each rotating reel in the reference combination and the lottery flag values of the plurality of special roles are stored as they are. The remaining pointers are formed each time using a predetermined calculation formula from the reference combination pointer and the lottery flag value of each special combination.
As a result, the amount of data stored can be reduced and the data capacity can be reduced as compared with the case where all pointers of a plurality of special roles are stored (stored) in advance. Memory) can be reduced.

Since this invention is comprised as mentioned above, there exists an effect as described below.
According to the first aspect of the present invention, there is no need for every pattern of the stop table corresponding to the stop operation order for each rotating reel according to the type of the winning combination. Compared to a table having stop tables, the total number of stop tables can be reduced, and the types of stop tables can be reduced.
Further, according to the present invention, a single stop table is finally selected through the specific value and the pointer. Compared with stop control that uses many parameters and goes through many steps, the use of parameters such as specific values and pointers can improve the efficiency of stop control processing.
Furthermore, by providing a common table section, when the pointer data is the same, the data is used in common, so that it is not necessary to repeatedly store the same data, thereby eliminating waste. Can do.
As a result, it is possible to provide a gaming machine that can reduce the data capacity, save the storage capacity (memory), and improve the efficiency of the stop control process.

  According to the invention described in claim 2, in addition to the effect of the invention described in claim 1, a plurality of the same pointers can be stored as one pointer in the non-identical pointer storage table, and the same pointers are stored. It is possible to provide a gaming machine in which data capacity is not lost due to repeated storage, data capacity can be compressed, and storage capacity (memory) can be saved.

  According to the invention described in claim 3, in addition to the effect of the invention described in claim 2, a new specific value is used as a specific value and a new pointer is used without adopting another type of parameter. By using the pointer, the same processing steps as those performed so far can be used repeatedly. This eliminates the need for a separate storage table using new parameters, a program for new processing steps using new parameters, etc., using specific values and pointers used so far. , The program for the same branch processing can be used repeatedly, the storage capacity of data and programs can be suppressed, the storage capacity can be reduced, the number of processing steps can be reduced, and stopped A gaming machine capable of improving the efficiency of control processing can be provided.

According to the invention of claim 4, in addition to the effect of the invention of claim 3, in any of the first branch process and the third branch process, a new specific value is used as the specific value. In the subsequent processing, a new pointer is determined from the new specific value, and branch processing is performed using this new pointer. If a new pointer is set by the fourth branch process, the same branch process as described above is repeated based on the new pointer.
As a result, the same processing steps as those performed so far can be used repeatedly. This eliminates the need for a separate storage table when using new parameters, a program for new processing steps using new parameters, etc., and the same type as the specific values and pointers used so far. This data can be used repeatedly for the same branch processing decision program, etc., the storage capacity of data and programs can be reduced, the storage capacity can be reduced, and the number of processing steps can be reduced. Thus, a gaming machine capable of improving the efficiency of the stop control process can be provided.

  According to the invention of claim 5, in addition to the effect of the invention of claim 4, when the stop table is not switched by the design position of the rotating reel when the stop switch is operated to stop, It is possible to distinguish between cases where stop table switching is performed. As a result, when the stop switch can be stopped using the stop table corresponding to the specific value determined in advance according to the symbol position of the rotating reel when the stop switch is operated, and using the stop table. You can deal with when you can't. If it is not possible to stop using the stop table, the specific value is changed, the same process is performed, and the corresponding stop table is also changed. It is possible to provide a gaming machine capable of performing a simple stop process.

  According to the invention described in claim 6, in addition to the effect of the invention described in claim 4 or claim 5, in the non-identical pointer storage table, some pointers include the pointer of the reference role and each special role. It is calculated each time using a predetermined calculation formula from the lottery flag value. As a result, the amount of data stored can be reduced and the data capacity can be reduced as compared with the case where all pointers of a plurality of special roles are stored (stored) in advance. It is possible to provide a gaming machine that can reduce the burden on the memory.

1 is an external front view showing a gaming machine according to an embodiment of the present invention. It is an embodiment of the present invention, and is a diagram showing the arrangement of symbols provided on each rotary reel. FIG. 2 is a block diagram showing the input, control and output of the gaming machine according to the embodiment of the present invention. It is an embodiment of the present invention, and is a block diagram showing reel control means. It is an embodiment of the present invention and is a block diagram showing a pointer determination table. It is an embodiment of the present invention and is a diagram showing a transition state in the main control device. It is an embodiment of the present invention and is a diagram showing a transition state during AT. In the embodiment of the present invention, a specific value acquisition for acquiring a specific value based on a result lottery result and a stopped rotating reel (L: left rotating reel, C: middle rotating reel, R: right rotating reel) Part of the table. A part of a pointer determination table for determining a pointer based on a specific value and a stopped reel (L: left rotating reel, C: middle rotating reel, R: right rotating reel) according to an embodiment of the present invention (A) is a pointer determination table with a common table portion, and (b) is a pointer determination table without a common table portion. It is an embodiment of the present invention, and is a part of a transition determination related table showing a relationship among a transition determination pointer (BTRG), a transition table pointer (transition P), and a stop table pointer (BTRP). It is embodiment of this invention, Comprising: It is a part of transfer determination data table which shows the transfer determination value determined by a symbol number and a transfer table pointer. It is an embodiment of the present invention, and is a part of a stop data table showing the relationship between the symbol number and the number of sliding symbols in the stop table determined by each stop table pointer. In the embodiment of the present invention, non-identical parts determined by a lottery flag value (FPH) and a stopped rotating reel (L: left rotating reel, C: middle rotating reel, R: right rotating reel) It is a part of a non-identical pointer storage table indicating pointers. It is an embodiment of the present invention, and is a flowchart showing a control process of the main controller after the start switch is activated. It is embodiment of this invention, Comprising: It is a flowchart which shows a 1st stop operation process. It is embodiment of this invention, Comprising: It is a flowchart which shows a 2nd stop operation process and a 3rd stop operation process. It is an embodiment of the present invention, and is a flowchart showing processing corresponding to a specific value (CW) and a stop operation reel. It is an embodiment of the present invention, and is a flowchart showing processing corresponding to a specific value (CW) and a stop operation reel.

In the present specification, in each explanation location, when the definition or the like about the direction is not shown, it is seen from the gaming machine 10 to the player in front of the player that is facing the gaming machine 10. The direction toward the side is the “front” direction, and the opposite direction is the “rear” direction. Similarly, the left and right directions such as “left” and “right” mean the left direction and the right direction when viewed from the player. Similarly, in the description of each member, when a definition or the like about the direction is not shown, it means a direction viewed from the player in a state where each member is fixed at a predetermined position of the gaming machine 10.
A slot machine as the gaming machine 10 according to the present embodiment will be described below with reference to FIG. The slot machine as the gaming machine 10 according to the present embodiment includes a square box-shaped housing 12 having a front opening that opens in the front direction, and a front door 14 that covers the front opening of the housing 12 so as to be freely opened and closed. And.

  At the upper part of the front door 14, an upper panel 20 made of a thin resin is provided. In the approximate center of the upper panel 20, there is a symbol 61 on the circumference of three rotating reels 62 (left rotating reel 64 on the left, central rotating reel 66 on the center, right rotating reel 68 on the right) from the front. A transparent symbol display window 16 that can be seen is formed. The symbol display window 16 is formed to show the player a total of nine symbols 61 arranged in three rows and three rows when the rotation of all three rotary reels 62 stops. . The symbol display window 16 is provided on the front side of the rotary reel 62, and is used for visually recognizing a plurality of symbols 61 stopped on an effective line 86 to be described later when the rotation of the rotary reel 62 is stopped. It is. The rotating reel 62 is capable of variably displaying a plurality of symbols 61 via the symbol display window 16.

In the rear direction (backward direction) of the symbol display window portion 16, there are three drive motors (not shown), a total of three rotary reels 62 respectively rotated by the respective drive motors, and the drive motors. And a reel unit 60 having a unit holder (not shown) for holding the rotary reel 62 is disposed.
The front door 14 is formed with notifying means 70 for notifying the player of various information such as winning of a lottery by sound, light, video, or the like. The notification means 70 is disposed on the front door 14 and includes a speaker 72, a display device 84, and an effect lamp 78. The rotating reel 62 is normally used for the progress of the game, but in the state where the progress of the game is stopped, the notification means is provided by showing an effect (so-called reel effect) by a behavior different from the normal rotation operation. It may be used as a kind of 70.

The speaker 72 includes an upper speaker 74 disposed on the upper left and right of the front door 14 and a lower speaker 76 disposed on the lower left and right of the front door 14.
The display device 84 is a display device for displaying various images on the screen, and constitutes an effect unit having a liquid crystal display device for displaying images including moving images.
The effect lamp 78 includes an upper lamp 80 disposed above the front door 14 and lower lamps 82 disposed on the left and right of the lower portion of the front door 14.

A lower panel 22 is provided at the lower part of the front door 14. The front door 14 includes an operation unit 30 that is located on the lower panel 22 and protrudes toward the front of the front door 14.
In the gaming machine 10 according to the present embodiment, a credit function (the number of inserted coins is electronically stored) as a medal in advance by inserting medals in advance from a medal slot 38, which will be described later, as a game start condition. A function of electronically storing and managing data as data). Note that the maximum number of credit medals that can be stored is 50, which is the maximum number of credit medals.

  Below the medal slot 38 is provided a settlement switch 36 for paying out all medals credited by the credit function. On the left side of the settlement switch 36, three stop switches 50 corresponding to the three rotary reels 62 are provided in order to stop the rotation of the corresponding rotary reels 62 by operation. The stop switch 50 includes a left stop switch L for stopping the left rotation reel 64, a middle stop switch C for stopping the middle rotation reel 66, and a right stop switch R for stopping the right rotation reel 68. have. That is, these stop switches 50 are provided corresponding to each of the plurality of rotating reels 62, and after the start of the display of the variation of the symbols 61 of the plurality of rotating reels 62, the variation of the symbols 61 of the rotating reel 62 by the player's operation This is to stop the display individually.

  On the left side of the stop switch 50, a start switch 40 is provided for starting rotation of the rotary reel 62 on condition that a medal is inserted or a max bet switch 34 described later is operated. That is, the start switch 40 is for starting the change display of the symbol 61 of the rotating reel 62 by the player's operation. Above the start switch 40, there is provided a max bet switch 34 for substituting three medals by subtracting the number of medals that can be inserted until the maximum number of inserted medals (specifically, three) is reached from the number of credited medals. ing. In the RBB, which will be described later, the above-mentioned 3 sheets are set to 2 sheets.

In addition to the max bet switch 34, or instead of the max bet switch 34, a single bet switch may be provided in which the number of credited medals is reduced by one and replaced with one medal.
It should be noted that between the max bet switch 34 and the medal slot 28, an operation means 31 such as a chance switch as a switch not involved in the progress of the game may be provided. Then, a predetermined privilege may be given by causing the player to operate the chance switch as the operation means 31 once or a predetermined number of times at a predetermined opportunity.

The above-described start switch 40, stop switch 50, checkout switch 36, and max bet switch 34 constitute an operation means 31 (see FIG. 3) that can be operated by the player.
A rearward direction (backward direction) of the lower portion of the front door 14 is a so-called hopper unit that can store medals and can pay out medals, as shown in FIG. A power supply device (not shown) for supplying power to each component is disposed along with a power switch that can be operated to turn on or shut off the power.
At the lower part of the front door 14, a medal payout port 28 through which medals are paid out from the storage payout means 24 is formed in a predetermined case. Below the medal payout port 28, a dish-shaped medal tray 26 that opens upward is formed to store medals paid out from the medal payout port 28. When the number of credited medals is less than the maximum number of credit medals, the acquired medals are added to the number of credit medals without being paid out from the medal payout exit 28 until the number reaches 50.

  The gaming machine 10 according to the present embodiment enables a game to be started by inserting a predetermined number of medals by operating the max bet switch 34 or inserting medals. Then, when the start switch 40 is pressed, the rotation of the rotary reel 62 is started to start the game, and a lottery is performed using a lottery table corresponding to each state of the main controller 110 described later. Then, based on the operation timing of the stop switch 50 corresponding to each rotary reel 62 and the result of the winning lottery, the gaming machine 10 stops the rotation of the rotating reel 62 so as to match the result of the winning lottery. The gaming machine 10 determines whether the combination of symbols 61 constituting the winning combination is a predetermined effective line (when the combination of symbols 61 of a predetermined combination is aligned on the line, depending on the combination of symbols 61 at the time of stoppage. This is a line to which the profit is awarded, and is hereinafter referred to as the active line 86.) When the player stops on the line, the player is given a predetermined profit such as winning a prize and paying out a predetermined number of medals. . As a result, one game is completed.

“Effective line 86” means a line that will be won when the winning combination is lined up on the line, and “Pocket” for a small role, which will be described later, is a combination of symbols 61 corresponding to the role on the effective line 86. Means that The effective line 86 of the present embodiment is composed of only one broken line connecting the lower stage of the left rotating reel 64, the middle stage of the middle rotating reel 66, and the middle stage of the right rotating reel 68.
As shown in FIG. 2, “red 7 (R 7)”, “blue 7 (B 7)”, “bar (BR)”, “ Special design 1 (B1), Special design 2 (B2), Special design 3 (B3), Cherry (CH), Scroll (MK), Bell (BE), Replay ( A plurality of various symbols 61 of “RP)” are formed. In the present embodiment, although not shown in particular, the combination a, combination b, combination c,...
Four symbols (red 7 (R7), blue 7 (B7), bar (BR), special symbol 1 (B1) constituting a combination of symbols 61 that can be transferred to SB1 to SB64 as special roles (objects) described later) )) On the symbol arrangement of the reels, symbol numbers 3 (R7, R7, R7), 8 (BR, BR, BR), 13 (B7, B7, B7), 18 (B1, B1, B1) The reels 62 are regularly arranged every 5 symbols. In addition, the symbol interval of the symbol 61 that can be transferred to the SB1 to SB64 as the special role (the character) is not limited to five symbols, and may be arranged for every five symbols or more. You may arrange | position in the space | interval less than a design. Furthermore, in those cases, it is preferable that all symbol intervals can be arranged uniformly such as 10 symbol intervals or 4 symbol intervals.

In the present embodiment, the table (so-called symbol arrangement table) itself shown in FIG. 2 is not stored as data as it is, but a winning determination is made using such a symbol arrangement table. No, this point will be explained later.
These designs 61 are formed by sticking a tape on which each design is printed on the outer peripheral surface of the rotary reel 62. Note that the number (frame number) of the symbol 61 in FIG. 2 is not a physical number attached to the outer peripheral surface of the rotary reel 62, but is a virtual number for controlling the stop of each symbol 61. This is for specifying a specific symbol 61 in the program.

  As shown in FIG. 3, a control device 100 for controlling the overall operation of the gaming machine 10 is formed inside the gaming machine 10. This control device 100 receives the information (command) from the main control device 110 that controls the state by advancing the game, and controls the effects according to the progress of the game. A sub-control device 300 that controls each state of the effect is provided in order to perform an effect of notifying the player of information related to game content.

  The main control device 110 and the sub control device 300 are connected by one-way communication from the main control device 110 to the sub control device 300 in order to prevent unauthorized operation of the main control device 110. Communication in the reverse direction from the control device 300 to the main control device 110 is not performed (that is, not bidirectional communication). The main controller 110 receives inputs from the start switch 40, the stop switch 50, the max bet switch 34, and the checkout switch 36, performs a lottery drawing, and controls the operations of the reel unit 60 and the storage / dispensing means 24. The sub control device 300 receives a signal from the main control device 110 and controls the operation of the notification means 70 such as the display device 84. On the output side of the sub-control device 300, the display device 84, the speaker 72, and the effect lamp 78 as the notification means 70 are connected.

  Although not particularly illustrated, the main board having the main control device 110 and the sub board having the sub control device 300 are housed in dedicated board cases, respectively. Specifically, the main control device 110 is housed in the main board case, and the sub control device 300 is housed in the sub board case. The main board case is fixed to the upper part inside the housing 12 and the sub board case is fixed to the left side from the front inside the housing 12.

  The main control device 110 and the sub control device 300 are configured by a microcomputer including a CPU, a ROM, a RAM, and an I / O port (not shown). The CPU has an interrupt function such as a timer interrupt, and executes various programs by executing a program stored in the ROM. The ROM stores programs executed by the CPU and fixed data such as various tables, and the RAM stores a temporary storage area when the CPU executes the programs, for example, the state of the gaming machine 10 It is used as a storage area for storing the area and the lottery result of the role lottery.

In the main control device 110 of the gaming machine 10 according to the present embodiment, a normal state that is normally performed is provided. The main control device 110 is provided with a replay time (RT) state in which the probability of winning the re-game combination (replay combination) is set higher (or lower) than the normal state. This RT state is controlled by the main controller 110.
In the sub-control device 300, an assist time (AT) for assisting to stop the combination of the symbols 61 related to the combination on the effective line 86 by notifying the stop operation order of the stop switch 50, the winning symbol 61, etc. A state is provided. This AT state is mainly controlled by the sub-control device 300.

Of course, the devices for controlling each state (main control device 110, sub-control device 300) are not limited to those described above, and each state may be controlled by the other control device, Part of the means may be partially controlled by another control device, and may be controlled across both control devices. At this time, direct transmission from the sub-control device 300 to the main control device 110 is not performed, but the main control is performed by notifying the predetermined stop operation order from the sub-control device 300 and stopping the player. Information can be transmitted indirectly to the device 110.
The assist time (AT) state is formed to be a special game that is more likely to give a benefit that is beneficial to the player than a normal game (non-assist time (AT) state).

  In the gaming machine 10 according to the present embodiment, as a game, a transition can be made by winning a normal game that is a normal game and a lottery (transition lottery) that determines whether or not to shift during the normal game. And a game in an assist time state (AT state) (AT game) as a special game to which more benefits can be given.

  An AT game as a special game can be started when a predetermined start condition is achieved, and can be ended when a predetermined end condition is achieved. Specifically, an AT game as a special game can be transferred when a lottery result of a combination lottery, when a predetermined transition combination is won or when a predetermined lottery is won by a transition lottery means 330 described later, etc. . In addition, in AT games, the number of medals earned (paid to the player) by the player during the AT is set to a predetermined number of games (a so-called acquisition specified number, specifically 120). Of course, the number is not limited to this number.

  The AT game as a special game can be executed until the number of medals acquired by the player (the number of payouts) when the game is executed according to the result of a predetermined transfer lottery reaches the specified number of acquisitions. The possible acquisition specified number is set so that it can be added by a predetermined lottery. When determining this extra, it is possible to execute an effect when adding to the specified number of special games to be acquired, so-called extra effect, and as this extra effect, a reel effect using the rotating reel 62 and a display device 84. Both the display effect using and are formed to be executable.

In addition, it is not limited to these start conditions and end conditions. Instead of the number of payouts, the actual number calculated by subtracting the number of inserted medals from the number of paid out medals instead of the number of payouts. You may set with the net increase number which is the number of acquisition of medals. In addition, the number of games executed during AT may be set to other conditions such as reaching a predetermined number of games (so-called initial number of games or maximum number of games). . That is, the number of games during AT may be ended by executing a predetermined number of games (so-called initial number of games or maximum number of games). These conditions may be a combination of the number of games and the number of acquired medals (or a net increase).
In the addition, the number of medals to be added to the specified acquisition number (or net increase) is set. Of course, regarding this addition, the number of games that can be executed may be added instead of the number of acquired medals (net increase) as described above, and the number of games and the number of acquired medals (or net increase) And may be combined.

  The reel effect is an effect using the rotating reel 62, and the three rotating reels 62 are rotated and stopped, the rotation direction is changed, the rotation speed is changed, the rotation acceleration is changed, and the predetermined symbol 61 is rotated. This can be done by various means. The display effect is an effect performed by a moving image or a still image displayed on the display device 84 which is the liquid crystal display device 84. Note that sound, music, sound effects, and the like from the speaker 72 are appropriately performed along with the display effect.

The AT game as a special game starts with the achievement of the AT game start condition and can be repeatedly executed during the normal state during the AT, and during the normal state during the AT, it can be repeatedly executed a predetermined number of times during the AT. States are provided (see FIG. 7).
The normal state during the AT is started with the start of the AT game, and the additional effect (addition game) can be executed in the additional effect state during the AT.

  The main control device 110 includes a combination lottery means 120, a reel control means 130 (start control means 135, stop control means 140), a normal state control means 160, an RT control means 170, a bonus control means 180, a freeze effect control means 230, and an add-on. Each unit includes an effect determination execution means 390, a special game determination means 200, an acquisition specified number counting means 210, a reel effect execution means 245, a payout control means 250, a transition lottery means 330, and a transmission means 260. Details of each means will be described later.

Note that these means, in particular, the special game determination means 200, the acquisition specified number counting means 210, the transfer lottery means 330, and the like may be included in the sub-control device 300 instead of the main control device 110. At that time, since direct transmission of data from the sub-control device 300 to the main control device 110 is not performed, the order of the stop operation by the stop switch 50 is performed by the sub-control device 300 when such transmission is necessary. Is notified to the player by the notification means 70, and the information from the sub-control device 300 is transmitted to the main control device 110 through indirect transmission means such as the player performing stop operation in the stop operation order. The
With the above configuration, the main control device 110 functions as means for performing a lottery of a combination, controlling rotation and stop of the rotary reel 62, and progressing the game.

The main control device 110 is mainly for controlling the game, and is mainly for making the game progress. Hereinafter, the game in the present embodiment will be described.
When the specified number of bets (three) is set, one active line 86 (see FIG. 1) is set. In the gaming machine 10 according to the present embodiment, 3 is set as the prescribed bet number. As a method for setting the bet number, there are a method for inserting a medal from the medal insertion slot 38 and a method for setting a credit medal as the bet number by operating the max bet switch 34. Then, if the start switch 40 is operated on condition that the specified number of bets (3) is set, the number of bets is confirmed and either of a plurality of winning combinations is won by the winning lottery means 120 or A lottery lottery (role drawing) is performed. At almost the same time as the winning lottery, it is determined whether or not a predetermined time (4.1 seconds in this embodiment) has elapsed since the start of rotation of the rotary reel 62 in the previous game. When elapses, rotation of all three rotary reels 62 starts. In the present embodiment, the prescribed number is set to 2 only during a bonus game (RBB) described later.

In the present embodiment, when a role is roughly classified, a small role (a role accompanied by a medal payout), a re-playing role (a role that can start the next game without using a medal owned by the player, so-called replay) Role) and a transitional role (a role accompanied by a transition of the state of the game or production).
After the rotation of the rotary reel 62 is started, a predetermined condition (in this embodiment, a process for accelerating the rotary reel 62 is executed, and then a predetermined sensor detects that the rotational position of the rotary reel 62 is the reference position. Is established, the stop switch 50 can be operated (stop operation enabled state).
Thereafter, when one of the three stop switches 50 is operated, the rotation of the rotary reel 62 corresponding to the stop switch 50 is stopped. When all the three stop switches 50 have been operated, the rotation of all three rotary reels 62 is stopped.

  In the present embodiment, processing of a predetermined payout number described later is performed based on a specific value (CW) described later by stop control. Based on a specific value (CW), which will be described later, the gaming machine 10 according to the present embodiment will eventually give a profit to the player when a predetermined combination of symbols 61 is arranged on the active line 86. It is formed so that. For example, when the combinations of symbols 61 corresponding to the small combination are arranged on the active line 86, the number of medals corresponding to the small combination is awarded to the player.

In the gaming machine 10 according to the present embodiment, as a state of the main control device 110, a normal state that is normally (generally) performed, and in this normal state, a bonus (RBB) is won by a role lottery of the role lottery means 120. If the symbol 61 related to the bonus transition combination does not stop on the active line 86 in spite of the fact, the internal winning state that shifts from the normal state (specifically, the RBB winning state and the RT1 state) In this internal winning state (RBB winning state, RT1 state), the game proceeds when the bonus transition symbol 61 stops on the active line 86, and the profit given to the player is greater than in the normal state. A possible bonus state (RBB state) and a SB (single bonus) state as a special role (specifically, an accessory) that can be transferred as a result of the role lottery from the normal state are provided (see FIG. 6).
In the present embodiment, SB (single bonus) is provided as a plurality of special combinations (combinations) that can be won according to the result of the combination lottery. Specifically, 64 different types of SB (single bonus) from SB1 to SB64 are provided.
When the combinations of symbols 61 that can be transferred corresponding to SB1 to SB64 (for example, SB1 is “Red 7 (R7), Red 7 (R7), Red 7 (R7)”) are aligned on the active line 86, they are aligned. Only one game is started from the next game of the game. The symbols 64 constituting the combination of symbols 61 that can be transferred to SB1 to SB64 are composed of four types: red 7 (R7), bar (BR), blue 7 (B7), and special symbol 1 (B1). The combinations of symbols 61 that can be transferred from SB1 to SB64 are regularly arranged on each rotary reel 62. Specifically, in SB1 to SB16, combinations of symbols 62 that can be transferred are in the form of special roles (symbol 61 of the left rotating reel 64, symbol 61 of the middle rotating reel 66, symbol 61 of the right rotating reel 68). As shown, SB1 (R7, R7, R7), SB2 (R7, R7, B7), SB3 (R7, R7, BR), SB4 (R7, R7, B1), SB5 (R7, B7, R7), SB6 ( R7, B7, B7), SB7 (R7, B7, BR), SB8 (R7, B7, B1), SB9 (R7, BR, R7), SB10 (R7, BR, B7), SB11 (R7, BR, BR) ), SB12 (R7, BR, B1), SB13 (R7, B1, R7), SB14 (R7, B1, B7), SB15 (R7, B1, BR), SB16 (R7, B1, B1). The symbols 62 to which SB1 to SB16 can be transferred are all R7 of SB1 to SB16 in the left rotating reel 64. In the middle rotating reel 66, SB1 to SB4 are R7, SB5 to SB8 are B7, and SB9. SB12 is BR, SB13 to SB16 are B1, and four symbols arranged in the order of R7, B7, BR, B1 are repeatedly arranged in the same order from SB1 to SB16 on the right rotating reel 68. . Further, from SB17 to SB32, only the symbol 61 of the left rotating reel 64 of SB1 to SB16 is changed from red 7 (R7) to blue 7 (B7), and the intermediate rotating reel 66 and the right rotating reel. 68 symbols are the same as SB1 to SB16. Similarly, from SB33 to SB48, only the symbol 61 of the left rotating reel 64 of the above SB1 to SB16 is changed from red 7 (R7) to bar (BR). The design of the rotary reel 68 is the same as SB1 to SB16. From SB49 to SB64, only the symbol 61 of the left rotating reel 64 of SB1 to SB16 is changed from red 7 (R7) to special symbol 1 (B1), and the intermediate rotating reel 66 and the right rotating reel 68 are changed. The symbols of SB1 to SB16 are the same. In this way, the combination of symbols 61 that can be transferred from SB1 to SB64 is an arrangement in which four types of symbols 61 (R7, B7, BR, B1) are regularly arranged. Further, the four types of symbols 61 are regularly arranged every five frames on each rotary reel 62 in the reel symbol arrangement shown in FIG. By having the regularity of the combination of these symbols 61 that can be transferred and the regularity of the reel arrangement, a pointer determination table (see FIG. 9) to be described later in stop control and a non-identical pointer storage table (see FIG. 13) The regularity of the numerical value of the pointer has occurred.

  The bonus state is selected as a bonus transition combination as a transition combination, and a combination of symbols 61 corresponding to the bonus transition combination (for example, “special symbol 2 (B2), red 7 (R7), red 7 (R7)”). When the items are aligned on the active line 86, the game is started from the next game of the aligned games.

  In addition, even if the combination of symbols 61 corresponding to the bonus transitional combination is not prepared on the active line 86 in the game at the time of winning, the bonus transitional combination will correspond to the bonus transitional combination on the effective line 86 after the next game. The state in which the bonus transition combination is won is valid until 61 combinations are complete (SB is not valid). Other combinations (including SB) become invalid after the next game if the combination of symbols 61 corresponding to the combination is not available on the active line 86 in the game at the time of winning. The bonus state ends when the total number of medals paid out to the player during the bonus state exceeds a preset number (specifically, for example, 26).

In the present embodiment, as a bonus state, a big bonus state (RBB state) controlled mainly by main controller 110 is provided. The big bonus state facilitates winning of a small role by making the lottery probability of all small roles higher than the normal state. The big bonus state according to the present embodiment ends with a payout number exceeding 26. Of course, this end condition is not limited to 26 sheets, and other sheets may be used.
In addition, when the combination of symbols 61 corresponding to the re-playing role (replaying role) is arranged on the active line 86, the medal is not paid out, but the bet number is automatically used in the next game without using the medal owned by the player. Can be set and played.

  The role lottery means 120 is a means provided in the main control device 110, and is for performing a lottery (role lottery) of winning or losing a plurality of roles in response to an operation of the start switch 40. . The role lottery means 120 uses a lottery table for determining whether or not a winning combination has been won as a main classification for a normal state, for a bonus state (RBB state), for an internal winning state (RBB winning state), SB A plurality of devices are provided for each of the devices, and are stored in the ROM of the main controller 110. The role lottery means 120 compares a predetermined lottery data with a random number extracted from random numbers generated by a predetermined random number generator (random number generator circuit) having a loop counter that repeatedly counts integer values within a predetermined range. Then, it is determined whether or not it is won. The process by the combination lottery means 120 is performed in step 113 (see FIG. 14) described later.

  Note that the lottery probability used for the role lottery of the role lottery means 120 is configured to be changeable by the manager of the game hall within a preprogrammed range. Specifically, a plurality of setting values (specifically, by operating a setting change switch (not shown) in the housing 12 for changing a setting value that is a value for defining the lottery probability) Can change the lottery probability by selecting any one of 1 to 6). In the present embodiment, six set values 1 to 6 are provided, and the lottery probability is defined to be advantageous to the player in principle as the set value increases.

  The reel control means 130 is a means provided in the main control device 110, and a start control means 135 for starting the rotation of each rotary reel 62 and a stop control for performing a stop control for stopping the rotation of each rotary reel 62. Means 140. Of the reel control means 130 (start control means 135 and stop control means 140), the stop control means 140 will be described in detail later.

  The normal state control means 160 controls the progress of the normal state. Here, the normal state means a state other than a replay time (RT) by an RT control unit 170 described later and an RBB by a bonus control unit 180. In addition, the winning probability of the re-gamer in the normal state is set lower than the replay time (RT) in the internal winning state (RBB winning state, RT1 state).

In the present embodiment, the RT control means 170 controls the replay time (RT) state.
The bonus control means 180 controls a bonus game, specifically, an RBB state.
The freeze effect control means 230 is for executing a freeze effect that temporarily stops the progress of the game. Specifically, when it is determined that the transition lottery of the transition lottery means 330 is won, the freeze effect control means 230 executes the freeze effect. Note that during the freeze effect, the reel effect execution means 245 may execute a spinning effect that combines rotation, stop, reverse rotation, and the like of the rotary reel 62.

  In the normal state during the AT during the special game (AT), the additional effect determination execution means 390 is performed according to a predetermined trigger (specifically, an operation timing of the start switch 40 in each game in the normal state during the AT). A determination is made by lottery as to whether or not to shift to the extra stage production state during AT (so-called extra game).

  The extra effect determination execution means 390 is a predetermined trigger in the extra game in which the extra effect is executed during the AT (specifically, the trigger of the operation timing of the start switch 40 in each game during the extra game, As a result of the role lottery during the game, a special game (AT) may be used as a trigger to determine whether or not a special game (AT) will be added and the specified number of medals for the special game to be added. It is decided by acquisition lottery).

The special game determining means 200 is used for determining the end of the game section of the special game.
Specifically, the special game determining means 200 is a special game game on the condition that the prescribed number of acquisitions counted by the acquisition prescribed number counting means 210 described later has reached a predetermined number of medals (specifically, 0). End the section.
Note that, when winning a transition lottery of the transition lottery means 330, which will be described later, the special game determination means 200 sets the maximum number of medals that can be acquired during the special game (AT) (initial acquisition prescribed number).
The acquisition specified number counting means 210 is for counting the acquisition specified number by subtraction (or addition) during the game section of the special game.

In the present embodiment, although not particularly illustrated, the acquisition specified number counting means 210 counts and stores the initial acquisition specified number (120) that is initially set as the number of medals that can be acquired as a special game. Both counting means and counting means for counting and storing the number of acquired special games (additional acquisition specified number) acquired by the extra game are included.
Each earned specified number counting means 210 is not particularly shown, but each time a medal is paid out, a calculating means for subtracting the payout number from the acquired specified number, and a memory for storing a numerical value calculated by the calculating means. Means.

Further, the acquisition specified number counting means 210 may count and store the total acquisition specified number obtained by adding up both the above-described initial acquisition specified number and the additional acquisition specified number.
In addition, the initial acquisition specified number is set in advance to 120, but is not particularly limited to this, and may be less than 120 or more than 120. In addition, the specified number of initial acquisitions may be determined each time by lottery using random numbers.
In addition, the acquisition specified number counting means 210 is not limited to the one that subtracts the number of payouts from the initial acquisition specified number as described above, and every time a medal is paid out to the player, The special game determination means 200 may determine that the special game is to be terminated when the predetermined acquisition specified number is reached by adding the payout number.

The acquisition specified number counting means 210 counts the number of payouts acquired during the extra game when the special game shifts to the extra game, but is not particularly limited to this. The payout may not be counted.
The special game determination means 200 determines the end of the game section of the special game on the condition that the acquisition specified number counted by the acquisition specified number counting means 210 has reached a predetermined number (specifically, 0 times).

  That is, the number of sheets counted by the acquisition specified number counting means 210 during the game section of the special game is a direct parameter for determining the end of the AT game section as the special game. The special game determination means 200 determines whether or not to determine the end of the game section of the special game depending on whether or not the number of acquired medals has reached the maximum medal number that can be acquired in the special game.

  Note that, as described above, the number of medals acquired (specified number of acquisitions) is used as a parameter for determining the game section of the special game, but this is not necessarily limited thereto. Other parameters may be used as long as they can be parameters that ultimately determine the game section of the special game (influence the length of the game section (which affects and limits the length)). Specifically, the number of direct games may be used as the parameter. The maximum number of games that can be executed during an AT as a special game (the so-called maximum number of games) is determined, and the AT as a special game is determined by the number of games executed during an AT reaching the maximum number of games. (In this case, the number of games is added, but in the case of subtraction, the number of games executed is subtracted from the maximum number of games, and the value after the subtraction is obtained. May end when the number reaches 0). In addition, other direct or indirect parameters that can determine (limit) the final game section, or a combination of these parameters may be used.

  The reel effect execution means 245 is for executing the reel effect as an additional effect by the rotating reel 62 that is operating as the notification means 70 in the freeze state. This reel effect execution means 245 executes the reel effect of the extra effect.

The payout control means 250 is for performing predetermined processing such as medal payout. The payout control means 250 pays out medals of the payout number determined based on a value such as a specific value (CW) or a specified number (2 or 3) described later.
The transfer lottery means 330 performs a transfer lottery during non-AT using a predetermined transfer lottery probability, and determines whether or not to shift to the AT state as a special game by lottery (transfer lottery). It is. Specifically, the transfer lottery means 330 is set to perform a transfer lottery in each game during non-AT. Of course, the trigger for carrying out the transfer lottery is not limited to this, but other predetermined triggers (for example, the timing at which a predetermined state starts or ends, or the timing at which a predetermined number of games have elapsed from a predetermined trigger) , When a predetermined role is won, etc.).

The transmission means 260 is for transmitting a signal to the sub-control device 300.
The sub-control device 300 includes a receiving unit 310 and an AT control unit 320.
The receiving unit 310 receives a signal from the transmitting unit 260.
The AT control means 320 controls the effect in the AT state. Specifically, the AT control means 320 includes a display effect execution means 370.
The display effect executing means 370 is for executing a display effect performed by the display device 84.

Note that these means may be arranged in the main control device 110, and the display effect execution means 370 may be arranged in the main control device 110 instead of the sub control device 300.
With the above configuration, the sub control device 300 receives a signal from the main control device 110 and performs an effect accompanying the progress of the game.

As shown in FIG. 4, the reel control means 130 rotates according to the start control means 135 for starting the rotation of the rotary reel 62, the result of the role lottery of the role lottery means 120 and the stop operation timing of the stop switch 50. Stop control means 140 that performs stop control of the reel 62 is provided.
The start control means 135 is set so as to start the rotation of the all-revolution reel 62 by the operation of the start switch 40 by the player and maintain the rotation speed in a state where a predetermined rotation speed is reached in advance. Yes.

  The stop control means 140 is based on the lottery result of the combination lottery means 120 and the rotation position (stop operation timing of the stop switch 50) of the corresponding rotation reel 62 when each stop switch 50 is operated. Stop rotation of 62. Note that the stop control unit 140 may set a condition for stopping whether or not the order (stop operation order) when each stop switch 50 is operated to stop according to a predetermined condition, if necessary. Processing by the stop control means 140 is performed in step 114 (see FIG. 14) and FIGS.

  The stop control means 140 is information about the stop position of the rotary reel 62 according to the symbol position of the rotary reel 62 when the stop switch 50 is stopped (specifically, the operation position based on the symbol number (frame number)) (specifically, Stop table storage means 400 that stores a plurality of stop tables 440 that have determined the number of sliding frames), table selection means 500 that selects a single stop table 440 to be used from the plurality of stop tables 440, and table selection Reel stop processing means 600 for stopping the rotating reel 62 using a single stop table 440 selected by the means 500 is provided.

  The stop table storage unit 400 includes a plurality of stop tables 440 (specifically, “00”, “01”, “02”,..., Etc., refer to FIG. 12 as a single stop table 440). The stop data table 420 is stored (see FIG. 12). Each stop table 440 includes a symbol number of the rotary reel 62 when the stop switch 50 is stopped, and the number of sliding symbols from the middle stage of each rotary reel 62 (specifically, 0, 1, 2, 3). Etc.) are stored (see FIG. 12).

The table selection means 500 acquires a specific value (specifically, a control word (CW)) corresponding to the result of the winning lottery and the rotating reel 62 on which the stop operation has been performed, and based on this specific value, Ultimately, a single stop table 440 is selected.
The table selection unit 500 includes a specific value acquisition unit 520 that acquires a specific value (CW) corresponding to the result of the lottery drawing and the rotary reel 62 on which the first stop operation (first stop operation) is performed. Pointer determination means 540 that determines a predetermined pointer based on the specific value (CW) and the rotating reel 62 on which the stop operation has been performed, and a new specific value is set as the specific value based on the pointer, A branch process determining unit 560 that determines any one of a plurality of branch processes, such as whether to select the stop table 440, and a non-identical pointer storage table storage unit 580 that stores a non-identical pointer storage table to be described later. And pointer calculation means 590 for calculating other pointers from some pointers of the non-identical pointer storage table.

When a new specific value (CW) is set in the branching process, the pointer determination unit 540 determines a new pointer based on the new specific value (CW) and the rotating reel 62 on which the stop operation has been performed. The branching process is repeated based on this new pointer.
In the branch process, when a new pointer is determined, the branch process is repeated based on the new pointer.
When a single stop table 440 is selected in the branching process, the reel stop processing unit 600 performs the stop process using the selected single stop table 440.
In other words, the table selection unit 500 simply passes through the pointer determination unit 540 and the branch processing determination unit 560 based on the specific value acquired by the specific value acquisition unit 520 and the rotating reel 62 on which the stop operation has been performed. One stop table 440 is determined.

The specific value acquisition means 520 is the result of the winning lottery (specifically, FPH (flag pointer indicating establishment of a winning feature. RBB, etc.) and FPL (a flag pointer indicating a winning combination including a small part)) and a rotating reel 62 (a left rotating reel 64, a middle rotating reel 66, a right rotating reel) on which a first stop operation has been performed. 68) and a specific value acquisition table storing specific values (CW) corresponding to (see FIG. 8). Note that CW, FPH, and FPL are represented by hexadecimal numbers.
Here, the FPH is used as a lottery flag value as a parameter corresponding to the lottery result for each SB of the accessory SB as a plurality of special roles.
The specific value acquisition means 520 acquires a specific value (CW) from the combination lottery result and the rotating reel 62 of the first stop operation using this specific value acquisition table (see FIG. 8).
In the present embodiment, the specific value (CW) is displayed as a1, a2, a3, b1,..., Etc. in FIG. Of course, the specific value is not limited to these hexadecimal numerical values, and may be other numerical values or symbols as long as they are numerical values or symbols arranged in a predetermined order.

  The pointer determination unit 540 is based on the specific value (CW) acquired by the specific value acquisition unit 520 and the rotating reel 62 (left rotating reel 64, middle rotating reel 66, right rotating reel 68) on which the stop operation has been performed. And a pointer determination table 542 (FIG. 9) that stores predetermined pointers. The pointer determination unit 540 uses the pointer determination table 542 to specify the specific value (CW) acquired by the specific value acquisition unit 520 and the rotating reel 62 (left rotating reel 64, middle rotating reel 66) on which the stop operation has been performed. The predetermined pointer is determined based on the right rotation reel 68) (see FIG. 9).

In the present embodiment, this pointer is also formed by a numerical value consisting of hexadecimal numbers. Of course, the pointer is not limited to these hexadecimal numerical values, but other numerical values or symbols. Is also good.
The pointers determined by the pointer determination means 540 are classified into four according to the numerical range. Specifically, the pointer includes a stop table pointer (BTRP) whose numerical value (hexadecimal) range is 0 to 15 (0 or more and 15 or less), and its numerical range is 16 to 4F (16 or more and 4F or less). A transition determination pointer (BTRG), a specific pointer whose numerical range is 50 to FE (50 or more and FE or less) (this specific pointer is finally set as a new specific value CW), The numerical range is classified into four common symbols consisting only of FFs.

Based on the pointer determined by the pointer determination unit 540, the branch processing determination unit 560 determines one of the plurality of branch processes (specifically, four) (step 551 in FIG. 17). reference).
Further, the branch process determining means 560 determines one of a process for transition and a process for not transition based on a transition determination value (a bit of “0” or “1”) described later (see FIG. 17 (see step 555).
The branch process determined by the branch process determining means 560 includes four processes: a first branch process, a second branch process, a third branch process, and a fourth branch process.
The branch process determining unit 560 selects the first branch process when the numerical value of the pointer (hexadecimal number) determined by the pointer determining unit 540 is 50 or more and FE or less. The name of the pointer at this time is a specific pointer (finally a new specific value CW).
In the first branch processing, the pointer (specific pointer) determined by the pointer determination unit 540 is set as a new specific value (CW), and the pointer determination table is set by the pointer determination unit 540 based on the new specific value (CW). A new pointer is determined using 542 (see FIG. 9), and the same branching process is repeated based on this new pointer.

Further, the branch process determining unit 560 selects the second branch process when the numerical value of the pointer (hexadecimal number) determined by the pointer determining unit 540 is 0 or more and 15 or less. The name of the pointer at this time is a stop table pointer (BTRP).
In the second branch process, a single stop table 440 is selected using the stop data table (see FIG. 12) based on the pointer (stop table pointer (BTRP)) determined by the pointer determination means 540.

Further, the branch process determining unit 560 selects the third branch process when the numerical value of the pointer (hexadecimal number) determined by the pointer determining unit 540 is 16 or more and 4F or less. The name of the pointer at this time is a transition determination pointer (BTRG).
In the third branch process, the symbol position of the rotating reel 62 when the stop switch 50 is stopped is acquired, and this symbol position and the pointer determined by the pointer determination means 540 (transition determination pointer (BTRG)) are used. A determination as to whether or not to shift a specific value to a new specific value, so-called specific value shift determination, is performed using the shift determination data table (see FIG. 11).

Here, the branch process determining means 560 has two tables, a transition determination related table (see FIG. 10) and a transition determination data table (see FIG. 11), for performing the branch process.
The transition determination related table (see FIG. 10) is a result of the transition determination pointer (BTRG) and the determination as to whether or not to shift the specific value to the new specific value (specific value transition determination). It shows the relationship between the migration table pointer (migration P) and the stop table pointer (BTRP) used when migrating to. The branch process determination means 560 uses the transition determination related table to obtain the transition table pointer (transition P) in the transition determination pointer (BTRG) and the stop table pointer (BTRP) in the transition determination pointer (BTRG).

The transition determination data table (see FIG. 11) is based on the symbol number (symbol position) when the stop switch 50 is stopped and the transition table pointer (transition P) collected from the transition determination related table (see FIG. 10). This indicates the determined transition determination value (“0” or “1”).
When the transition determination value determined by the symbol number when the stop switch 50 is operated and the transition table pointer (transition P) is “0”, the specific value is shifted to a new specific value. Specifically, the specific value (CW) is updated (rewritten) to a value obtained by adding “1” to the current specific value (CW).
When the transition determination value determined by the symbol number when the stop switch 50 is operated and the transition table pointer (transition P) is “1”, the specific value is not shifted to a new specific value.

When the specific value shifts to a new specific value as a result of the specific value transition determination in the third branch process, a new pointer is determined by the pointer determination unit 540 based on the new specific value, and the new value is determined. The branch process is repeated based on the pointer.
Specifically, when the specific value is transferred to a new specific value as a result of the specific value transition determination (when “0” is established as the transition determination value in the transition determination data table), the current specific value is determined. A value obtained by adding a predetermined numerical value (specifically, “1”) to (CW) is set as a new specific value (CW). Based on the new specific value (CW), the pointer determination unit 540 A new pointer is determined, and branch processing is repeated based on this pointer.
On the other hand, in the third branching process, if the specific value is not transferred to a new specific value as a result of the specific value shift determination (when “1” is established as the shift determination value in the shift determination data table), the pointer (Transition determination pointer (BTRG)) is rewritten with another pointer (stop table pointer (BTRP)), and a single stop table 440 determined using the other pointer (stop table pointer (BTRP)) is used. The
In the fourth branch process, when the pointer determined by the pointer determination unit 540 is a common symbol FF of a non-identical part described later, a new pointer is determined using a non-identical pointer storage table (see FIG. 13) described later. (Specifically, it is rewritten with a new pointer).
In this fourth branch process, when the non-identical common symbol FF is rewritten to a new pointer using the non-identical pointer storage table, the same branch process is further repeated based on the new pointer. Has been.

The non-identical pointer storage table storage means 580 is used in the fourth branch process and has a non-identical pointer storage table (see FIG. 13) described later.
In the non-identical pointer storage table shown in FIG. 13, the numerical values of all the pointers are displayed, but actually only a part of the data is stored, and the other remaining data is stored by the pointer calculation means 590 described later. It is calculated using a predetermined calculation formula.
When the lottery flag value (FPH) in each SB and each pointer are arranged according to a predetermined rule, the data is compressed using the predetermined rule. In addition, the thing which cannot arrange the numerical value of a pointer according to a predetermined rule (those which cannot perform data compression) stores the numerical value as it is.
A lottery flag value (FPH) consisting of hexadecimal numbers is provided as a parameter corresponding to the lottery result for each SB of the accessory SB as a plurality of special combinations (see FIG. 13).
In the non-identical pointer storage table, a reference combination serving as a pointer reference is provided in a plurality of SBs. Specifically, in the present embodiment, one of “05” (hexadecimal number) is provided as a reference combination as a lottery flag value (FPH). This reference combination serves as a reference in a plurality of lottery flag values (FPH) in which the pointers are arranged according to a predetermined rule.
Specifically, in the non-identical pointer storage table where data compression is possible as described above, each lottery flag value (FPH) of the plurality of SBs and the pointer for each rotating reel 62 that has been stopped in the reference combination are stored in advance. The pointers stored in each SB other than the reference combination are formed so as to be calculated by a calculation formula for each rotating reel 62 stopped by a pointer calculation means 590 described later. That is, in an area where data compression is possible, the pointer for each of the rotating reels 62 other than the reference combination is set so that it can be calculated from the reference combination pointer and the FPH (specifically, the FPH difference described later). . Of course, if it is not necessary to consider data compression, all pointer data may be stored from the beginning without performing such processing.
Of course, the setting of the reference combination is not limited to this. For convenience of data compression, it is provided as described above, and the reference role is set to another FPH (for example, the middle of a plurality of regularly arranged FPHs, the last of a plurality of regularly arranged FPHs, etc.). Other pointers may be calculated by appropriately adjusting the calculation formula using (numerical value).
The pointer calculation means 590 calculates other pointers from predetermined pointer data stored in the non-identical pointer storage table used in the fourth branch process, using a predetermined calculation formula.

In the fourth branching process, the pointer calculation means 590 determines a difference (FPH difference) between the lottery flag value (FPH) of each SB and the standard combination lottery flag value (FPH) for each stopped rotating reel 62. (Specifically, L: an equation for calculating the quotient obtained by dividing the FPH difference by 10 (hexadecimal number) in the case of the left rotating reel 64, C: the FPH difference of 4 in the case of the intermediate rotating reel 66. Divide by (hexadecimal number) and calculate the remainder when the quotient is further divided by 4 (hexadecimal number). R: In the case of the right rotation reel 68, calculate the remainder by dividing the FPH difference by 4 (hexadecimal number). Adds the pointer of the reference combination (specifically, L “19”, C “15”, R “15”) (hexadecimal number) of the reference combination FPH “05” to the value calculated by substituting it into the expression) By doing so, the pointer of each special combination is calculated (see FIG. 18).
The pointer calculation means 590 uses the lottery flag values (FPH) of the plurality of SBs stored in the non-identical pointer storage table and the pointer for each rotating reel 62 that has been operated to stop the reference combination. The numerical value of the pointer is calculated by a calculation formula for each rotating reel 62 that has been stopped.
Specifically, in the fourth branch process, the pointer calculation means 590 subtracts the lottery flag value (FPH “05”) of the reference combination from the lottery flag value (FPH) of the SB that is the current gaming state, and the FPH difference Is calculated.
When the stopped reel 62 is the counterclockwise reel 64, the pointer calculation means 590 adds the quotient obtained by dividing the FPH difference by 10 (hexadecimal number) and the reference role pointer, and adds the added value to the new value. A transition determination pointer (BTRG).
When the stopped reel 62 is the middle reel 66, the pointer calculation means 590 divides the FPH difference by 4 (hexadecimal) and further divides the quotient by 4 (hexadecimal), The pointer is added, and the added value is used as a new transition determination pointer (BTRG).
When the stopped rotation reel 62 is the right rotation reel 68, the pointer calculation means 590 adds the remainder obtained by dividing the FPH difference by 4 (hexadecimal number) and the reference role pointer, and adds the added value to the new value. A transition determination pointer (BTRG).
In the fourth branch process, the branch process by the branch process determining means 560 is repeated again by this new transition determination pointer (BTRG) (see FIGS. 17 and 18).

The reel stop processing means 600 is for performing the stop processing of the rotary reel 62 by using the single stop table 440 selected by the table selection means 500. Specifically, the reel stop processing means 600 is described in the single stop table 440. The rotating reel 62 is rotated by the number of sliding symbols that is being operated (specifically, the number of sliding symbols at the position of the symbol number at the timing of the stop operation), and then the rotation is stopped.
As shown in FIG. 5, the pointer determination table 542 (see FIG. 9) stored in the pointer determination means 540 shares one of the plurality of special roles in order to determine the pointers of the plurality of special roles. A common table portion 546 defined as a special role and a non-common table portion 544 other than the common table portion 546 (see FIG. 9). The common table unit 546 collects a plurality of special value (CW) values of special roles and pointer data corresponding to the stopped rotating reel 62 as representative data of one special role.
In the common table unit 546, corresponding pointers between a plurality of special roles are the same, and the same unit 548 that stores the pointers and some of the corresponding pointers between the plurality of special roles are not the same. , And a non-identical part 550 that stores a common symbol (common symbol FF) (see FIG. 9).

Here, when the table selection means 500 wins any one of the SBs SB (SB1 to SB64) as a special combination as a result of the combination lottery, the specific value (CW) and the rotation that has been stopped are performed. When the location of the pointer determination table 542 corresponding to the reel 62 is the same portion 548, a single stop table 440 is selected based on the pointer stored in the same portion 548, and a specific value ( CW) and when the location of the pointer determination table 542 corresponding to the stopped rotating reel 62 is the non-identical portion 550, the pointer is determined using the non-identical pointer storage table, and the pointer is determined based on the pointer. The stop table 440 is selected.
As shown in FIG. 6, the transition states in the main control device 110 include a normal state, an internal winning state (RT1 state, RBB winning state), a bonus state (RBB state), and an SB state.

  The normal state is controlled by the normal state control means 160. When the bonus (RBB) is won by the winning lottery by the winning lottery means 120 in the normal state or the SB state, the normal state or the SB state is shifted to the internal winning state (the RT1 state, the RBB winning state). In this internal winning state (RT1 state, RBB winning state), the replay lottery probability is higher than in the normal state.

  The RT state in the internal winning state (RT1 state, RBB winning state) is a state in which replay controlled by the RT control means 170 is won with high probability. In the RT state, when the combination of the RBB bonus transition symbols 61 (for example, “special symbol 2 (B2), red 7 (R7), red 7 (R7))” is aligned, the RBB winning state, so-called RT1 The bonus state (RBB state) is controlled by the bonus control means 180. In this bonus state (RBB state), the replay lottery probability is set to zero. Yes.

When a predetermined number, for example, 26 sheets are paid out in the bonus state (RBB state), the state shifts from the RBB state to the normal state.
The SB state is a so-called single bonus, which can be shifted from the normal state, and is played only once, and if it is not won even if it is won, the right to win (winning flag) It is not carried over to the game.
In the present embodiment, the main control device 110 is in a state other than the RBB state and the SB state (that is, the normal state and the internal winning state), and the sub control device 300 is in a state other than the AT state (that is, the non-AT state). State) is a normal game.

As shown in FIG. 7, the transition state (effect state) during the special game (AT) includes two states, a normal state during AT and an additional effect state during AT.
When shifting to a special game (AT), the normal state is set during AT. In the normal state during AT, if the winning effect determination execution means 390 is selected to shift to the adding effect state during AT in the lottery of whether or not to shift to the adding effect state during AT, if the winning effect is determined to enter the adding effect state during AT Transition is determined, and the transition to the extra performance state (additional game) during the AT is performed.

It should be noted that the special game (AT) is set to end when it is determined that the end condition has been achieved when a predetermined number of medals (prescribed acquisition number) is paid out.
The extra game is executed in the extra stage during AT.
As shown in FIG. 8, the specific value acquisition table includes the result of the winning lottery (specifically, the FPH (flag pointer indicating the establishment of the accessory (lottery flag value)) and FPL (the winning combination including the small part). And a specific value (CW) corresponding to the rotating reel 62 (L: left rotating reel 64, C: middle rotating reel 66, R: right rotating reel 68) on which the first stop operation has been performed. Is set. This specific value acquisition table is stored in the specific value acquisition means 520. A specific value (CW) is acquired by the specific value acquisition means 520 from the combination lottery result and the rotating reel 62 of the first stop operation using this specific value acquisition table.

  As shown in FIG. 9A, the pointer determination table 542 includes a specific value (CW) and a rotating reel 62 (L: left rotating reel 64, C: middle rotating reel 66, R: right) on which a stop operation has been performed. A predetermined pointer is set based on the rotating reel 68). This pointer determination table 542 is stored in the pointer determination means 540. By using this pointer determination table 542, the pointer determination means 540 is used to specify the specific value (CW) and the rotating reel 62 (left rotating reel 64, middle rotating reel 66, right rotating reel 68) on which the stop operation has been performed. Based on this, a predetermined pointer (hexadecimal number) is determined. The pointers in the pointer determination table 542 are classified into four according to the numerical range. Specifically, the pointer includes a stop table pointer (BTRP) whose numerical value (hexadecimal) range is 0 to 15 (0 or more and 15 or less), and its numerical range is 16 to 4F (16 or more and 4F or less). A transition determination pointer (BTRG) and a specific pointer whose numerical range is 50 to FE (50 or more and FE or less) (this specific pointer is finally set as a new specific value (CW)) , The numerical range is classified into four in the case of the common symbol having only FF.

  As shown in FIG. 9A, the pointer determination table 542 uses one of the plurality of combinations SB as a common combination SB in order to determine the pointers of the plurality of combinations SB (SB1 to SB64). A common table section 546 that is defined and a non-common table section 544 other than the common table section 546 are provided. In the common table unit 546, pointers corresponding to each other between the plurality of SBs (SB1 to SB64) are the same, and the same unit 548 that stores the pointers and pointers corresponding to the plurality of accessory SBs (SB1 to SB64). A part of them is not identical, and a non-identical part 550 that stores a common symbol FF instead of a pointer is provided. For example, the same unit 548 has a pointer “8E” when the specific value (CW) is “AC” and the stopped rotating reel 62 is the middle rotating reel 66, and a pointer “95” when the rotating reel 62 is the right rotating reel 68. Etc. Further, the non-identical portion 550 is, for example, a pointer “FF” when the specific value (CW) is “A8” and the stopped rotation reel 62 is the left rotation reel 64, or the specific value (CW) is “A9”. ”And the pointer“ FF ”or the like when the stopped rotating reel 62 is the middle rotating reel 66.

FIG. 9B shows a pointer determination table 542 when the common table unit 546 is not provided in order to compare the degree of data compression in FIG. In FIG. 9B, a portion indicated by a dotted line as SB1 is an area in which a pointer is stored when the gaming state is SB1, and a portion indicated by a dotted line as SB2 is a gaming state is SB2. In this case, an area where pointers are stored is stored, and below that, the same areas up to SB3, SB4,. In FIG. 9B, the areas provided in SB1, SB2,..., SB64 are represented by only the area indicated by a dotted line as a common table portion 546 in FIG. .
Specifically, in the pointer determination table 542, a capacity of 1 byte is required to store one pointer as data. In FIG. 9B, 45 bytes are required to store the SB1 pointer, and 45 bytes × 64 pointers are required to store the pointers from SB1 to SB64, which requires a total storage capacity of 2880 bytes. .
On the other hand, in FIG. 9A, since the data from SB1 to SB64 are collected in one area (dotted-line square part) as the common table part 546, the storage capacity is only 45 bytes. That is, by providing the common table unit 546, the storage capacity is greatly reduced as compared with the case where the common table unit 546 is not provided.

Here, in each of the SBs (the accessories SB1 to SB64), the non-identical portion 550 is set so that the pointers determined for each of the rotating reels 62 that have been stopped are the same.
Specifically, when the location where the common symbol FF that is the non-identical portion 550 of the left rotating reel 64 in FIG. 9A is stored is confirmed in SB1 in FIG. 9B, the specific value (CW) Are stored in the same pointer “19” in “A8, AE, B0, B3, B5”. Further, when the location where the common symbol FF that is the non-identical portion 550 of the middle rotating reel 66 of FIG. 9A is stored is confirmed in SB1 of FIG. 9B, the specific value (CW) is “A9”. , AB, AD, B3, B5 ”all store the same pointer“ 15 ”. Further, when the location where the common symbol FF that becomes the non-identical portion 550 of the right rotating reel 68 in FIG. 9A is stored is confirmed in SB1 in FIG. 9B, the specific value (CW) is “A9”. , AB, AE, B0, B2 ”all store the same pointer“ 15 ”. That is, in SB1, the pointers entering the common symbol FF of the non-identical part 550 are combinations of “19”, “15”, and “15” in the order of the left rotating reel 64, the middle rotating reel 66, and the right rotating reel 68. This combination of pointers can be found in the field where the lottery flag value (FPH) corresponding to the result lottery result of the non-identical pointer storage table (FIG. 13) described later is “05” (L, C, R) = (19 , 15, 15).

Further, when the location where the common symbol FF that becomes the non-identical portion 550 of the left rotating reel 64 in FIG. 9A is stored is confirmed in SB2 in FIG. 9B, the specific value (CW) is “B7”. , BD, BF, C2, C4 "all store the same pointer" 19 ". Further, when the location where the common symbol FF that becomes the non-identical portion 550 of the middle rotating reel 66 in FIG. 9A is stored is confirmed in SB2 in FIG. 9B, the specific value (CW) is “B8”. , BA, BC, C2, C4 ”all store the same pointer“ 15 ”. Further, when the location where the common symbol FF that becomes the non-identical portion 550 of the right rotating reel 68 in FIG. 9A is stored is confirmed in SB2 in FIG. 9B, the specific value (CW) is “B8”. , BA, BD, BF, C1 ”all store the same pointer“ 16 ”. That is, in SB2, the pointers entering the common symbol FF of the non-identical part 550 are combinations of “19”, “15”, and “16” in the order of the left rotating reel 64, the middle rotating reel 66, and the right rotating reel 68. This combination of pointers is displayed in the field where the lottery flag value (FPH) corresponding to the result lottery result of the non-identical pointer storage table (FIG. 13) described later is “06” (L, C, R) = (19 , 15, 16).
As described above, the same pointer determined for each SB and for each stopped rotating reel 62 is stored as one pointer in the non-identical pointer storage table described later (for example, “19”).

Note that, as shown in FIG. 9A, the notation of the pointer or the like of the left rotating reel 64 with the specific value (CW) “93” is “−”, but this is “unused”. Yes, meaning "cannot be selected" (the same applies to other "-"). Here, when this “−” is provided in a plurality of different specific values (CW), the data can be compressed by combining them. For example, each pointer of the left rotation reel 64, the middle rotation reel 66, and the right rotation reel 68 of one specific value (CW) is “pointer A”, “pointer B”, and “−”, and the other specific value When the pointers of the left rotation reel 64, middle rotation reel 66, and right rotation reel 68 of (CW) are “−”, “−”, and “pointer C”, these two specific values (CW) The pointer data of the left rotation reel 64, the middle rotation reel 66, and the right rotation reel 68 are collected as pointer data of one specific value (CW) such as “pointer A”, “pointer B”, and “pointer C”. Can be memorized. As a result, the data of the pointer can be compressed, and the storage capacity (memory) can be saved.
As shown in FIG. 10, in the transition determination related table, a transition table pointer (transition P) and a stop table pointer (BTRP) are associated with each other in relation to the transition determination pointer (BTRG).

  When the branch process determination means 560 obtains the transition table pointer (transition P) in the transition determination pointer (BTRG) and performs the specific value transition determination, when the specific value is shifted to a new specific value, the specific value ( CW) is updated (rewritten) to a value obtained by adding “1” to the current specific value (CW). Further, when the branch process determining means 560 does not shift the specific value to the new specific value as a result of the specific value transition determination, the stop table pointer (BTRP) in the transition determination pointer (BTRG) is acquired and corresponds to it. The stop table 440 performs stop processing of the rotary reel 62.

Note that the migration table pointer (migration P) in the migration determination related table of FIG. 10 is set so that it can be calculated from the data of the migration determination pointer (BTRG) by a combination of predetermined arithmetic processing and condition determination.
As this calculation process, a process of converting a remainder obtained by dividing a BTRG value by a predetermined number into a BTRP value, or the like is used. Specifically, for example, a process of changing the remainder “02” obtained by dividing “16 (hexadecimal)” (“22” in decimal) by 4 as the BTRG value to “02” of the BTRP value is used. . By such a combination of arithmetic processing and condition determination, the data capacity is reduced by calculating from the BTRG value without storing the BTRP value as data in advance.

Further, in the above-described migration determination related table of FIG. 10, the data of both the migration determination pointer (BTRG) and the migration table pointer (migration P) are displayed (stored) in the same state. May occur in places that are the same or non-identical. When the values of the migration determination pointer (BTRG) and the migration table pointer (migration P) are the same (when they match), only one migration determination pointer (BTRG) is stored, and the other migration table pointer (migration P). May be omitted (data is not stored).
Specifically, for example, as shown in FIG. 10, when the transition determination pointer (BTRG) is “16”, the transition table pointer is also “16” and the numerical value is the same. Only “16” is stored, and “16” of the transition table pointer is not stored, but data “16” stored in the transition determination pointer (BTRG) is used. As a result, when it is determined that both values are the same by a predetermined flag or the like, the data of the transfer determination pointer (BTRG) is used as it is as the transfer table pointer (transfer P), so that the data is shared. The storage capacity (memory) can be saved. Note that the data to be stored may be reversed, and the transition determination pointer (BTRG) may be omitted and only the transition table pointer (transition P) may be stored.

  Here, in the migration determination related table shown in FIG. 10, a so-called front-alignment is performed so that the frequently used migration determination pointer (BTRG) is arranged on the head side of data (the earlier order in which the program processing is performed). doing. When executing a program, it is possible to increase the execution processing speed of the program by locating frequently used data on the top side in order to determine whether or not it corresponds to the data on the top side. Further, when arranging these data, if the data is repeatedly generated in a predetermined pattern as described above, the data can be shared and used as described above. For this reason, when the data of the migration determination related table shown in FIG. 9 is arranged, such data is arranged so that it is repeatedly generated, and further, such repeated data is set to be arranged on the head side. Yes. Thereby, the execution processing speed can be further increased.

In the transition determination data table shown in FIG. 11, the symbol number (symbol position) when the stop switch 50 is operated to stop and the transition table pointer (transition P) collected from the transition determination related table (see FIG. 10), A transition determination value (“0” or “1”) is determined.
The branch process determining means 560 uses the transition determination data table in the third branch process to determine the transition determination value determined by the symbol number when the stop switch 50 is operated and the transition table pointer (transition P). In the case of “0”, the specific value is shifted to a new specific value. Specifically, the updated value obtained by adding 1 to the current specific value (CW) is used as the new specific value (CW) (rewritten).

  The branch process determining means 560 uses the transition determination data table in the third branch process to determine the transition determination value determined by the symbol number when the stop switch 50 is operated and the transition table pointer (transition P). In the case of “1”, the specific value is not shifted to a new specific value.

  When storing a symbol number (symbol position) and corresponding data (specifically, data consisting of “0” and “1”), in the conventional (initial) case, the symbol X in FIG. As shown in FIG. 8, eight data (eight types of transition table pointer (transition P) transition determination value “0” or “1”) are stored for each symbol (one frame) of each symbol number (each symbol position). Stored as 1 byte. In this case, when the types of migration table pointers (migration P) increase, a capacity (frame) for eight data must be prepared, and thus a capacity (frame) for data is wasted. Since the type of the migration table pointer (migration P) is not necessarily a multiple of 8, empty data is generated, and the capacity (frame) for the empty data is wasted. In the present embodiment, as indicated by a symbol P in FIG. 10, a total of 8 data (shift determination) for 4 symbols (4 frames) of symbol numbers (symbol positions) of two types of transition table pointers (migration P). Value) is stored as 1 byte. Similarly, as shown by symbols Q, R, S, and T in FIG. 10, a total of 8 symbols for 4 symbols (4 frames) of symbol numbers (symbol positions) of two types of migration table pointers (migration P). Data (migration judgment value) is stored as 1 byte.

  That is, the data of the migration determination values of the two types of migration table pointers (migration P) has a total of 5 bytes including symbols P, Q, R, S, and T. In this way, a total of 8 pieces of data (migration judgment value) for 4 symbols (4 frames) of symbol numbers (symbol positions) of the two types of migration table pointers (migration P) are stored as 1 byte. Thus, even if the type of the migration table pointer (migration P) is added, 8 pieces of data (8 types of migration table pointer (migration P)) for each symbol (one frame) as described above (migration judgment) Compared with the case of storing (value) as 1 byte, it is possible to suppress the waste of capacity (frame) for empty data. Note that the above-described configuration is possible because the symbol number (symbol position) of the present embodiment is a total of 20 symbols (20 frames) from 0 to 19.

As shown in FIG. 12, the stop data table 420 includes a plurality of stop tables 440 (specifically, “00”, “01”, “02”,..., Etc. of the stop table 440). Yes. A numerical value such as “00” in the stop table 440 is a numerical value of the stop table pointer (BTRP). Each stop table 440 includes a symbol number of the rotary reel 62 when the stop switch 50 is stopped, and the number of sliding symbols (specifically, 0, 1, 2,. 3) and so on.
Specifically, for example, when the stop table pointer (BTRP) is “01” using the left rotating reel 64, “01” in the stop table 440 is selected, and the stop switch 50 at that time is stopped. When the symbol number of the middle position when operated is “6”, the stop data table 420 indicates that the number of sliding frames is “0”, and it stops as it is without moving (sliding). , “Bell (BE)” stops at the middle position. If the symbol number at the middle position when the stop operation is “10” in “01” of the stop table 440, the stop data table 420 sets the number of sliding frames to “4” and 4 frames. The rotational movement (sliding) stops, and the symbol number “6” “BE” stops at the middle position.
In the stop data table 420 shown in FIG. 12, the number of sliding frames is shown for easy understanding, but actually, the numerical value of the number of sliding frames is not stored in each column. On the actual data, the bit display of “0” and “1” is made, the symbol position that can be stopped is “1”, and the symbol position that cannot be stopped is “0”. Based on the bit display, the number of frames that can be stopped is rotated. Of course, the present invention is not limited to this, and the numerical value of the number of sliding frames may be directly stored, and the rotary reel 62 may be rotated and moved by the number of symbols (number of frames).

As shown in FIG. 13, the non-identical pointer storage table stores the common symbol FF in the non-identical portion 550 corresponding to the result of the lottery (lottery flag value (FPH)) and the stopped rotating reel 62. Stores a pointer for rewriting for each role.
The FPH in the left column in FIG. 13 is a so-called lottery flag value, which is a hexadecimal number, and is provided as a parameter corresponding to the lottery result for each SB of the accessory SB as a plurality of special roles. It is. Here, for example, “05” of FPH means the state of SB1, and “06” of FPH means the state of SB2. Similarly, “44” of FPH means the state of SB64. That is, “05” to “44” of the FPH expressed in hexadecimal correspond to SB1 to SB64 on a one-to-one basis.
As already described, in the non-identical pointer storage table according to the present embodiment, all the numerical values of the pointer are finally displayed in FIG. 13, but are stored from the stage before the power is turned on. Data compression is performed by limiting the data to be stored.
Specifically, in the present embodiment, numerical values are stored (stored from the beginning) for pointers in areas where data compression is not performed by the pointer calculation means 590 (for example, FPH is 01 to 04). On the other hand, in the region where the numerical values of the pointers are regularly arranged and can be restored by the calculation formula by the pointer calculating means 590 (for example, FPH is 05 to 44), each lottery flag value (FPH) of SB and the stop in the reference combination A pointer for each operated rotating reel 62 is stored in advance, and the other pointers are formed so as to be calculated by a calculation formula for each rotating reel 62. In addition, the area | region which performs the data compression mentioned above is not limited to what was mentioned above.

Based on the flowchart shown in FIG. 14, a general game control process executed by the main controller 110 for each game will be described.
In step 112, the main controller 110 determines whether or not the start switch 40 has been operated. Here, if it is determined that the start switch 40 has been operated, the main controller 110 makes it impossible to set the number of bets. Thereafter, the process proceeds to the next step 113. On the other hand, if it is determined that the start switch 40 has not been operated, step 112 is again performed.

  As a premise of this step 112, a betting number setting process is performed. In this betting number setting process, it is determined whether or not a prescribed betting number is set as the betting number. Specifically, the main controller 110 determines whether or not the number of medals set as the number of bets on the game has reached a specified number of bets (2 or 3).

  In step 113, the role lottery means 120 performs a role lottery process. At this time, the result of the winning lottery is transmitted from the main control device 110 to the sub-control device 300. Further, the transfer lottery means 330 performs a transfer lottery process. When these processes are completed, the process proceeds to the next step 114.

In step 114, rotation variation processing of the rotary reel 62 in the reel unit 60 is performed. After the rotation reel 62 reaches a predetermined rotation speed, if the stop switch 50 corresponding to the rotating rotation reel 62 is operated by the main control device 110, the stop control means 140 causes the rotation control of each rotation reel 62. The rotation is stopped. The stop operation order corresponding to the winning combination of the stop switch 50 (left stop switch L, middle stop switch C, right stop switch R) at this time is stored in a predetermined storage area formed in the main control device 110. Then, it is read in the subsequent processing.
In addition, after all stop operations are completed, the rotation stop information of all the rotation reels 62 is transmitted from the transmission unit 260 of the main control device 110 to the reception unit 310 of the sub control device 300. Then, when the rotation variation process for all the rotary reels 62 is completed, the process proceeds to the next step 115.

  In step 115, the payout control means 250 performs a payout process corresponding to the payout number of medals determined based on the specific value (CW) or the like. In the case where payout is not required, payout processing is not performed. Then, the process ends.

In the flowchart shown in FIG. 14, the description has been made over the entire general game control process, but in the flowcharts shown in FIGS.
The first stop operation process will be described based on the flowchart shown in FIG.
First, in step 311, the player operates the start switch 40 to be turned on. Then, the process proceeds to next Step 312.
In step 312, the role lottery means 120 performs a role lottery process. Then, the process proceeds to next Step 313.

In step 313, rotation of the rotary reel 62 in the reel unit 60 is started. Then, when the rotation speed of the rotary reel 62 reaches a predetermined rotation speed, the rotation becomes steady. Then, the process proceeds to next Step 314.
In step 314, the player operates the stop switch 50 serving as the first stop operation, so that the stop switch 50 serving as the first stop operation is activated (turns on). Then, the process proceeds to next Step 315.
In step 315, the specific value acquisition means 520 acquires a specific value (CW) corresponding to the result of the lottery and the rotating reel 62 of the first stop operation. Then, the process proceeds to next Step 316.

In step 316, various processes corresponding to the specific value (CW) acquired by the specific value acquisition means 520 and the rotating reel 62 that has been stopped are performed. Eventually, a single stop table 440 is selected. The contents of these various processes will be described later in detail. Then, the process proceeds to next Step 317.
In step 317, the reel stop processing unit 600 performs the stop process of the rotary reel 62 in the first stop operation using the selected single stop table 440. Specifically, the rotary reel 62 is rotated by the number of sliding frames calculated by the selected stop table 440. Then, the process ends.

The second stop operation process and the third stop process will be described based on the flowchart shown in FIG.
In the second stop operation process, the final specific value (CW) of the first stop operation process is used as the current specific value (CW), and in the third stop process, the final specific value of the second stop operation process is used. The value (CW) is used as the current specific value (CW).

In step 411, the player operates the stop switch 50, which is the second (in the case of the second stop operation) or the third (in the case of the third stop operation) stop operation, so that the second stop operation is performed. Alternatively, the stop switch 50 as the third stop operation is activated (turned on). Then, the process proceeds to next Step 412.
In step 412, various processes corresponding to the current specific value (CW) and the stopped rotating reel 62 are performed. Eventually, a single stop table 440 is selected. The contents of these various processes will be described later in detail. Then, the process proceeds to next Step 413.

In step 413, stop processing of the rotating reel 62 by the second stop operation or the third stop operation is performed. Using the selected single stop table 440, the reel stop processing means 600 performs stop processing of the rotary reel 62 in the second stop operation or the third stop operation. Specifically, the rotary reel 62 is rotated by the number of sliding frames calculated by the selected stop table 440. Then, the process ends. In this flowchart, the second stop operation process is performed when the second stop operation process is performed, and the third stop operation process is performed when the third stop operation process is performed. Both are not mixed.
Based on the flowchart shown in FIG. 17, various processes corresponding to the current specific value (CW) and the stopped rotating reel 62 will be described.

  First, in step 550, the pointer determination means 540 uses the pointer determination table 542 (see FIG. 9) to determine the current specific value (CW) and the type of the rotation reel 62 that has been stopped (left rotation reel 64, medium rotation). Pointers corresponding to the reel 66 and the right rotating reel 68) are determined. Then, the process proceeds to next Step 551.

Based on the pointer determined by the pointer determination unit 540, in step 551, the branch processing determination unit 560 performs a plurality of branch processing (specifically, first branch processing, second branch processing, third branch processing, It is determined which of the four branch processes is a total of four branch processes). At this time, each pointer becomes a predetermined pointer (specific value pointer, stop table pointer (BTRP), transition determination pointer (BTRG), common symbol FF) corresponding to each branch process.
Specifically, it is determined whether the numerical value of the pointer falls within the range corresponding to which branch process. When the hexadecimal number as the pointer is 50 or more and FE or less, it is determined as the first branching process and the process proceeds to Step 557. On the other hand, if the hexadecimal number as the pointer is 0 or more and 15 or less, it is determined as the second branch process and the process proceeds to step 552. On the other hand, if the hexadecimal number as the pointer is 16 or more and 4F or less, it is determined as the third branch process and the process proceeds to step 554. If the hexadecimal number as the pointer is the common symbol FF, it is determined as the fourth branch process, and the process proceeds to step 610 (FIG. 18).

  If it is determined in step 551 that the hexadecimal value as a pointer is 50 or more and FE or less and it is determined that the first branch process is to be executed, in step 557, the current pointer value is set to the current specific value. Set as (CW). Specifically, for example, when the current specific value (CW) is 9B and the stop operation of the middle rotating reel 66 is performed as the second stop operation, the pointer becomes 8B by the pointer determination table 542 (see FIG. 9), and the pointer The numerical value falls within the range of 50 or more and FE or less and is classified into the first branch process, and the current pointer 8B is set to the current specific value (CW). That is, the current specific value (CW) is 8B. Then, the process returns to step 550.

If it is determined in step 551 that the hexadecimal number as the pointer is 0 or more and 15 or less and it is determined that the second branch process is to be executed, in step 552, the stop data table 420 (FIG. 12) is used. , Data of a single stop table 440 corresponding to the pointer (stop table pointer (BTRP)) is acquired. Then, the process proceeds to next Step 553.
In step 553, using the single stop table 440 acquired from the stop data table 420 (FIG. 12), the number of sliding symbols (0, 1, 2, 3, etc.) corresponding to the symbol number at which the stop switch 50 is operated. Is obtained (calculated). Then, the process ends.

  If it is determined in step 551 that the hexadecimal value as a pointer is 16 or more and 4F or less and it is determined to execute the third branch process, in step 554, the transition determination related table (FIG. 10) is used. , Migration data (specifically, migration table pointer (migration P)) corresponding to the pointer (transition determination pointer (BTRG)), and data of the stop table 440 (specifically, stop table pointer (BTRP)) Is acquired. Then, the process proceeds to next Step 555.

In step 555, the branch process determination means 560 determines whether or not to shift the specific value (CW) to a new specific value (CW) (specific value shift determination). Specifically, according to the transition determination data table (FIG. 11), the transition determination value is “0” or “1” depending on the transition table pointer (transition P) and the symbol number where the stop switch 50 is stopped. It is determined whether or not there is. When the transition determination value determined by the transition table pointer (transition P) and the symbol number is “0”, it is determined to “migrate”, and when the transition determination value is “1”, “no transition”. To be determined. If “no shift” is determined by the specific value shift determination, the process proceeds to step 553, and if “transfer”, the process proceeds to step 556.
In step 556, 1 is added to the numerical value (hexadecimal number) of the current specific value (CW), and the numerical value after the addition is set as a new specific value (CW) (updated). Then, the process returns to step 550.

  If it is determined in step 551 that the hexadecimal value as the pointer is the common symbol FF and the fourth branch process is to be executed, the pointer data in the non-identical pointer storage table is determined in step 610 of FIG. It is determined whether or not the lottery flag value (FPH) is compressed. When it is determined that the pointer data is the compressed lottery flag value (FPH) (specifically, for example, when the lottery flag value is determined to be “0B”), the process proceeds to step 612. If it is determined that the pointer data is not the compressed lottery flag value (FPH), the process proceeds to step 611.

  In step 612, the pointer calculation means 590 collects data of “05” (hexadecimal) of the lottery flag value (FPH) of the reference combination.

Next, the pointer calculation means 590 calculates a difference (FPH difference) between the FPH as a result of the combination lottery and the FPH of the reference combination. The FPH difference is calculated by (current FPH based on result of lottery) − (reference role FPH).
Specifically, for example, when the lottery flag value (FPH) described above is “0B” (hexadecimal number), the FPH difference is calculated by (“0B” − “05”) (hexadecimal number), and the result “6” (hexadecimal number).
Next, if the stopped rotating reel 62 is the left rotating reel 64, the process proceeds to step 613. If the rotating reel 62 is the middle rotating reel 66, the process proceeds to step 614, and if it is the right rotating reel 68, the process proceeds to step 615.

  In step 613, a value obtained by adding the quotient obtained by dividing the FPH difference by 10 (hexadecimal) and the pointer of the left rotating reel 64 serving as the reference role (transition determination pointer (BTRG)) is used as a new pointer (transition determination pointer ( BTRG)). In the above example, the quotient obtained by dividing the FPH difference “6” (hexadecimal) by “10” (hexadecimal) is “0” (hexadecimal), and this quotient “0” (hexadecimal) is A value “19” (hexadecimal) added to the pointer “19” (hexadecimal) of the left reel 64 is set as a new pointer. Then, the process returns to step 551 shown in FIG.

  In step 614, the FPH difference is divided by 4 (hexadecimal number), and the remainder obtained by further dividing the quotient by 4 (hexadecimal number) is added to the pointer (transition determination pointer (BTRG)) of the reference center rotating reel 66. The obtained value is set as a new pointer (transition determination pointer (BTRG)). Specifically, for example, in the above-described example, the quotient obtained by dividing the FPH difference “6” (hexadecimal) by “4” (hexadecimal) becomes “1” (hexadecimal), and this quotient “1” (16 The remainder obtained by further dividing (hexadecimal number) by 4 (hexadecimal number) becomes “1” (hexadecimal number), and this remainder “1” is added to the pointer “15” (hexadecimal number) of the reference center rotating reel 66 “16” (hexadecimal number) is set as a new pointer. Then, the process returns to step 551 shown in FIG.

  In step 615, a value obtained by adding the remainder obtained by dividing the FPH difference by 4 (hexadecimal number) and the pointer (shift determination pointer (BTRG)) of the right rotating reel 68 serving as the reference role is used as a new pointer (transfer determination pointer ( BTRG)). Specifically, for example, in the above-described example, the remainder obtained by dividing the FPH difference “6” (hexadecimal) by “4” (hexadecimal) becomes “2” (hexadecimal), and this remainder “2” (16 (Hexadecimal number) and a value “17” (hexadecimal number) added to the pointer “15” (hexadecimal number) of the right rotating reel 68 of the reference combination are set as a new pointer. Then, the process returns to step 551 shown in FIG.

  On the other hand, if it is determined in step 610 that the pointer data is not the compressed lottery flag value (FPH), since the pointer as data is stored from the beginning in step 611, the rotation that has been stopped with the FPH is performed. A new pointer (transition determination pointer (BTRG)) corresponding to the reel 62 is collected. Then, the process returns to step 551 shown in FIG.

  In the above-described example, the calculation is performed using the calculation formulas for the left rotation reel 64 (step 613), the middle rotation reel 66 (step 614), and the right rotation reel 68 (step 615) when the FPH is “0B” (hexadecimal number). The result is “19, 16, 17” (hexadecimal number), which is displayed as a pointer in the FPH “0B” (hexadecimal number) column of the non-identical pointer storage table shown in FIG. Similarly, the pointers of the other data-compressed fields are also the pointer values shown in FIG. 13 by the above-described calculation procedure.

In the present embodiment, the specific value acquisition means 520 acquires a specific value (CW) corresponding to the result of the winning lottery and the rotary reel 62 on which the first stop operation (first stop operation) has been performed.
Then, the pointer determination unit 540 determines a pointer based on the specific value (CW) acquired by the specific value acquisition unit 520 and the rotating reel 62 on which the stop operation has been performed.
Then, the pointer determination unit 540 determines a pointer as a new parameter based on the specific value (CW) and the rotating reel 62 on which the stop operation has been performed. Based on this pointer, a single stop table 440 is selected, and stop processing is performed using this stop table 440.
That is, finally, when a specific value (CW) corresponding to the result of the lottery drawing and the rotating reel 62 on which the stop operation has been performed is acquired, the pointer is determined based on the specific value (CW) Thus, a single stop table 440 is determined.

  Thus, there is no need for all patterns of the stop table 440 corresponding to the stop operation order for each rotary reel 62 in accordance with the winning combination. For example, when the bell role is a winning combination, when the left rotating reel 64 is stopped first (first stopping operation), the middle rotating reel 66 is then stopped second (second). The total number of stop tables 440 is compared to that having the respective stop tables when the third stop operation (third stop operation) of the right rotation reel 68 is performed next. Can be reduced. Since the number of types of the stop table 440 can be reduced, the overall data capacity in the stop control of the rotary reel 62 can be reduced.

  Further, throughout the stop control, a single stop table 440 is finally selected via a pointer using a parameter called a specific value (CW). When selecting a single stop table 440 from a plurality of stop tables 440 that can be stopped, a predetermined lottery is performed, or a priority order for selecting a single stop table 440 is determined. Processing such as calculating a parameter (for example, a profit amount given to the player such as the number of medals paid out) is not performed. That is, the stop control process can be made more efficient by using a parameter called a specific value throughout the stop control as compared to the stop control using many such parameters and going through many steps.

Further, in the present embodiment, a common table defined as one common SB among the plurality of SBs without providing a stop table for each SB of the plurality of special features SB (SB1 to SB64). A portion 546 is provided. The common table unit 546 includes an identical unit 548 in which pointers are the same among a plurality of SBs, and a non-identical unit 550 in which some of the pointers are non-identical and the common symbol FF is stored.
Then, when referring to the same unit 548, the table selection unit 500 selects a single stop table 440 based on the pointer stored in the same unit 548.

In addition, when referring to the non-identical part 550, the table selection means 500 stores data (pointer) stored in a non-identical pointer storage table for rewriting the common symbol of the non-identical part 550 to a pointer for each special role. ) To select a single stop table 440.
In the present embodiment, a table for storing pointers used for a plurality of SBs is not provided for each SB, and the same unit 548 and the non-identical unit 550 are used to be used in common as a table for a plurality of SBs. A common table portion 546 that can be used is provided.
As a result, when the corresponding pointers are the same, it is not necessary to repeatedly store the data of the same pointer by using the data stored in the same unit 548 in common. Waste can be eliminated, data capacity can be reduced, and storage capacity (memory) can be saved.

In addition, even if there is a portion where the pointer data is different among a plurality of SBs, it is possible to use a pointer stored individually in the non-identical pointer storage table via the common symbol FF of the non-identical portion 550. can do.
In the present embodiment, in each SB, the non-identical portion 550 is set such that the pointers determined for each stopped rotating reel 62 are the same. Thereby, pointers at a plurality of locations in the non-identical portion 550 can be stored as one identical pointer. As a result, the same pointer is not repeatedly stored and the data capacity is not wasted, the data capacity can be compressed, and the storage capacity (memory) can be saved.

  In the present embodiment, the pointer determination unit 540 determines the pointer based on the specific value (CW) acquired by the specific value acquisition unit 520 and the rotating reel 62 on which the stop operation has been performed. If the pointer is the common symbol FF of the non-identical part 550, a new pointer is determined using the non-identical pointer storage table. Based on the pointer or the new pointer, the branch process determining means 560 selects one of the four branch processes of the first branch process, the second branch process, the third branch process, and the fourth branch process. To decide.

  In this branch process, when the single stop table 440 is selected by the second branch process, the reel stop processing unit 600 performs the stop process using the selected single stop table 440.

In the branch process, when a new specific value (CW) is set by the first branch process or the third branch process, the pointer determination means 540 uses the new specific value (CW) and the stop operation. A new pointer is determined on the basis of the rotating reel 62 on which the operation is performed. Based on this new pointer, the same branching process as described above is repeated. Then, by finally selecting a single stop table 440, the reel stop processing means 600 performs the stop processing of the rotating reel 62 using the selected stop table 440.
In the branch process, when a new pointer is set by the fourth branch process, the same branch process as described above is repeated based on the new pointer. Then, by finally selecting a single stop table 440, the reel stop processing means 600 performs the stop processing of the rotating reel 62 using the selected stop table 440.

  Regardless of the result of the branching process, the single stop table 440 is finally selected, and the reel stop processing unit 600 uses the stop table 440 to stop the rotating reel 62. Is done.

  As a result, as described above, the same processing steps as those performed so far can be used repeatedly. This eliminates the need for a storage table when a new type of parameter is newly used, a program for a new processing step using a new type of parameter, and the specific values used so far. In addition, it is possible to repeatedly use a determination program for the same branch processing using the same type of data as the pointer. Therefore, the storage capacity of data and programs can be reduced, the storage capacity can be reduced, the number of processing steps can be reduced, and the efficiency of the stop control process can be improved.

The third branch process will be described in more detail.
In the third branching process, the specific value (CW) is changed to a new specific value (CW) based on the symbol position of the rotating reel 62 when the stop switch 50 is stopped and the pointer determined by the pointer determination means 540. Whether or not to shift (change) is determined (specific value shift determination).
When the specific value (CW) is not shifted to a new specific value (CW) as a result of the specific value shift determination, the pointer (transfer determination pointer (BTRG)) is changed to another pointer (stop table pointer (BTRP)). A single stop table 440 determined by rewriting and using the other pointer (stop table pointer (BTRP)) is used. In such a case, the single stop table 440 determined through the pointer (transition determination pointer (BTRG)) and another pointer (stop table pointer (BTRP)) is used without shifting the specific value. . That is, switching of the stop table 440 determined based on the specific value (CW) is not performed.

  On the other hand, when the specific value (CW) is shifted to a new specific value (CW) as a result of the specific value shift determination, a predetermined numerical value (specifically, “1”) is added to the current specific value (CW). Is added as a new specific value, a new pointer is determined by the pointer determination means 540 based on the new specific value (CW), and branch processing is repeated based on the new pointer. In such a case, the stop table 440 determined based on the specific value (CW) before shifting to the new specific value (CW) by shifting the specific value (CW) to the new specific value (CW). Therefore, switching to the stop table 440 determined based on the new specific value (CW) is performed.

  That is, it is possible to distinguish between the case where the stop table 440 is not switched and the case where the stop table 440 is switched based on the symbol position of the rotary reel 62 when the stop switch 50 is stopped. . As a result, when the stop switch 50 can be stopped using the stop table 440 corresponding to the previously determined specific value (CW) according to the symbol position of the rotating reel 62 when the stop operation is performed, It is possible to cope with a case where the table cannot be stopped using the table 440. When the stop table 440 cannot be used for stopping, the specific value (CW) is changed, and the same process is performed, and the corresponding stop table 440 is also changed, thereby changing the symbol 61 to be stopped. And appropriate stop processing can be performed.

In the present embodiment, in the non-identical pointer storage table, all the pointers of the plurality of SBs are not stored as they are, but only the pointers for the rotating reels 62 in the reference combination and the lottery flag values (FPH) of the plurality of SBs. Are stored as they are, and the remaining pointers are calculated each time using a predetermined calculation formula from the reference combination pointer and the lottery flag value (FPH) of each SB.
As a result, the amount of data stored can be reduced and the data capacity can be compressed, compared with a case in which all pointers of a plurality of SBs are stored (stored) in advance. ) Can be reduced.

  In the present embodiment, the specific value (CW) is acquired by the first stop operation acquired by the specific value acquisition unit 520, and then the acquired specific value (CW) and the stop operation (first stop operation, second Based on the rotating reel 62 on which the stop operation and the third stop operation) are performed, the determination process of the stop table 440 is performed, so that the specific value (CW) and the determination process using the specific value (CW) are performed. It is possible to include (reflect) part of the elements of the stop operation order as part of the configuration of the stop control data.

  In the present embodiment, even if the result of the winning lottery is the same, if the stop operation order is CLR, the stop table 440 of the left, middle, and right rotary reels 62 is, for example, “01”, “01” , “04” is used. On the other hand, when the stop operation order is CRL, the stop tables 440 of the left, middle, and right rotary reels 62 are, for example, “03”, “01”, and “04”. Is formed. Even if the combination lottery results are the same, due to the difference in the stop operation order, a part of the combination of final specific values (CW) of each stop operation is different. The part (in the above-described case, the left rotating reel 64) is different, and the stop symbol can be made different.

  In the present embodiment, the data capacity related to stop control can be compressed by performing stop control using the specific value (CW) and various tables as described above. Not. In the present embodiment, when the final specific value (CW) is determined, a stop symbol corresponding to the specific value (CW) in a one-to-one relationship is specified. For this reason, conventionally, the winning determination is performed after all the rotating reels 62 are stopped. However, such a conventional winning determination itself is not necessary. For this reason, in the present embodiment, in the conventional stop control, the array data in which the symbol numbers (frame numbers) as shown in FIG. It is not necessary. Since it is not necessary to store the array data itself as shown in FIG. 2 as it is (no longer necessary), the number of data to be stored is reduced, and a winning determination process as conventionally performed is also unnecessary. In addition to the reduction in storage capacity, the effect of shortening the processing time for stop control is also produced.

In the present embodiment, stop symbols are identified in a one-to-one correspondence for each final specific value (CW). In principle, the number of medals to be paid out is defined in correspondence with the stop symbol.
Specifically, when the specific value (CW) is accompanied by the payout of medals, the payout number reference and loss determination (so-called missing) is performed in a payout number reference table (not shown) provided separately. And whether or not it is missing).

  That is, when the specific value (CW) is accompanied by the payout of medals, the combination of symbols of the winning combination may be stopped on the effective line 86 at the stop operation timing such as the cherry or watermelon combination. Can not be so-called missed role, or a transitional role that can be missed due to the pushing order (order of stop operation of each rotary reel 62) (for example, a transitional role to AT), also won In this case, for the bell combination that is established regardless of the pushing order, a payout number reference table (not shown) provided separately and a lose determination (missing determination) are performed using a separately provided payout number reference table (not shown). . In this payout number reference table, a loss determination (missing determination) and a payout number are set corresponding to the value of the specific value (CW).

  The payout number reference table is provided for determining whether the number of medals inserted is two or three even if the occurrence of the above-mentioned missing or the combination of stop symbols is the same. This is to cope with the case where the number of payouts is set to be different due to the difference in the number or the game state. Even if the stop symbols are the same, if the number of payouts varies depending on the specified number, etc., a numerical value for specifying a predetermined data storage location in the payout number storage location of the payout number reference table (used as a kind of pointer) And the number of payouts stored in another location can be collected according to the numerical value.

  That is, in the present embodiment, the specific value (CW) is finally determined, the stop symbol corresponding to the specific value (CW) is specified, and the stop symbol is specified. The number of payouts is also confirmed. Specifically, for example, when the final specific value (CW) is determined at the timing of the first stop operation and the number of payouts is also determined, the number of payouts is determined at the timing of the first stop operation. Become. This is different from the conventional method in which the stop operation of all the rotary reels 62 is completed and the payout number is determined based on the stopped symbols of all the rotary reels 62. That is, it is possible to determine the number of payouts at an early stage as compared with the case where the determination process is performed based on the results of all stop symbols as in the conventional stop control. Thereby, it becomes possible to advance the progress of the game and the production at an earlier stage than before, and the progress and the production of the game can be made effective.

  In the present embodiment, since the final specific value (CW) and the stop symbol correspond one-to-one, the transition to the bonus game is also performed based on the final specific value (CW). That is, when the specific value (CW) finally becomes a predetermined specific value (CW), it can be determined that the game is shifted to the bonus game. Thereby, the transition to the bonus game can be determined at an earlier stage than before, and it is possible to effectively perform the game such as the subsequent effects and the progress of the effects.

Here, if the number of payouts is set to a predetermined fixed number during a predetermined game, the processing using the payout number reference table as described above is not performed and the specific value is set. The payout number may be determined according to the state specified by (CW).
In the present embodiment described above, the special role is set as SB as a special feature. However, the special role is not limited to this SB, and may be other special features. Other than the above, a combination (small combination) such as a plurality of bells may be used.
As the special combination in the present embodiment described above, there are a plurality of SBs which are one type of combination, but not limited to one type of combination, and a plurality of types of combination. May have a plurality. For example, 64 bonus As from bonus A1 to bonus A64 and bonus B from bonus B1 to bonus B64 may be provided as bonuses that are bonuses. Moreover, it may have a plurality of types of roles. For example, 64 bells A1 to A64 may be provided as bells, which are small roles, and Bell B1 may be provided from B1 to B64. In such a case, the non-identical part 550 of the special role in the above-described embodiment is not limited to one type of “FF”, but “FE”, “FD”, “FC”, etc. It is composed of a plurality of symbols and has a non-identical pointer storage table (FIG. 13) corresponding to each of a plurality of symbols such as “FE”, “FD”, and “FC”.

10 gaming machine 12 chassis
14 Front door 16 Symbol display window
20 Upper panel 22 Lower panel
24 Storage and withdrawal means 26 Medal tray
28 Medals outlet 30
31 Operating means 34 Max bet switch
36 Checkout switch 38 Medal slot
40 Start switch 50 Stop switch
L Left stop switch C Middle stop switch
R Right stop switch 60 reel unit
61 Design 62 Rotating reel
64 Left turn reel 66 Middle turn reel
68 Right-hand reel 70 Production equipment
72 Speaker 74 Upper speaker
76 Lower speaker 78 Production lamp
80 Upper lamp 82 Lower lamp
84 Display device 86 Effective line
100 Controller 110 Main controller
120 Role lottery means 130 Reel control means
135 Start control means 140 Stop control means
160 Normal state control means 170 RT control means
180 Bonus control means 200 Special game end decision means
210 Specified number-of-acquisition counting means
250 Discharge control means 260 Transmission means
300 Sub-controller 310 Receiving means
320 AT control means 330 Transition lottery means
370 Display effect execution means 390 Addition effect determination execution means
400 Stop table storage means 420 Stop data table
440 Stop table 500 Table selection method
520 Specific value acquisition means 540 Pointer determination means
542 Pointer determination table 544 Non-common table part
546 Common table part 548 Same part
550 Non-identical part 560 Branch processing decision means
580 Non-identical pointer storage table storage means 590 Pointer calculation means
600 Reel stop processing means

Claims (6)

A plurality of rotating reels having a plurality of symbols arranged around the periphery;
A start switch for starting rotation of the rotating reel;
A plurality of stop switches for stopping the rotation of each rotating reel;
A role lottery means for performing a lottery of a role based on the operation of the start switch (hereinafter referred to as “role lottery”);
A gaming machine comprising stop control means for performing stop control of the rotating reel in accordance with a result of a role lottery of the role lottery means and a stop operation timing of the stop switch,
The stop control means includes
A plurality of stop tables defining information relating to the stop position of the rotating reel according to the symbol position of the rotating reel when the stop switch is stopped;
Table selection means for selecting a single stop table to be used from the plurality of stop tables;
Reel stop processing means for performing stop processing of the rotating reel using the single stop table selected by the table selection means,
The table selection means includes
Specific value acquisition means for acquiring a specific value corresponding to the result of the combination lottery and the rotating reel on which the first stop operation was performed;
A pointer determination table for determining the pointer as a parameter for selecting the single stop table corresponding to the specific value and the rotating reel on which the stop operation has been performed. Pointer determining means for determining the pointer using a determination table;
A plurality of special roles that can be won are provided according to the result of the lottery,
The pointer determination table is provided with a common table portion that defines one of the plurality of special roles as a common special role in order to determine the pointers of the plurality of special roles,
The common table portion is
The pointers corresponding among the plurality of special roles are the same, and the same unit for storing the pointers,
A part of the pointers corresponding to each other among the plurality of special roles is non-identical, and includes a non-identical part that stores a common symbol (hereinafter referred to as “common symbol”) instead of the pointer,
The table selection means includes
A non-identical pointer storage table storing the pointer for rewriting the common symbol in the non-identical part for each special role corresponding to the result lottery result and the stopped rotating reel,
As a result of the role lottery, when one of the plurality of special roles is won,
When the location of the pointer determination table corresponding to the specific value and the rotating reel that has been stopped is the same portion, the single stop table is selected based on the pointer stored in the same portion. And
If the location of the pointer determination table corresponding to the specific value and the stopped rotating reel is the non-identical part, the pointer is determined using the non-identical pointer storage table, and based on the pointer A gaming machine, wherein the single stop table is selected.   2. The gaming machine according to claim 1, wherein in each special combination, the non-identical part is set so that the plurality of pointers determined for each rotating reel that has been stopped are the same. The table selection means includes
Based on the pointer, a new specific value is set as the specific value, a new pointer is set as the pointer, or a single stop table is selected from among a plurality of branch processes. Branch processing determining means for determining the branch processing,
When the new specific value is set in the branching process, a new pointer is determined based on the new specific value and the rotating reel on which the stop operation has been performed by the pointer determination means. The branch process is repeated based on the correct pointer,
When the single stop table is selected in the branch process, the reel stop processing means performs a stop process using the single stop table,
In the branch process, when the common symbol of the non-identical part is rewritten to the new pointer using the non-identical pointer storage table, the branch process is repeated based on the new pointer. The gaming machine according to claim 2. As the branching process,
The pointer determined by the pointer determination unit is set as a new specific value, a new pointer is determined by the pointer determination unit based on the new specific value, and the branch processing is performed based on the new pointer. A first branching process repeated;
A second branch process for selecting the single stop table using the pointer determined by the pointer determination means;
Whether or not the symbol position of the rotating reel when the stop switch is stopped is acquired, and the specific value is transferred to a new specific value by using the symbol position and the pointer determined by the pointer determination means A third branch process in which such determination (hereinafter referred to as “specific value shift determination”) is performed;
A fourth branch process for determining the new pointer using the non-identical pointer storage table when the pointer determined by the pointer determination means is the common symbol of the non-identical part,
As a result of the specific value transition determination in the third branching process, when the specific value shifts to a new specific value, a new pointer is determined by the pointer determination unit based on the new specific value. The gaming machine according to claim 3, wherein the branching process is repeated based on a new pointer. In the third branch process,
When the specific value is not transferred to a new specific value as a result of the specific value transition determination, the pointer is rewritten with another pointer, and the single stop table determined using the other pointer is used. And
As a result of the specific value transition determination, when the specific value is shifted to a new specific value, a value obtained by adding a predetermined numerical value to the current specific value is set as a new specific value, and based on the specific value 5. The gaming machine according to claim 4, wherein a new pointer is determined by the pointer determination means, and the branching process is repeated based on the pointer. A lottery flag value is provided as a parameter corresponding to a lottery result for each special role of the plurality of special roles,
In the non-identical pointer storage table, a reference combination serving as a reference for the pointer is provided among the plurality of special combinations,
In the fourth branch process,
For each rotating reel that has been stopped,
By adding the pointer of the reference combination to a value calculated by substituting the difference between the lottery flag value of each special combination and the lottery flag value of the reference combination into a predetermined calculation formula, Formed to obtain the pointer,
In the non-identical pointer storage table,
Each lottery flag value of the plurality of special roles;
The pointer for each rotating reel that has been stopped in the reference combination is stored in advance,
The gaming machine according to claim 4 or 5, wherein the pointer in the special combination other than the reference combination can be calculated by the calculation formula for each rotating reel that has been stopped.