JP2001231949A - Game machine - Google Patents

Abstract

PROBLEM TO BE SOLVED: To provide a game machine capable of increasing amusement of players and retaining player's expectation to a big win for a long time. SOLUTION: A CPU 96 for indication of an indication control circuit 95 selects (S26) a variable pattern from a program ROM 97 on the basis of a pattern variation start command inputted and selects (S27) a character corresponding to patterns of respective right row, middle row, and left row based on the variable pattern. At the same time, the CPU 96 for indication decides arrangement of respective characters on liquid crystal display 19, and indicatively instructs to dispose the characters in the decided arrangement position to a VDP 99 (S28, S29). In this way, the VDP arranges the characters having specified size in instructed positions of respective right row, middle row, and left row on the back ground image in respective instructed transmissivities (0-80%) to display the characters as images on the liquid crystal display 19 through an output circuit 102.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention displays a plurality of columns of variable symbols on a screen of a symbol display device arranged in a game area, and sequentially stops the symbols of the multiple columns in a predetermined order for each column after the symbols are changed. With regard to gaming machines such as pachinko machines to be operated, in particular, by displaying on the screen such that the transmittance of each symbol in each column is different in accordance with the fluctuation state of the symbol in each column on the screen, the effect of screen effect And a game machine capable of increasing the interest of the player by improving the game. In addition, by displaying the stop symbols of each column which are sequentially stopped and displayed in a pattern with good visibility, it is possible to effectively represent the effect of the screen until the changing symbols of all columns stop, The present invention relates to a gaming machine capable of maintaining a player's expectation of occurrence of a "big hit" for a long time.

[0002]

2. Description of the Related Art Conventionally, some game machines such as a pachinko machine, an arrangement ball game machine, a sparrow ball game machine, and a slot machine have a symbol display device. For example, in a pachinko machine, a variable pattern is arranged in three columns (left column, middle column, right column) and a CRT (Ca
thode Ray Tube) and LCD (Liquid Crystal Display)
A symbol display device composed of the above is provided at the center of the game board. In such a gaming machine, various display modes have been proposed for a display mode in which symbols in a plurality of columns displayed on the symbol display device are sequentially stopped for each column in a predetermined order after a change. For example, in the amusement machine described in JP-A-10-201907, when a predetermined condition is satisfied,
In a game machine in which a display symbol of a display device arranged on a game board is fluctuated for a certain time and a predetermined process is performed according to a symbol when the display device is stopped, a symbol displayed by the display device has a predetermined display mode. When it fluctuates, the control means for reducing the visibility of the fluctuating symbol is provided. In the amusement machine, the display screen of the display device further includes at least a symbol screen for displaying a fluctuating symbol and a background screen for displaying a background, and the control means is displayed on the symbol screen. The visibility of the variable symbol is reduced by increasing the transmittance of the variable symbol.

[0003] With this, when the predetermined condition is satisfied, the symbol displayed on the display device starts to fluctuate, and when the displayed symbol fluctuates in a predetermined display mode, control for reducing the visibility of the fluctuating symbol is performed. Is performed, the eyestrain can be reduced even if the player stares at the display screen. Also,
Since the display screen of the display device is composed of at least a symbol screen for displaying the variable symbol and a background screen for displaying the background, the variable symbol is assimilated to the background image as the transmittance of the variable symbol increases. , The visibility of fluctuating symbols decreases,
Even if the player stares at the display screen, eye fatigue can be reduced.

[0004]

However, in the amusement machine described in Japanese Patent Laid-Open No. Hei 10-201907, since the transmittance of the symbol screen can be changed, a display device is required. When the visibility of the symbol displayed on the symbol screen is increased by lowering the transmittance of the symbol screen from immediately before the symbols in the columns displayed sequentially stop sequentially, the effect of the background screen is reduced and the game effect is reduced. There is a problem that the interest of the elderly is spoiled. Further, when the symbols in each column displayed on the display device are sequentially stopped, and after the symbols in all columns are stopped, the transmittance of the symbol screen is reduced to increase the visibility of the symbols displayed on the symbol screen. However, there is a problem in that the effect of the effect displayed until the fluctuating symbol stops is impaired, and it becomes difficult to maintain the player's expectation of the occurrence of the "big hit" for a long time.

Therefore, the present invention has been made to solve the above-described problem, and the transmittance of each symbol in each column is different according to the fluctuation state of the symbol in each column on the screen. It is an object of the present invention to provide a gaming machine capable of improving the effect of the screen and increasing the interest of the player by displaying on the screen. In addition, by displaying stop symbols of each column sequentially stopped and displayed in a symbol with good visibility, it is possible to effectively represent the effect of the screen until the variable symbols of all columns stop, It is an object of the present invention to provide a gaming machine capable of maintaining a player's expectation of occurrence of a "big hit" for a long time.

[0006]

According to a first aspect of the present invention, there is provided a gaming machine provided with a symbol display device provided in a game area for variably displaying a plurality of symbols on a screen. In the gaming machine in which the symbols of the symbols are sequentially stopped in a predetermined order after the variation, the symbols are displayed so that the transmittance of each symbol in each column is different according to the variation state of the symbol in each column. It is characterized by that.

In the gaming machine according to the first aspect of the present invention, a plurality of symbols are variably displayed in a game area of the gaming machine, and the plurality of symbols are sequentially changed in a predetermined order for each column after the variation. A symbol display device that stops is provided. Each symbol is displayed such that the transmittance of each symbol in each column is different in accordance with the state of change of the symbol in each column. Accordingly, since the symbols having different transmittances are displayed for each column in correspondence with the symbol variation status of each column, the variation status for each column (for example, the left column is temporarily stopped, each middle column / right A moving image display in which a symbol having a different transmittance is displayed for each symbol in each column in correspondence with the column being changed (for example, the transmittance of the symbol in the left column is different from the transmittance of the symbol in the middle and right columns) (Moving image display) is possible, and the effect of the screen can be improved to increase the interest of the player.

[0008] A gaming machine according to a second aspect is characterized by the first aspect.
In the gaming machine described in the above, each of the symbols is composed of a plurality of types of characters having different transmittances, and a character storage means for storing the characters, and each symbol in the row corresponding to the variation state of the symbol in each row Character selection means for selecting one character from a plurality of types of characters constituting the character, and the position of each character selected by the character selection means arranged on the screen at predetermined time intervals in accordance with the fluctuation state The arrangement position determining means to be determined and the characters selected by the character selecting means are controlled so as to be arranged and displayed at the positions on the screen determined by the arrangement position determining means as the symbols in each row. Display control means.

According to a second aspect of the present invention, each symbol displayed on the symbol display device comprises a plurality of types of characters having different transmittances. Have been. Then, one character is selected from a plurality of types of characters constituting each symbol in the row by the character selecting means in accordance with the changing state of the symbol in each row, and the selected character is displayed on the screen. The arrangement position is determined by the arrangement position determining means at predetermined time intervals in accordance with the fluctuation state. At the same time, the characters selected by the character selection means are arranged and displayed by the display control means at the positions on the screen determined by the arrangement position determination means as symbols in each row. In this manner, one character is selected from a plurality of characters having different transmissivities constituting each symbol in accordance with the variation state of the symbol in each column, and is arranged at a predetermined position on the screen of the symbol display device at a predetermined time interval. Is displayed, the fluctuation state of each column (for example,
A moving image display in which characters having different transmissivities are displayed for each symbol in each column in correspondence with the pause state of the left column, the changing of the middle and right columns, etc. (Movie display with different transmittances of characters in the row and right row)
Is possible, and the effect of the screen can be improved to increase the interest of the player.

A game machine according to claim 3 is a game machine according to claim 2.
Wherein the transmittance includes at least a first transmittance in which the back side of the character can be seen through, the variation state includes a variation display state in which symbols in a row are variably displayed, and the character selection The means selects the character having the first transmittance corresponding to each symbol in the variable display state.

According to a third aspect of the gaming machine having the above features, in the gaming machine according to the second aspect, when the symbols in each row on the screen of the symbol display device are in a variable display state, at least 1st character is visible behind
A character with a transmittance is selected and displayed on the screen in a variable manner. With this, when the symbols in each column are in the variable display state, the character with the first transmittance through which the back side of the character can be seen through is selected and displayed variably on the screen, so that it is displayed behind the variable symbol. The display image can be viewed through the character having the first transmittance, so that the effect of the screen image by the display image displayed behind the variable symbol can be shown to the player without being disturbed by the variable symbol. Can be
It is possible to further enhance the effect of the screen and increase the interest of the player.

A gaming machine according to a fourth aspect of the present invention is a game machine according to the second aspect.
Or in the gaming machine according to claim 3, the transmittance is:
At least a second transmittance in which the back side of the character cannot be seen through is included, and the variation state includes a fixed stop state in which symbols in a row are fixed and displayed, and the character selection unit is configured to switch the fixed stop state. In this case, a character having the second transmittance corresponding to each symbol is selected.

According to a fourth aspect of the present invention, there is provided the gaming machine according to the second or third aspect, wherein the symbols in each row on the screen of the symbol display device are in a fixed stop state. , A character having a second transmittance at least in which the rear side of the character cannot be seen through is selected, fixedly stopped on the screen, and displayed. Accordingly, when the symbols in each row are in the fixed stop state, the character of the second transmittance, whose back side of the character cannot be seen through, is selected and displayed on the screen. It is possible to easily confirm the fixed stop symbol, which is the result of the fluctuation of.

Further, the gaming machine according to claim 5 is a game machine according to claim 4.
In the gaming machine described in the above, the fluctuating state includes a temporary stop state in which the symbols in the row are temporarily stopped and displayed, and the character selecting means corresponds to each symbol in the temporary stop state. The character of the second transmittance is selected.

According to a fifth aspect of the present invention, there is provided the gaming machine according to the fourth aspect, wherein the variable symbols in each column are temporarily stopped and displayed once for each column in a temporarily stopped state. , A character having a second transmittance in which the rear side of the character cannot be seen through is selected, temporarily stopped and displayed on the screen. Thereby, the character of the second transmittance, in which the back side of the character cannot be seen through, is temporarily stopped and displayed for each column, so that the player temporarily stops from the fluctuating state and is displayed in each column. Can be sequentially and easily recognized, and the effect of the screen until the changing symbols in all columns stop can be effectively expressed, and the player's expectation of the occurrence of the "big hit" can be maintained for a long time. be able to.

A game machine according to claim 6 is a game machine according to claim 4.
Wherein the transmittance includes at least a third transmittance smaller than the first transmittance and larger than the second transmittance, and the fluctuation state is such that symbols in a row are temporarily stopped. The character selecting means selects a character having the third transmittance corresponding to each symbol in the case of the temporary stop state.

According to a sixth aspect of the present invention, there is provided the gaming machine according to the fourth aspect, wherein the variable symbols in each column are temporarily stopped and displayed in sequence for each column. In, a character having a third transmittance that is at least smaller than the first transmittance and larger than the second transmittance is selected, temporarily stopped and displayed on the screen.
Thereby, a character having a third transmittance smaller than the first transmittance and larger than the second transmittance is temporarily stopped and displayed sequentially for each column. The symbols in each column stopped and displayed can be sequentially and easily recognized, and the effect of the screen until the changing symbols in all columns stop can be effectively expressed, and the player can win a "big hit" It is possible to maintain the expectation of occurrence for a long time. Further, since the character having the third transmittance, which is higher in transmittance than that displayed in the fixed stop state, is temporarily stopped and displayed on the screen, the player can easily recognize that the character is temporarily stopped. As a result, it is possible to more strongly maintain the expectation for the occurrence of the “big hit”.

A gaming machine according to claim 7 is a game machine according to claim 2.
7. The gaming machine according to claim 6, wherein the character having the first transmittance is formed so that the outline of the character can be identified.

According to a seventh aspect of the present invention, in the gaming machine according to any one of the second to sixth aspects, the character of the first transmittance is identified by the outline of the character. It is formed to be able to. Thereby, even if the character of the first transmittance is displayed in a high-speed change state in the fluctuation state of each column, the outer contour of each column is expressed on the screen, so that the player can display the fluctuation of each column on the screen. The position can be easily confirmed, and it can be intuitively recognized that each row is in a fluctuating state, so that the player's interest can be more strongly attracted.

The game machine according to claim 8 is a game machine according to claim 2.
8. The gaming machine according to claim 7, wherein the characters having the respective transmittances include a plurality of characters having different sizes, and the character selecting means includes a character having a predetermined size for a predetermined game display. Is selected.

In the gaming machine according to claim 8 having such a feature, in the gaming machine according to any one of claims 2 to 7, the character having each transmittance has a plurality of characters having different sizes. A character is included, and a character of a predetermined size is selected for a predetermined game display and displayed on the screen. This makes it possible to further diversify the effect contents of the screen for each predetermined game, further increase interest, and strongly attract the player's interest even if the game is continued for a long time.

A game machine according to a ninth aspect of the present invention is the gaming machine according to the eighth aspect.
In the gaming machine described in the above, the predetermined game display includes at least a normal display displayed in a normal gaming state, and a reach display displayed in a reach gaming state, wherein the character selecting means, in the case of the reach display Is characterized in that a character smaller than the character displayed in the normal display is selected.

In the gaming machine according to the ninth aspect having such a feature, in the gaming machine according to the eighth aspect, in the reach display, a character smaller than the character displayed in the normal display is selected. Is displayed on the screen. As a result, the fluctuation region of the fluctuation symbol occupying the screen in the case of the reach display is narrower than that in the case of the normal display, and thus the effect of the display effect of the screen by the display image displayed behind the fluctuation symbol can be effectively achieved by the player. , And the effect contents of the screen can be diversified, the effect of the effect can be further improved, and the interest of the player can be further increased.

According to a tenth aspect of the present invention, in the gaming machine according to the ninth aspect, the arrangement position determining means comprises:
In the case of the reach display, the character is determined so as to be arranged in a peripheral portion on the screen.

According to a tenth aspect of the present invention, in the gaming machine of the ninth aspect, in the case of the reach display, the character is arranged and displayed in a peripheral portion on the screen. Therefore, it is possible to more effectively show to the player the effect content of the central portion of the screen displayed on the rear side of the fluctuating symbol, and to further diversify the effect content of the screen and improve the effect of the effect. Therefore, the interest of the player can be further increased.

In the gaming machine according to the eleventh aspect, in the gaming machine according to the tenth aspect, the transmittance includes at least a fourth transmittance in which the back side of the character can be seen through, and the character selecting means includes: In the case of the reach display, a character having the fourth transmittance corresponding to each symbol is selected.

[0027] In the gaming machine according to the eleventh aspect, which has such a feature, in the gaming machine according to the tenth aspect, the transmissivity includes at least a fourth transmissivity in which the back side of the character can be seen through. In the case of display, a character having the fourth transmittance corresponding to each symbol is selected and displayed on the screen. Thereby, in the case of the reach display, since the character having the fourth transmittance in which the back side of the character can be seen through is selected and displayed variably on the screen, the display image of the reach display displayed behind the fluctuating symbol is displayed. It can be seen through the character with the fourth transmittance,
The effect of the screen display by the reach display image displayed behind the fluctuating design can be shown to the player without being disturbed by the fluctuating design, and the effect of the reach screen is further improved to enhance the player's interest. Can be increased.

A game machine according to a twelfth aspect of the present invention is the game machine according to the first aspect, wherein a shape storage means for storing the shape of each of the symbols and a color scheme storage for storing a plurality of types of colors having different transmittances. Means, a color arrangement selection means for selecting a color having a predetermined transmittance from the plurality of types of colors in accordance with a variation state of the symbol for each column, and a color arrangement to be added to the shape of each symbol, and on the screen of each symbol An arrangement position determining means for determining a position to be arranged at predetermined time intervals in accordance with the fluctuation state; Display control means for controlling the symbols to be arranged and displayed at the positions on the screen determined by the arrangement position determining means.

In the gaming machine according to the twelfth aspect having such features, in the gaming machine according to the first aspect, the shape of each symbol displayed on the symbol display device is stored in the shape storage means. . Then, the position of the symbol for each column to be arranged on the screen is determined by the arrangement position determining means at predetermined time intervals in accordance with the fluctuation state. At the same time, the color of the predetermined transmittance selected by the color arrangement selecting means is added to the shape of each symbol in accordance with the changing state of the symbol for each column, and the symbol is determined by the arrangement position determining means. Displayed on the screen by the display control means. Thereby, a color of a predetermined transmittance is selected and attached from a plurality of types of colors having different transmittances to the shape of each symbol in accordance with a state of variation of the symbol for each column, and a screen of the symbol display device is displayed at a predetermined time interval. Since it is arranged and displayed at a predetermined position on the upper side, the transmittance of each column corresponds to the fluctuating state of each column (for example, the left column is temporarily stopped, and the middle and right columns are fluctuating). Video display with different symbols (for example,
A moving image display in which the transmittance of each symbol in the left column is different from the transmittance of each symbol in the middle and right columns) can be achieved, and the effect of the screen can be improved and the interest of the player can be increased.

According to a thirteenth aspect of the present invention, in the gaming machine according to the twelfth aspect, the predetermined transmittance includes at least a fifth transmittance that allows the rear side to be seen through, and the variation state is determined in the row. And the color arrangement selecting means selects the color of the fifth transmittance corresponding to each symbol in the case of the variable display state.

According to a thirteenth aspect of the present invention, there is provided the gaming machine according to the twelfth aspect, wherein the symbols in each column on the screen of the symbol display device are displayed in a variable display state. Then, the color arrangement selection means selects a color having a fifth transmittance at least the rear side of which is transparent. Accordingly, when the symbols in each column are in the variable display state, the shape of each symbol is given the color of the fifth transmittance that allows at least the rear side to be seen through, so that the display displayed behind the variable symbols is displayed. The image can be viewed through the symbol with the color of the fifth transmittance, and the effect of the display on the screen by the display image displayed on the back side of the variable symbol can be viewed without being disturbed by the variable symbol. , And the effect of the screen can be further improved to further increase the interest of the player.

According to a fourteenth aspect of the present invention, in the gaming machine according to the twelfth aspect or the thirteenth aspect, the predetermined transmittance includes at least a sixth transmittance that cannot be seen through at the rear side. The state includes a fixed stop state in which the symbols in the row are fixed and displayed, and the color combination selecting means includes:
In the fixed stop state, a color of the sixth transmittance corresponding to each symbol is selected.

According to a fourteenth aspect of the present invention, there is provided the gaming machine according to the twelfth or thirteenth aspect, wherein symbols in each row on the screen of the symbol display device are fixedly stopped and displayed. In the case of the determined stop state, the color arrangement selecting means selects a color having a sixth transmittance at least the rear side of which cannot be seen through. With this, when the symbols in each row are in the fixed stop state, the color of the sixth transmittance, in which the back side of each symbol cannot be seen through, is added, so that the player can use the result of the change in the symbols in each row. A certain fixed stop symbol can be easily confirmed.

According to a fifteenth aspect of the present invention, in the gaming machine according to the fourteenth aspect, the fluctuating state includes a temporary stop state in which symbols in a row are temporarily stopped and displayed, and the color arrangement selection is performed. The means selects the color of the sixth transmittance corresponding to each symbol in the temporarily stopped state.

According to a fifteenth aspect of the gaming machine having the above features, in the gaming machine of the fourteenth aspect, the symbols in each row on the screen of the symbol display device are temporarily stopped and temporarily displayed. In the case of the state, the color arrangement selection means selects a color having a sixth transmittance at least in which the rear side cannot be seen through. As a result, the symbols with the color of the sixth transmittance, in which the rear side of the symbols cannot be seen through, are temporarily stopped and displayed sequentially for each column, so that the player is temporarily stopped and displayed from the fluctuation state. The symbols in each column can be easily and sequentially recognized, and the effect of the screen until the changing symbols in all columns stop can be effectively expressed, and the player's expectation of the occurrence of "big hits" Can be maintained for a long time.

According to a sixteenth aspect of the present invention, in the gaming machine according to the fourteenth aspect, the predetermined transmittance is at least smaller than the fifth transmittance and larger than the sixth transmittance. 7 includes the transmissivity, and the fluctuation state includes a temporary stop state in which the symbols in the row are temporarily stopped and displayed, and the color arrangement selecting means, when in the temporary stop state, corresponds to each symbol. The color of the seventh transmittance is selected.

In the gaming machine according to the sixteenth aspect of the present invention, in the gaming machine according to the fourteenth aspect, the symbols in each column on the screen of the symbol display device are temporarily stopped and displayed. In the case of the state, the color arrangement selection means selects a color having a seventh transmittance that is at least smaller than the fifth transmittance and larger than the sixth transmittance. Accordingly, the symbols colored with the seventh transmittance smaller than the fifth transmittance and larger than the sixth transmittance are temporarily stopped and displayed for each column, so that the player can It is possible to sequentially and easily recognize the symbols of each column displayed once stopped from the fluctuating state, and to effectively represent the effect of the screen until the fluctuating symbols of all columns stop, It is possible to maintain a player's expectation of occurrence of a "big hit" for a long time. Also, since the symbol with the seventh transmittance, which has a higher transmittance than that displayed in the fixed stop state, is temporarily stopped and displayed on the screen, it is easy for the player to temporarily stop. It is possible to more strongly maintain the expectation for the occurrence of the "big hit".

According to a seventeenth aspect, in the gaming machine according to any one of the twelfth to sixteenth aspects, the shape of the symbol is formed so that the outline of the symbol can be identified. It is characterized by the following.

According to a seventeenth aspect of the present invention, there is provided the gaming machine according to any one of the twelfth to sixteenth aspects, wherein the shape of the symbol is such that the outline of the symbol can be identified. Is formed. Accordingly, in the case where the pattern with the color of the fifth transmittance is displayed at a high speed in the case of the changing state of each column, the outer contour of each column is expressed on the screen. Can easily confirm the changing position of each row on the screen, and can intuitively recognize that each row is in a changing state, thereby further attracting the player's interest.

The game machine according to claim 18 is the game machine according to any one of claims 12 to 17, wherein the shape of each of the symbols includes a plurality of shapes having different sizes. It is characterized by comprising a shape selecting means for selecting a shape of a predetermined size of each symbol for display.

In the gaming machine according to the eighteenth aspect having such features, in the gaming machine according to any one of the twelfth to seventeenth aspects, each of the symbols has a plurality of shapes having different sizes. Is displayed, and a symbol having a predetermined size is selected for the predetermined game display and displayed on the screen. This makes it possible to further diversify the effect contents of the screen for each predetermined game, further increase interest, and strongly attract the player's interest even if the game is continued for a long time.

According to a nineteenth aspect of the present invention, in the gaming machine according to the eighth aspect, the predetermined game display is at least a normal display displayed in a normal game state and a reach display displayed in a reach game state. Display, wherein in the case of the reach display, the shape selecting means selects a shape of a symbol smaller than the shape of each symbol displayed in the case of the normal display.

In the gaming machine according to the nineteenth aspect having such features, in the gaming machine according to the eighteenth aspect, in the case of the reach display, the shape is smaller than the shape of the symbol displayed in the case of the normal display. Is selected and variably displayed on the screen. As a result, the fluctuation region of the fluctuation symbol occupying the screen in the case of the reach display is narrower than that in the case of the normal display, and thus the effect of the display effect of the screen by the display image displayed behind the fluctuation symbol can be effectively achieved by the player. , And the effect contents of the screen can be diversified, the effect of the effect can be further improved, and the interest of the player can be further increased.

According to a twentieth aspect of the present invention, in the gaming machine according to the nineteenth aspect, in the case of the reach display, each of the symbols is located at a peripheral portion on the screen. It is characterized in that it is determined to be arranged.

According to a twentieth aspect of the gaming machine having the above features, in the gaming machine according to the nineteenth aspect, in the case of the reach display, the symbols are arranged and displayed in a peripheral portion on the screen. Therefore, it is possible to more effectively show to the player the effect content of the center part of the screen displayed on the rear side of the fluctuating symbol, and to further diversify the effect content of the screen and improve the effect of the effect. Therefore, the interest of the player can be further increased.

Further, in the gaming machine according to the present invention, in the gaming machine according to the twentieth aspect, the predetermined transmittance includes at least an eighth transmittance in which a rear side can be seen through, and in the case of the reach display, The color arrangement selecting means selects the color of the eighth transmittance corresponding to each symbol.

In the gaming machine according to the twenty-first aspect having the above feature, in the gaming machine according to the twentieth aspect, in the case of the reach display, the color arrangement selecting means may be configured so that at least the rear side is transparent. Select the color of the transmittance. Accordingly, in the case of the reach display, a symbol in which at least the rear side is visible through the shape of each symbol at least on the rear side is displayed on the screen in a variable manner, and is displayed behind the variable symbol. The display image of the reach display can be seen through the symbol colored with the eighth transmittance, and the effect of the screen display by the reach display image displayed behind the variable symbol is disturbed by the variable symbol. It is possible to show to the player without the need, and the effect of the reach screen can be further improved to further increase the interest of the player.

[0048]

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, first to fourth embodiments in which a gaming machine according to the present invention is embodied in a pachinko machine will be described in detail with reference to the drawings. First, the overall configuration of the pachinko machine according to the first embodiment will be described with reference to FIGS. FIG. 1 is a front view showing the entire pachinko machine according to the first embodiment. FIG. 2 is a front view showing a game area of the pachinko machine according to the first embodiment.

In FIG. 1, a pachinko machine 1 is a so-called first-class pachinko machine. In the pachinko machine 1, various structures such as a winning opening, a special symbol display device, an electric accessory, and a gate, which will be described later, are disposed on the game board 2. The game board 2
Below, the upper plate 3 for receiving a prize ball paid out via a prize ball payout device 73 (see FIG. 3) is provided on a plate 4 with a built-in speaker 3A. Below the upper plate 3, a lower plate 5 is provided. Further, the pachinko ball of the upper plate 3 is sent to a firing device (not shown) connected to the operation handle 6 via a ball feed mechanism (not shown) communicating with the upper plate 3. A special symbol display device, a main board 71 for performing control related to payout of prize balls described below, a prize ball control board 72, and the like (see FIG. 3) are provided on the back surface of the game board 2. Also, on both shoulders of the game board 2, prize ball and ball out indication lamps 10, 10 are provided.

On the other hand, the front side of the game board 2 is covered with a glass door 9 made of a metal such as a steel plate or stainless steel. It is attached to the inner frame that can be opened and closed freely. Further, a glass holding frame made of a metal such as a steel plate or stainless steel having an opening is fixed to the glass door 9 by spot welding or the like, and the game area can be seen through two glasses attached to the glass holding frame. Can be.
An error display lamp 7 for displaying an error during the game and hit display lamps 8 for displaying a "win" are attached to an upper portion of the glass door 9.

Next, referring to FIG. 2, the configuration of the game area on the game board 2 in the pachinko machine 1 will be described. The game area 11 is formed by arranging various structures such as a winning opening on a game board 2 made of a plate material having a predetermined thickness, and an annular rail 12 standing upright so as to surround the structure. The rail 12 constitutes an overlapping guide path 13 for guiding the fired pachinko ball into the game area 11, and has a right shoulder to restrict the progress of the pachinko ball driven along the rail 12. Step portion 14.

An opening is formed substantially at the center of the game area 11, and a special symbol display device 18 is provided on the front side of the opening. A liquid crystal display 19 is attached to the special symbol display device 18 from the back side of the game board 2. The liquid crystal display 19 is a liquid crystal panel that displays three changing symbols on the left, the middle, and the right, and has a normal symbol display unit 20 that displays a normal symbol divided into two on the left and right sides in a lower right corner. Have been. On the upper side of the liquid crystal display 19, a design of a sitting frog character is drawn. On the other hand, decorative windmills 23 and 24 are provided on the left and right of the special symbol display device 18, respectively. Normal windmills 25 and 26 are provided between the decorative windmills 23 and 24 and the special symbol display device 18, and windmills 27 and 28 with illumination lamps are provided on both shoulder sides of the special symbol display device 18. Have been.

In addition, immediately below the special symbol display device 18,
A first starting port 31 is provided, and gates 32 and 33 are provided on the left and right of the first starting port 31, respectively. The first starting port 31 is provided with a first starting port switch 31A (see FIG. 3) for detecting a win of a pachinko ball. The symbols fluctuate. And, while the special symbol is changing,
When the winning opening 31 is won, the first holding counter 7 of the RAM 77 provided on the main board 71 up to four winning numbers.
7C (see FIG. 3) and is held as the number of times of change confirmation. Then, the first hold LED 34 that displays the count value stored in the first hold counter 77C is
Two liquid crystal displays 19 are arranged on both shoulders.

The gates 32 and 33 have gate switches 32A and 33A (FIG. 3) for detecting the passage of pachinko balls.
The normal symbol of the ordinary symbol display unit 20 changes by detecting the passage of the pachinko ball. Then, when the normal symbol passes through each of the gates 32 and 33 during the change, the number of passed symbols is stored in the second holding counter 77D (see FIG. 3) of the RAM 77 provided on the main board 71 and the change is determined. Reserved as a count. Then, four second holding LEDs 35 for displaying the count value stored in the second holding counter 77D are arranged on the upper side of the liquid crystal display 19 in the left-right horizontal direction.

Then, the first starting port 31, each gate 32,
Below the 33, a second opening 38 whose front part is covered by a second opening / closing door 37 having a lateral width and opening upward, and a first opening / closing opening which is wider than the second opening / closing door 37 and opens upward. Door 3
9 is provided with a special winning device 41 having a large winning opening 40 whose front portion is covered. In addition, the second starting port 38 includes a second starting port switch 3 for detecting a winning of a pachinko ball.
8A (see FIG. 3) is provided, and the special symbol displayed on the liquid crystal display 19 is changed by detecting the winning of the pachinko ball. And, while the special symbol is changing, the second starting port 38
When the winning is made, up to four winning numbers are stored in the first holding counter 77C of the RAM 77 provided on the main board 71 and are held as the number of times of change confirmation.

Lower winning ports 42 and 43 provided with illumination lamps are provided on both sides of the special winning device 41 and communicate with a prize ball gutter (not shown) on the back of the game board 2. Lower winning opening switches 42A and 43A (see FIG. 3) for detecting winning in the lower winning openings 42 and 43 are provided. An out port 44 is opened directly below the special winning device 41 along the rail 12. Further, in such a game area 11 surrounded by the rails 12, a plurality of nails (not shown) are driven together with the respective components to form a complicated flow path of the pachinko ball.

Next, the configuration of a control system for paying out prize balls of the pachinko machine 1 configured as described above will be described with reference to FIG. FIG. 3 is a block diagram showing a configuration of a control system for paying out prize balls of the pachinko machine 1 according to the first embodiment. As shown in FIG. 3, the control system for paying out the prize balls of the pachinko machine 1 includes a main board 71, a prize ball control board 72, a prize ball payout device 73, a display control circuit unit 95, and the like. . The main board 71 is provided with a CPU unit 74, an input circuit 78, an output circuit 79, and the like. Also, this CPU
The unit 74, the input circuit 78, and the output circuit 79 are mutually connected by a bus line. The CPU unit 74 includes a CPU 75, a ROM 76, and a RAM 77. The CPU 75, the ROM 76, and the RAM
77 are mutually connected by a bus line. Further, C
A clock circuit 80 that outputs a predetermined clock signal is connected to the PU 75. On the other hand, the CPU 81, ROM 82, RAM 83, input circuit 8
4, an output circuit 85, and the like. The CPU 81, the ROM 82, the RAM 83, the input circuit 8
4 and the output circuit 85 are mutually connected by a bus line. Further, the prize ball payout device 73 includes a payout count switch 87, a payout solenoid 88, and the like.

The input circuit 78 of the main board 71 includes a winning ball tank switch 91 and a lower plate overflow switch 9.
2, each winning opening switch 49A, 50A, each lower winning opening switch 42A, 43A, the first starting opening switch 31A, the second
Starting port switch 38A, each gate switch 32A, 33
A, big winning opening count switch 40A, V switch 40
B and the payout count switch 87 are connected by wiring. The liquid crystal display 19, the first solenoid 54, the second solenoid 53, and the like are connected to the output circuit 79 of the main board 71 via a display control circuit unit 95 by wiring. The output circuit 79 of the main board 71 and the input circuit 84 of the award ball control board 72 are connected by wiring. A payout count switch 87 is connected to an input circuit of the prize ball control board 72 by wiring. Further, a payout solenoid 88 and the like are connected to the output circuit 85 of the award ball control board 72 by wiring.

The CPU 75 of the CPU unit 74
In accordance with parameters stored in the ROM 76 in advance and a control program to be described later, various control signals are output via the output circuit 79 based on input signals and the like input via the input circuit 78 and the prize ball control board 72 and the display. Output to the control circuit unit 95 and the like. The RAM 77 has a clock circuit 80.
The jackpot counter 77A stores a numerical value obtained by repeatedly adding 1 each from 0 to 198 based on the clock signal input from (the maximum value 198 is returned to the minimum value 0).
Is provided. A normal symbol counter 77B is provided for storing a numerical value obtained by repeatedly adding 1 from 0 to 9 based on the clock signal input from the clock circuit 80 (the maximum value 9 is followed by the minimum value 0). I have.
Further, a first holding counter 77C is provided for counting up to four winning prizes in the first starting port 31 or the second starting port 38 while the changing symbol of the liquid crystal display 19 is changing. Further, there is provided a second holding counter 77D for counting up to four passages of the normal symbol in the normal symbol display section 20 when the ordinary symbol is changed. In addition, a numerical value obtained by repeatedly adding 1 from 0 to 142 based on the clock signal input from the clock circuit 80 (return to the minimum value 0 after the maximum value 142)
Is stored.
Also, a value obtained by repeatedly adding 1 from 0 to 29 based on the clock signal output from the clock circuit 80 in the RAM 77 (return to the minimum value 0 after the maximum value 29).
Is stored in the jackpot symbol selection counter 77F. A lost symbol selection counter in which a value obtained by repeatedly adding 1 from 0 to 210 based on the clock signal output from the clock circuit 80 (returning to the minimum value 0 after the maximum value 210) is stored in the RAM 77. 7
7G is provided.

The first starting port 31 or the second starting port 38
, The count value of the jackpot counter 77A, the reach counter 77E, the jackpot symbol selection counter 77F, and the lost symbol selection counter 77G, and the normal symbol counter 77B when the pachinko ball passes the gates 32 and 33. A parameter storage area 77H in which a count value and the like are stored is provided. Each counter 7
Each count value of 7A, 77B, 77C, 77D, 77E, 77F, and 77G is set to “0” at the time of startup. In addition, the first hold counter 77C is decremented by one each time the changing symbol starts to change. Also, the second hold counter 77D is decremented by one each time the symbol usually starts to change.

In the ROM 76, as will be described later, the symbol data of the "big hit symbol" corresponding to the count value of the big hit symbol selection counter 77F, the "normal loss symbol" corresponding to the count value of the loss symbol selection counter 77G, and There is provided a symbol storage area 76A for storing each symbol data of "reach loss symbol". Also,
A reach pattern storage area 76B is provided in which a variation pattern of the “reach pattern” corresponding to the count value of the reach counter 77 is stored.

The "big hit symbol" symbol data stored in the symbol storage area 76A is changed to the "big hit symbol" which is finally determined and stopped after being changed on the liquid crystal display 19 when the "big hit" occurs. "Symbol pattern data and fluctuation patterns. In addition, the symbol data of the “normal loss symbol” represents the symbol data and the variation pattern of the “normal loss symbol” which is finally fixed and stopped after being changed and displayed on the liquid crystal display 19 in the case of the normal loss. . In addition, the symbol data of the “reach-losing symbol” represents the symbol data of the “reach-losing symbol” which is finally fixed and stopped after being changed on the liquid crystal display 19 and displayed in the case of the reach loss. The variation pattern of the “reach pattern” stored in the reach pattern storage area 76B represents a variation pattern of the loss reach mode in which the “reach loss pattern” is finally stopped after being changed on the liquid crystal display 19 and displayed. ing.

For example, the symbol data of “big hit symbol” stored in the symbol storage area 76A includes the symbol data of “111” and the variation pattern 1 with respect to the count value of the big hit symbol selection counter 77F of “0 to 2”. , The symbol data of “222” and the fluctuation pattern 2 for “3 to 4” of the same count value, and “33” for the symbol data of “5 to 7” of the same count value.
Symbol data and variation pattern 3 of “3”, symbol data of “444” and variation pattern 4 for the same count value of “8 to 9”, and “55” for symbol data of “10 to 12” of the same count value
"5" symbol data and variation pattern 5, "666" for the same count value "13-14" symbol data and variation pattern 6, "777" for the same count value "15-17" Data and fluctuation pattern 7, symbol data and fluctuation pattern of "888" for the same count value "18-19", and symbol data and fluctuation pattern of "999" for the same count value of "20-22" 9, the symbol data of "23-24" and the pattern data of "frog frog" and the fluctuation pattern 10, and the pattern data of "25-27" and the pattern data of "woman and woman" and the fluctuation pattern For 11 and the count value “28 to 29”, the symbol data of “male male male” and the variation pattern 12 are registered in advance.

Further, for example, the symbol data of the "normal loss symbol" stored in the symbol storage area 76A includes the symbol data of "woman 64" and the variation pattern with respect to the count value "0" of the loss symbol selection counter 77G. 31, for the same count value "1", the symbol data of "woman 61" and the variation pattern 32 are registered in advance. Further, for example, the design data of the “reach loss design” stored in the design storage area 76A includes the design data of “female 6 female” and the count value “1” of the count value “0” of the loss design selection counter 77G. Is registered in advance with the pattern data of "female 5 female".

For example, the variation pattern of the “reach pattern” stored in the reach pattern storage area 76B includes the “reach pattern A” and the “reach pattern A” for the count value “0-3” of the reach counter 77E. 4-7 "
To the “reach pattern B” and the count value “8 to 1”
The variation pattern of “reach pattern C” for “1”, “reach pattern D” for the same count value “12 to 13”, and “no reach pattern” for the same count value of “14 to 142” are set in advance. It is registered.

The input circuit 78 is a circuit that converts an analog signal or the like input from the outside into a digital signal and outputs the digital signal. The output circuit 79 is a circuit that converts various data calculated via the CPU 75 into serial data or the like and outputs the data.

The CPU 81 of the prize ball control board 72
In accordance with parameters and control programs stored in the ROM 82 in advance, various control signals are output via the output circuit 85 based on input signals from the main board 71 input via the input circuit 84, and the payout solenoid 88 And the like. Also, the ROM 82 has a payout solenoid 88
And the like for storing a drive control program and the like. R
The AM 83 is a memory that temporarily stores various data calculated via the CPU 81 and data input from the outside. The input circuit 84 is a circuit that converts an externally input analog signal or the like into a digital signal and outputs the digital signal. The output circuit 85 outputs a drive voltage or the like of the payout solenoid 88 under the control of the CPU 81.

Next, the display control circuit section 95 will be described with reference to FIG. FIG. 4 is a block diagram illustrating a system configuration of the display control circuit unit 95 of the control system according to the first embodiment. As shown in FIG. 4, the display control circuit 9
5 is a display CPU 96, a program ROM 97 and a RAM 98 connected to the display CPU 96, a VDP
(Video Digital Processor) 99, a RAM 100 and a character ROM 101 connected to the VDP 99.
And an output circuit 102. In addition, the program ROM 97 stores the type, arrangement position, and the like of each character displayed on the liquid crystal display 19 in accordance with the variation state of each symbol of each variation pattern as described later. Also, as described later, the character ROM 101 stores
The image data for each character corresponding to the type of each character, the image data corresponding to each reach pattern, the image data for the background image, and the image data for each character in the ordinary design are stored (FIGS. 5 to 16). reference).

The display CPU 96 is connected to the main board 71.
While temporarily storing various signal data in the RAM 98 in accordance with a control signal from the CPU 75, the program ROM
Based on a control program or control data for displaying a variable symbol, a predetermined reach image, a re-variable symbol, a normal symbol, and the like stored in the 97, the editing contents of an image with the VDP 99 (each variable symbol The exchange of control signals indicating the type of character, the arrangement position of each character on the screen of the liquid crystal display 19, the type of background image, etc. is performed at predetermined time intervals (in the case of the first embodiment, approximately every 1/30 second). ). Also, the VDP 99, based on the control signal from the display CPU 96, reads from the character ROM 101 the image data of each character of the variable symbol, the image data of the character of the predetermined reach image, the image data of the background image, and the image data of each character of the normal symbol. The image data designated by the display CPU 96 such as image data is taken out, edited by using the RAM 100 as a work area, and the image data of each character is placed at the designated arrangement position on the screen of the liquid crystal display 19 every predetermined time (first time).
In the case of the embodiment, the rearrangement / rearrangement is performed about every 1/30 second),
These image data are output to the liquid crystal display 19 via the output circuit 102. As a result, the background image, each character, and the like are displayed on the liquid crystal display 19 as a moving image.

Next, the liquid crystal display 1 corresponds to the changing state of each symbol of the variable symbol stored in the character ROM 101.
The image data of each character displayed on the screen 9 will be described with reference to FIGS. The main substrate 7
The symbol types of the variable symbols stored in advance in the symbol storage area 76A of the first ROM 76 and the program ROM 97 of the display control circuit unit 95 are “1”, “2”, “3”,
"4", "5", "6", "7", "8", "9",
There are 12 types: "male", "woman", and "frog". First,
"1" of the variable symbol stored in the character ROM 101
The image data of each character displayed on the screen of the liquid crystal display 19 in accordance with the symbol variation state will be described with reference to FIG. FIG. 5 shows image data of each character displayed on the screen of the liquid crystal display 19 in correspondence with the changing state of the symbol “1” of the variable symbol stored in the character ROM 101 of the pachinko machine 1 according to the first embodiment. FIG.
(A1) is a character of “1” having a large transmittance of 80%,
(A2) is a character of “1” having a large transmittance of 50%,
(A3) is a character of “1” having a large transmittance of 30%,
(A4) is a character of “1” having a large transmittance of 0%,
(B1) is a character of “1” having a small transmittance of 80%,
(B2) is a character of “1” having a small transmittance of 50%,
(B3) is a character of “1” having a small transmittance of 30%,
And (B4) show a character of "1" having a small transmittance of 0%.

As shown in FIGS. 5 (A1) to 5 (B4),
"1" of the variable symbol stored in the character ROM 101
The shape of each character displayed on the screen of the liquid crystal display 19 in accordance with the state of the pattern change is a shape of "a character drawn as wearing bold, round glasses". ing. (A1) is the character of "1" having a large transmittance of 80%, and (A2) is a character having a transmittance of 50%.
%, The character “1” having a large transmittance of 30%, the character “1” having a large transmittance of 30%, the character (A4) having the character “1” having a large transmittance of 0%, and (B1) being the transmittance. 80% of the small "1" character, (B
2) is the character of "1" having a small transmittance of 50%,
(B3) is composed of the character of "1" having a small transmittance of 30%, and (B4) is composed of the character of "1" having a small transmittance of 0%.

Next, the image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol "2" of the variable symbol stored in the character ROM 101 will be described with reference to FIG. I do. FIG. 6 shows image data of each character displayed on the screen of the liquid crystal display 19 in correspondence with the fluctuation state of the symbol “2” of the variable symbol stored in the character ROM 101 of the pachinko machine 1 according to the first embodiment. (A1) is a character of “2” having a large transmittance of 80%, (A2) is a character of “2” having a large transmittance of 50%, and (A3) is a character of “2” having a large transmittance of 30%. 2), (A4) is a character with a large transmittance of 0%, “B” is a character with a small transmittance of 80%, and (B2) is a character with a small transmittance of 50%. (B3) shows a character of "2" with a small transmittance of 30%, and (B4) shows a character of "2" with a small transmittance of 0%. 6 (A1) to 6 (B)
As shown in 4), the shape of each character displayed on the screen of the liquid crystal display 19 in response to the changing state of the symbol “2” of the variable symbol stored in the character ROM 101 is:
It is configured in the shape of "character in which bold 2 is drawn". (A1) is the character of "2" having a large transmittance of 80%, (A2) is the character of "2" having a large transmittance of 50%, and (A3) is the character of "2" having a large transmittance of 30%. Character (A4) has a transmittance of 0%
The character of “2” having a large (B1) has a transmittance of 8
The character of "2" having a small transmittance of 0%, (B2) is the character of "2" having a small transmittance of 50%, (B3) is the character of "2" having a small transmittance of 30%, and (B4) is It is composed of the character “2” having a small transmittance of 0%.

Next, the image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol "3" of the variable symbol stored in the character ROM 101 will be described with reference to FIG. I do. FIG. 7 shows image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “3” of the variable symbol stored in the character ROM 101 of the pachinko machine 1 according to the first embodiment. (A1) is a character of “3” having a large transmittance of 80%, (A2) is a character of “3” having a large transmittance of 50%, and (A3) is a character of “3” having a large transmittance of 30%. (3), (A4) is a character with a large transmittance of 0%, (B1) is a character with a small transmittance of 80%, and (B2) is a character with a small transmittance of 50%. (B3) shows a character of "3" having a small transmittance of 30%, and (B4) shows a character of "3" having a small transmittance of 0%. 7 (A1) to 7 (B)
As shown in 4), the shape of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “3” of the variable symbol stored in the character ROM 101 is:
It is configured in the shape of a "character in which three square eyes are drawn in bold 3". (A1) is a transmittance of 80%.
The character of “3” having a large (A2) has a transmittance of 5
The character of "3" having a large 0%, (A3) is the character of "3" having a large transmittance of 30%, (A4) is the character of the "3" having a large transmittance of 0%, (B1)
Is the character of “3” having a small transmittance of 80%, (B
2) is the character of "3" having a small transmittance of 50%,
(B3) is composed of the character of "3" having a small transmittance of 30%, and (B4) is composed of the character of "3" having a small transmittance of 0%.

Next, the image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol "4" of the variable symbol stored in the character ROM 101 will be described with reference to FIG. I do. FIG. 8 shows image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “4” of the variable symbol stored in the character ROM 101 of the pachinko machine 1 according to the first embodiment. (A1) is a character of “4” having a large transmittance of 80%, (A2) is a character of “4” having a large transmittance of 50%, and (A3) is a character of “4” having a large transmittance of 30%. The character of "4", the character of "4" with a large transmittance of 0% (A4), the character of "4" with a small transmittance of 80%, and the character of "B" with a small transmittance of 50% (B2) (B3) shows a character of "4" having a small transmittance of 30%, and (B4) shows a character of "4" having a small transmittance of 0%. 8 (A1) to 8 (B)
As shown in 4), the shape of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “4” of the variable symbol stored in the character ROM 101 is:
It is configured in the shape of "character in which bold 4 is drawn". (A1) is the character of "4" having a large transmittance of 80%, (A2) is the character of "4" having a large transmittance of 50%, and (A3) is the character of "4" having a large transmittance of 30%. Character (A4) is 0% transmittance
The character of “4” having a large value (B1) has a transmittance of 8
The character of “4” having a small transmittance of 0%, (B2) is the character of “4” having a small transmittance of 50%, the character of (B3) is the character of “4” having a small transmittance of 30%, and (B4) is It is composed of the character "4" having a small transmittance of 0%.

Next, the image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol "5" of the variable symbol stored in the character ROM 101 will be described with reference to FIG. I do. FIG. 9 shows image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “5” of the variable symbol stored in the character ROM 101 of the pachinko machine 1 according to the first embodiment. (A1) is a character of “5” having a large transmittance of 80%, (A2) is a character of “5” having a large transmittance of 50%, and (A3) is a character of “5” having a large transmittance of 30%. The character of "5", the character of (A4) is the character of "5" with a large transmittance of 0%, the character of (B1) is the character of "5" with a small transmittance of 80%, and the character of (B2) is a small "5" with a transmittance of 50%. (B3) shows a character “5” with a small transmittance of 30%, and (B4) shows a character “5” with a small transmittance of 0%. 9 (A1) to 9 (B)
As shown in 4), the shape of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “5” of the variable symbol stored in the character ROM 101 is:
It is configured in the shape of "a character in which a square eye is drawn in bold 5". (A1) is a transmittance of 80%.
The character of "5" having a large value (A2) has a transmittance of 5
The character of "5" having a large transmittance of 0%, (A3) is the character of "5" having a large transmittance of 30%, (A4) is the character of "5" having a large transmittance of 0%, and (B1).
Is the character of “5” having a small transmittance of 80%, (B
2) is the character of “5” having a small transmittance of 50%,
(B3) is composed of the character “5” having a small transmittance of 30%, and (B4) is composed of the character “5” having a small transmittance of 0%.

Next, the image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol "6" of the variable symbol stored in the character ROM 101 will be described with reference to FIG. I do. FIG. 10 shows image data of each character displayed on the screen of the liquid crystal display 19 in correspondence with the change state of the symbol “6” of the variable symbol stored in the character ROM 101 of the pachinko machine 1 according to the first embodiment. (A1) is a character of "6" having a large transmittance of 80%, (A2) is a character of "6" having a large transmittance of 50%, and (A3) is a character of a large "6" having a transmittance of 30%. (A4) is a character with a large transmittance of 0%, (B1) is a character with a small transmittance of 80%, and (B2) is a character with a small transmittance of 50%. (B3) shows a character of "6" with a small transmittance of 30%, and (B4) shows a character of "6" with a small transmittance of 0%. 10 (A1) to (B)
As shown in 4), the shape of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “6” of the variable symbol stored in the character ROM 101 is:
It is configured in the shape of a “character in which bold 6 is drawn”. (A1) is the character of "6" having a large transmittance of 80%, (A2) is the character of "6" having a large transmittance of 50%, and (A3) is the character of "6" having a large transmittance of 30%. Character (A4) has a transmittance of 0%
The character “6” having a large value (B1) has a transmittance of 8
The character “6” having a small transmittance of 0%, (B2) is the character having a small transmittance of 50%, the character “6” having a small transmittance of 30%, and (B4) is It is composed of the character "6" having a small transmittance of 0%.

Next, the image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol "7" of the variable symbol stored in the character ROM 101 will be described with reference to FIG. I do. FIG. 11 shows image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “7” of the variable symbol stored in the character ROM 101 of the pachinko machine 1 according to the first embodiment. (A1) is a character of "7" having a large transmittance of 80%, (A2) is a character of "7" having a large transmittance of 50%, and (A3) is a character of "7" having a large transmittance of 30%. 7), (A4) is a character of “7” having a large transmittance of 0%, (B1) is a character of “7” having a small transmittance of 80%, and (B2) is a character of “7” having a small transmittance of 50%. (B3) shows a character of "7" having a small transmittance of 30%, and (B4) shows a character of "7" having a small transmittance of 0%. 11 (A1) to 11 (B)
As shown in 4), the shape of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “7” of the variable symbol stored in the character ROM 101 is:
It is configured in the shape of a “character in which a square eye is drawn in bold 7”. (A1) is a transmittance of 80%.
The character of “7” having a large (A2) has a transmittance of 5
The character of "7" having a large transmittance of 0%, (A3) is the character of "7" having a large transmittance of 30%, (A4) is the character of "7" having a large transmittance of 0%, (B1)
Is the character of "7" having a small transmittance of 80%, (B
2) is the character of "7" having a small transmittance of 50%,
(B3) is composed of the character “7” having a small transmittance of 30%, and (B4) is composed of the character of “7” having a small transmittance of 0%.

Next, the image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol "8" of the variable symbol stored in the character ROM 101 will be described with reference to FIG. I do. FIG. 12 shows image data of each character displayed on the screen of the liquid crystal display 19 in correspondence with the change state of the symbol “8” of the variable symbol stored in the character ROM 101 of the pachinko machine 1 according to the first embodiment. (A1) is a character of "8" having a large transmittance of 80%, (A2) is a character of "8" having a large transmittance of 50%, and (A3) is a character of "8" having a large transmittance of 30%. The character “8”, (A4) is the character “8” having a large transmittance of 0%, (B1) is the character “8” having a small transmittance of 80%, and (B2) is the character “8” having a small transmittance of 50%. (B3) shows a character of "8" having a small transmittance of 30%, and (B4) shows a character of "8" having a small transmittance of 0%. 12 (A1) to (B)
As shown in 4), the shape of each character displayed on the screen of the liquid crystal display 19 in accordance with the changing state of the symbol “8” of the variable symbol stored in the character ROM 101 is:
It is configured in the shape of a “character in which bold 8 is drawn”. (A1) is the “8” character having a large transmittance of 80%, (A2) is the “8” character having a large transmittance of 50%, and (A3) is the “8” having a large transmittance of 30%. Character (A4) is 0% transmittance
The character of “8” having a large (B1) has a transmittance of 8
The character “8” having a small transmittance of 0%, the character “B” having a small transmittance of 50%, the character “8” having a small transmittance of 30%, and the character (B4) having a small transmittance of 30%. It is composed of the character “8” having a small transmittance of 0%.

Next, the image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol "9" of the variable symbol stored in the character ROM 101 will be described with reference to FIG. I do. FIG. 13 shows image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “9” of the variable symbol stored in the character ROM 101 of the pachinko machine 1 according to the first embodiment. (A1) is a character “9” having a large transmittance of 80%, (A2) is a character “9” having a large transmittance of 50%, and (A3) is a character “9” having a large transmittance of 30%. 9), (A4) is a large “9” character with a transmittance of 0%, (B1) is a small “9” character with a small transmittance of 80%, and (B2) is a small “9” with a transmittance of 50%. (B3) shows a character of "9" with a small transmittance of 30%, and (B4) shows a character of "9" with a small transmittance of 0%. 13 (A1) to 13 (B)
As shown in 4), the shape of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “9” of the variable symbol stored in the character ROM 101 is:
It is composed of the shape of "a character drawn in bold 9 with round glasses". And (A
1) is the character of "9" having a large transmittance of 80%,
(A2) is the character of “9” having a large transmittance of 50%, (A3) is the character of “9” having a large transmittance of 30%, and (A4) is the character of “9” having a large transmittance of 0%. , (B1) is “9” having a small transmittance of 80%.
(B2) is the character of "9" having a small transmittance of 50%, (B3) is the character of "9" having a small transmittance of 30%, and (B4) is the character of "9" having a small transmittance of 0%. 9 "characters.

Next, the image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol of the variable symbol "male" stored in the character ROM 101 will be described with reference to FIG. I do. FIG. 14 shows image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the design of the “male” of the changing design stored in the character ROM 101 of the pachinko machine 1 according to the first embodiment. (A1) is a “male” character with a large transmittance of 80%, (A2) is a “male” character with a large transmittance of 50%, and (A3) is a “male” character with a large transmittance of 30%. (A4) is a “male” character with a large transmittance of 0%, (B1) is a “male” character with a small transmittance of 80%, and (B2) is a “male” character with a small transmittance of 50%. (B3) shows a small "male" character with a transmittance of 30%, and (B4) shows a small "male" character with a transmittance of 0%. FIGS. 14 (A1) to (B)
As shown in 4), the shape of each character displayed on the screen of the liquid crystal display 19 corresponding to the variation state of the symbol of the variable symbol “male” stored in the character ROM 101 is:
It has the shape of a "character in which the profile of a boy wearing glasses on his head is drawn". And (A1)
Is the "male" character having a high transmittance of 80%, (A
2) is the "male" character having a large transmittance of 50%,
(A3) is the “male” character with a large transmittance of 30%, (A4) is the “male” character with a large transmittance of 0%, and (B1) is the “male” character with a small transmittance of 80%. , (B2) indicates the “male” having a small transmittance of 50%.
(B3) is composed of the "male" character having a small transmittance of 30%, and (B4) is composed of the "male" character having a small transmittance of 0%.

Next, the image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol of the variable symbol "woman" stored in the character ROM 101 will be described with reference to FIG. I do. FIG. 15 shows image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the design of the “woman” of the changing design stored in the character ROM 101 of the pachinko machine 1 according to the first embodiment. (A1) is a “female” character with a large transmittance of 80%, (A2) is a “female” character with a large transmittance of 50%, and (A3) is a “female” character with a large transmittance of 30%. "Female" character, (A4) is a "Female" character with a large transmittance of 0%, (B1) is a "Female" character with a small transmittance of 80%, and (B2) is a "Female" character with a small transmittance of 50%. (B3) shows a small "female" character with a transmittance of 30%, and (B4) shows a small "female" character with a transmittance of 0%. 15 (A1) to (B)
As shown in 4), the shape of each character displayed on the screen of the liquid crystal display 19 in accordance with the changing state of the symbol of the changing woman “female” stored in the character ROM 101 is:
It has the shape of a "character depicting a girl's profile with a floral decoration on the left side of his head". And (A
1) is the character of the "woman" with a high transmittance of 80%,
(A2) is the “female” character with a large transmittance of 50%, (A3) is the “female” character with a large transmittance of 30%, and (A4) is the “female” character with a large transmittance of 0%. , (B1) is the “woman” having a small transmittance of 80%.
(B2) is the “female” character with a small transmittance of 50%, (B3) is the “female” character with a small transmittance of 30%, and (B4) is the “female” character with a small transmittance of 0%. "Female" characters.

Next, the image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol "frog" of the variable symbol stored in the character ROM 101 will be described with reference to FIG. I do. FIG. 16 shows image data of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “frog” of the variable symbol stored in the character ROM 101 of the pachinko machine 1 according to the first embodiment. (A1) is a character of “frog” having a large transmittance of 80%, (A2) is a character of “frog” having a large transmittance of 50%, and (A3) is a character of “frog” having a large transmittance of 30%. (A4) is a “frog” character with a large transmittance of 0%, (B1) is a “frog” character with a small transmittance of 80%, and (B2) is a “frog” with a small transmittance of 50%. (B3) shows a character of "frog" having a small transmittance of 30%, and (B4) shows a character of "frog" having a small transmittance of 0%. 16 (A1) to (B)
As shown in 4), the shape of each character displayed on the screen of the liquid crystal display 19 corresponding to the changing state of the symbol “frog” of the variable symbol stored in the character ROM 101 is:
It consists of the shape of a "character sitting with a frog laughing". (A1) is the “frog” character having a large transmittance of 80%, (A2) is the “frog” character having a large transmittance of 50%, and (A3) is the “frog” having a large transmittance of 30%. (A4) is a character of the “frog” having a large transmittance of 0%, and (B1) is a transmittance of 80
(B2) is the character of the "frog" having a small transmittance of 50%, (B3) is the character of the "frog" having a small transmittance of 30%, and (B2)
4) is composed of the “frog” character having a small transmittance of 0%.

Here, the liquid crystal display 19 functions as a symbol display device. The character ROM 101 functions as character storage means. The display CPU 9
6 and the program ROM 97 constitute character selecting means. Further, the display CPU 96, the RAM 98, and the program ROM 97 constitute arrangement position determining means.
The display CPU 96, the program ROM 97, the RA
M98, VDP99, RAM100 and character RO
M101 constitutes a display control means.

Next, a description will be given, with reference to FIG. 17, of a start-up winning process executed by the CPU 75 of the main board 71 when a pachinko ball wins at each of the start-up openings 31 and 38 of the control system thus configured. FIG. 17 is a flowchart showing a starting port winning process executed by the CPU 75 of the main board 71 when a pachinko ball wins at each of the starting ports 31 and 38 of the pachinko machine 1 according to the first embodiment. In addition, the CPU 75 of the pachinko machine 1 is provided at predetermined time intervals (in the first embodiment,
When a pachinko ball wins in each of the starting ports 31 and 38 based on an interrupt signal input every about 10 msec), the starting port winning process is executed.

As shown in FIG. 17, first, in step (hereinafter referred to as S) 1, the CPU 75
Winning of 1 and 38 pachinko balls, ie each starting port switch 3
A determination process is performed to determine whether or not pachinko ball detection signals from 1A and 38A have been input through the input circuit 78. If the pachinko ball detection signals from the starting port switches 31A and 38A have not been input via the input circuit 78 (S1: NO), the process ends.

On the other hand, when the pachinko ball detection signals from the starting port switches 31A and 38A are input via the input circuit 78 (S1: YES), at S2,
Execute "count value acquisition processing". This “count value acquisition process” is executed by the CPU 75
The numerical value stored in the jackpot counter 77A when the pachinko ball detection signal is input from A, 38A is substituted into the algebra V as the "big hit count value" at that time and stored in the parameter storage area 77H. Therefore, any numerical value from “0” to “198” is assigned to the algebra V and stored in the parameter storage area 77H.

At the same time, the CPU 75 substitutes the numerical value stored in the reach counter 77E when the winning signal is inputted from each of the starting opening switches 31A and 38A into the algebra M as the "reach count value" at that time. Stored in the parameter storage area 77H. Therefore, this algebra M
Is substituted with a numerical value from “0” to “142” and stored in the parameter storage area 77H.

At the same time, the CPU 75 uses the numerical value stored in the jackpot symbol selection counter 77F when a winning signal is inputted from each of the start-up opening switches 31A and 38A as an algebraic number at that time. Y is stored in the parameter storage area 77H. Therefore, any numerical value from “0” to “29” is substituted for the algebra Y and stored in the parameter storage area 77H.

Further, at the same time, the CPU 75 uses the numerical value stored in the loss symbol selection counter 77G when the winning signal is inputted from each of the starting port switches 31A and 38A as the "loss symbol selection count value" at that time. Z
And stored in the parameter storage area 77H. Therefore, any numerical value from “0” to “210” is substituted for the algebra Z and stored in the parameter storage area 77H. It should be noted that the number of pachinko balls won in each of the starting ports 31 and 38 during the fluctuation of the fluctuation symbol displayed on the liquid crystal display 19 is retained in the first reservation counter 77C up to a maximum of four, and the number of pachinko balls at the time of each prize is determined. The above-described count values are stored in the parameter storage area 77E, and the processing in and after S3 described later is sequentially performed.

Next, in S3, the CPU 21 executes a determination process for determining whether or not a "big hit" has occurred. In the process of determining whether or not a big hit has occurred, first, an algebra V as a “big hit count value” is read from the parameter storage area 77H. Then, this algebra V is stored in the ROM 76 as a “big hit value” (in the case of the first embodiment,
"7". ) Is determined. If they match, "1" is substituted for the jackpot algebra R ("0" is substituted for the jackpot algebra R when the power is turned on) and stored in the parameter storage area 77H. , "0" is substituted for the jackpot algebra R and stored in the parameter storage area 77H. Therefore, the probability of occurrence of "big hit" is 1/199.

Then, again, the parameter storage area 77H
Jackpot algebra R is read from
Is determined as “0” or “1”. That is, it is determined whether a "big hit" has occurred. When the jackpot algebra R is "1", it is determined that a "jackpot" has occurred (S3: YES), and in S4, the CPU 75
Reads the algebra Y as the "big hit symbol selection count value" from the parameter storage area 77H, and selects the "big hit symbol" corresponding to the algebra Y from the "big hit symbols" stored in the symbol storage area 76A. And
The read symbol data and the variation pattern data as the “big hit symbol” are instructed to the display CPU 96 as a “symbol instruction command” as a parameter storage area 77H.
To memorize.

Therefore, when the algebra Y is “0 to 2”,
The symbol data “111” and the variation pattern 1 are selected as “big hit symbols”. When the algebra Y is “3-4”, the symbol data “222” and the variation pattern 2 are selected as “big hit symbols”. When the algebra Y is “5-7”, the symbol data “333” and the variation pattern 3 are selected as “big hit symbols”. When the algebra Y is “8-9”, the symbol data “444” and the variation pattern 4 are selected as “big hit symbols”. When the algebra Y is “10-12”,
The symbol data “555” and the variation pattern 5 are selected as “big hit symbols”. Also, if the algebra Y is "13 to 1
In the case of “4”, the symbol data “666” and the variation pattern 6 are selected as “big hit symbols”. When the algebra Y is “15 to 17”, the symbol data “777” and the variation pattern 7 are selected as “big hit symbols”. When the algebra Y is “18 to 19”, “88”
8 "and the fluctuation pattern 8 are" big hits "
Is selected as When the algebra Y is "20 to 22", the symbol data "999" and the variation pattern 9 are selected as "big hit symbols". When the algebra Y is "23 to 24", the symbol data and the variation pattern 10 of "frog frog" are selected as "big hit symbols". When the algebra Y is "25 to 27", the symbol data of "woman and woman" and the variation pattern 11 are selected as "big hit symbols". Furthermore, if the algebra Y is "28-29"
In the case of, the design data and variation pattern 1
2 is selected as the "big hit symbol".

On the other hand, in S3, the jackpot algebra R is read out again from the parameter storage area 77H, and if the jackpot algebra R is "0", it is determined that "losing" (S3: NO), and in S5 , The CPU 75
A determination process is performed to determine whether "reach loss" has occurred. In the determination process for determining whether or not the “reach loss” has occurred, first, the CPU 75 reads the algebra M as the “reach count value” from the parameter storage area 77H.
Is read. And this algebra M is "0" to "13"
In either case, it is determined that “reach loss” has occurred. Also, this algebra M is "14" to "142".
In either case, it is determined that “reach loss” has not occurred.

If it is determined that the "reach loss" has occurred in S5 (S5: YES), the "reach pattern" and the "reach loss pattern" are determined in S6, and the read "reach loss pattern" is read. Are stored in the parameter storage area 77H as the "design instruction command" for instructing the display CPU 96. The CPU 75 determines the “reach pattern” by reading the reach pattern data corresponding to the algebra M as the “reach count value” read from the parameter storage area 77H.
Is read from the reach pattern storage area 76B, and the reach pattern data is used as variation pattern data. Therefore, when the algebra M is any one of “0” to “3”, the reach pattern data of “reach pattern A” is read and stored in the parameter storage area 77H as variation pattern data. When the algebra M is any of “4” to “7”, the “reach pattern B”
Is read and stored in the parameter storage area 77H as variation pattern data.
If the algebra M is any one of "8" to "11", the reach pattern data of "reach pattern C" is read and stored in the parameter storage area 77H as variation pattern data. Furthermore, this algebra M is "1
In the case of any of “2” to “13”, the reach pattern data of “reach pattern D” is read and stored in the parameter storage area 77H as variation pattern data.

The CPU 75 reads the algebra Z as the “losing symbol selection count value” from the parameter storage area 77H and determines the “reach-losing symbol” symbol data corresponding to the algebra Z. Is read from the symbol storage area 76A of the ROM 76, and is stored in the parameter storage area 77H as symbol data of the "symbol instruction command". Therefore, for example, when the algebra Z read from the parameter storage area 77H is "0", the design data of "woman 6 female" is read from the design storage area 76A, and the parameter storage area 77H is read as the design data of "reach loss". To memorize.

On the other hand, if it is determined in S5 that "reach loss" has not occurred (S5: NO), a "normal loss pattern" is determined in S7, and the read "normal loss pattern" symbol data is read. And the variation pattern data are stored in the parameter storage area 77H as a "symbol instruction command" for instructing the display CPU 96. The CPU 75 determines the “normal loss symbol” from the parameter storage area 77H by using the “loss symbol selection count value”.
Is read from the symbol storage area 76A of the ROM 76, and the symbol data and the variation pattern data of the "normal loss symbol" corresponding to the algebra Z are read as the symbol data and the variation pattern data of the "symbol instruction command". It is stored in the storage area 77H. Therefore, for example, when the algebra Z read from the parameter storage area 77H is “0”, the symbol data of the “female 64” and the variation pattern 31 are read from the symbol storage area 76A,
It is stored in the parameter storage area 77H as the symbol data of the "symbol instruction command" and the variation pattern data.

Next, in S8, the CPU 75 again stores the "design instruction command" from the parameter storage area 77H.
Is read out, and the “design instruction command” is output via the output circuit 79.
Is output to the display CPU 96 of the display control circuit unit 95 as a symbol change start command. Therefore, when a "big hit" occurs (S3: YES), the symbol data of the "big hit symbol" and the variation pattern data are sent from the CPU 75 via the output circuit 79 to the display CPU as a symbol variation start command.
96. (For example, when “female woman” is selected as the “big hit symbol” displayed on the liquid crystal display 19 at that time and “variation pattern 11” is selected as the variation pattern data, the CPU 75 outputs the output circuit 79 To the display control circuit 95 via the 2-byte hexadecimal number “020”.
After outputting "2" as a symbol signal, 1-byte hexadecimal number "0"
"1" is output as a fluctuation pattern signal. In the case of “reach loss” (S5: YES),
The design data of the “reach loss pattern” and the variation pattern data of the “reach pattern” are sent from the CPU 75 via the output circuit 79 to the display CPU 9 as a symbol variation start command.
6 is output. (For example, when “woman 6 woman” is selected as the “losing pattern” displayed on the liquid crystal display 19 at that time and “reach pattern A” is selected as the variation pattern data, the CPU 75 outputs the output circuit 79 To the display control circuit 95 via the 2-byte hexadecimal number “030”.
After outputting "2" as a symbol signal, 1-byte hexadecimal number "0"
3 "is output as a fluctuation pattern signal. In the case of "normal loss" (S5: NO), the symbol data and the variation pattern data of the "normal loss symbol" are sent from the CPU 75 to the output circuit 7 as a symbol variation start command.
9 to the display CPU 96. (For example,
When the “female 64” is selected as the “normal loss pattern” displayed on the liquid crystal display 19 at that time, the CPU 75
Outputs a 2-byte hexadecimal number “0201” as a symbol signal to the display control circuit unit 95 via the output circuit 79. Subsequently, a pattern signal such as a 1-byte hexadecimal number “05” representing a variation pattern of “normal loss pattern” is also transmitted. )

Next, in S9, the CPU 75 reads from the ROM 76 the processing time of the variable display processing of the "symbol instruction command" output to the display control circuit section 95, and waits for the processing time (S9: NO). The processing time of each variable display process is stored in the ROM 76 in advance.

If the processing time of the variable display processing of the "symbol instruction command" has elapsed (S9: YES), the process proceeds to S1.
At 0, the CPU 75 outputs a confirmation stop signal to the display control circuit unit 95 to instruct the display CPU 96 to stop the fluctuation, that is, to instruct the display CPU 96 to perform the confirmation stop. (For example, the CPU 75 outputs a 2-byte hexadecimal number “0100” to the display control circuit unit 95 via the output circuit 79 as a determination signal.)

Next, in S11, the CPU 75 executes a sub-process (see FIG. 18) of "big hit game process" described later and ends the process.

Next, the sub-process (S11) of the "big hit game process" will be described with reference to FIG. FIG.
8 is a sub-flowchart showing a sub-process of the "big hit game process" of the pachinko machine 1 according to the first embodiment. As shown in FIG. 18, first, in S15, the CPU 75
Executes a determination process for determining whether or not a "big hit" has occurred. This determination process is performed in the parameter storage area 77
The jackpot algebra R is read from H, and this jackpot algebra R
Is determined as “0” or “1”. That is, it is determined whether a "big hit" has occurred. And this jackpot algebra R
Is "0", it is determined that "big hit" has not occurred (S15: NO), the sub-process is ended, and the process returns to "start-up opening winning process".

On the other hand, if the jackpot algebra R read from the parameter storage area 77H is "1", it is determined that a jackpot has occurred (S15: YES). Then, the first opening / closing door 39 that closes the special winning opening 40 is opened.

Subsequently, in S17, it is determined whether or not the number of winning balls that have won the special winning opening 40 reaches ten, ie, whether or not the number of winnings detected by the special winning opening count switch 40A has reached ten. Is determined. And big winning opening 40
If the number of winning balls that have won the game has not reached 10 (S
17: NO), in S18, it is determined whether or not a predetermined time (25 seconds in the case of the first embodiment) has elapsed since the opening of the special winning opening 40. And big winning opening 40
If the predetermined time has not elapsed since the release of
8: NO), and executes the processing of S16 and thereafter again.

On the other hand, the winning prize winning in the special winning opening 40 is 1
If the number reaches zero (S17: YES), or if a predetermined time has elapsed after opening the special winning opening 40 (S1).
8: YES), in S19, the CPU 75 closes the first winning opening 40 by closing the first opening / closing door 39 via the first solenoid 54.

Subsequently, in S20, the CPU 75
Whether or not a win has occurred in the V zone provided in the special winning opening 40 while the special winning opening 40 is open, that is, whether or not a detection signal of a winning ball is input from the V switch 40B while the special winning opening 40 is open. A determination process is performed to determine If a winning detection signal is input from the V switch 40B while the special winning opening 40 is open (S20: YES), S2 is performed.
In the first embodiment, the number of times the special winning opening 40 is continuously opened is the predetermined maximum number of times (in the case of the first embodiment, “16”
Times ". ) Is performed to determine whether or not the value has reached. If the number of times that the special winning opening 40 has been opened does not reach the predetermined maximum continuous number (S21: NO), a predetermined time (in the first embodiment, about 2 seconds) after closing the special winning opening 40 After the elapse, the processing after S16 is executed again.

When the winning detection signal is not input from the V switch 40B while the special winning opening 40 is open (S2).
0: NO) or when the number of times that the special winning opening 40 has been opened reaches a predetermined maximum continuous number (S21:
YES), the sub-process is terminated, and the “start-up opening winning process” is performed.
Return to

Next, a control process for displaying a “big hit symbol” or the like executed by the display CPU 96 of the control circuit unit 95 configured as described above will be described with reference to FIG. FIG. 19 is a flowchart showing a control process corresponding to a symbol change start command signal executed by the display CPU 96 of the display control circuit unit 95 of the pachinko machine 1 according to the first embodiment. The display CPU 96 of the display control circuit unit 95
Based on an interrupt signal input every predetermined time (in the first embodiment, approximately every 10 msec), a control process corresponding to a symbol change start command signal from the main board 71 is executed.

As shown in FIG. 19, first, in S25, the display CPU 96 executes a determination process for determining whether or not a symbol change start command has been input from the main board 71. (For example, it is determined whether a 2-byte hexadecimal number “0202” and a 1-byte hexadecimal number “01” have been input.) Then, the display CPU 96 receives a symbol change start command from the main board 71. If not (S25: N
O), the process ends.

On the other hand, when the symbol change start command is input from the main board 71, the display CPU 96 (S2).
5: YES), in S26, the symbol variation start command signal is stored in the RAM 98, and the variation pattern corresponding to the variation pattern data of the symbol variation start command is stored in the program RO.
The data is read from M97 and stored in the RAM 98.

Next, in S27, the display CPU 96
Is a sub-process of “character selection processing of each column” to be described later for selecting each character to be displayed in the left, middle, and right columns on the screen based on the variation pattern data stored in the RAM 98 (see FIG. 20). Execute

Subsequently, in S28, the display CPU 9
No. 6 executes a process of “determining the character arrangement position” for determining the arrangement positions of the selected characters in the left, middle, and right columns on the screen. In the process of "determining the character arrangement position", first, an origin O of the XY coordinates is set on the screen of the liquid crystal display 19 at an upper left corner of the screen, and an X axis is provided from the origin O to the right of the screen. The Y axis is provided downward from the origin O on the screen. Then, the variable area of each of the left, middle, and right columns is set on the screen. (In the first embodiment, the X coordinate is set to 0 to 600, and the Y coordinate is set to 0 to 400. In the variable region in the left column, the X coordinate is 50 to 180, and the Y coordinate is The variable range in the middle row has an X coordinate of 230 to 360 and a Y coordinate of 0 to 400.
400. Further, the variable area in the right column has an X coordinate of 41.
0 to 540, and the Y coordinate is 0 to 400. Next, the variation pattern data is read from the RAM 98,
The arrangement position of each selected character in each of the left, middle, and right columns is calculated. For example, in the case of a normal fluctuation state, the arrangement position is calculated so that two or three characters are arranged in the vertical direction of the screen in each of the left column, the middle column, and the right column. Also,
In the reach state, the arrangement position is calculated so that each character is arranged at the upper peripheral portion of the screen in each of the left, middle, and right columns. A reference point is provided at the upper left corner of each character, and the XY coordinates of the reference point in the left, middle, and right columns of the variable area are calculated and stored in the RAM 98 as character arrangement position data. Remember.

Then, in S29, the display CPU 9
In step 6, the symbol data of each character selected in S27 and the coordinate data of the arrangement position of the character are read out again from the RAM 98 and instructed to the VDP 99. This allows
The VDP 99 reads the image data of each character from the character ROM 101, and uses the RAM 100 as a work area to place the image data of this character in the arrangement position on the background image at predetermined intervals (in the first embodiment, approximately every 1/30 second).
And outputs it to the liquid crystal display 19 via the output circuit 102. Therefore, when the arrangement position of each character greatly changes in the downward direction, it is displayed as a state in which the position fluctuates at a high speed in the downward direction on the screen.

Next, in S30, the display CPU 96
Executes a determination process to determine whether or not a finalization stop signal has been input from the CPU 75 of the main board 71. If the finalization stop signal has not been input (S30: NO),
The processing after S27 is executed.

On the other hand, when the determination stop signal is input from the CPU 75 of the main board 71 (S
30: YES), in S31, a character having a large transmittance of 0% corresponding to each of the left, middle, and right columns of characters temporarily stopped and displayed on the screen at the end of the variation pattern display (FIGS. 5 to 5). 16 (see the character of (A4)) are selected as the fixed stop symbols of the left, middle, and right columns.

Then, in S32, the display CPU 9
6 calculates the arrangement position coordinates at which the character having a large transmittance of 0% is displayed at substantially the center of the left, middle, and right columns in the vertical direction, and the symbol data of the fixed stop symbol and the symbol data of each character are calculated. The arrangement position data is instructed to the VDP 99, and the process ends. As a result, the VDP 99 has a transmittance of 0
% Character image data in character ROM
101, the image data of the character is arranged at an arrangement position on the background image at predetermined intervals (in the first embodiment, approximately every 1/30 second) using the RAM 100 as a work area. Output to the display 19. Therefore, a character having a large transmittance of 0% is displayed substantially at the center of the screen.

Next, this "character selection processing for each column"
The sub-process (S27) will be described with reference to FIG. FIG. 20 is a sub-flowchart showing a sub-process of “character selection process of each row” of the pachinko machine 1 according to the first embodiment. As shown in FIG. 20, first, in S35, the display CPU 96 performs a determination process of determining whether the selected variation pattern is any of the reach patterns A to D. If the selected variation pattern is any of reach pattern A to reach pattern D (S35: YES),
In S36, each character in each of the left row, middle row, and right row is selected from characters having a small transmittance of 50% (refer to each character (B2) in FIGS. 5 to 16), and the processing is terminated. Return to “Process”. As a result, at the time of the reach pattern, a character having a small transmittance of 50% is displayed in the upper peripheral portion of the screen, as described later, and the background image in the central portion of the screen is not covered by the variable symbol (see FIGS. 27 and 28).

If the selected variation pattern is not any of the reach patterns A to D (S35: NO), in S37, the variation state of each column of the selected variation pattern is changed to the normal state. A determination process is performed to determine whether or not it is changing. Then, when the fluctuation state of each row of the selected fluctuation pattern is a normal high-speed fluctuation (S37: YES), in S38, each character of each left row, middle row, and right row is set to a transmittance of 80. % (See characters (A1) in FIGS. 5 to 16)
And terminates the process and returns to the "symbol display process".
Thus, when the fluctuation state of each of the left, middle, and right columns is a normal high-speed fluctuation, a character having a large transmittance of 80% is displayed on the screen with a high-speed fluctuation as described later.
A background image can be seen through the character (FIGS. 21 to 21).
See FIG. 23).

On the other hand, if the fluctuation state of each column of the selected fluctuation pattern is not during normal high-speed fluctuation (S3
7: NO), in S39, a determination process is performed to determine whether or not the variation state of each column of the selected variation pattern is a temporary stop state that is temporarily stopped and displayed. If the fluctuation state of each row of the selected fluctuation pattern is temporarily stopped (S39: YES), in S40, the characters in the temporarily stopped state of each of the left, middle, and right rows are transmitted. 0% of large characters (each (A in FIG. 5 to FIG. 16)
4), the process is terminated, and the process returns to the "symbol display process". As a result, a character having a high transmittance of 0% is temporarily stopped and displayed at the center of the screen while swinging up and down in the order of left column → right column → middle column (FIG. 22).
To FIG. 24). On the other hand, if the fluctuation state of each column of the selected fluctuation pattern is not temporarily stopped (S39: N
O), end the processing and return to “symbol display processing”.

Next, the display CPU 96 sets the C
When the symbol variation start command signal instructed from the PU 75 is the symbol signal of “woman 64” as the “normal loss symbol” and the variation pattern 31 as the variation pattern signal, the screen of the liquid crystal display 19 is displayed about every 1/30 second. Will be described with reference to FIGS. 21 to 25. FIG. First, after winning the starting ports 31 and 38, the high-speed fluctuation of each of the left, middle, and right columns in the case of the pattern data of "woman 64" as the "normal loss pattern" displayed on the screen of the liquid crystal display 19. One image of the state will be described with reference to FIG.
FIG. 21 shows each starting port 3 of the pachinko machine 1 according to the first embodiment.
After winning the prizes 1 and 38, one image of the high-speed fluctuation state of each of the left, middle, and right columns in the case of the design data of “female 64” as the “normal loss design” displayed on the screen of the liquid crystal display 19 It is a figure showing an example.

As shown in FIG. 21, the background image on the screen of the liquid crystal display 19 depicts a scene where a boy wearing round glasses on his head in a living room with a sliding door is taking a nap. In addition, a shirt depicting a frog character hanging on a clothesline can be seen from the side of the edge where the shoji is opened. And
Above the variable area in the left column, a character having a large transmittance of 80% (see FIG. 11 (A1)) in the shape of a “character in which a square is drawn with bold 7” is arranged.
In addition, below this “character in which a square is drawn with bold 7”, a character having a large transmittance of 80% in the shape of “character in which bold 6 is drawn” (FIG. 10)
(Refer to (A1)). In addition, a character having a large transmittance of 80% (see FIG. 14 (A1)) in the shape of a “character in which the profile of a boy wearing glasses is drawn on the head” is arranged above the fluctuation region in the middle row. Have been. In addition, below this “character in which the profile of a boy wearing glasses on his head is drawn”, the transmittance is represented by the shape of “a character drawn as wearing round glasses with bold 9”. 80% of large characters (FIG. 13 (A
1) is arranged. Further, a character (see FIG. 7 (A1)) having a large transmittance of 80% in the shape of a “character in which a square is drawn with a bold 3” is arranged substantially at the center of the fluctuation region in the right column. . A character with a large transmittance of 80% in the shape of a "character in which a bold 2 is drawn" is provided below the "character in which a square is drawn in a bold 3" (see FIG. 6 (A1)). ) Is arranged. Thus, the outline of each character is clearly shown, but since the transmittance is 80%, the lower background image can be seen through each character. Therefore, during the high-speed fluctuation of each column, the left-, middle-, and right-column fluctuation regions can be displayed by the afterimage effect of the outline of each character, and the lower region of each of the left-, middle-, and right-column fluctuation regions can be displayed. The background image of can be seen through.

Next, as the "normal loss pattern" displayed on the screen of the liquid crystal display 19, in the case of the pattern data of "woman 64", the left row of the variable pattern is temporarily stopped, and each of the middle row and right row is stopped. One image of the high-speed fluctuation state will be described with reference to FIG. FIG. 22 shows a liquid crystal display 1 of the pachinko machine 1 according to the first embodiment.
9 as the “normal loss pattern” displayed on the screen of
In the case of the symbol data of "4", the left column of the variable symbol is temporarily stopped, and each of the middle and right columns is an example of one image in a high-speed variable state. As shown in FIG. 22, the background image on the screen of the liquid crystal display 19 depicts a scene in which a boy wearing round glasses on his head in a living room with a sliding door is taking a nap. In addition, a shirt depicting a frog character hanging on a clothesline can be seen from the side of the edge where the shoji is opened. And
A character with a large transmittance of 0% in the shape of a "character in which the profile of a girl with a flower decoration is drawn on the left side of the head" is provided at a substantially central position of the variable region in the left column (FIG. 15 (A4)
See).

A character having a shape of “a character depicting a boy's profile wearing glasses on his head” and having a large transmittance of 80% (FIG. 14)
(Refer to (A1)). In addition, below this “character in which the profile of a boy wearing glasses on his head is drawn”, the transmittance is represented by the shape of “a character drawn as wearing round glasses with bold 9”. A large character of 80% (see FIG. 13 (A1)) is arranged. Further, a character (see FIG. 7 (A1)) having a large transmittance of 80% in the shape of a “character in which a square is drawn with a bold 3” is arranged substantially at the center of the fluctuation region in the right column. . A character with a large transmittance of 80% in the shape of a "character in which a bold 2 is drawn" is provided below the "character in which a square is drawn in a bold 3" (see FIG. 6 (A1)). ) Is arranged. Thereby, the character in the left column of "woman 64" of the "normal loss pattern" is clearly displayed on the screen. Although the outlines of the characters in the middle and right columns are clearly shown, since the transmittance is 80%, the lower background image can be seen through each character.

Next, the left and right columns of the variable pattern in the case of the pattern data of "woman 64" as the "normal loss pattern" displayed on the screen of the liquid crystal display 19 are temporarily stopped, and the middle row is One image of the high-speed fluctuation state will be described with reference to FIG. FIG. 23 is a liquid crystal display 1 of the pachinko machine 1 according to the first embodiment.
9 as the “normal loss pattern” displayed on the screen of
4 is a diagram showing an example of an image in which the left and right columns of the variable symbol in the case of the symbol data of “4” are temporarily stopped, and the middle column is in a high-speed variable state. As shown in FIG. 23, a background picture on the screen of the liquid crystal display 19 depicts a scene in which a boy wearing round glasses wears his head in a living room with a sliding door and taking a nap. In addition, a shirt depicting a frog character hanging on a clothesline can be seen from the side of the edge where the shoji is opened. And
A character with a large transmittance of 0% in the shape of a "character in which the profile of a girl with a flower decoration is drawn on the left side of the head" is provided at a substantially central position of the variable region in the left column (FIG. 15 (A4)
See).

A character having a shape of "a character in which the profile of a boy wearing glasses is drawn on the head" and having a large transmittance of 80% (FIG. 14)
(Refer to (A1)). In addition, below this “character in which the profile of a boy wearing glasses on his head is drawn”, the transmittance is represented by the shape of “a character drawn as wearing round glasses with bold 9”. A large character of 80% (see FIG. 13 (A1)) is arranged. Further, at the substantially center position of the fluctuation region in the right column, the transmittance is 0% in the shape of a “character in which bold 4 is drawn”.
(See FIG. 8 (A4)). As a result, the characters in each of the left and right columns of the "woman 64" of the "normal loss pattern" are clearly displayed on the screen. The outline of the character in the middle row is clearly shown, but since the transmittance is 80%, the lower background image can be seen through this character.

Next, as the "normal loss pattern" displayed on the screen of the liquid crystal display 19, each of the left, middle, and right columns of the variable pattern in the case of the pattern data of "woman 64" is temporarily stopped. The image will be described with reference to FIG. FIG. 24 shows each of the left, middle, and right rows of the variable design in the case of the design data of “woman 64” as the “normal loss design” displayed on the screen of the liquid crystal display 19 of the pachinko machine 1 according to the first embodiment. FIG. 7 is a diagram illustrating an example of an image in which a row is temporarily stopped. As shown in FIG.
The background image on the screen of the liquid crystal display 19 depicts a scene where a boy wearing round glasses on his head in a living room with a sliding door is taking a nap. In addition, a shirt depicting a frog character hanging on a clothesline can be seen from the side of the edge where the shoji is opened. A character having a shape of “a character in which a profile of a girl with a floral decoration is drawn on the left side of the head” and having a large transmittance of 0% is provided at substantially the center of the variable region in the left column (FIG. 15 (A4)). See). Also,
A character (see FIG. 10 (A4)) having a large transmittance of 0% in the shape of a “character in which a bold 6 is drawn” is disposed substantially at the center of the variable region in the middle row. Further, a character (see FIG. 8 (A4)) having a large transmittance of 0% in the shape of a “character in which bold 4 is drawn” is arranged substantially at the center of the variable region in the right column. As a result, each left column of "woman 64" in the "normal loss pattern"
Characters with a large transmittance of 0% in the middle row and right row are temporarily stopped and clearly displayed on the screen. In the case of the temporary stop state, the characters with a large transmittance of 0% in each of the left, middle, and right columns of the "woman 64" are displayed in a fluctuating manner in the vertical direction with a small width in the vertical direction. (For example, the Y coordinate position of the reference point of the character in each of the left, middle, and right columns is 175
→ 200 → 225 → 200 → 175 → 150 → 125 →
The display is changed and displayed repeatedly in the order of 150 → 175. )

Next, a state in which the left, middle, and right columns of the variable pattern in the case of the pattern data of "woman 64" as the "normal loss pattern" displayed on the screen of the liquid crystal display 19 is fixed and stopped. One image will be described with reference to FIG. FIG. 25 shows the first
The left, middle, and right columns of the variable symbol in the case of the symbol data of "woman 64" as the "normal loss symbol" displayed on the screen of the liquid crystal display 19 of the pachinko machine 1 according to the embodiment are fixed and stopped. It is a figure showing an example of one picture of the state where it was in a state. As shown in FIG. 25, the background image on the screen of the liquid crystal display device 19 depicts a scene where a boy wearing round glasses on his head in a living room with a sliding door is taking a nap. In addition, a shirt depicting a frog character hanging on a clothesline can be seen from the side of the edge where the shoji is opened. A character having a shape of “a character in which a profile of a girl with a floral decoration is drawn on the left side of the head” and having a large transmittance of 0% is provided at substantially the center of the variable region in the left column (FIG. 15 (A4)). See). In addition, a character (see FIG. 10 (A4)) having a large transmittance of 0% in the shape of a “character in which a bold 6 is drawn” is disposed substantially at the center of the middle row of the variable region. Further, at the substantially center position of the fluctuation region in the right column, the transmittance is 0% in the shape of a “character in which bold 4 is drawn”.
(See FIG. 8 (A4)). As a result, large characters with a transmittance of 0% in each of the left, middle, and right columns of the "woman 64" of the "normal loss pattern" are clearly displayed on the screen. In the case of the fixed stop state, the characters in the left, middle, and right columns of the "woman 64" are stopped and displayed at substantially the center of the screen in an aligned state. (For example, the Y coordinate positions of the reference points of the characters in the left, middle, and right columns are displayed in a fixed state at 175.)

Next, the display CPU 96 sets the C
When the design variation start command signal instructed from the PU 75 is the design signal of "woman 6 female" as the "reach loss design" and the reach pattern A as the variation pattern signal, the screen of the liquid crystal display 19 is displayed about every 1/30 second. An example of the display of each character on the background image displayed in FIG. After winning the starting openings 31 and 38, the left column of the screen of the liquid crystal display 19 has a shape of "a character in which the profile of a girl with a flower decoration is drawn on the left side of the head" and has a transmittance of 0%. The process until the large character (see FIG. 15 (A4)) is stopped and displayed, and the middle row and the right row are displayed in the high-speed change state is the same as in FIGS. 21 and 22.

First, the left and right rows of the variation pattern in the case of “female 6 female” as the “reach loss pattern” displayed on the screen of the liquid crystal display 19 are temporarily stopped, and the middle row is in the high-speed variation state. One image will be described with reference to FIG. FIG. 26 shows the first
In the pachinko machine 1 according to the embodiment, the left and right rows of the variation pattern in the case of “female 6 female” as the “reach loss pattern” displayed on the screen of the liquid crystal display 19 of the pachinko machine 1 are temporarily stopped, and the middle row is high speed. It is a figure showing an example of one picture of a change state. As shown in FIG. 26, the background image on the screen of the liquid crystal display device 19 depicts a scene where a boy wearing round glasses on his head in a living room with a sliding door is taking a nap. In addition, a clothesline can be seen from the side where the shoji was opened. A character having a shape of “a character in which a profile of a girl with a floral decoration is drawn on the left side of the head” and having a large transmittance of 0% is provided at substantially the center of the variable region in the left column (FIG. 15 (A4)). See).

Above the variable region in the middle row, a “character in which bold 8 is drawn” has a transmittance of 80%.
(See FIG. 12 (A1)). In addition, below this "character in which bold 8 is drawn", a character having a large transmittance of 80% in the shape of "a character in which bold 7 is drawn as a square" (see FIG. 11 (A1)) ) Is arranged. Further, a character having a shape of "a character in which the profile of a girl with a flower decoration is drawn on the left side of the head" and having a large transmittance of 0% is provided at a substantially central position of the fluctuation region in the right column (FIG. 15 (A4)). See). As a result, the characters in each of the left and right columns of “female 6 female” as “reach loss pattern”
It is clearly displayed on the screen. The outline of the character in the middle row is clearly shown, but the transmittance is 80%.
%, The lower background image can be seen through each character. This also allows the player to recognize that the player has reached the reach state.

Next, the display of the reach mode screen displayed when the "reach loss pattern" has reached the "woman 6 female" reach state will be described with reference to FIG. FIG. 27 is a view showing a reach mode screen displayed when the “reach losing pattern” displayed on the screen of the liquid crystal display 19 of the pachinko machine 1 according to the first embodiment is in a “woman 6 female” reach state. It is a figure showing an example. As shown in FIG. 27, in the background image of the screen of the liquid crystal display 19 in the reach state, a frog character is drawn by two boys in front of a three-story school building with a wire mesh fence on the rooftop. The drawing shows a scene in which the left and right sleeves of a worn shirt are pulling each other. A small character having a transmittance of 50% in the shape of a "character in which the profile of a girl with a flower decoration is drawn on the left side of the head" is displayed in the peripheral portion of the screen above the variable region in the left column (FIG.
5 (B2)). In addition, at the upper end of the screen above the fluctuation region in the middle row, a character having a shape of “a character drawn as wearing bold 9 with round glasses” and having a small transmittance of 50% (FIG. 13 (B2 )reference)
About the lower half is located. Under this “character in which bold 9 is drawn as wearing round glasses”, a small character having a transmittance of 50% in the shape of “character in which bold 8 is drawn” (FIG. 12) (See (B2)). Furthermore, in the peripheral portion of the screen above the variable region in the right column, a character having a shape of “a character with a flower decoration on the left side of the head depicting a profile” is 50% transparent.
(See FIG. 15 (B2)). As a result, the "Female 6" of the "reach loss pattern"
A character with a transmittance of 50% smaller in each of the left, middle, and right columns of "woman" is displayed in the upper peripheral portion of the screen. In addition, the lower background image can be seen through a character whose transmittance is smaller by 50%.

Next, the "reach loss pattern" is "woman 6 woman"
One image in which the left, middle, and right columns of the fluctuation symbol on the reach mode screen displayed when the reach mode is temporarily stopped will be described with reference to FIG. FIG. 28 shows that the “reach loss pattern of the pachinko machine 1 according to the first embodiment” is “woman 6”.
It is a figure which shows an example of one image of each of the left row, the middle row, and the right row of the fluctuation | variation pattern of the reach mode screen displayed when it has reached the "reach state" of the woman. As shown in FIG.
The background image of the screen of the liquid crystal display 19 in the reach state is the front of a three-story school building with a wire mesh fence on the roof,
A scene in which two boys are pulling each other, holding the left and right sleeves of a shirt on which a frog character is drawn. Then, in the periphery of the screen above the variable region in the left column, a character having a shape of "a character with a flower decoration on the left side of the head depicting a girl's profile" and having a small transmittance of 50% (FIG. B2)). Further, in the peripheral portion of the screen above the variable region in the middle row, a character having a transmittance of 50% (see FIG. 10 (B2)) having a shape of “character in which bold 6 is drawn” is arranged. . Furthermore, in the peripheral part of the screen above the fluctuation area in the right column,
A character with a small transmittance of 50% (see FIG. 15 (B2)) having a shape of “a character in which a profile of a girl with a flower decoration is drawn on the left side of the head” is arranged. As a result, the small characters having the transmittance of 50% in each of the left, middle, and right columns of the "woman 6 woman" of the "reach losing pattern" are temporarily stopped in the upper peripheral portion of the screen and are clearly displayed.
The lower background image can be seen through each character. In the case of the pause state, a character with a small transmittance of 50% in each of the left, middle, and right columns of the "woman 6 woman"
In the same state, the display is fluctuated vertically with a small width.
(For example, the Y coordinate positions of the reference points of the characters in each of the left, middle, and right columns are sequentially changed from 25 → 40 → 55 → 40 → 25, and changed and displayed.)

Next, a state in which each of the left, middle, and right columns of the fluctuating pattern in the case of the pattern data of "female 6 female" as the "reach loss pattern" displayed on the screen of the liquid crystal display 19 is fixed and stopped. One image will be described with reference to FIG. FIG. 29 shows the left, middle, and right rows of the variable design in the case of the design data of "woman 6 woman" as the "reach loss design" displayed on the screen of the liquid crystal display 19 of the pachinko machine 1 according to the first embodiment. It is a figure showing an example of one picture in the state where a row was fixed and stopped. FIG.
As shown in FIG. 9, the front of a three-story school building with a wire mesh fence on the roof is depicted in the background image on the screen of the liquid crystal display 19 in the reach state. At the approximate center position of the variable area in the left column, a transmittance of 0 is formed in the shape of a "character in which a profile of a girl with a flower decoration is drawn on the left side of the head".
A character having a large% (see FIG. 15A4) is arranged. Also, at the approximate center position of the middle row fluctuation area,
A character having a large transmittance of 0% (see FIG. 10 (A4)) is arranged in the shape of a "character in which bold 6 is drawn". Further, a character having a shape of "a character in which the profile of a girl with a flower decoration is drawn on the left side of the head" and having a large transmittance of 0% is provided at a substantially central position of the fluctuation region in the right column (FIG. 15 (A4)). See). As a result, characters with large transmittance of 0% in each of the left, middle, and right columns of “woman 6 woman” of the “reach losing pattern” are clearly displayed on the screen. In the case of the fixed stop state, the characters with large transmittance of 0% in the left, middle, and right columns of the "woman 6 woman" are stopped and displayed at almost the center position of the screen in a aligned state. You. (For example, the Y coordinate positions of the reference points of the characters in the left, middle, and right columns are displayed in a fixed state at 175.)

Next, the display CPU 96 sets the C
When the symbol variation start command signal instructed from the PU 75 is the symbol signal of “woman and woman” as the “big hit symbol” and the variation pattern 11 as the variation pattern signal, the screen of the liquid crystal display 19 is displayed about every 1/30 second. Will be described with reference to FIGS. 30 and 31. In addition, after winning the starting openings 31 and 38, a shirt in which two boys are drawn with a frog character in front of a three-story school building with a wire mesh fence on the roof of the LCD display 19 on the screen of the liquid crystal display 19. The scene where the girls are pulling each other with their left and right sleeves is drawn, and in the left and right columns around the upper part of the screen, the profile of a girl with a flower decoration on the left side of her head is drawn. A character (see FIG. 15 (B2)) having a shape of “character in existence” and having a transmittance of 50% is temporarily stopped and displayed.
FIGS. 21, 22, and 26 described above until a character having a small transmittance of 50% is displayed in the middle row in the high-speed changing state.
27 and FIG.

First, when the "big hit symbol" is temporarily stopped and displayed with the symbol "woman-woman-woman", each left column
One image in which the middle row and the right row are temporarily stopped will be described with reference to FIG. FIG. 30 shows each of the fluctuation symbols when the symbol data of “woman and woman” is temporarily stopped and displayed as the “big hit symbol” displayed on the screen of the liquid crystal display 19 of the pachinko machine 1 according to the first embodiment. It is a figure which shows an example of one image of the left row, the middle row, and the right row in the stop state. As shown in FIG. 30, in the background image of the screen of the liquid crystal display 19 in the reach state, a frog character is drawn by two boys in front of a three-story school building with a wire mesh fence on the rooftop. The drawing shows a scene in which the left and right sleeves of a worn shirt are pulling each other. Then, in the peripheral portion of the screen above the variable region of each of the left, middle, and right columns, the transmittance is 50% in the shape of a "character depicting a girl's profile with a floral decoration on the left side of the head".
(See FIG. 15 (B2)). As a result, a small character with a transmittance of 50% in each of the left, middle, and right columns of the "woman-woman" of the "big hit" is temporarily stopped in the upper peripheral portion of the screen and clearly displayed. The lower background image can be seen through each character. In the case of the pause state, the characters of the "female, female, and female" in the left, middle, and right columns, each having a small transmittance of 50%, are displayed in a fluctuating manner in the vertical direction with a small width in the vertical direction. . (For example, if the Y coordinate position of the reference point of each character in the left, middle, and right columns is 25 → 40 → 55 → 40 →
The display is changed and displayed repeatedly in the order of 25. )

Next, a state in which the left, middle, and right columns of the variable symbol in the case of the symbol data of "female and female" as the "big hit symbol" displayed on the screen of the liquid crystal display 19 is fixedly stopped. One image will be described with reference to FIG. FIG. 31 shows each of the left, middle, and right rows of the variation symbol in the case of the symbol data of “woman and woman” as the “big hit symbol” displayed on the screen of the liquid crystal display 19 of the pachinko machine 1 according to the first embodiment. FIG. 7 is a diagram illustrating an example of an image in a state where a row is fixed and stopped. As shown in FIG. 31, in the background image of the screen of the liquid crystal display device 19 in the reach state, the front of a three-story school building with a wire mesh fence on the roof is depicted. At the approximate center position of the left, middle, and right rows of the variable region, the shape of a "character in which the profile of a girl with a flower decoration is drawn on the left side of the head" has a large transmittance of 0%. A character (see FIG. 15 (A4)) is arranged. As a result, a large character with a transmittance of 0% in each of the left, middle, and right columns of "woman and woman" of the "big hit pattern" is clearly displayed on the screen. In the case of the fixed stop state, the characters having a large transmittance of 0% in each of the left, middle, and right columns of the "woman and woman" are stopped and displayed at substantially the center position of the screen in a aligned state. You. (For example, if the Y coordinate position of the reference point of the character in each of the left, middle, and right columns is
175 is displayed in a fixed state. )

As described in detail above, in the pachinko machine 1 according to the first embodiment, the CPU 75 of the main board 71 counts each of the jackpot counter 77A, the reach counter 77E, the jackpot symbol selection counter 77F, and the loss symbol selection counter 77G. Based on the values, the symbol data and the variation pattern instructed to the display control circuit unit 95 are determined from the symbol storage area 76A and the reach pattern storage area 76B of the ROM 76 (S2 to S7), and the symbol data and the variation pattern are started The command is output to the display control circuit unit 95 via the output circuit 79 (S8). Then, the display CPU 96 of the display control circuit unit 95 selects a variation pattern from the program ROM 97 based on the input symbol variation start command (S25, S26), and based on the variation pattern data, The character corresponding to the pattern in the middle row / right row is selected (S27). At the same time, the display CPU 96 determines the arrangement position of the selected character on the screen of the liquid crystal display 19, and
9 is instructed to display the selected character at the determined position (S28, S29). As a result, the VDP reads out the image data (see FIGS. 5 to 16) of the designated character from the character ROM 101, and stores a character of a predetermined size at each transmittance (0 to 80%) using the RAM 100 as a work area. It is arranged at the designated position in each of the left, middle, and right columns above the image, and is displayed on the screen of the liquid crystal display 19 via the output circuit 102.

Therefore, a plurality of characters ("1 in bold and round") forming each symbol (1, 2, 3, etc.) corresponding to the variation state of the symbol in each of the left column, the middle column, and the right column. One character is selected from transmittances of 80%, 50%, 30%, and 0% in a shape such as "a character drawn as if wearing glasses", and is selected at predetermined time intervals (in the first embodiment, about one character). 1
/ 30 seconds), and is displayed at a predetermined position on the screen of the liquid crystal display 19, so that the fluctuation state of each row (for example, the left row is temporarily stopped, the middle row / right row is fluctuating, etc.) (For example, a moving image display in which the characters in the left column have a transmittance of 0% and the characters in the middle and right columns have a transmittance of 80%). Thus, the effect of the screen can be improved to increase the interest of the player. When the symbols in the left, middle, and right columns are in a variable display state, a character with a transmittance of 80% or 50% through which the back of the character can be seen through is selected and displayed on the screen in a variable manner. It is possible to see the background picture displayed on the back side of the fluctuating pattern through the character, and the effect of the screen rendered by the background picture displayed on the back side of the fluctuating pattern can be seen by the player without being disturbed by the fluctuating pattern. It can be shown, and the effect of the screen can be further improved to further increase the interest of the player. Further, when the symbols in the left, middle, and right columns are in a fixed stop state, a character having a transmittance of 0% that cannot be seen through the back of the character is selected and displayed on the screen. It is possible to easily confirm the fixed stop symbol which is the result of the change of the symbol in each column. In addition, for each of the left, middle, and right columns,
Since the character having a transmittance of 0%, in which the back side of the character cannot be seen through, is temporarily stopped and displayed, the player can easily stop and temporarily recognize the symbols in each row displayed from the fluctuation state. The effect of the screen until the changing symbols in all rows stop can be effectively expressed, and the player's expectation of the occurrence of the "big hit" can be maintained for a long time. Also, even if a character having the transmittance of 80% or 50% is displayed at a high speed in the variation state of each of the left, middle, and right columns, the outer contour of each column is represented on the screen. The player can easily confirm the change position of each row on the screen, and can intuitively recognize that each row is in a change state, and can further attract the interest of the player. In addition, each transmittance is 80%, 50%, 30%.
By providing two kinds of sizes, large and small, for the characters of% and 0%, a character having a predetermined size of each transmittance can be selected and arranged according to the content of the background image. The effect contents of the screen for each predetermined game (reach state, etc.) can be further diversified to further increase the interest, and even if the game is continued for a long time, the interest of the player can be strongly attracted. Furthermore, in the case of the reach display, a character having a transmittance of 50%, which can be seen through the rear side, is arranged and displayed in the upper peripheral portion of the screen, so that the center of the screen displayed behind the variable symbol is displayed. The effect contents of the section can be more effectively shown to the player, and the effect contents of the screen can be further diversified, the effect of the effect can be improved, and the interest of the player can be further increased.

Next, a pachinko machine according to a second embodiment will be described. The schematic configuration and control circuit configuration of the pachinko machine according to the second embodiment are substantially the same as those of the pachinko machine 1 according to the first embodiment. Further, various control processes are almost the same as the pachinko machine 1 according to the first embodiment.
However, the pachinko machine according to the second embodiment performs the pachinko machine according to the first embodiment in the sub-process (S27) of the “character selection process of each row” of the “symbol display process” (see FIG. 19) as described later. Machine 1 (see FIG. 32).

Here, the sub-process (S27) of the "character selection process for each row" of the pachinko machine according to the second embodiment will be described with reference to FIG. FIG. 32 is a sub-flowchart showing a sub-process of “character selection process of each row” of the pachinko machine according to the second embodiment. As shown in FIG. 32, first, in S45 to S49, the display C
The PU 96 executes the processing from S35 to S39.
If the variation state of each column of the variation pattern selected in S49 is temporarily stopped (S49: YES), the process proceeds to S49.
At 50, the characters in the paused state in each of the left row, middle row, and right row are selected from characters having a large transmittance of 30% (see the characters (A3) in FIGS. 5 to 16).
The process ends and returns to the “symbol display process”. This allows
A character with a large transmittance of 30% is temporarily stopped and displayed at the center of the screen while swinging up and down in the order of left column → right column → middle column.

On the other hand, if the fluctuation state of each column of the selected fluctuation pattern is not temporarily stopped (S49: N
O), end the processing and return to “symbol display processing”.

Next, the display CPU 96 sets the C
When the symbol change start command signal instructed from the PU 75 is the symbol signal of “woman 64” as the “normal loss symbol” and the variation pattern 31 as the variation pattern signal, the screen of the liquid crystal display 19 is displayed about every 1/30 second. Will be described with reference to FIGS. 33 to 37. FIG. First, after winning the starting ports 31 and 38, the high-speed fluctuation of each of the left, middle and right columns in the case of the design data of "woman 64" as the "normal loss design" displayed on the screen of the liquid crystal display 19 One image of the state will be described with reference to FIG.
FIG. 33 shows each starting port 3 of the pachinko machine according to the second embodiment.
After winning the prizes 1 and 38, one image of the high-speed fluctuation state of each of the left, middle, and right columns in the case of the design data of “female 64” as the “normal loss design” displayed on the screen of the liquid crystal display 19 It is a figure showing an example.

As shown in FIG. 33, the background picture on the screen of the liquid crystal display 19 depicts a scene where a boy wearing round glasses on his head in a living room with a sliding door is taking a nap. In addition, a shirt depicting a frog character hanging on a clothesline can be seen from the side of the edge where the shoji is opened. And
Above the variable area in the left column, a character having a large transmittance of 80% (see FIG. 11 (A1)) in the shape of a “character in which a square is drawn with bold 7” is arranged.
In addition, below this “character in which a square is drawn with bold 7”, a character having a large transmittance of 80% in the shape of “character in which bold 6 is drawn” (FIG. 10)
(Refer to (A1)). In addition, a character having a large transmittance of 80% (see FIG. 14 (A1)) in the shape of a “character in which the profile of a boy wearing glasses is drawn on the head” is arranged above the fluctuation region in the middle row. Have been. In addition, below this “character in which the profile of a boy wearing glasses on his head is drawn”, the transmittance is represented by the shape of “a character drawn as wearing round glasses with bold 9”. 80% of large characters (FIG. 13 (A
1) is arranged. Further, a character (see FIG. 7 (A1)) having a large transmittance of 80% in the shape of a “character in which a square is drawn with a bold 3” is arranged substantially at the center of the fluctuation region in the right column. . A character with a large transmittance of 80% in the shape of a "character in which a bold 2 is drawn" is provided below the "character in which a square is drawn in a bold 3" (see FIG. 6 (A1)). ) Is arranged. Thus, the outline of each character is clearly shown, but since the transmittance is 80%, the lower background image can be seen through each character. Therefore, during the high-speed fluctuation of each column, the left-, middle-, and right-column fluctuation regions can be displayed by the afterimage effect of the outline of each character, and the lower region of each of the left-, middle-, and right-column fluctuation regions can be displayed. The background image of can be seen through.

Next, as the "normal loss pattern" displayed on the screen of the liquid crystal display 19, in the case of the pattern data of "female 64", the left column of the variable pattern is temporarily stopped, and each of the middle and right columns is stopped. One image of the high-speed fluctuation state will be described with reference to FIG. FIG. 34 shows a liquid crystal display 19 of a pachinko machine according to the second embodiment.
"Normal loss pattern" displayed on the screen of "Women 6
In the case of the symbol data of "4", the left column of the variable symbol is temporarily stopped, and each of the middle and right columns is an example of one image in a high-speed variable state. As shown in FIG. 34, the background image on the screen of the liquid crystal display device 19 depicts a scene in which a boy wearing round glasses in his living room with a sliding door is taking a nap. In addition, a shirt depicting a frog character hanging on a clothesline can be seen from the side of the edge where the shoji is opened. And
A character having a large transmittance of 30% in the shape of a "character in which the profile of a girl with a floral decoration is drawn on the left side of the head" is provided at a substantially central position of the variable region in the left column (FIG.
3) is arranged.

Further, above the variable region in the middle row, a character having a shape of "a character depicting a boy's profile wearing glasses on his head" and having a large transmittance of 80% (FIG. 14)
(Refer to (A1)). In addition, below this “character in which the profile of a boy wearing glasses on his head is drawn”, the transmittance is represented by the shape of “a character drawn as wearing round glasses with bold 9”. A large character of 80% (see FIG. 13 (A1)) is arranged. Further, a character (see FIG. 7 (A1)) having a large transmittance of 80% in the shape of a “character in which a square is drawn with a bold 3” is arranged substantially at the center of the fluctuation region in the right column. . A character with a large transmittance of 80% in the shape of a "character in which a bold 2 is drawn" is provided below the "character in which a square is drawn in a bold 3" (see FIG. 6 (A1)). ) Is arranged. Thus, the character in the left column of "woman 64" of the "normal loss pattern" is clearly displayed on the screen, and the lower background image can be seen through the "woman" character. Also, the outlines of the characters in each middle row and right row are
Although clearly shown, since the transmittance is 80%, the lower background image can be seen through each character.

Next, the left and right columns of the variable pattern in the case of the pattern data of "woman 64" as the "normal loss pattern" displayed on the screen of the liquid crystal display 19 are temporarily stopped, and the middle row is One image of the high-speed fluctuation state will be described with reference to FIG. FIG. 35 shows a liquid crystal display 19 of a pachinko machine according to the second embodiment.
"Normal loss pattern" displayed on the screen of "Women 6
4 is a diagram showing an example of an image in which the left and right columns of the variable symbol in the case of the symbol data of “4” are temporarily stopped, and the middle column is in a high-speed variable state. As shown in FIG. 35, the background image on the screen of the liquid crystal display 19 depicts a scene where a boy wearing round glasses in his living room with a sliding door is taking a nap. In addition, a shirt depicting a frog character hanging on a clothesline can be seen from the side of the edge where the shoji is opened. And
A character having a large transmittance of 30% in the shape of a "character in which the profile of a girl with a floral decoration is drawn on the left side of the head" is provided at a substantially central position of the variable region in the left column (FIG.
3) is arranged.

Further, above the variable region in the middle row, a character having a shape of “a character in which the profile of a boy wearing glasses is drawn on the head” and having a large transmittance of 80% (FIG. 14)
(Refer to (A1)). In addition, below this “character in which the profile of a boy wearing glasses on his head is drawn”, the transmittance is represented by the shape of “a character drawn as wearing round glasses with bold 9”. A large character of 80% (see FIG. 13 (A1)) is arranged. Further, at a substantially central position of the variable region in the right column, the transmittance 30
A character having a large% (see FIG. 8A3) is arranged. As a result, the "woman 64" of the "normal loss pattern"
The characters in each of the left and right columns are clearly displayed on the screen, and the lower background image can be seen through each character. The outline of the character in the middle row is clearly shown, but since the transmittance is 80%, the lower background image can be seen through this character.

Next, each of the left, middle, and right rows of the variable pattern in the case of the pattern data of "woman 64" as the "normal loss pattern" displayed on the screen of the liquid crystal display 19 is temporarily stopped. The image will be described with reference to FIG. FIG. 36 shows the left, middle, and right columns of the variable design in the case of the design data of “woman 64” as the “normal loss design” displayed on the screen of the liquid crystal display 19 of the pachinko machine according to the second embodiment. Is a diagram showing an example of one image in a temporarily stopped state. As shown in FIG. 36, the background image on the screen of the liquid crystal display device 19 depicts a scene in which a boy wearing round glasses wears his head in a living room with a sliding door and taking a nap. In addition, a shirt depicting a frog character hanging on a clothesline can be seen from the side of the edge where the shoji is opened. And at the approximate center position of the fluctuation area in the left column,
A character with a large transmittance of 30% (see FIG. 15 (A3)) is arranged in the shape of a "character in which the profile of a girl with a floral decoration is drawn on the left side of the head". A character having a large transmittance of 30% (see FIG. 10 (A3)) in the shape of a “character in which bold 6 is drawn” is arranged at a substantially central position of the middle row of the variable region. Further, a character (see FIG. 8 (A3)) having a large transmittance of 30% in the shape of a “character in which bold 4 is drawn” is arranged at a substantially central position of the variable region in the right column.
As a result, a large character with a transmittance of 30% in each of the left, middle, and right columns of the "woman 64" of the "normal loss pattern" is temporarily stopped and clearly displayed on the screen, and each character is displayed. You can see the lower background image through it.
In the case of the stop state, the left column of the "woman 64"
Characters having a large transmittance of 30% in the middle row and the right row are displayed in a vertically fluctuating manner with a small width in a uniform state. (For example, if the Y coordinate position of the reference point of each character in the left, middle, and right columns is 175 → 200 → 225 → 200 → 175 →
150 → 125 → 150 → 175 are sequentially repeated, changed and displayed. )

Next, a state in which the left, middle, and right columns of the variable pattern in the case of the pattern data of "woman 64" as the "normal loss pattern" displayed on the screen of the liquid crystal display 19 is fixed and stopped. One image will be described with reference to FIG. FIG. 37 shows the second
The left, middle, and right columns of the fluctuating pattern in the case of the pattern data of "woman 64" as the "normal loss pattern" displayed on the screen of the liquid crystal display 19 of the pachinko machine according to the embodiment are fixed and stopped. It is a figure showing an example of one picture of a state. As shown in FIG. 37, the background picture on the screen of the liquid crystal display 19 depicts a scene where a boy wearing round glasses on his head in a living room with a sliding door is taking a nap. In addition, a shirt depicting a frog character hanging on a clothesline can be seen from the side of the edge where the shoji is opened. A character having a shape of “a character in which a profile of a girl with a floral decoration is drawn on the left side of the head” and having a large transmittance of 0% is provided at substantially the center of the variable region in the left column (FIG. 15 (A4)). See). In addition, a character (see FIG. 10 (A4)) having a large transmittance of 0% in the shape of a “character in which a bold 6 is drawn” is disposed substantially at the center of the middle row of the variable region. Further, at the substantially center position of the fluctuation region in the right column, the transmittance is 0% in the shape of a “character in which bold 4 is drawn”.
(See FIG. 8 (A4)). As a result, large characters with a transmittance of 0% in each of the left, middle, and right columns of the "woman 64" of the "normal loss pattern" are clearly displayed on the screen. In the case of the fixed stop state, the characters in the left, middle, and right columns of the "woman 64" are stopped and displayed at substantially the center of the screen in an aligned state. (For example, the Y coordinate positions of the reference points of the characters in the left, middle, and right columns are displayed in a fixed state at 175.)

As described in detail above, in the pachinko machine according to the second embodiment, the CPU 75 of the main board 71 includes the jackpot counter 77A, the reach counter 77E, the jackpot symbol selection counter 77F, and the losing symbol selection counter 7.
Based on each count value of 7G, the symbol data and the variation pattern instructed to the display control circuit unit 95 are determined from the symbol storage area 76A and the reach pattern storage area 76B of the ROM 76 (S2 to S7), and the symbol data and the variation pattern are determined. Is output to the display control circuit unit 95 via the output circuit 79 as a symbol change start command (S8). Then, the display CPU 96 of the display control circuit unit 95 selects a variation pattern from the program ROM 97 based on the input symbol variation start command (S26), and based on the variation pattern data, the left and middle rows. -A character corresponding to the symbol in the right column is selected (S27). At the same time, the display C
PU 96 displays the liquid crystal display 1 of each selected character.
9 on the screen, and instructs the VDP 99 to display the selected character at the determined placement position (S28, 29). This allows VDP to:
The designated character image data (see FIGS. 5 to 16) is read from the character ROM 101, and a character having a predetermined size at each transmittance (0 to 80%) is stored in the RAM 1
00 is set as a work area at the designated position in each of the left, middle, and right columns on the background image, and is displayed on the screen of the liquid crystal display 19 via the output circuit 102.

Therefore, a plurality of characters ("1 in bold and round") constituting each symbol (1, 2, 3, etc.) corresponding to the variation state of the symbol in each of the left column, the middle column, and the right column. One character is selected from a transmittance of 80%, 50%, 30%, and 0% in a shape such as "a character drawn as if wearing glasses", and is selected at predetermined time intervals (in the second embodiment, about one character). 1
(Every 30 seconds), and is displayed at a predetermined position on the screen of the liquid crystal display 19, and thus is displayed in a fluctuating state of each column (for example, the left column is temporarily stopped, and the middle and right columns are fluctuating). (For example, a moving image display in which a character in the left column has a transmittance of 30% and a character in the middle and right columns has a transmittance of 80%). Thus, the effect of the screen can be improved to increase the interest of the player. When the symbols in the left, middle, and right columns are in a variable display state, a character with a transmittance of 80% or 50% through which the back of the character can be seen through is selected and displayed on the screen in a variable manner. It is possible to see the background picture displayed on the back side of the fluctuating pattern through the character, and the effect of the screen rendered by the background picture displayed on the back side of the fluctuating pattern can be seen by the player without being disturbed by the fluctuating pattern. It can be shown, and the effect of the screen can be further improved to further increase the interest of the player. In addition, since a character having a transmissivity of 30% through which the back of the character can be seen through is temporarily stopped and displayed for each of the left, middle, and right columns, the player temporarily stops from the fluctuating state. The symbols in each column displayed can be easily and sequentially recognized, and the effect of the screen until the changing symbols in all columns stop can be effectively expressed, and the "big hit" of the player can be generated. Can be maintained for a long time. In addition, since a character with a transmittance of 30% that allows the back side of the character to be seen through is temporarily stopped and displayed, it is possible to intuitively recognize that each row is temporarily stopped, and further increase the interest of the player. Can be strongly attracted. Further, when the symbols in the left, middle, and right columns are in a fixed stop state, a character having a transmittance of 0% that cannot be seen through the back of the character is selected and displayed on the screen. It is possible to easily confirm the fixed stop symbol which is the result of the change of the symbol in each column. Also, even if a character having the transmittance of 80% or 50% is displayed at a high speed in the variation state of each of the left, middle, and right columns, the outer contour of each column is represented on the screen. The player can easily confirm the change position of each row on the screen, and can intuitively recognize that each row is in a change state, and can further attract the interest of the player. In addition, each transmittance is 80%, 50%, 30%.
By providing two kinds of sizes, large and small, for the characters of% and 0%, a character having a predetermined size of each transmittance can be selected and arranged according to the content of the background image. The effect contents of the screen for each predetermined game (reach state, etc.) can be further diversified to further increase the interest, and even if the game is continued for a long time, the interest of the player can be strongly attracted. Furthermore, in the case of the reach display, a character having a transmittance of 50%, which can be seen through the rear side, is arranged and displayed in the upper peripheral portion of the screen, so that the center of the screen displayed behind the variable symbol is displayed. The effect contents of the section can be more effectively shown to the player, and the effect contents of the screen can be further diversified, the effect of the effect can be improved, and the interest of the player can be further increased.

Next, a description will be given of a pachinko machine according to a third embodiment. The schematic configuration and control circuit configuration of the pachinko machine according to the third embodiment are substantially the same as those of the pachinko machine 1 according to the first embodiment. Further, various control processes are almost the same as the pachinko machine 1 according to the first embodiment.
However, the pachinko machine according to the third embodiment has a first embodiment as described later in the configuration of the character ROM 101 of the display control circuit unit 95 (see FIG. 38) and the processing of "symbol display processing" (see FIG. 41). It is different from the pachinko machine 1 according to the embodiment.

First, the system configuration of the display control circuit unit 95 of the pachinko machine according to the third embodiment will be described with reference to FIG. FIG. 38 is a block diagram showing a system configuration of the display control circuit unit 95 of the pachinko machine according to the third embodiment. As shown in FIG. 38, as in the first embodiment, the display control circuit unit 95 includes a display CPU 96 and program ROMs 97 and R connected to the display CPU 96.
AM98 and VDP (Video Digital Processor) 99
, A RAM 100 and a character ROM 101 connected to the VDP 99, and an output circuit 102. In addition, the program ROM 97 stores, as will be described later, the type of the shape of each symbol displayed on the liquid crystal display 19 in correspondence with the variation state of each symbol of each variation pattern, color data attached to each symbol, And the arrangement positions of the respective symbols are stored. In addition, the character ROM 101 stores the shape data (see FIG. 39) of each symbol displayed on the screen of the liquid crystal display 19 in accordance with the variation state of each symbol of the variation symbol as described later. Storage area 101
A is provided. In addition, the character ROM 101 stores a color scheme data table 105 (see FIG. 40) that stores color data added to the shape of each symbol corresponding to the variation state of each symbol in the variation symbol as described later. A data storage area 101B is provided. The character ROM 101 stores image data corresponding to each reach pattern, image data of a background image, and the like.

Then, the display CPU 96 is connected to the main board 71.
While temporarily storing various signal data in the RAM 98 in accordance with a control signal from the CPU 75, the program ROM
Based on a control program or control data for displaying a variable symbol, a predetermined reach image, a re-variable symbol, a normal symbol, and the like stored in the 97, the editing contents of the image with the VDP 99 (for each variable symbol, The exchange of control signals indicating the shape, the color assigned to each symbol, the arrangement position of each symbol on the screen of the liquid crystal display 19, the type of background image, and the like is performed at predetermined time intervals (in the case of the first embodiment, , About every 1/30 second).
In addition, the VDP 99, based on a control signal from the display CPU 96, receives from the character ROM 101 the shape data of each symbol of the variable symbol, the color data added to each symbol, the image data of a predetermined reach image, and the image data of a background image. CPU 96 for displaying image data and the like of each character of a normal design
The designated image data is extracted from the RAM 100, and the image data of each variable symbol is edited at the designated arrangement position on the screen of the liquid crystal display 19 at predetermined time intervals (in the case of the first embodiment, The rearrangement and rearrangement are performed every about 1/30 second), and the image data is output to the liquid crystal display 19 via the output circuit 102. As a result, the background image, each variable symbol with a predetermined color, and the like are displayed on the liquid crystal display 19 as a moving image.

Next, the shape data of each symbol displayed on the screen of the liquid crystal display 19 corresponding to the variation state of the variation symbol for each column stored in the symbol shape storage area 101A of the character ROM 101 is shown in FIG. It will be described based on. FIG. 39 shows the shape data of each symbol displayed on the screen of the liquid crystal display 19 corresponding to the variation state of each variation symbol stored in the symbol shape storage area 101A of the character ROM 101 of the pachinko machine according to the third embodiment. (A1) to (A12) are each pattern shape data of large “1” to large “frog”, and (B1) to (B12) are each pattern shape of small “1” to small “frog” 2 shows shape data. The symbol storage area 76 of the ROM 76 of the main board 71
A and the symbol type of the variable symbol stored in advance in the program ROM 97 of the display control circuit unit 95 are “1”,
"2", "3", "4", "5", "6", "7",
There are 12 types: "8", "9", "male", "female", and "frog".

First, the shape data of each symbol corresponding to the variable symbol “1” stored in the symbol shape storage area 101A of the character ROM 101 is shown in FIGS. 39 (A1) and (B).
As shown in 1), it is composed of shape data of “a character drawn as wearing round glasses with bold 1”. (A1) is composed of the large design shape data of "1", and (B1) is composed of the small design shape data of "1".

The shape data of each symbol corresponding to the variable symbol "2" stored in the symbol shape storage area 101A of the character ROM 101 is shown in FIGS. 39 (A2) and (B).
As shown in 2), it is composed of shape data of "character in which bold 2 is drawn". And (A2)
Is composed of the large symbol shape data of "2", and (B2) is composed of small symbol shape data of "2".

The shape data of each symbol corresponding to the variable symbol “3” stored in the symbol shape storage area 101A of the character ROM 101 is shown in FIGS. 39 (A3) and (B).
As shown in 3), it is composed of shape data of "a character in which a square is drawn with bold 3". And (A3) is the large symbol shape data of “3”,
(B3) is composed of the small symbol shape data of “3”.

The shape data of each symbol corresponding to the variable symbol “4” stored in the symbol shape storage area 101A of the character ROM 101 is shown in FIGS. 39 (A4) and (B).
As shown in 4), it is composed of shape data of "character in which bold 4 is drawn". And (A4)
The symbol shape data of the large "4" is composed of the symbol shape data of the large "4".

The shape data of each symbol corresponding to the variable symbol "5" stored in the symbol shape storage area 101A of the character ROM 101 is shown in FIGS. 39 (A5) and (B).
As shown in 5), it is composed of shape data of “a character in which a square is drawn with bold 5”. And (A5) is the large pattern shape data of “5”,
(B5) is composed of the small symbol shape data of “5”.

The shape data of each symbol corresponding to the variable symbol “6” stored in the symbol shape storage area 101A of the character ROM 101 is shown in FIGS. 39 (A6) and (B).
As shown in 6), it is composed of shape data of "character in which bold 6 is drawn". And (A6)
Is composed of the large symbol shape data of "6", and (B6) is composed of the small symbol shape data of "6".

The shape data of each symbol corresponding to the variable symbol “7” stored in the symbol shape storage area 101A of the character ROM 101 is shown in FIGS. 39 (A7) and (B).
As shown in 7), it is composed of shape data of “character in which bold square 7 is drawn”. And (A7) is the large symbol shape data of the "7",
(B7) is composed of the small symbol shape data of "7".

The shape data of each symbol corresponding to the variable symbol "8" stored in the symbol shape storage area 101A of the character ROM 101 is shown in FIGS. 39 (A8) and (B).
As shown in 8), it is composed of shape data of "character in which bold 8 is drawn". And (A8)
Is composed of the large symbol shape data of "8", and (B8) is composed of the small symbol shape data of "8".

The shape data of each symbol corresponding to the variable symbol “9” stored in the symbol shape storage area 101A of the character ROM 101 is shown in FIGS. 39 (A9) and (B).
As shown in 9), it is composed of shape data of "a character drawn as wearing round glasses with bold 9". (A9) is composed of the large symbol shape data of "9", and (B9) is composed of the small symbol shape data of "9".

As shown in FIGS. 39 (A10) and (B10), the shape data of each symbol corresponding to the variable symbol “male” stored in the symbol shape storage area 101A of the character ROM 101 is “head”. Characters depicting the profile of a boy wearing glasses ". And (A10) is the large “man”
(B10) is composed of small design data of the "male".

As shown in FIGS. 39A and 39B, the shape data of each symbol corresponding to the variable symbol "woman" stored in the symbol shape storage area 101A of the character ROM 101 is obtained as shown in FIG. The character on the left side is a character with a side profile of a girl with a flower decoration. " (A11) is composed of the large design data of the "woman", and (B11) is composed of the small design data of the "woman".

Further, as shown in FIGS. 39 (A12) and (B12), the shape data of each symbol corresponding to the variable symbol “frog” stored in the symbol shape storage area 101A of the character ROM 101 is as follows. It is composed of shape data of "a character sitting laughing." And (A
12) is the symbol shape data of the large “frog”, (B1
2) is made up of small design data of the "frog".

Next, the color data table 105 stored in the color data storage area 101B of the character ROM 101 will be described with reference to FIG. FIG. 40 is a character ROM 101 of a pachinko machine according to the third embodiment.
FIG. 5 is a diagram showing an example of a color scheme data table 105 stored in a color scheme data storage area 101B of FIG. As shown in FIG. 40, the color arrangement data table 105 includes “numbers” indicating color data and “color data” corresponding to the “numbers”. The “number” represents a “color number” instructed by the display CPU 96 in accordance with the changing state of the changing symbol in each column as described later. The "color data" represents color data added to the shape of each symbol according to the variation state of the variation symbol for each column, as described later.

The “numbers” of the color arrangement data table 105 include “1”, “2”, “3”, “4”, “5”,
Eight types of numbers “6”, “7”, and “8” are registered in advance. The “color data” for each “number” includes the color data of “color A with 0% transmittance” for “1” of “number” and the “transmittance” for “2” of “number”. The color data of “0% color B” and “transmittance 3” for “3” of “number”
The color data of “color A of 0%”, the color data of “color B of 30% transmittance” for “4” of “number”, and the color data of “5” of “number”
The color data of “color A with a transmittance of 50%” and the “number”
Color data of “color B with a transmittance of 50%” for “6” of
Color data of “color A with 80% transmittance” is registered in advance for “7” of “number”, and color data of “color B with 80% transmittance” is registered in advance for “8” of “number”. I have.

Here, the liquid crystal display 19 functions as a symbol display device. The design shape storage area 101A of the character ROM 101 functions as shape storage means. The color arrangement data storage area 101B of the character ROM 101 functions as a color arrangement storage unit. Also,
The display CPU 96 and the program ROM 97 constitute a color arrangement selection unit. The display CPU 96 and the RAM 9
8 and the program ROM 97 constitute arrangement position determining means. The display CPU 96 and the program ROM 9
7, RAM 98, VDP 99, RAM 100 and character ROM 101 constitute a display control means. Also,
Display CPU 96, RAM 98, and program ROM 9
7 constitutes a shape selecting means.

FIG. 41 shows a control process for displaying a "big hit symbol" or the like, which is executed by the display CPU 96 of the control circuit unit 95 according to the third embodiment configured as described above.
It will be described based on. FIG. 41 is a flowchart showing a control process corresponding to a symbol change start command signal executed by the display CPU 96 of the display control circuit unit 95 of the pachinko machine according to the third embodiment. It should be noted that the display CPU 96 of the display control circuit unit 95 operates at predetermined time intervals (in the third embodiment, about 10
main board 7 based on an interrupt signal input every msec).
The control process corresponding to the symbol change start command signal from 1 is executed.

As shown in FIG. 41, first, S55 and S
In 56, the display CPU 96 determines the above S25 and S
Step 26 is executed. Then, in S57, the display CPU 96 converts the shape data of each of the variable symbols displayed in the left, middle, and right columns on the screen based on the variation pattern data stored in the RAM 98, and the shape of each of the variable symbols. A sub-process (see FIG. 42) of a "symbol selection process for each column" for selecting a color number representing color data to be attached is executed.

Subsequently, in S58, the display CPU 9
6 executes the process of "determining the layout position of each symbol" for determining the layout position on the screen of each variable symbol in each of the left, middle and right columns. The process of “determining the arrangement position of each symbol”
On the screen of the liquid crystal display 19, the origin O of the XY coordinates is set at the upper left corner of the screen, the X axis is provided from the origin O to the right of the screen, and the Y axis is provided from the origin O to the screen downward. I have. Then, the variable area of each of the left, middle, and right columns is set on the screen. (In the first embodiment, the X coordinate is set to 0 to 600, and the Y coordinate is set to 0 to 400. In the variable region in the left column, the X coordinate is 50 to 180, and the Y coordinate is The variable region in the middle row has an X coordinate of 230 to 360 and a Y coordinate of 0 to 400.
The variable area in the right column has X coordinates of 410 to 540 and Y coordinates of 0 to 400. Next, the variation pattern data is read from the RAM 98, and the arrangement positions of the selected variation symbols in the left, middle, and right columns are calculated. For example, in the case of a normal change state, the arrangement position is calculated so that two or three change symbols are arranged in the vertical direction of the screen in each of the left, middle, and right columns. In the case of the reach state, the arrangement position is calculated so that each of the variable symbols is arranged in the upper peripheral portion of the screen in each of the left, middle, and right columns. A reference point is provided at the upper left corner of the shape data (see FIG. 39) of each symbol corresponding to each variable symbol, and XY in the variation region of each of the left, middle, and right columns of the reference point is provided. The coordinates are calculated and stored in the RAM 98 as arrangement position data of each variable symbol.

Then, in S59, the display CPU 9
6 is the shape data of the symbol of each variable symbol selected in S57, the “color number” representing the color data attached to each variable symbol,
And the coordinate data of the arrangement position of each of the variable symbols is stored in the RAM 98.
, And instruct the VDP 99 again. As a result, the VDP 99 reads out the shape data of each variable symbol from the symbol shape storage area 101A of the character ROM 101, and sets the “color number” of each variable symbol as the “number” of the color arrangement data table 105 and corresponds to the “number”. The color data to be read is read out, and the image data of each of the variable symbols is placed at the arrangement position on the background image every predetermined time (in the first embodiment, about every 1/30 second) using the RAM 100 as a work area.
And outputs it to the liquid crystal display 19 via the output circuit 102. Therefore, when the arrangement position of the variable symbol in each column greatly changes in the downward direction, the state is displayed as a state in which the variable symbol changes at a high speed in the downward direction of the screen.

Next, in S60, the display CPU 96
Executes a determination process of determining whether or not a finalization stop signal has been input from the CPU 75 of the main board 71. If the finalization stop signal has not been input (S60: NO),
The processing after S57 is executed.

On the other hand, when the determination stop signal is input from the CPU 75 of the main board 71 (S
60: YES), in S61, the shape data of the large symbol corresponding to the symbols in the left, middle, and right columns displayed and stopped on the screen at the end of the variation pattern display (FIG. 3).
9 (A1) to (A12)) are selected as the fixed stop symbols of the left, middle, and right columns, and are stored in the RAM 98.

At S62, "1" is selected as the "color number" representing the color data to be added to each symbol selected as the fixed stop symbol, and is stored in the RAM 98.

Then, in S63, the display CPU 9
6 calculates the arrangement position coordinates at which each of the fixed stop symbols is displayed at substantially the vertical center of each of the left, middle, and right columns, and represents the shape data and color data of each of the fixed stop symbols. The "color number" and the arrangement position data are read out again from the RAM 98, and the VDP 99 is instructed to terminate the processing. In this way, the VDP 99 reads out the large shape data of each fixed stop symbol from the symbol shape storage area 101A of the character ROM 101, and sets the “color number” of each fixed stop symbol as the “number” of the color arrangement data table 105 as the “number”. ”And“ color data ”corresponding to
Using the RAM 100 as a work area, the image data of each fixed stop symbol is arranged at an arrangement position on the background image at predetermined intervals (in the first embodiment, approximately every 1/30 second).
2 to the liquid crystal display 19. Accordingly, each large stop symbol with a color A having a transmittance of 0% is displayed at a substantially central position on the screen.

Next, the sub-process (S57) of the "symbol selection process for each column" will be described with reference to FIG. FIG. 42 is a sub-flowchart showing a sub-process of “symbol selection process for each row” of the pachinko machine according to the third embodiment.
As shown in FIG. 42, first, in S71, the display C
PU96 indicates that the selected fluctuation pattern is reach putter A.
A determination process is performed to determine whether or not any of the reach patterns D. If the selected variation pattern is any of the reach pattern A to the reach pattern D (S71: YES), in S72, the shape data of each variation pattern in each of the left, middle, and right columns 39 (B1) to (B1)
2) is selected as the shape data of the variable symbol instructed to the VDP 99 and stored in the RAM 98.

Subsequently, in S73, "5" is stored in the RAM 98 as a "color number" representing the color data of each variable symbol instructed to the VDP 99, and the process is terminated, and the process returns to the "symbol display process". Thereby, at the time of the reach pattern,
A small variable symbol with a color A having a transmittance of 50% is displayed in the upper peripheral portion of the screen, and the background image in the central portion of the screen is not covered by the variable symbol (see FIGS. 27 and 28).

If the selected variation pattern is not any of the reach patterns A to D (S71: NO), in S74, the variation state of each column of the selected variation pattern is changed to the normal state. A determination process is performed to determine whether or not it is fluctuating. If the variation state of each row of the selected variation pattern is a normal high-speed variation (S74: YES), in S75, the shape data of each variation symbol of each left row, middle row, and right row The pattern data of a large shape (see FIGS. 39 (A1) to (A12))
The data is selected as shape data of the variable symbol instructed to the DP 99 and stored in the RAM 98.

Subsequently, in S76, "7" is stored in the RAM 98 as the "color number" representing the color data of each variable symbol instructed to the VDP 99, and the process is terminated, and the process returns to the "symbol display process". Thus, when the fluctuation state of each of the left, middle, and right columns is a normal high-speed fluctuation, the transmittance is 80%.
Since the large-shaped fluctuating pattern with the color A is fluctuated at a high speed and displayed on the screen, the background image can be seen through the character (see FIGS. 21 to 23).

On the other hand, when the fluctuation state of each column of the selected fluctuation pattern is not during normal high-speed fluctuation (S7).
4: NO), In S77, a determination process is performed to determine whether or not the variation state of each column of the selected variation pattern is a temporary stop state in which the variation is temporarily stopped and displayed. If the variation state of each row of the selected variation pattern is temporarily stopped (S77: YES), in S78, the shape of each variation symbol in the temporarily stopped state of each of the left, middle, and right rows is determined. Large design data (see FIGS. 39 (A1) to (A12)) is selected as the variable design shape data instructing the VDP 99 and stored in the RAM 98.

Subsequently, in S79, “1” is stored in the RAM 98 as a “color number” representing the color data of each variable symbol instructed to the VDP 99, and the process ends, and the process returns to the “symbol display process”. As a result, a character having a large transmittance of 0% is temporarily stopped and displayed at the center of the screen in the order of left column → right column → middle column (FIGS. 22 to 2).
4). On the other hand, if the fluctuation state of each column of the selected fluctuation pattern is not temporarily stopped (S77: NO),
The process ends and returns to the “symbol display process”.

As described in detail above, in the pachinko machine according to the third embodiment, the CPU 75 of the main board 71 includes the jackpot counter 77A, the reach counter 77E, the jackpot symbol selection counter 77F, and the losing symbol selection counter 7.
Based on each count value of 7G, the symbol data and the variation pattern instructed to the display control circuit unit 95 are determined from the symbol storage area 76A and the reach pattern storage area 76B of the ROM 76 (S2 to S7), and the symbol data and the variation pattern are determined. Is output to the display control circuit unit 95 via the output circuit 79 as a symbol change start command (S8). Then, the display CPU 96 of the display control circuit unit 95 selects a variation pattern from the program ROM 97 based on the input symbol variation start command (S55, S56), and based on the variation pattern data, The shape data of each variable symbol in the middle row and the right row and “color number” representing color data are selected (S57). At the same time, the display CPU 96 determines an arrangement position on the screen of the liquid crystal display 19 for each of the selected variable symbols (S58). Then, the display CPU 96
Instructs the VDP 99 to display the shape data, color data, and arrangement position data of each selected variable symbol (S59). As a result, the VDP 99 reads out the shape data of each variable symbol from the symbol shape storage area 101A of the character ROM 101, and sets the “color number” of each variable symbol as the “number” of the color arrangement data table 105 and corresponds to the “number”. Read the "color data"
Using the RAM 100 as a work area, the image data of each of the variable symbols is arranged at an arrangement position on the background image at predetermined intervals (in the third embodiment, approximately every 1/30 second), and the liquid crystal display is output via the output circuit 102. 19 is displayed on the screen.

Accordingly, the shape of each symbol (“a character drawn as if wearing round glasses with bold 1”) or the like corresponding to the fluctuation state of the symbol (1, 2, 3, etc.) for each column, etc. Of a plurality of colors having different transmittances (color A having a transmittance of 80%, color A having a transmittance of 50%, color A having a transmittance of 30%, color A having a transmittance of 0%, and color A having a transmittance of 80%). A color having a predetermined transmittance is selected from the color B, a color B having a transmittance of 50%, a color B having a transmittance of 30%, and a color B having a transmittance of 0%, and is attached at predetermined intervals (in the third embodiment, Since it is arranged and displayed at a predetermined position on the screen of the liquid crystal display 19 every about 1/30 second, the fluctuation state of each column (for example, the left column is temporarily stopped, the middle column / right column is A moving image display in which symbols having different transmittances are displayed for each column in correspondence with the change of the moving image (for example, a color A having a transmittance of 0% is attached to each variable symbol in the left column). , Transmittance for each variation pattern of the middle column and the right column moving picture display of 80% of the color A is attached) becomes possible, to improve the presentation effect of the screen can be increased player's interest in. Also, when the symbols in each row are in the variable display state, the shape of each variable symbol is given a color A of 80% or 50% transmittance that allows the back side to be seen through, so that it is displayed behind the variable symbol. It is possible to see the display image that is displayed through the variable symbol, it is possible to show to the player the effect of the screen by the display image displayed behind the variable symbol without being disturbed by the variable symbol, It is possible to further enhance the effect of the screen and increase the interest of the player. Also, if the symbols in each row are in the fixed stop state,
0% transmittance that the back side is not visible through the shape of each variable symbol
Since the color A is added, the player can easily confirm the fixed stop symbol which is the result of the change of the symbol in each column.
In addition, since the symbol with the color A of 0% transmittance, which is not visible through the symbol, is temporarily stopped and displayed for each column, the player is temporarily stopped from the fluctuation state and displayed. The symbols in each column can be easily and sequentially recognized, and the effect of the screen until the changing symbols in all columns stop can be effectively expressed, and the player's expectation of the occurrence of "big hits" Can be maintained for a long time. Further, in the case of the variation state of each column, even if the symbol with the color A having the transmittance of 80% or 50% is displayed at a high speed, the outer contour of each column is expressed on the screen. In addition, the player can easily confirm the change position of each row on the screen, and can intuitively recognize that each row is in a change state, thereby further attracting the player's interest. it can. In addition, by providing two types of sizes, large and small, as the shape of each symbol, it is possible to select and arrange a variable symbol of a predetermined size according to the content of the background image and the game content. Therefore, the effect contents of the screen for each predetermined game (reach state, etc.) can be further diversified, the interest can be further increased, and even if the game is continued for a long time, the player's interest can be strongly attracted. Further, in the case of the reach display, since a small-sized fluctuating symbol with a color A having a transmittance of 50% through which the rear side can be seen through is arranged and displayed in the upper peripheral portion of the screen, the fluctuating symbol is displayed. The content of the production at the center of the screen displayed on the rear side can be more effectively shown to the player, and the production content of the screen is further diversified, and the production effect is improved to enhance the interest of the player. Can be increased.

Next, a description will be given of a pachinko machine according to a fourth embodiment. The schematic configuration and control circuit configuration of the pachinko machine according to the fourth embodiment are substantially the same as those of the pachinko machine according to the third embodiment. Further, various control processes are almost the same as the pachinko machine according to the third embodiment. However, the pachinko machine according to the fourth embodiment performs the pachinko machine according to the third embodiment in the sub-process (S57) of the "symbol selection process of each column" of the "symbol display process" (see FIG. 41) as described later. (See FIG. 43).

Here, the sub-process (S57) of the "symbol selection process for each row" of the pachinko machine according to the fourth embodiment will be described with reference to FIG. FIG. 43 is a sub-flowchart showing a sub-process of "symbol selection process for each row" of the pachinko machine according to the fourth embodiment. As shown in FIG. 43, first, in S81 to S88, the display CPU 96
The processing of S71 to S78 is executed. And S8
In step 9, "3" is stored in the RAM 98 as the "color number" indicating the color data of each variable symbol instructed to the VDP 99, and the process is terminated, and the process returns to the "symbol display process". As a result, in the order of the left column → the right column → the middle column, a large stop pattern with a color A having a transmittance of 30% is temporarily stopped and displayed at the center of the screen while swinging up and down ( FIG. 33 to FIG. 36
reference).

On the other hand, if the fluctuation state of each column of the selected fluctuation pattern is not temporarily stopped (S87: N
O), end the processing and return to “symbol display processing”.

As described above, in the pachinko machine according to the fourth embodiment, the CPU 75 of the main board 71 uses the count values of the big hit counter 77A, the reach counter 77E, the big hit symbol selection counter 77F, and the lost symbol selection counter 77G. , Symbol storage area 7 of ROM 76
The symbol data and the variation pattern to be instructed to the display control circuit unit 95 are determined from the 6A and the reach pattern storage area 76B (S2 to S8), and the symbol data and the variation pattern are displayed as a symbol variation start command via the output circuit 79. Output to the control circuit unit 95 (S8). Then, the display CPU 96 of the display control circuit unit 95 selects a variation pattern from the program ROM 97 based on the input symbol variation start command (S55, S56), and based on the variation pattern data, Select the shape data of each variable symbol in the middle row and the right row and “color number” representing color data (S
57). At the same time, the display CPU 96 determines an arrangement position on the screen of the liquid crystal display 19 for each of the selected variable symbols (S58). The display CPU 96 sets V
The DP 99 is instructed with the shape data, color data, and arrangement position data of each selected variable symbol, and instructs the display (S59). As a result, the VDP 99 reads out the shape data of each variable symbol from the symbol shape storage area 101A of the character ROM 101, and sets the “color number” of each variable symbol as the “number” of the color arrangement data table 105 and corresponds to the “number”. Read the "color data"
100 is set as a work area, the image data of each variable symbol is arranged at an arrangement position on the background image at predetermined time intervals (in the fourth embodiment, approximately every 1/30 second), and the liquid crystal display is output via the output circuit 102. 19 is displayed on the screen.

Accordingly, the shape of each symbol (“a character drawn as wearing bold ones with round glasses”, etc.) corresponding to the changing state of the symbol (1, 2, 3, etc.) for each column, etc. Of a plurality of colors having different transmittances (color A having a transmittance of 80%, color A having a transmittance of 50%, color A having a transmittance of 30%, color A having a transmittance of 0%, and color A having a transmittance of 80%). A color having a predetermined transmittance is selected from the color B, a color B having a transmittance of 50%, a color B having a transmittance of 30%, and a color B having a transmittance of 0%, and is attached at predetermined time intervals (in the third embodiment, Since it is arranged and displayed at a predetermined position on the screen of the liquid crystal display 19 every about 1/30 second, the fluctuation state of each column (for example, the left column is temporarily stopped, and the middle and right columns are A moving image display in which symbols having different transmittances are displayed for each column in correspondence with the change of the moving image (for example, a color A having a transmittance of 0% is attached to each variable symbol in the left column). , Transmittance for each variation pattern of the middle column and the right column moving picture display of 80% of the color A is attached) becomes possible, to improve the presentation effect of the screen can be increased player's interest in. Also, when the symbols in each row are in the variable display state, the shape of each variable symbol is given a color A of 80% or 50% transmittance that allows the back side to be seen through, so that it is displayed behind the variable symbol. It is possible to see the display image that is displayed through the variable symbol, it is possible to show to the player the effect of the screen by the display image displayed behind the variable symbol without being disturbed by the variable symbol, It is possible to further enhance the effect of the screen and increase the interest of the player. Also, if the symbols in each row are in the fixed stop state,
0% transmittance that the back side is not visible through the shape of each variable symbol
Since the color A is added, the player can easily confirm the fixed stop symbol which is the result of the change of the symbol in each column.
In addition, a temporary stop symbol with a color A having a transmittance of 30% that allows the rear side of the symbol to be seen through is sequentially stopped and displayed for each of the left, middle, and right columns. Can temporarily and easily recognize the symbols of each column displayed once stopped from the fluctuating state, can effectively represent the effect of the screen until the fluctuating symbols of all columns stop, It is possible to maintain a player's expectation of occurrence of a "big hit" for a long time. In addition, transmittance 30% that the back side of the design can be seen through
Since the symbol with the color A is stopped and displayed,
It can be intuitively recognized that each row is temporarily stopped, and the interest of the player can be further attracted. Further, in the case of the fluctuation state of each column, the transmittance is 80%.
Alternatively, even when a symbol with 50% of the color A is displayed at a high speed, the outer contour of each column is displayed on the screen, so that the player can easily confirm the changing position of each column on the screen. In addition to this, it is possible to intuitively recognize that each row is in a fluctuating state, and it is possible to further attract the player's interest. In addition, by providing two types of sizes, large and small, as the shape of each symbol, it is possible to select and arrange a variable symbol of a predetermined size according to the content of the background image and the game content. Therefore, the effect contents of the screen for each predetermined game (reach state, etc.) can be further diversified, the interest can be further increased, and even if the game is continued for a long time, the player's interest can be strongly attracted. Further, in the case of the reach display, since a small-sized fluctuating symbol with a color A having a transmittance of 50% through which the rear side can be seen through is arranged and displayed in the upper peripheral portion of the screen, the fluctuating symbol is displayed. The content of the production at the center of the screen displayed on the rear side can be more effectively shown to the player, and the production content of the screen is further diversified, and the production effect is improved to enhance the interest of the player. Can be increased.

It should be noted that the present invention is not limited to the first to fourth embodiments, and it is needless to say that various improvements and modifications can be made without departing from the gist of the present invention. For example, the following may be performed. (A) In the first and second embodiments, each left row, middle row,
When the character in the right column is in a high-speed fluctuation state, the transmittance is 8
0% or 50% of characters are selected and placed on the background image, but the characters in the left, middle, and right columns gradually decrease in transmittance according to the speed of change from high-speed change to temporary stop A configuration may be adopted in which a character to be placed is placed on a background image. This allows the player to change the transmission speed of each character, causing the speed of change to slow down,
Since the shape of the character can be easily confirmed, even if the game is continued for a long time, the expectation for the occurrence of the "big hit symbol" can be maintained. (B) In the first and second embodiments, two sizes of characters are set in advance for characters of each transmittance, but characters of various sizes are set for each character of each transmittance. You may do so. This makes it possible to further diversify the effect contents of the screen, improve the effect effect, and further increase the interest of the player.

(C) In the first and second embodiments, four types of transmittances and two types of characters are set in advance for each symbol. The rate and a character of any size may be set in advance. Alternatively, a character of any size with various transmittances may be set in advance. This makes it possible to further diversify the effect contents of the screen, improve the effect effect, and further increase the interest of the player. (D) In the first and second embodiments, the color assigned to each character is not particularly limited, but a colored transparent or colorless transparent character may be provided.
This makes it possible to further diversify the effect contents of the screen, improve the effect effect, and further increase the interest of the player.

(E) In the first to fourth embodiments, the width in the X-axis direction of each of the left row, middle row, and right row is hardly changed, but is changed according to the fluctuation state or the game state. Is also good. For example, in the reach state, the width of each row in the X-axis direction may be reduced, and the interval between each row may be reduced. Thereby, the portion where the character is displayed becomes narrower, and the effect of producing the background image can be further improved.

(F) In the third and fourth embodiments, when the symbols in the left, middle, and right columns are in a high-speed change state, the color A having the transmittance of 80% or 50% is selected. , The color data of more types of transmittances are stored in the color scheme data table 105,
The color data in which the transmittance of the symbols in the middle row / right row gradually decreases in accordance with the speed of change from the high-speed change to the temporary stop may be selected and added to the shape of each symbol. As a result, the player can easily confirm the shape of each symbol as the fluctuation speed becomes slow due to the change in the transmittance of each symbol. Can be maintained. (G) In the third and fourth embodiments, two sizes of shapes are set in advance for each symbol, but shapes of various sizes may be set for each symbol. This makes it possible to further diversify the effect contents of the screen, improve the effect effect, and further increase the interest of the player.

(I) In the third and fourth embodiments, four kinds of transmittance and two kinds of colors are set in advance for each color data. May be set in advance. Alternatively, an arbitrary transmittance may be set in advance for various colors. This makes it possible to further diversify the effect contents of the screen, improve the effect effect, and further increase the interest of the player. (H) In the third and fourth embodiments, the color of each color data is not particularly limited, but color transparent or colorless transparent color data may be provided. This allows
It is possible to further diversify the effect contents of the screen, improve the effect effect, and further increase the interest of the player.

[0196]

As described above, in the gaming machine according to the first aspect, a plurality of symbols are variably displayed in the gaming area of the gaming machine.
A symbol display device is provided that sequentially stops the symbols in a plurality of columns for each column in a predetermined order after the symbols change. Each symbol is displayed such that the transmittance of each symbol in each column is different in accordance with the state of change of the symbol in each column. Accordingly, the symbols having different transmittances are displayed for each column in correspondence with the symbol variation status of each column. Therefore, the variation status of each column (for example, the left column is temporarily stopped, each middle column / right A moving image display in which a symbol having a different transmittance is displayed for each symbol in each column in correspondence with a column being fluctuating (for example, the transmittance of the symbol in the left column is different from the transmittance of the symbol in the middle and right columns) (Moving image display) can be provided, and it is possible to provide a gaming machine capable of improving the effect of the screen and increasing the interest of the player.

According to a second aspect of the present invention, in the gaming machine according to the first aspect, each symbol displayed on the symbol display device comprises a plurality of types of characters having different transmittances. Then, one character is selected from a plurality of types of characters constituting each symbol in the row by the character selecting means in accordance with the changing state of the symbol in each row, and the selected character is displayed on the screen. The arrangement position is determined by the arrangement position determining means at predetermined time intervals in accordance with the fluctuation state. At the same time, the characters selected by the character selection means are arranged and displayed by the display control means at the positions on the screen determined by the arrangement position determination means as symbols in each row. Thereby, one character is selected from a plurality of characters having different transmissivities constituting each symbol corresponding to the variation state of the symbol for each column, and is arranged at a predetermined position on the screen of the symbol display device at a predetermined time interval. Characters with different transmissivities are displayed for each pattern in each row, corresponding to the changing state of each row (for example, the left row is temporarily stopped, the middle row and right row are changing, etc.). (For example, a moving image display in which the transmittance of the characters in the left column is different from the transmittance of the characters in the middle and right columns), and the effect of the screen is improved to increase the interest of the player. A gaming machine capable of performing such operations.

In the gaming machine according to the third aspect, in the gaming machine according to the second aspect, when the symbols in each row on the screen of the symbol display device are in a variable display state, at least the back side of the character is displayed. A character with the first transmittance that is transparent is selected and variably displayed on the screen. With this, when the symbols in each column are in the variable display state, the character with the first transmittance through which the back of the character can be seen through is selected and displayed variably on the screen, so that the character is displayed behind the variable symbol. The display image can be viewed through the character having the first transmittance, and the effect of the display image displayed on the rear side of the variable symbol can be shown to the player without being disturbed by the variable symbol. Thus, it is possible to provide a gaming machine that can further enhance the effect of the screen and increase the interest of the player.

Further, in the gaming machine according to the fourth aspect, in the gaming machine according to the second or third aspect, when the symbols in each row on the screen of the symbol display device are in the fixed stop state, at least A character with the second transmittance, whose back side cannot be seen through, is selected, fixedly stopped on the screen, and displayed. Accordingly, when the symbols in each row are in the fixed stop state, the character of the second transmittance, whose back side of the character cannot be seen through, is selected and displayed on the screen. It is possible to provide a gaming machine capable of easily confirming a fixed stop symbol, which is a result of fluctuation of the game.

According to a fifth aspect of the present invention, in the gaming machine according to the fourth aspect, in the case of the temporary stop state in which the changing symbols of each column are temporarily stopped and displayed sequentially for each column, Is selected and the character with the second transmittance, which cannot be seen through, is temporarily stopped and displayed on the screen. Thereby, the character of the second transmittance, in which the back side of the character cannot be seen through, is temporarily stopped and displayed for each column, so that the player temporarily stops from the fluctuating state and is displayed in each column. Can be sequentially and easily recognized, and the effect of the screen until the changing symbols in all columns stop can be effectively expressed, and the player's expectation of the occurrence of the "big hit" can be maintained for a long time. A gaming machine that can be provided.

According to a sixth aspect of the present invention, in the gaming machine according to the fourth aspect, at least a temporary stop state in which the variable symbols in each column are temporarily stopped and displayed for each column is provided. A character having a third transmittance smaller than the first transmittance and larger than the second transmittance is selected, temporarily stopped and displayed on the screen. Thereby, a character having a third transmittance smaller than the first transmittance and larger than the second transmittance is temporarily stopped and displayed sequentially for each column. The symbols in each column stopped and displayed can be sequentially and easily recognized, and the effect of the screen until the changing symbols in all columns stop can be effectively expressed, and the player can win a "big hit" It is possible to provide a gaming machine that can maintain a sense of expectation of occurrence for a long time. Further, since the character having the third transmittance, which is higher in transmittance than that displayed in the fixed stop state, is temporarily stopped and displayed on the screen, the player can easily recognize that the character is temporarily stopped. Done, "big hit"
It is possible to provide a gaming machine capable of further maintaining a sense of expectation for occurrence.

According to a seventh aspect of the present invention, in the gaming machine according to any one of the second to sixth aspects, the character having the first transmittance is formed so that the outline of the character can be identified. Have been. Thereby, even if the character of the first transmittance is displayed in a high-speed variation display in the variation state of each column, the outer contour of each column is expressed on the screen.
The player can easily confirm the changing position of each row on the screen, and can intuitively recognize that each row is in the changing state, thereby further attracting the player's interest. A gaming machine can be provided.

In the gaming machine according to the eighth aspect, in the gaming machine according to any one of the second to seventh aspects, the characters of each transmittance include a plurality of characters having different sizes. A character of a predetermined size is selected for a predetermined game display and displayed on the screen.
Thus, it is possible to provide a gaming machine that can further diversify the effect contents of the screen for each predetermined game, further increase the interest, and strongly attract the player's interest even if the game is continued for a long time.

In the gaming machine according to the ninth aspect, in the gaming machine according to the eighth aspect, in the case of the reach display, a character smaller than the character displayed in the normal display is selected and displayed on the screen. It is displayed fluctuating. As a result, the fluctuation region of the fluctuation symbol occupying the screen in the case of the reach display is narrower than that in the case of the normal display, and thus the effect of the display effect of the screen by the display image displayed behind the fluctuation symbol can be effectively achieved by the player. In addition to the above, it is possible to provide a gaming machine that can diversify the effect contents of the screen, further enhance the effect of the effect, and further increase the interest of the player.

[0205] In the gaming machine according to the tenth aspect, in the gaming machine according to the ninth aspect, in the case of the reach display, the character is arranged and displayed in a peripheral portion on the screen. The effect contents of the center part of the screen displayed on the back side of the fluctuating symbol can be more effectively shown to the player, and the effect contents of the screen can be improved by further diversifying the effect contents of the screen and improving the effect of the effect. It is possible to provide a gaming machine capable of further increasing interest.

[0206] In the gaming machine according to the eleventh aspect, in the gaming machine according to the tenth aspect, the transmissivity includes at least a fourth transmissivity in which the back side of the character can be seen through. The character of the fourth transmittance corresponding to each symbol is selected and displayed on the screen. Thereby, in the case of the reach display, since the character having the fourth transmittance in which the back side of the character can be seen through is selected and displayed variably on the screen, the display image of the reach display displayed behind the fluctuating symbol is displayed. It is possible to see through the character of the fourth transmittance, it is possible to show to the player the effect of the screen by the reach display image displayed behind the variable symbol without disturbing the variable symbol, It is possible to provide a gaming machine that can further enhance the effect of the reach screen and increase the interest of the player.

In the gaming machine according to the twelfth aspect, in the gaming machine according to the first aspect, the shape of each symbol displayed on the symbol display device is stored in shape storage means. Then, the position of the symbol for each column to be arranged on the screen is determined by the arrangement position determining means at predetermined time intervals in accordance with the fluctuation state. At the same time, the color of the predetermined transmittance selected by the color arrangement selecting means is added to the shape of each symbol in accordance with the changing state of the symbol for each column, and the symbol is determined by the arrangement position determining means. Displayed on the screen by the display control means. Thereby, a color of a predetermined transmittance is selected and attached from a plurality of types of colors having different transmittances to the shape of each symbol in accordance with a state of variation of the symbol for each column, and a screen of the symbol display device is displayed at a predetermined time interval. Because it is displayed at the predetermined position on the top,
A moving image display (for example, a left column) in which symbols having different transmittances are displayed for each column in accordance with a fluctuating state of each column (for example, the left column is temporarily stopped, and the middle and right columns are fluctuating). (A moving image display in which the transmittance of each symbol of each symbol is different from the transmittance of each symbol in the middle row and the right row) can be provided, and the effect of the screen can be improved to increase the interest of the player. can do.

According to a thirteenth aspect of the present invention, in the gaming machine according to the twelfth aspect, when the symbols in the respective columns on the screen of the symbol display device are in a variable display state, The color arrangement selection means selects a color having a fifth transmittance at least on which the rear side can be seen through. Accordingly, when the symbols in each column are in the variable display state, the shape of each symbol is given the color of the fifth transmittance that allows at least the rear side to be seen through, so that the display displayed behind the variable symbols is displayed. The image can be viewed through the symbol with the color of the fifth transmittance, and the effect of the display on the screen by the display image displayed on the back side of the variable symbol can be viewed without being disturbed by the variable symbol. A gaming machine can be provided that can further enhance the effect of the screen and increase the interest of the player.

According to a fourteenth aspect of the present invention, in the gaming machine according to the twelfth or thirteenth aspect, symbols in each row on the screen of the symbol display device are determined and stopped and displayed. In the case of the state, the color arrangement selection means selects a color having a sixth transmittance at least in which the rear side cannot be seen through. With this, when the symbols in each row are in the fixed stop state, the color of the sixth transmittance, in which the back side of each symbol cannot be seen through, is added, so that the player can change the symbol in each row with the result of the variation of the symbols in each row. A gaming machine capable of easily confirming a certain stop symbol can be provided.

[0210] In the gaming machine according to the fifteenth aspect, in the gaming machine according to the fourteenth aspect, when the symbols in each column on the screen of the symbol display device are temporarily stopped and displayed, The color arrangement selection means selects a color having a sixth transmittance at least the rear side of which cannot be seen through. As a result, the symbols with the color of the sixth transmittance, in which the back side of the symbols cannot be seen through, are temporarily stopped and displayed sequentially for each column, so that the player is temporarily stopped and displayed from the fluctuation state. The symbols in each column can be easily and sequentially recognized, and the effect of the screen until the changing symbols in all columns stop can be effectively expressed, and the player's expectation of the occurrence of a "big hit" Can be provided for a long time.

[0211] In the gaming machine according to the sixteenth aspect, in the gaming machine according to the fourteenth aspect, when the symbols in the respective columns on the screen of the symbol display device are temporarily stopped and displayed, the game machine may be in a temporarily stopped state. Means that the color arrangement selecting means includes at least the fifth
A color having a seventh transmittance smaller than the transmittance and larger than the sixth transmittance is selected. Thereby, sequentially for each column,
Since the symbol colored with the seventh transmittance smaller than the fifth transmittance and larger than the sixth transmittance is temporarily stopped and displayed, the player temporarily stops from the fluctuating state. The symbols in each column to be displayed can be sequentially and easily recognized, and the effect of the screen until the variation symbols in all columns stop can be effectively expressed, thereby causing the "big hit" of the player to occur. Gaming machine that can maintain the feeling of expectation for a long time. Further, since the symbol with the seventh transmittance having a higher transmittance than that displayed in the fixed stop state is temporarily stopped and displayed on the screen, it is easy for the player to temporarily stop. A gaming machine can be provided that can more strongly maintain a sense of expectation for the occurrence of a "big hit".

According to a seventeenth aspect of the present invention, in the gaming machine according to any one of the twelfth to sixteenth aspects, the shape of the symbol is formed so that the outline of the symbol can be identified. . Accordingly, in the case where the pattern with the color of the fifth transmittance is displayed at a high speed in the case of the changing state of each column, the outer contour of each column is expressed on the screen. Is a gaming machine that can easily confirm the changing position of each column on the screen, intuitively recognize that each column is in a changing state, and further attract the interest of the player. Can be provided.

[0213] In the gaming machine according to the eighteenth aspect, in the gaming machine according to any one of the twelfth to seventeenth aspects, the shape of each symbol includes a plurality of shapes having different sizes. Then, a pattern having a predetermined size is selected for the predetermined game display and displayed on the screen. This will further diversify the effect contents of the screen for each predetermined game,
It is possible to provide a gaming machine that can further increase the interest and interest of the player even if the game is continued for a long time.

[0214] In the gaming machine according to the nineteenth aspect, in the gaming machine according to the eighteenth aspect, in the case of the reach display, a symbol having a shape smaller than that of the symbol displayed in the normal display is selected. Is displayed on the screen. As a result, the fluctuation region of the fluctuation symbol occupying the screen in the case of the reach display is narrower than that in the case of the normal display, and thus the effect of the display effect of the screen by the display image displayed behind the fluctuation symbol can be effectively achieved by the player. In addition to the above, it is possible to provide a gaming machine that can diversify the effect contents of the screen, further enhance the effect of the effect, and further increase the interest of the player.

In the gaming machine according to the twentieth aspect, in the gaming machine according to the nineteenth aspect, in the case of the reach display, the symbols are arranged and displayed in a peripheral portion on the screen. The effect contents of the center part of the screen displayed on the back side of the fluctuating symbol can be more effectively shown to the player, and the effect contents of the screen can be improved by further diversifying the effect contents of the screen and improving the effect. It is possible to provide a gaming machine capable of further increasing interest.

Further, in the gaming machine according to the twenty-first aspect, in the gaming machine according to the twentieth aspect, in the case of the reach display, the color arrangement selecting means is configured to display a color having an eighth transmittance at least visible on a rear side. Select Accordingly, in the case of the reach display, a symbol in which at least the rear side is visible through the shape of each symbol at least on the rear side is displayed on the screen in a variable manner, and is displayed behind the variable symbol. The display image of the reach display can be seen through the symbol colored with the eighth transmittance, and the effect of the screen display by the reach display image displayed behind the variable symbol is disturbed by the variable symbol. It is possible to provide a gaming machine that can be shown to a player without having to do so, and can further enhance the effect of the reach screen to further increase the interest of the player.

[Brief description of the drawings]

FIG. 1 is a front view showing an entire pachinko machine according to a first embodiment.

FIG. 2 is a front view showing a game area of the pachinko machine according to the first embodiment.

FIG. 3 is a block diagram showing a configuration of a control system for paying out award balls of the pachinko machine according to the first embodiment.

FIG. 4 is a block diagram illustrating a system configuration of a display control circuit unit of the control system according to the first embodiment.

FIG. 5 is a character R of the pachinko machine according to the first embodiment.
FIG. 10 is a diagram showing an example of image data of each character displayed on the screen of the liquid crystal display in accordance with the change state of the symbol “1” of the variable symbol stored in the OM, wherein (A1) shows a transmittance of 80;
The character of “1” having a large%, (A2) has a transmittance of 50
The character of “1” having a large%, (A3) has a transmittance of 30
The character of "1" with a large%, (A4) is 0% transmittance
(1) with a large character (B1) has a transmittance of 80%
The character “1” with a small size (B2) has a transmittance of 50%
The character of "1" with small (B3) is 30% transmittance
The character of “1” having a small size and (B4) have a transmittance of 0
Indicates a character of "1" with a small%.

FIG. 6 is a character R of the pachinko machine according to the first embodiment.
FIG. 10 is a diagram showing an example of image data of each character displayed on the screen of the liquid crystal display in accordance with the change state of the symbol “2” of the symbol change stored in the OM.
The character of “2” having a large%, (A2) has a transmittance of 50
The character of "2" having a large%, (A3) has a transmittance of 30
The character of "2" with a large%, (A4) is 0% transmittance
Character "2" with a large (B1) has a transmittance of 80%
The character of "2" with small (B2) is 50% transmittance
The character “2” with a small size (B3) has a transmittance of 30%
The character of “2” having a small size and (B4) have a transmittance of 0
The character “2” with a small% is shown.

FIG. 7 is a character R of the pachinko machine according to the first embodiment.
FIG. 7A is a diagram showing an example of image data of each character displayed on the screen of the liquid crystal display in accordance with the change state of the symbol “3” of the symbol change stored in the OM.
The character of "3" having a large%, (A2) has a transmittance of 50
The character of "3" having a large%, (A3) has a transmittance of 30
The character of “3” with a large%, (A4) is 0% transmittance
The character of "3" with large (B1) has a transmittance of 80%
The character of "3", which is small, (B2) is 50% transmittance
The character of "3" with a small size (B3) has a transmittance of 30%
The character of “3” having a small size and (B4) have a transmittance of 0
The character of "3" having a small% is shown.

FIG. 8 is a character R of the pachinko machine according to the first embodiment.
FIG. 9 is a diagram showing an example of image data of each character displayed on the screen of the liquid crystal display in accordance with the change state of the symbol “4” of the symbol change stored in the OM.
The character of "4" with a large%, (A2) is a transmittance of 50
The character of “4” having a large%, (A3) has a transmittance of 30
The character of "4" with a large%, (A4) is 0% transmittance
Character “4” with a large (B1) is 80% transmittance
"4" character with a small (B2) is 50% transmittance
The character of "4" with small (B3) is 30% transmittance
The character “4” having a small size and (B4) have a transmittance of 0
The character of "4" having a small% is shown.

FIG. 9 is a character R of the pachinko machine according to the first embodiment.
FIG. 10 is a diagram showing an example of image data of each character displayed on the screen of the liquid crystal display in accordance with the change state of the symbol “5” of the symbol change stored in the OM.
The character of “5” having a large%, (A2) is a transmittance of 50
The character of "5" having a large%, (A3) has a transmittance of 30
The character of “5” with a large%, (A4) is 0% transmittance
Character "5", (B1) has a transmittance of 80%
The character “5” with a small size (B2) has a transmittance of 50%
"5" character with small (B3) is 30% transmittance
The character “5” having a small size and (B4) have a transmittance of 0
Indicates a character of "5" with a small%.

FIG. 10 shows image data of each character displayed on the screen of the liquid crystal display corresponding to the changing state of the symbol “6” of the variable symbol stored in the character ROM of the pachinko machine according to the first embodiment. FIG. 4 is a diagram showing an example, wherein (A1) shows a transmittance of 8
0% large “6” character, (A2) is transmittance 5
0% large “6” character, (A3) is transmittance 3
0% large “6” character, (A4) is 0 transmittance
The character of "6" having a large%, (B1) has a transmittance of 80
The character of “6” with a small%, (B2) has a transmittance of 50
The character of "6" having a small%, (B3) has a transmittance of 30
The character “6” with a small% and the character (B4) with a small transmittance “0” with a transmittance of 0% are shown.

FIG. 11 shows image data of each character displayed on the screen of the liquid crystal display corresponding to the changing state of the symbol “7” of the variable symbol stored in the character ROM of the pachinko machine according to the first embodiment. FIG. 4 is a diagram showing an example, in which (A1) shows a transmittance of 8;
0% large “7” character, (A2) is transmittance 5
0% large "7" character, (A3) is transmittance 3
0% large “7” character, (A4) is 0 transmittance
The character of “7” having a large%, (B1) has a transmittance of 80
%, The character of "7", (B2) has a transmittance of 50
The character of "7" having a small%, (B3) has a transmittance of 30
The character “7” with a small% and the character (B4) with a small transmittance “0” with a transmittance of 0% are shown.

FIG. 12 shows image data of each character displayed on the screen of the liquid crystal display corresponding to the changing state of the symbol “8” of the variable symbol stored in the character ROM of the pachinko machine according to the first embodiment. FIG. 4 is a diagram showing an example, in which (A1) shows a transmittance of 8;
0% large "8" character, (A2) is transmittance 5
0% large “8” character, (A3) is transmittance 3
0% large "8" character, (A4) 0 transmittance
The character of “8” having a large%, (B1) has a transmittance of 80
The character “8” with a small%, (B2) has a transmittance of 50
The character “8” with a small%, (B3) has a transmittance of 30
The character “8” with a small% and the character (B4) with a small transmittance “0” with a transmittance of 0% are shown.

FIG. 13 shows image data of each character displayed on the screen of the liquid crystal display corresponding to the changing state of the symbol “9” of the variable symbol stored in the character ROM of the pachinko machine according to the first embodiment. FIG. 4 is a diagram showing an example, in which (A1) shows a transmittance of 8;
0% large “9” character, (A2) is transmittance 5
0% large "9" character, (A3) is transmittance 3
The character of "9", which is large at 0%, and (A4) has a transmittance of 0
The character of "9" having a large%, (B1) has a transmittance of 80
The character “9” with a small%, (B2) has a transmittance of 50
The character of “9” with a small%, (B3) has a transmittance of 30
The character “9” with a small% and the character “B” with a small transmittance of 0% (B4).

FIG. 14 is a diagram showing the image data of each character displayed on the screen of the liquid crystal display corresponding to the changing state of the symbol of the variable symbol “male” stored in the character ROM of the pachinko machine according to the first embodiment. FIG. 4 is a diagram showing an example, in which (A1) shows a transmittance of 8;
0% big "male" character, (A2) is transmittance 5
0% big "male" character, (A3) is transmittance 3
0% large "male" character, (A4) is 0 transmittance
(B1) has a transmittance of 80%
% "Male" character, (B2) has a transmittance of 50
% "Male" character, (B3) has a transmittance of 30
% Shows a small "male" character and (B4) shows a small "male" character with a transmittance of 0%.

FIG. 15 is a diagram showing the image data of each character displayed on the screen of the liquid crystal display corresponding to the changing state of the symbol of the variable symbol “woman” stored in the character ROM of the pachinko machine according to the first embodiment. FIG. 4 is a diagram showing an example, wherein (A1) shows a transmittance of 8;
0% large “female” character, (A2) has a transmittance of 5
0% big “female” character, (A3) is transmittance 3
0% large "female" character, (A4) 0 transmittance
% Female character, (B1) has a transmittance of 80
(B2) has a transmittance of 50%
% Female character, (B3) has a transmittance of 30
(B4) shows a small “female” character with a small transmittance of 0%.

FIG. 16 shows image data of each character displayed on the screen of the liquid crystal display corresponding to the changing state of the symbol “frog” of the variable symbol stored in the character ROM of the pachinko machine according to the first embodiment. FIG. 4 is a diagram showing an example, in which (A1) shows a transmittance of 8;
0% big "frog" character, (A2) is transmittance 5
0% big "frog" character, (A3) is transmittance 3
0% big "frog" character, (A4) is 0 transmittance
(B1) has a transmittance of 80%
(B2) has a transmittance of 50%
(B3) has a transmittance of 30.
% Shows a small "frog" character and (B4) shows a small "frog" character with a transmittance of 0%.

FIG. 17 is a flowchart showing a start-up winning process executed by the CPU of the main board when a pachinko ball wins at each start-up opening of the pachinko machine according to the first embodiment.

FIG. 18 is a sub-flowchart showing a sub-process of “big hit game process” of the pachinko machine according to the first embodiment.

FIG. 19 is a flowchart illustrating a control process corresponding to a symbol change start command signal executed by a display CPU of a display control circuit unit of the pachinko machine according to the first embodiment.

FIG. 20 is a sub-flowchart showing a sub-process of “character selection process of each row” of the pachinko machine according to the first embodiment.

FIG. 21 shows each of the left and middle rows in the case of design data of “woman 64” as “normal loss design” displayed on the screen of the liquid crystal display after winning at each starting port of the pachinko machine according to the first embodiment. It is a figure showing an example of one picture of a high-speed change state of a row and a right row.

FIG. 22 shows “female 6” as “normal loss pattern” displayed on the screen of the liquid crystal display of the pachinko machine according to the first embodiment.
In the case of the symbol data of "4", the left column of the variable symbol is temporarily stopped, and each of the middle and right columns is an example of one image in a high-speed variable state.

FIG. 23 shows “Female 6” as a “normal loss pattern” displayed on the screen of the liquid crystal display of the pachinko machine according to the first embodiment.
4 is a diagram showing an example of an image in which the left and right columns of the variable symbol in the case of the symbol data of “4” are temporarily stopped, and the middle column is in a high-speed variable state.

FIG. 24 is a diagram showing the “normal female design” displayed on the screen of the liquid crystal display of the pachinko machine according to the first embodiment.
It is a figure which shows an example of one image in which each left row, middle row, and right row of the fluctuating symbol in the case of the symbol data of "4" is in a temporarily stopped state.

FIG. 25 shows “Female 6” as a “normal loss pattern” displayed on the screen of the liquid crystal display of the pachinko machine according to the first embodiment.
It is a figure which shows an example of one image in the state where each left row, middle row, and right row of the variable symbol in the case of the symbol data of "4" were fixed and stopped.

FIG. 26 shows “Female 6” as the “reach loss pattern” displayed on the screen of the liquid crystal display of the pachinko machine according to the first embodiment.
It is a figure which shows an example of one image of each of the left column and the right column of the fluctuation symbol in the case of "female" in the stopped state, and the middle line in the high-speed fluctuation state.

FIG. 27: “Reach loss pattern” displayed on the screen of the liquid crystal display of the pachinko machine according to the first embodiment is “woman 6 woman”
FIG. 8 is a diagram showing an example of a display of a reach mode screen that is displayed when a reach state is reached.

FIG. 28 is a diagram showing the left, middle, and right columns of the variation symbol on the reach mode screen displayed when the “reach loss pattern of the pachinko machine according to the first embodiment” has reached the “female 6 female” reach state. It is a figure showing an example of one picture of a stop state.

FIG. 29 shows “Female 6” as the “reach loss pattern” displayed on the screen of the liquid crystal display of the pachinko machine according to the first embodiment.
It is a figure which shows an example of one image in the state where each left column, the middle column, and the right column of the variable symbol in the case of the symbol data of "woman" were fixed and stopped.

FIG. 30 shows “woman and woman” as the “big hit symbol” displayed on the screen of the liquid crystal display of the pachinko machine according to the first embodiment.
FIG. 7 is a diagram showing an example of an image in which each of the left, middle, and right columns of a fluctuating symbol when the symbol data is temporarily stopped and displayed.

FIG. 31 shows “woman-woman” as “big hit symbol” displayed on the screen of the liquid crystal display of the pachinko machine according to the first embodiment.
It is a figure which shows an example of one image in the state where each left row, middle row, and right row of the fluctuating symbol in the case of the symbol data were fixedly stopped.

FIG. 32 is a sub-flowchart showing a sub-process of “character column selection process” of the pachinko machine according to the second embodiment.

FIG. 33: After winning a prize at each starting port of the pachinko machine according to the second embodiment, each of the left and middle rows in the case of design data of “woman 64” as “normal loss design” displayed on the screen of the liquid crystal display device It is a figure showing an example of one picture of a high-speed change state of a row and a right row.

FIG. 34 is a diagram showing the “normal loss pattern” displayed on the screen of the liquid crystal display of the pachinko machine according to the second embodiment as “female 6”.
In the case of the symbol data of "4", the left column of the variable symbol is temporarily stopped, and each of the middle and right columns is an example of one image in a high-speed variable state.

FIG. 35 shows “Female 6” as a “normal loss pattern” displayed on the screen of the liquid crystal display of the pachinko machine according to the second embodiment.
4 is a diagram showing an example of an image in which the left and right columns of the variable symbol in the case of the symbol data of “4” are temporarily stopped, and the middle column is in a high-speed variable state.

FIG. 36 shows “Female 6” as a “normal loss pattern” displayed on the screen of the liquid crystal display of the pachinko machine according to the second embodiment.
It is a figure which shows an example of one image in which each left row, middle row, and right row of the fluctuating symbol in the case of the symbol data of "4" is in a temporarily stopped state.

FIG. 37 shows “Female 6” as a “normal loss pattern” displayed on the screen of the liquid crystal display of the pachinko machine according to the second embodiment.
It is a figure which shows an example of one image in the state where each left row, middle row, and right row of the variable symbol in the case of the symbol data of "4" were fixed and stopped.

FIG. 38 is a block diagram illustrating a system configuration of a display control circuit unit of the pachinko machine according to the third embodiment.

FIG. 39 shows the shape data of each symbol displayed on the screen of the liquid crystal display corresponding to the variation state of each variation symbol stored in the symbol shape storage area of the character ROM of the pachinko machine according to the third embodiment. FIGS. 4A to 4D show examples.
12) shows each pattern shape data of large “1” to large “frog”, and (B1) to (B12) shows each pattern shape data of small “1” to small “frog”.

FIG. 40 is a diagram showing an example of a color scheme data table stored in a color scheme data storage area of a character ROM of a pachinko machine according to the third embodiment.

FIG. 41 is a flowchart showing a control process corresponding to a symbol change start command signal executed by a display CPU of a display control circuit unit of the pachinko machine according to the third embodiment.

FIG. 42 is a sub-flowchart showing a sub-process of “symbol selection process for each row” of the pachinko machine according to the third embodiment.

FIG. 43 is a sub-flowchart showing sub-processing of “symbol selection processing for each row” of the pachinko machine according to the fourth embodiment.

[Explanation of symbols]

 DESCRIPTION OF SYMBOLS 1 Pachinko machine 2 Game board 19 Liquid crystal display 31 1st starting port 38 2nd starting port 71 Main board 75 CPU 76 ROM 77, 98, 100 RAM 95 Display control circuit part 96 Display CPU 97 Program ROM 99 VDP 101 Character ROM 101A symbol shape storage area 101B color arrangement data storage area 105 color arrangement data table

Claims (21)

[Claims] 1. A gaming machine provided in a game area, wherein a symbol display device for variably displaying a plurality of columns of symbols on a screen is provided, wherein the plurality of columns of symbols are sequentially stopped in a predetermined order for each column after the variation. The gaming machine, wherein each of the symbols is displayed such that the transmittance of each symbol in each column is different in accordance with the state of the symbol in each column. 2. Each of the symbols is composed of a plurality of types of characters having different transmittances; a character storage means for storing the characters; and each of the symbols in the row corresponding to the changing state of the symbol in each row. Character selecting means for selecting one character from a plurality of types of characters to be performed; and determining the position of each character selected by the character selecting means on the screen at predetermined time intervals in accordance with the fluctuation state. Arrangement position determining means, and display control for controlling the character selected by the character selecting means to be arranged and displayed at the position on the screen determined by the arrangement position determining means as a symbol in each row. The gaming machine according to claim 1, further comprising means. 3. The transmissivity includes a first transmissivity in which at least the back side of the character is transparent, the fluctuating state includes a fluctuating display state in which symbols in a row are fluctuated and displayed, 3. The gaming machine according to claim 2, wherein in the case of the variable display state, a character having the first transmittance corresponding to each symbol is selected. 4. The transmissivity includes a second transmissivity in which at least the back side of the character cannot be seen through, the variation state includes a fixed stop state in which symbols in the row are fixed and displayed. 4. The gaming machine according to claim 2, wherein the character selection unit selects a character having the second transmittance corresponding to each symbol in the fixed stop state. 5. 5. The fluctuating state includes a temporarily stopped state in which symbols in a row are temporarily stopped and displayed, and the character selecting means, when in the temporarily stopped state, displays the first symbol corresponding to each symbol. The gaming machine according to claim 4, wherein a character having two transmittances is selected. 6. The third transmittance is at least smaller than the first transmittance and larger than the second transmittance.
The transmittance includes a transmissive state, and the fluctuation state includes a temporary stop state in which the symbols in the row are temporarily stopped and displayed. The gaming machine according to claim 4, wherein a character having three transmittances is selected. 7. The gaming machine according to claim 2, wherein the character having the first transmittance is formed so that the outline of the character can be identified. 8. The character of each transmittance includes a plurality of characters having different sizes, and the character selecting means selects a character of a predetermined size for a predetermined game display. A gaming machine according to any one of claims 2 to 7. 9. The predetermined game display includes at least a normal display displayed in a normal game state, and a reach display displayed in a reach game state, wherein the character selecting means includes: 9. A character smaller than the character displayed in the normal display is selected.
A gaming machine according to claim 1. 10. The arrangement position determining means, in the case of the reach display, determines that the character is arranged in a peripheral portion on the screen.
A gaming machine according to claim 1. 11. The transmissivity includes a fourth transmissivity in which at least the back side of the character can be seen through, and in the case of the reach display, the character selecting unit determines the fourth transmissivity corresponding to each symbol. The gaming machine according to claim 10, wherein a character is selected. 12. A shape storage means for storing the shape of each symbol, a color scheme storage means for storing a plurality of types of colors having different transmittances, and a color scheme assigned to the shape of each symbol varies in each column. A color arrangement selecting means for selecting a color having a predetermined transmittance from the plurality of types of colors in accordance with a state; and determining a position of each of the symbols on the screen at predetermined time intervals in accordance with the change state. Arrangement position determining means, and adding a color of a predetermined transmittance selected by the color arrangement selecting means to the shape of the symbol for each column, and placing each of the symbols on the screen position determined by the arrangement position determining means 2. The gaming machine according to claim 1, further comprising display control means for controlling the display so as to be arranged and displayed. 13. The predetermined transmittance includes at least a fifth transmittance in which the rear side can be seen through, the variation state includes a variation display state in which symbols in a row are variably displayed, and the color arrangement selection unit includes: 13. The gaming machine according to claim 12, wherein in the case of the variable display state, a color of the fifth transmittance corresponding to each symbol is selected. 14. The predetermined transmittance includes a sixth transmittance in which at least the rear side cannot be seen through, the variation state includes a fixed stop state in which symbols in a row are fixed and displayed. 14. The gaming machine according to claim 12, wherein the selection means selects the color of the sixth transmittance corresponding to each symbol in the case of the fixed stop state. 15. The fluctuating state includes a temporary stop state in which symbols in a row are temporarily stopped and displayed, and the color arrangement selecting means, when in the temporary stop state, displays the first symbol corresponding to each symbol. The gaming machine according to claim 14, wherein a color having six transmittances is selected. 16. The predetermined transmittance includes at least a seventh transmittance smaller than the fifth transmittance and larger than the sixth transmittance, and the fluctuation state is such that symbols in a row temporarily stop. 15. The color arrangement selecting means, in the case of the temporary stop state, selects a color of the seventh transmittance corresponding to each symbol when the temporary stop state is displayed. 16. Gaming machine. 17. The gaming machine according to claim 12, wherein the shape of the symbol is formed so that the outline of the symbol can be identified. 18. The shape of each symbol includes a plurality of shapes having different sizes, and a shape selecting means for selecting a shape of a predetermined size of each symbol for a predetermined game display is provided. Claim 1
The gaming machine according to any one of claims 2 to 17. 19. The predetermined game display includes at least a normal display displayed in a normal game state, and a reach display displayed in a reach game state, wherein the shape selecting means, in the case of the reach display, The gaming machine according to claim 18, wherein a shape of a symbol smaller than a shape of each symbol displayed in the case of the normal display is selected. 20. The game according to claim 19, wherein the arrangement position determining means determines that each of the symbols is arranged in a peripheral portion on the screen in the case of the reach display. Machine. 21. The predetermined transmissivity includes an eighth transmissivity in which at least the rear side can be seen through, and in the case of the reach display, the color arrangement selecting unit determines a color of the eighth transmissivity corresponding to each symbol. The gaming machine according to claim 20, wherein is selected.