JP4814985B2 - Game machine - Google Patents

Description

  The present invention relates to a gaming machine provided with sound output means for outputting a predetermined sound and performing sound effects.

  Conventionally, in a pachinko machine which is a kind of gaming machine, in order to enhance the interest of a symbol combination game performed by a variable display (display effect means), a symbol changing sound is output from a speaker (voice output means) in accordance with the change of the symbol. Audio production to be generated is performed. For example, the sound production is performed by generating a specific symbol variation sound (hereinafter referred to as “normal variation sound”) in accordance with the normal variation until the reach is formed after the variation of the symbol starts on the variable display. It has been broken.

  By the way, in the pachinko machine, since the normal fluctuation is performed every time the symbol combination game is started, the player listens to the normal fluctuation sound most during the game. Therefore, if the symbol combination game is repeated many times without the reach effect, the same normal fluctuation sound is output repeatedly every time the symbol combination game is started, so the sound effect becomes monotonous and the player gets bored. It becomes a factor inviting. Therefore, for example, the invention described in Patent Document 1 has been proposed as means for solving such a problem. In Patent Document 1, a plurality of song parts obtained by equally dividing music of one song are stored, and each time a symbol combination game is started, one song part is sequentially output, and a predetermined number of symbol combination games are expired. 1 music output has been completed. According to this configuration, since a different sound is output each time the symbol combination game starts and normal fluctuation occurs, the monotonous feeling when the normal fluctuation sound is repeatedly output is corrected.

JP 2002-253776 A (paragraph numbers [0032] to [0034])

  By the way, in Patent Document 1, when the symbol combination game is continuously performed without interruption, the player can enjoy the normal listening to the fluctuation sound as one piece of music. However, if the winning combination rate at the start winning opening that triggers the start of the symbol combination game is poor, and the symbol combination game is intermittently performed without storing the start holding ball, the purpose is to increase the interest as described above. The normal fluctuation sound set in can be heard only intermittently. Therefore, a player who likes normal fluctuation sounds (or phrases) cannot continue to hear the favorite normal fluctuation sounds as one piece of music in a situation where the symbol combination game is intermittently performed. On the contrary, it will give stress. In addition, despite the fact that game balls are being fired at the starting prize opening, the winning combination rate at the starting prize opening is poor and the symbol combination game is interrupted. Since it becomes an opportunity to stop, there is a possibility of affecting the profit of the amusement store. Therefore, it is desirable for a gaming machine maker to provide a pachinko machine that can give a player the desire to continue the game even when the symbol combination game is interrupted.

  The present invention has been made paying attention to such problems existing in the prior art, and its purpose is to make the player desire to continuously listen to the sound output from the gaming machine. An object of the present invention is to provide a gaming machine that can prompt the player to continue the game even if the next symbol variation game is not continuously performed after the symbol variation game is ended.

In order to solve the above-mentioned problem, the invention according to claim 1 has a holding ball storage means capable of storing a game ball detected by the start winning means as a start holding ball, and the holding ball storage means When a symbol variation game is performed based on the stored start variation ball and the start variation ball is stored at the end of the symbol variation game, a predetermined sound is played in a gaming machine in which the next symbol variation game is continuously performed. Voice output means for performing voice production by outputting voice control data storage means for storing voice control data for outputting music from the voice output means, and the symbol variation game is continued based on the start holding ball. while Te have been made to continue the music based on the audio control data in a predetermined standard volume, and a sound control unit for controlling the audio output means so as to repeatedly output Wherein the voice control unit, the symbol variation when the game at the end of prior SL start pending sphere is not stored, outputted from the audio output means when even after the predetermined time does not start the symbol variation game The volume of the music to be played is controlled to decrease from the standard volume with the passage of time, and the music output is controlled to stop after a predetermined time has elapsed after the control to reduce the volume is started. When the game ball has won the start winning means while the volume is being reduced, the volume is restored to the standard volume while continuously outputting the music being output with the start of the symbol variation game. on the other hand, since the start of the control for reducing the volume, triggered by the game ball is finished in the start winning unit after stopping the music output after a predetermined time period, symbol variation game With the start control so as to output from the first music in the standard volume, the control for reducing the volume, after the output of the music by volume in the output was maintained for a predetermined period, less volume than the volume in the output The gist of the present invention is to reduce the volume during output step by step by repeatedly performing the output of the music by the predetermined time.

The invention according to claim 2 has a holding ball storage means capable of storing the game ball detected by the start winning means as a start holding ball, and based on the start holding ball stored in the holding ball storage means When a variation game is performed and the start holding ball is stored at the end of the symbol variation game, a sound that produces a sound effect by outputting a predetermined sound in a gaming machine in which the next symbol variation game is continuously performed Output means, voice control data storage means for storing voice control data for outputting music from the voice output means, and the voice while the symbol variation game is continuously performed based on the start holding ball When the normal fluctuation sound is continued at a predetermined standard volume as the music based on the control data and is repeatedly output, and the reach effect is performed during the symbol fluctuation game, the voice control is performed. A reach effect sound is output as a music based on data, and if the symbol variation game in which the reach effect is performed is a big hit, a jackpot game sound is output as a song based on the voice control data after the symbol variation game ends. On the other hand, when the symbol variation game in which the reach effect is performed is lost, the voice output means is controlled so that the normal variation sound is output from the beginning as the music based on the voice control data after the symbol variation game is ended. Voice control means, and the voice control means, when the start holding ball is not stored at the end of the symbol fluctuation game, the volume of the normal fluctuation sound output from the voice output means from the standard volume The control is performed to reduce the sound with the passage of time, and after the control to reduce the volume is started, The normal fluctuation sound is controlled to be stopped after a period of time, and the normal ball that is being output with the start of the symbol fluctuation game is triggered by the fact that the game ball has won the start winning means while the volume is being reduced. While the variable sound is continuously output, the sound volume is returned to the standard sound volume, and after the control for reducing the sound volume is started, the output of the normal sound fluctuation is stopped after a predetermined time has elapsed. In the control to reduce the volume by controlling the normal fluctuation sound to be output from the beginning at the standard volume with the start of the symbol variation game, when the game ball has won the start winning means. After maintaining the output of the normal fluctuation sound with the medium volume for a predetermined period, by repeatedly executing the output of the normal fluctuation sound with the volume lower than the volume during the output for a predetermined time, the output Volume stepwise decrease in the gist of Rukoto.

  According to the present invention, there is a case where the player desires to continuously listen to the sound output from the gaming machine, and the next symbol variation game is not continuously performed after the symbol variation game ends. However, it is possible to encourage the player to continue the game.

The front view which shows the machine surface side of a pachinko machine. The block diagram which shows the control structure of a pachinko gaming machine. (A) is explanatory drawing explaining an instruction number, (b) is explanatory drawing explaining instruction data. The flowchart which shows a main process. The flowchart which shows a timer update process. The flowchart which shows a fluctuation | variation start process. The flowchart which shows a volume change process. The flowchart which shows a volume change process. (A), (b) is explanatory drawing explaining a mode that a normal fluctuation sound fades out, and a mode that a sound volume returns.

Hereinafter, an embodiment in which the present invention is embodied in one type of pachinko gaming machine (hereinafter referred to as “pachinko machine”) will be described with reference to FIGS.
In FIG. 1, the front side of the pachinko machine 10 is schematically shown, and a vertical rectangular middle frame 12 for setting various game components is opened and closed on the front side of the opening of the outer frame 11 that forms the outline of the machine body. And is detachably assembled. On the front side of the middle frame 12, both the front frame 14 and the upper ball tray 15 having a glass frame on which a protective glass for protecting the game board 13 disposed inside the machine is transparently opened and closed in a laterally open state. It is assembled as possible. On the front side of the front frame 14 and the game area 13 a of the game board 13, a decoration lamp 16 that is turned on (flashes) or turned off to perform a light emission effect based on light emission decoration is provided. Below the outer frame 11, a speaker 17 is disposed as a sound output means for outputting various sounds and performing sound effects based on the sound output. A lower ball tray 18 and a launching device 19 are attached to the lower part of the middle frame 12.

  In the approximate center of the game area 13a of the game board 13, a display device 21 having a liquid crystal display type variable display 20 is disposed. In the variable display 20, a game effect (display effect) based on a varying image (or image display) is performed. In the variable display 20, a symbol combination game (symbol variation game) is displayed in which a plurality of types of symbols are varied and displayed in a plurality of columns. In the present embodiment, a combination of three columns of symbols is derived in the symbol combination game, and eight types of symbols 1 to 8 are used as the types of symbols in each column forming the combination.

  Then, the player can recognize the big hit or miss from the symbol combination finally displayed in the symbol combination game. When the symbols of all the columns displayed on the variable display 20 are of the same type, the big hit can be recognized from the symbol combination ([111] [777] or the like). The symbol combination that can recognize the jackpot is a jackpot combination. When the jackpot combination is displayed, the player is given a jackpot gaming state (special gaming state). Further, when the symbols of all the columns displayed on the variable display 20 are of different types, or when the symbols of one column are different from the symbols forming the reach, the symbol combination ([234] [122] [767] etc.) can be recognized. A combination of symbols that can recognize this deviation is a combination of deviations.

  Further, in the pachinko machine 10 of the present embodiment, when the symbol combination game starts (when the symbols in each column start to change), the left column (left symbol) → the right column (right symbol) → middle as viewed from the player side The symbols are displayed in the order of columns (middle symbols). In the symbol combination game, when the left symbol and the right symbol are displayed with the same type of symbol, a reach is formed and a reach effect is performed. The reach effect is an effect that is performed after the reach is formed until a combination of big hits or a combination of losing is displayed. On the other hand, in the symbol combination game, when the left symbol and the right symbol are displayed with different types of symbols, the reach is not formed, so that the combination of outliers is displayed without performing the reach effect. In the following, the variation of the symbol from the start of the variation of the symbol until the reach is formed, and the variation of the symbol from the start of the variation of the symbol to the display of the combination of deviations without the formation of the reach. Shown as “normal fluctuation”.

  Further, below the display device 21, a start winning opening 23 including an opening / closing blade 22 that opens and closes by the operation of an actuator (solenoid, motor, etc.) (not shown) is disposed. Behind the start winning opening 23, a start opening sensor SE1 (shown in FIG. 2) for detecting a winning game ball is provided. The start winning opening 23 can give a start condition for the symbol combination game in response to detection of winning of a game ball. In this embodiment, a start winning means is constituted by the start winning opening 23 and the start opening sensor SE1. Also, below the start winning opening 23, a large winning opening 25 having a large winning opening door 24 that opens and closes by the operation of an actuator (solenoid, motor, etc.) not shown is arranged. When the big hit gaming state is given, the big winning opening 25 is opened by the opening operation of the big winning opening door 24 so that the game ball can be won, so that the player has a chance to acquire a large number of winning balls. Obtainable.

Next, the control configuration of the pachinko machine 10 will be described with reference to FIG.
A main control board 27 for controlling the entire gaming machine is mounted on the back side of the pachinko machine 10. The main control board 27 executes various processes for controlling the entire gaming machine, calculates various control signals (control commands) for controlling the game according to the processing results, and executes the control signals (control Command). Further, a display control board 28 for controlling the display mode (display images of symbols, backgrounds, characters, etc.) of the variable display 20 is mounted on the back side of the machine. Further, a lamp control board 29 for controlling the light emission mode (lighting (flashing) / lighting off timing, etc.) of the decorative lamp 16 is mounted on the rear side of the machine. On the rear side of the machine, a sound control board 30 for controlling the sound output mode (sound output timing, volume, etc.) of the speaker 17 is mounted. In the present embodiment, the display control board 28, the lamp control board 29, and the sound control board 30 have control targets that are determined separately as described above, and the control target is professionally controlled. The main control board 27 is configured to function as sub-control means (enclosed by a broken line in FIG. 2).

Hereinafter, specific configurations of the main control board 27 and the voice control board 30 will be described with reference to FIG.
The main control board 27 is provided with a main CPU 27a, a ROM 27b, and a RAM 27c. The main CPU 27a updates the values of various random numbers such as jackpot determination random numbers and jackpot symbol random numbers every predetermined cycle, sets the updated values in the setting area of the RAM 27c, and rewrites the values before the update. The ROM 27b stores a control program for controlling the pachinko machine 10 and a plurality of types of variation patterns. The variation pattern is a game effect (display effect, light effect, sound effect) from when the symbol starts to change (start of the symbol combination game) to when all the symbols are displayed (the symbol combination game ends). The pattern used as the base of is shown. In the variation pattern, a game production time is defined for each variation pattern. The RAM 27c stores (sets) various types of information (random number values and the like) that are appropriately rewritten during the operation of the pachinko machine 10.

The main CPU 27a executes various processes based on the control program stored in the ROM 27b.
When the main CPU 27a receives a game ball in the start winning port 23 and inputs a detection signal from the start port sensor SE1, the number of stored start balls stored (set) in the RAM 27c (hereinafter referred to as “reserved memory number”). It is determined whether it is less than a predetermined upper limit number (4 in this embodiment). If this determination result is affirmative (less than the upper limit number), the main CPU 27a adds 1 (+1) to the reserved storage number and rewrites it. Further, the main CPU 27a reads out the value of the big hit determination random number and the value of the big hit symbol random number from the RAM 27c, and sequentially stores (stores) them in a predetermined storage area of the RAM 27c. The number of reserved memories indicates the number of symbol combination games that are on hold. Therefore, when the number of reserved memories at the end of the symbol combination game is larger than “0 (zero)” (when the start holding ball is stored), the next symbol combination game is continued based on the number of reserved memories. Will be performed. On the other hand, when the number of reserved memories at the end of the symbol combination game is “0 (zero)” (when no start holding ball is stored), there is no symbol combination game being held, and therefore the symbol combination game is It will be interrupted. The main CPU 27a subtracts 1 (-1) from the reserved memory number and rewrites it at the start of the symbol combination game. In the present embodiment, the RAM 27c is configured to function as a holding ball storage unit.

  Also, the main CPU 27a determines whether or not it is a big hit by comparing the value of the jackpot determination random number stored in the RAM 27c with the big hit determination value stored in the ROM 27b immediately before the start of the symbol combination game. judge. Then, the main CPU 27a determines a symbol to be finally displayed on the variable display 20 and also determines a variation pattern according to the determination result of the big hit determination. When the big hit is determined by the big hit determination, the main CPU 27a determines the symbols of all the rows as the same type of symbols based on the value of the random number for the big hit symbol, and also determines the variation pattern for the big hit effect. The jackpot effect is an effect that the symbol combination game is developed so as to finally display the symbol combination of the jackpot.

  On the other hand, when the main CPU 27a determines the shift in the big hit determination, the main CPU 27a determines whether to perform the reach effect by lottery. Then, when performing the reach effect, the main CPU 27a determines that the symbols in the left column and the right column are of the same type, the symbols in the middle column are different from the symbols in the left and right columns, and for the outlier reach effect. Determine the variation pattern. The outlier reach effect is an effect that the symbol combination game is developed so that the reach combination is finally displayed through the reach effect. Further, when the reach effect is not performed, the main CPU 27a determines the symbols of each column so that the symbols of the left column and the right column are different, and also determines a variation pattern for the offending effect. The outlier effect is an effect in which the symbol combination game is developed so as to display the outlier combination without going through the reach effect.

  The main CPU 27a then outputs a variation pattern designation command designating the determined variation pattern and instructing the start of symbol variation to the display control board 28, the lamp control board 29, and the sound control board 30. Further, the main CPU 27a outputs a symbol designation command for designating the decided symbol of each column to the display control board 28. Further, the main CPU 27a outputs an all symbol stop command for instructing stop of symbols in each column (determined display) when the production time set in the determined variation pattern has elapsed.

  In addition, when the number of stored memories at the end of the symbol combination game is “0 (zero)”, the main CPU 27a displays a demonstration command for instructing execution of a demonstration effect (hereinafter referred to as “demonstration effect”) on the display control board 28, Output to the lamp control board 29 and the voice control board 30. The demonstration effect is to notify that the pachinko machine 10 is in a standby state (a state in which the symbol combination game is not performed) using a device such as the variable display 20 or the decoration lamp 16 to obtain a customer-receiving effect. Production. In the present embodiment, the main CPU 27a and the ROM 27b are configured to function as demonstration instruction means.

Next, the voice control board 30 will be described.
The audio control board 30 is provided with a sub CPU 30a, a control ROM 30b, a RAM 30c, a decoding device 30d, and a data ROM 30e. The control ROM 30b stores a sound control program for controlling sound effects. The audio control program includes processing contents executed based on the flowcharts shown in FIGS. 4 to 8 and conditions (FIG. 3A) when the sub CPU 30a instructs the decoding device 30d about the contents of the audio effects. It is shown. In addition, the data ROM 30e stores instruction data (FIG. 3 (b)) indicating the type and volume value (dB) of the reproduced sound, and a plurality of sound data reproduced at the time of sound output. The data ROM 30e stores, as sound data, normal fluctuation sound data output during normal fluctuation, reach production sound data output during reach presentation, and jackpot gaming sound data output during jackpot gaming. Has been. In the present embodiment, the sound data of the normally fluctuating sound is used as data for outputting the music, and when the sound data of the normally fluctuating sound is reproduced, one piece of music is output. In the present embodiment, the sub CPU 30a, the control ROM 30b, and the decoding device 30d are configured to function as sound control means. In the present embodiment, voice control data is constituted by instruction data and sound data, and the data ROM 30e serves as voice control data storage means. The RAM 30c stores (sets) various information (various flags, timer values, etc.) that can be appropriately rewritten during the operation of the pachinko machine 10. The decoding device 30d reproduces sound data and outputs sound from the speaker 17.

  Further, the pachinko machine 10 according to the present embodiment continues the normal fluctuation sound at a predetermined standard volume (64 dB (decibel) in the present embodiment) while the symbol combination game is continuously performed based on the start holding ball. And it is designed to output repeatedly. More specifically, when the start holding ball is stored at the end of the symbol combination game that becomes the offending effect, the normal fluctuation sound is output without stopping at the end of the game. . “Repeatedly output” means that after the sound data of the normally fluctuating sound has been reproduced to the end, the sound data is reproduced from the beginning (reproduced from the beginning of the song) and the normal fluctuating sound is output from the beginning. When the reach effect is performed in the symbol combination game, the sound is switched from the normal fluctuation sound to the reach effect sound together with the shift to the reach effect. If the symbol combination game with the reach effect is a big hit, a big hit game sound is output after the game ends, and if the symbol combination game is out of the game, the normal fluctuation sound is started from the beginning after the game ends. It is output.

  Further, in the pachinko machine 10 according to the present embodiment, when the start holding ball is not stored at the end of the symbol combination game, the volume of the normally fluctuating sound continuously output after the end of the game is reduced as time elapses. It has become. Hereinafter, reducing the sound volume with the passage of time is also referred to as “fade out”. When the game ball wins the start winning opening 23 during the fade-out of the normal fluctuation sound, the volume of the normal fluctuation sound is returned to the standard volume when the winning is made. If the game ball does not win the start winning opening 23 even after a predetermined time (8500 ms in this embodiment) has elapsed since the start of the fade-out, the output of the normal fluctuation sound is stopped. It has become.

  In the pachinko machine 10 configured as described above, the sub CPU 30a performs control of the sound effect based on the sound control program, and instructs the decoding device 30d of the content of the sound effect during the control. Specifically, the sub CPU 30a outputs an instruction number for instructing the contents of the sound effect to the decoding device 30d according to the sound control program. Then, when the instruction number is input, the decoding device 30d reads the instruction data associated with the instruction number from the data ROM 30e, and based on the instruction data, outputs the sound data so as to output a predetermined sound at a predetermined volume. Reproduce. By this control, a predetermined sound (for example, normal fluctuation sound) is output from the speaker 17 at a predetermined volume (for example, standard volume), and an audio effect is performed.

Here, the instruction number output by the sub CPU 30a according to the voice control program and the instruction data associated with the instruction number will be described with reference to FIG.
FIG. 3A shows instruction numbers (integers 1 to 7) used for control of normal fluctuation sound. The instruction number “1” is a number for instructing the start of output of normal fluctuation sound (that is, outputting music for normal fluctuation sound from the beginning). The instruction numbers “2” to “7” are numbers for instructing the fade-out of the normally fluctuating sound. The instruction numbers “2” to “7” include an elapsed time index (an integer from 1 to 6) indicating a fade-out stage, and a set elapsed time (1000 ms to the transition time from the fade-out stage to the next stage). Time up to 8500 ms) is associated with each. In the present embodiment, the normally fluctuating sound is faded out at six levels. Accordingly, the sub CPU 30a sequentially outputs the instruction number every time the set elapsed time elapses, such as the instruction number “2” when 1000 ms elapses and the instruction number “3” when 2500 ms elapses. Although not shown in FIG. 3A, the voice control program also indicates an instruction number for instructing start of output of the reach effect sound or the big hit game sound.

  FIG. 3B shows seven types of instruction data. Each instruction data is assigned an instruction number (an integer from 1 to 7). In the instruction data to which the instruction number “1” is attached, the volume value (64 dB (standard volume)) and the type of reproduced sound (normally varying sound) are shown. This instruction data is data that the decoding device 30d reads in response to the instruction of the instruction number “1” when starting to output the normal fluctuation sound. In addition, only the volume value (64 dB to 0 dB) is shown in the instruction data with the instruction numbers “2” to “7”. The instruction data in which only the volume value is indicated is data for continuously reproducing the sound data being reproduced and changing the sound volume output by the reproduction according to the volume value. Accordingly, the instruction data assigned with the instruction numbers “2” to “7” is data that the decoding device 30d reads in response to the instructions of the instruction numbers “2” to “7” when the normal fluctuation sound is faded out. . In this embodiment, when the instruction number “7” is instructed, the decoding device 30d stops the reproduction of the sound data and stops the sound output. Although not shown in FIG. 3B, the data ROM 30e also stores instruction data indicating a reach effect sound or a big hit game sound as the type of reproduced sound.

Hereinafter, processing executed by the sub CPU 30a of the voice control board 30 according to the voice control program will be described with reference to the flowcharts shown in FIGS.
The sub CPU 30a executes the main process shown in FIG. 4 every predetermined control cycle (every 2 ms in this embodiment). In the main process, the sub CPU 30a sequentially executes a timer update process (step S10), a volume change process (step S20), and a fluctuation start process (step S30). Repeat the process.

First, the timer update process (step S10 in FIG. 4) will be described with reference to FIG.
The sub CPU 30a determines whether or not a start flag indicating that fade-out is in progress is set in the RAM 30c (step S101). If this determination result is affirmative (the start flag is set), the sub CPU 30a is fading out, so the timer update process ends after adding the timer value set in the RAM 30c. The timer measures the elapsed time from the start of fade-out, and is added by a time corresponding to one control cycle (2 ms in this embodiment) every time the timer update process is executed. On the other hand, when the determination result of step S101 is negative (the start flag is not set), the sub CPU 30a ends the timer update process because it is not fading out.

Next, the volume changing process (step S20 in FIG. 4) will be described with reference to FIGS. This volume changing process is a process for fading out the normally fluctuating sound.
The sub CPU 30a determines whether or not a demo command has been input (step S201). The demo command is a control command that is output from the main CPU 27a when the start holding ball is not stored at the end of the symbol combination game (that is, when the symbol combination game is interrupted without continuing). If the determination result of step S201 is affirmative (a demo command is input), the sub CPU 30a sets a start flag in the RAM 30c (step S202). Subsequently, the sub CPU 30a determines whether or not the end flag is set in the RAM 30c (step S203). The end flag regulates that the process related to the fade-out is started from the initial state (the process after step S204 described later) by the input of the demo command after the audio output is stopped by the fade-out after the fade-out is started. Flag. By setting the end flag, for example, even when a demo command is output due to a malfunction, it is possible to prevent the process related to fade-out from starting from the initial state. This end flag is set in the RAM 30c until the symbol combination game is started after the fade-out is started (until the variation pattern designation command is inputted).

  If the determination result in step S203 is negative (the end flag is not set), the sub CPU 30a sets the elapsed time index “1” in the RAM 30c because the normal fluctuation sound is not faded out (step S204). ). In this state, the first stage of fade-out has started (that is, the process relating to fade-out has started from the initial state). Subsequently, the sub CPU 30a sets “0” as a timer value in the RAM 30c (step S205) and sets an end flag in the RAM 30c (step S206), and ends the sound volume changing process.

  On the other hand, if the determination result in step S201 is negative (no demo command is input), or if the determination result in step S203 is affirmative (the end flag is set), the sub CPU 30a proceeds to step S207. . A case where the determination result in step S203 is affirmative is a case where the fade-out is currently being performed or the audio output is stopped due to the fade-out. In step S207, the sub CPU 30a determines whether or not a variation pattern designation command has been input. If this determination result is affirmative (a variation pattern designation command has been input), the sub CPU 30a determines whether or not a start flag is set in the RAM 30c (step S208). If this determination result is negative (the start flag is not set), the sub CPU 30a ends the sound volume changing process because it is not fading out. If the determination result in step S208 is affirmative (the start flag is set), the sub CPU 30a outputs the instruction number “2” to the decoding device 30d because it is fading out (step S209). In step S209, the sub CPU 30a makes a positive determination in steps S207 and S208 to perform processing for restoring the volume of the normally fluctuating sound that is being faded out. Therefore, only the volume value is indicated so that the normal fluctuating sound is continuously reproduced. The designated instruction number “2” is output. Subsequently, the sub CPU 30a clears the timer (step S210), clears the start flag (step S211), and ends the sound volume changing process.

  On the other hand, if the determination result in step S207 is negative (no change pattern designation command is input), the sub CPU 30a determines whether or not the start flag is set in the RAM 30c (step S212 in FIG. 8). If the determination result is negative (the start flag is not set), the fade-out is not in progress, and thus the sub CPU 30a ends the volume change process. If the determination result in step S212 is affirmative (the start flag is set), the sub CPU 30a is fading out, and thus acquires the set elapsed time from the value of the elapsed time index set in the RAM 30c ( Step S213). For example, when the value of the elapsed time index is “1”, the sub CPU 30a acquires “1000 (ms)” as the set elapsed time (see FIG. 3A). Subsequently, the sub CPU 30a determines whether or not the time measured by the timer has reached the set elapsed time acquired in step S213 (step S214). In step S214, the sub CPU 30a determines whether or not to shift the fade-out stage to the next stage (whether or not the volume is lowered by one stage). If this determination result is negative (timer ≠ set elapsed time), the sub CPU 30a maintains the volume of the normal fluctuation sound being reproduced at the current volume, and thus ends the volume change process.

  If the determination result in step S214 is affirmative (timer = set elapsed time), the sub CPU 30a shifts the fade-out stage to the next stage, and thus obtains an instruction number from the value of the elapsed time index set in the RAM 30c. (Step S215). For example, if the value of the elapsed time index is “1”, the sub CPU 30a acquires the instruction number “2” (see FIG. 3A). Thereafter, the sub CPU 30a outputs the instruction number acquired in step S215 to the decoding device 30d (step S216).

  Subsequently, the sub CPU 30a determines whether or not the value of the elapsed time index acquired in step S215 is the final value (step S217). In step S217, the sub CPU 30a determines whether or not the fade-out stage is the final stage (that is, the stage where sound output is stopped). In the present embodiment, the value “6” of the elapsed time index is the final value. If the determination result in step S217 is affirmative (the final value), the sub CPU 30a stops the audio output, and thus clears the start flag (step S218). Subsequently, the sub CPU 30a sets a reproduction flag indicating that the normal fluctuation sound is output from the beginning in the RAM 30c (step S219), and ends the volume changing process. If the determination result in step S217 is affirmative (not the final value), the sub CPU 30a increments (adds 1) the value of the elapsed time index set in the RAM 30c (step S220). For example, when the value of the elapsed time index acquired in step S215 is “1”, the sub CPU 30a increments the value of the elapsed time index to “2” in the process of step S220. Thereafter, the sub CPU 30a ends the sound volume changing process.

Next, the variation start process (step S30 in FIG. 4) will be described with reference to FIG.
The sub CPU 30a determines whether or not a variation pattern designation command has been input (step S301). If this determination result is affirmative (a variation pattern designation command has been input), the sub CPU 30a determines whether or not a reproduction flag is set in the RAM 30c (step S302). If the determination result is affirmative (the playback flag is set), the sub CPU 30a outputs an instruction number “1” to the decoding device 30d in order to output a normal fluctuation sound from the beginning when the symbol combination game starts. Output (step S303). Subsequently, the sub CPU 30a clears the reproduction flag (step S304), clears the end flag (step S305), and ends the variation start process. If the determination result in step S301 is negative (no change pattern designation command is input), or if the determination result in step S302 is negative (regeneration flag is not set), the sub CPU 30a ends the change start process. To do.

Hereinafter, a mode in which an audio effect is performed under the control of the sub CPU 30a will be described.
If the game ball is won at the start winning opening 23 while the voice output is stopped (while waiting for the symbol combination game), a voice effect is performed as follows.

  While the audio output is stopped, the reproduction flag and the end flag are set in the RAM 30c, but the start flag is not set. In this state, when a game ball wins at the start winning opening 23, the sub CPU 30a inputs a change pattern designation command. Therefore, an affirmative determination is made in steps S301 and S302 of the change start process (FIG. 6), and the process goes to step S303. The instruction number “1” is output to the decoding device 30d. Then, the decoding device 30d that has input the instruction number “1” reads instruction data corresponding to the instruction number “1” from the data ROM 30e. The read instruction data indicates a standard volume (64 dB) as a volume value and a normal fluctuation sound as a type of reproduced sound (see FIG. 3B). Therefore, the decoding device 30d reads the normal fluctuation sound data from the data ROM 30e and reproduces it. As a result, the normal variation sound is output from the speaker 17 at the standard volume (64 dB) in accordance with the display effect (symbol variation in the symbol combination game) performed on the variable display device 20.

Further, when a game ball is won at the start winning opening 23 during the symbol combination game, an audio effect is performed as follows.
During the symbol combination game, none of the start flag, the reproduction flag, and the end flag is set in the RAM 30c. In this state, when a game ball wins the start winning opening 23, the main CPU 27a does not output a variation pattern designation command because the symbol combination game is in progress (the reserved memory count is incremented by 1). Further, the sub CPU 30a does not output an instruction number. Therefore, the decoding device 30d continuously reproduces the normal fluctuation sound being reproduced. As a result, the normal fluctuation sound is output from the speaker 17 at the standard volume (64 dB).

  Thereafter, when the symbol combination game ends, the main CPU 27a outputs a variation pattern designation command because the number of reserved memories is stored. Then, when the sub CPU 30a inputs the variation pattern designation command, the determination in step S301 of the variation start process (FIG. 6) is affirmative but the determination in step S302 is negative. Therefore, since the instruction number “1” is not output from the sub CPU 30a, the decoding device 30d continuously reproduces the normal fluctuation sound being reproduced. As a result, the normal fluctuation sound is continuously output from the speaker 17 at the standard volume (64 dB).

In addition, when the start holding ball is not stored at the end of the symbol combination game (when the stored storage number = 0 (zero)), the sound effect is performed as follows.
The main CPU 27a outputs a demo command because the number of reserved memories is “0 (zero)”. Then, when the sub CPU 30a inputs the demo command, it makes an affirmative decision in step S201 of the volume changing process (FIGS. 7 and 8), sets a start flag in step S202, and makes a negative decision in step S203. Further, the sub CPU 30a sets the elapsed time index to “1” in step S204, sets a timer in step S205, and then sets an end flag. Thereafter, when the game ball is not won in the start winning opening 23 and the symbol combination game is in the standby state, the sub CPU 30a makes a negative determination in step S207 of the volume changing process (FIGS. 7 and 8), and starts flag Is set, the processing from step S213 is executed. That is, the sub CPU 30a executes a process for fading out the normal fluctuation sound.

  The sub CPU 30a outputs an instruction number corresponding to the elapsed time index set in the RAM 30c to the decoding device 30d and outputs the elapsed time index every time affirmative determination is made in step S214 of the volume change processing (FIGS. 7 and 8). Is incremented. Therefore, every time the instruction number is input, the decoding device 30d reads out instruction data corresponding to the instruction number from the data ROM 30e. Only the volume value is indicated in the instruction data (instruction data corresponding to the instruction numbers “2” to “7”) read after the start of the fade-out (see FIG. 3B). Therefore, the decoding device 30d lowers the volume of the normal fluctuation sound to the volume value indicated in the instruction data while continuously reproducing the sound data of the normal fluctuation sound being reproduced. As a result, the volume of the normal fluctuation sound that was output at the standard volume (64 dB) at the end of the symbol combination game fades out from the speaker 17. 9A and 9B show how the normal fluctuation sound fades out. The numbers from “1” to “7” shown in FIGS. 9A and 9B indicate instruction numbers.

  Then, when the value of the elapsed time index set in the RAM 30c reaches “7”, the sub CPU 30a makes an affirmative determination in step S217 of the volume change processing (FIGS. 7 and 8), and clears the start flag in step S218. At the same time, a reproduction flag is set in step S219. The decoding device 30d that has input the instruction number “7” stops the reproduction of the normally fluctuating sound because the volume value indicated in the instruction data corresponding to the instruction number “7” is “0 (dB)”. As a result, the normal fluctuation sound is stopped from the speaker 17 as the predetermined time (8500 ms in the present embodiment) elapses after the symbol combination game ends.

  After that, when a game ball wins in the start winning opening 23, the sub CPU 30a inputs a change pattern designation command, so that the instruction number “1” is decoded in step S303 of the change start process (FIG. 6) as described above. Output to device 30d. Then, the decoding device 30d reproduces the sound data of the normally fluctuating sound. As a result, the normal variation sound is output from the speaker 17 at the standard volume (64 dB) in accordance with the display effect (symbol variation in the symbol combination game) performed on the variable display device 20. That is, as shown in FIG. 9A, the normal fluctuation sound is output at the standard volume from the state where the sound output is stopped.

On the other hand, when a game ball wins the start winning opening 23 during the fade-out, a sound effect is performed as follows.
When a game ball wins in the start winning opening 23, the sub CPU 30a inputs a variation pattern designation command, so that affirmative determination is made in step S207 of the volume changing process (FIGS. 7 and 8), and a start flag is set. Therefore, affirmative determination is made in step S208. Then, the sub CPU 30a outputs the instruction number “2” to the decoding device 30d in step S209, clears the timer in step S210, and then clears the start flag in step S211. The decoding device 30d that has input the instruction number “2” reads the instruction data corresponding to the instruction number “2” from the data ROM 30e. In the read instruction data, only the standard volume (64 dB) is shown as a volume value (see FIG. 3B). Therefore, the decoding device 30d raises the volume of the normal fluctuation sound to the volume value indicated in the instruction data while continuously reproducing the sound data of the normal fluctuation sound being reproduced. As a result, the normal fluctuation sound is output again from the speaker 17 at the standard volume (64 dB). That is, as shown in FIG. 9B, the volume of the normal fluctuation sound during the fade-out is restored to the standard volume. FIG. 9B shows how the sound volume is restored when the elapsed time index “5” is set in the RAM 30c.

Therefore, according to the present embodiment, the following effects can be obtained.
(1) When the symbol combination game is being continued, the voice (normally fluctuating sound) is continuously output, and when the symbol combination game is interrupted without continuing (the start holding ball is When not stored), the sound is continuously output and the sound is faded out. By gradually reducing the volume, it is possible to make the player have a desire to continuously listen to the sound (want to hear more). Then, when the game ball wins the start winning opening 23 during the fade-out, the volume is returned to the standard volume. Therefore, even when the symbol combination game is interrupted, the continuation of the game can be promoted by causing the player to desire to continue to listen to the voice.

  (2) Providing the pachinko machine 10 that can contribute to the profit of the game hall by preventing the player from stopping the game when the symbol combination game is interrupted by encouraging the continuation of the game. Can do. In addition, during the fade-out, since the volume is restored by winning the game ball, it is possible to provide the pachinko machine 10 that can give added value even during the standby of the symbol combination game.

  (3) The opportunity to return the sound volume is a winning game ball to the start winning opening 23. The start winning opening 23 is a winning opening that wins a big hit in response to a winning game ball and gives the player a chance to win a big hit. Therefore, a player usually aims at the starting winning opening 23 to play a game ball. Fired. Therefore, during a fade-out, the player is given a chance to win a jackpot as usual, without causing the player to feel annoyed by aiming for a different prize opening (a prize opening other than the start prize opening 23). However, it is possible to challenge the volume recovery. Therefore, the continuation of the game can be more strongly encouraged.

  (4) The fade-out is started when the demo command is input. The demo command is a control command that is output when the start holding ball is not stored at the end of the symbol combination game. Therefore, when the symbol combination game is interrupted, the fade-out can be surely started at an appropriate timing. Further, since the demonstration effect is an effect normally performed on the existing pachinko machine 10, it is not necessary to make a significant design change to the existing pachinko machine 10 even when the fade-out control is adopted. Furthermore, when the main control board 27 and the voice control board 30 are divided and stored in each control program as in the present embodiment, when the fade-out control is adopted, the main control board 27 is stored in the main control board 27. There is no need to change the control program.

  (5) After the fade-out has started, the audio output is completely stopped as the predetermined time elapses. Therefore, it is possible to suppress the output of sound in situations where no sound is originally output, such as when the sound is output due to some factor (or input of a control command) even though the symbol combination game is not performed. it can. That is, malfunction can be suppressed.

  (6) Also, by stopping the sound output, if the game ball wins the start winning opening 23 after the sound output is stopped, it is possible to output the sound (normally varying sound) from the beginning. Therefore, the player can hear the sound output after stopping the sound output without feeling uncomfortable. That is, when the sound is output with the volume reduced to a level that cannot be heard by the player after a predetermined time has elapsed, the player has a feeling that the sound output has stopped when the sound is no longer heard. If the volume is restored in such a state, there is a high possibility that the output sound will be in the middle of the song, giving the player a sense of discomfort. In addition, by stopping the voice output, the voice control board 30 (sub CPU 30a) does not need to perform voice control during the standby of the symbol combination game, so the control burden on the voice control board 30 can be reduced. .

  (7) The sound data of the normally fluctuating sound is the data from which the music is output. Therefore, when the symbol combination game is continuously performed, the player can continuously hear one piece of music. Therefore, when the symbol combination game is interrupted, one piece of music fades out, so that the desire to continue to listen to the music can be further enhanced. Therefore, the continuation of the game can be more strongly encouraged.

  (8) When restoring the volume during fade-out, the sound (normally fluctuating sound) is continuously output. Therefore, it is possible to give the player a sense of satisfaction that the game ball is won in the start winning opening 23 and the sound volume is restored. On the other hand, when the voice output is stopped, the voice (normally fluctuating sound) is output from the beginning. Therefore, it is possible to prevent the player from feeling uncomfortable with the sound flowing from the middle.

In addition, you may change the said embodiment as follows.
-In the said embodiment, you may change the aspect at the time of making a sound (normal fluctuation sound) fade out. For example, the number of stages from the start of fade-out to the stop of audio output may be changed (increased or decreased). Further, the set elapsed time and the volume value when the volume is lowered by one step may be changed. Further, the set elapsed time, volume value, or number of steps may be changed to change the time from the start of fade-out to the stop of audio output.

  In the above-described embodiment, the fade-out of voice (normally variable sound) is started in response to the input of the demo command. However, the start trigger of the fade-out may be changed. For example, the fade-out may be started when the start holding ball is not stored at the end of the symbol combination game and the symbol combination game is not started even after a predetermined time has elapsed.

  In the above embodiment, the sound output is completely stopped after a predetermined time (8500 ms in the above embodiment) has elapsed since the start of fade-out of sound (normally variable sound), but the sound output is completely stopped. Alternatively, the voice may be continuously output at a small volume that the player who is playing the game cannot hear (or is difficult to hear). You may control so that a non-audible sound (inaudible sound) is output from an audible sound after progress of predetermined time.

  In the embodiment, when a game ball is won at the start winning opening 23 during the fade-out and the sound volume is restored, the sound volume may be increased (fade in) with time.

Next, a technical idea that can be grasped from the embodiment and another example will be added below.
(A) having a holding ball storage means capable of storing the game ball detected by the winning winning means as a start holding ball, and performing a symbol variation game based on the starting holding ball stored in the holding ball storage means; In the game machine where the next symbol variation game is continuously performed when the symbol variation game is stored at the end of the symbol variation game, an audio output means for outputting a predetermined sound to produce an audio effect; and the sound Voice control data storage means for storing voice control data for outputting voice from the output means, and voice based on the voice control data while the symbol variation game is continuously performed based on the start holding ball. Voice control means for controlling the voice output means so as to continue and output repeatedly at a predetermined standard volume, and the voice control means includes the symbol variation game When the start hold ball is not stored at the end, the volume of the sound output from the sound output means is controlled to decrease from the standard volume as time elapses, and the game ball is reduced during the volume reduction. A game machine that controls the sound volume to return to the standard sound volume when the start winning means is won.

  (B) Demonstration instruction means for instructing the sound output means to execute a demonstration effect when the start holding ball is not stored at the end of the symbol variation game, and the sound control means includes the demonstration effect The gaming machine according to the technical idea (b) for starting the control for reducing the volume in response to the execution instruction.

  (C) The game according to the technical idea (A) or (B) in which the audio control unit performs control so as to stop the audio output after a predetermined time has elapsed after starting the control to reduce the volume. Machine.

(D) The gaming machine according to any one of the technical ideas (A) to (C), wherein the voice control data is data for outputting music as voice.
(E) The voice control data is data for outputting music as voice, and the voice control means controls to continuously output the music being output when the volume is restored. The gaming machine according to the technical idea (c) in which when the sound output is stopped, control is performed so that the music is output from the beginning with the start of the symbol variation game.

  SE1 ... Starting port sensor, 10 ... Pachinko machine, 17 ... Speaker, 23 ... Starting winning port, 27a ... Main CPU, 30a ... Sub CPU, 30b ... Control ROM, 30d ... Decoding device, 30e ... Data ROM.

Claims (2)

There is a holding ball storage means capable of storing the game ball detected by the start winning means as a start holding ball, and a symbol change game is performed based on the start holding ball stored in the holding ball storage means. In the game machine in which the next symbol variation game is continuously performed when the start holding ball is stored at the end of the game,
Audio output means for outputting a predetermined sound to produce a sound effect;
Voice control data storage means for storing voice control data for outputting music from the voice output means;
While the symbol variation game is continuously performed based on the start holding ball, the sound output means is controlled so that the music based on the sound control data is continuously output at a predetermined standard volume and is repeatedly output. Voice control means for
The voice control means is
If the end before Symbol start pending sphere symbol variation game is not stored, the volume of the music standard even after the lapse of a predetermined time is output from the sound output unit when the symbol variation game does not start Control to reduce the volume as time elapses, start control to reduce the volume, and control to stop the music output after a predetermined time,
While the game ball has won the start winning means while the volume is being reduced, the volume is returned to the standard volume while continuously outputting the music being output with the start of the symbol variation game. With the start of the symbol variation game, the game ball won the start winning means after the music output was stopped after a lapse of a predetermined time after the control for reducing the volume was started. Control the music to be output from the beginning at the standard volume,
In the control for reducing the volume, the output of the music by the volume being output is maintained for a predetermined period, and then the output of the music by the volume lower than the volume being output is maintained for a predetermined time repeatedly to output A game machine that gradually reduces the volume inside. There is a holding ball storage means capable of storing the game ball detected by the start winning means as a start holding ball, and a symbol change game is performed based on the start holding ball stored in the holding ball storage means. In the game machine in which the next symbol variation game is continuously performed when the start holding ball is stored at the end of the game,
Audio output means for outputting a predetermined sound to produce a sound effect;
Voice control data storage means for storing voice control data for outputting music from the voice output means;
While the symbol variation game is continuously performed based on the start-and-hold ball, the regular variation sound is continued at a predetermined standard volume as the music based on the voice control data and is repeatedly output, and the symbol variation is performed. When a reach effect is performed during the game, a reach effect sound is output as a song based on the voice control data, and when the symbol variation game in which the reach effect is performed becomes a big hit, after the symbol variation game ends, If the symbol variation game in which the reach effect is performed is output while the jackpot game sound is output as a song based on the voice control data, a normal variation sound is generated as the song based on the voice control data after the symbol variation game is ended. Voice control means for controlling the voice output means to output from the beginning,
The voice control means is
When the start holding ball is not stored at the end of the symbol variation game, the volume of the normal variation sound output from the sound output means is controlled to decrease from the standard volume as time elapses. , After starting the control to reduce the volume, control to stop the output of the normal fluctuation sound after a lapse of a predetermined time,
When the game ball wins the start winning means while the volume is reduced, the normal fluctuation sound that is being output is continuously output with the start of the symbol fluctuation game, and the volume is set to the standard volume. On the other hand, after starting the control to reduce the volume, the game ball won the start winning means after stopping the output of the normal fluctuation sound after a lapse of a predetermined time, Control to output the normal fluctuation sound from the beginning at the standard volume with the start of the fluctuation game,
In the control for reducing the volume, after maintaining the output of the normal fluctuation sound by the volume during output for a predetermined period, repeatedly maintaining the output of the normal fluctuation sound by a volume lower than the volume during output for a predetermined time. A game machine that reduces the output volume in stages by executing .

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