JP6564003B2 - Block game program, block game machine - Google Patents

Description

  The present invention relates to a block game program and a block game machine that cause blocks to appear sequentially on a play screen.

Conventionally, there has been a block game where blocks are made to appear sequentially on the play screen and stacked, and play is terminated when a predetermined number of steps is reached (for example, Patent Document 1).
In this block game, the player moves the blocks in the play screen, deletes the same color blocks by connecting them, and plays so that the number of steps is reduced and the predetermined number of steps is not reached.
However, in the conventional block game, a block that sufficiently reflects the play situation cannot be made to appear as a newly appearing block.

JP 2009-178374 A

  An object of the present invention is to provide a block game program and a block game machine that allow a newly reflected block to appear that sufficiently reflects the play situation.

  The present invention solves the problems by the following means. In addition, in order to make an understanding easy, although the code | symbol corresponding to embodiment of this invention is attached | subjected and demonstrated, it is not limited to this. In addition, the configuration described with reference numerals may be improved as appropriate, or at least a part thereof may be replaced with another configuration.

  The first invention is a block game in which a new block having a plurality of attributes appears on the play screen in sequence and the blocks are stacked in the stacking direction to form a block aggregate, and the game ends when the number of blocks reaches the limit An exposure block determination unit that determines an attribute of an exposure block that is a block arranged to be exposed in the stacking direction, and an exposure block that is determined by the exposure block determination unit. Depending on the type, a new block appearance control means for performing a new block appearance process for determining and appearing a new block that is a block to be stacked on the exposed block, an operation means for receiving a player's operation, and an operation of the operation means Depending on the block moving means for moving and arranging the new block on the exposed block, the same attribute When the blocks are connected in the number of erasures that satisfies the erasure condition, the block is controlled as a block erasure control means for erasing the connected blocks. If it is determined that the block at the tip in the stacking direction has the number of caution steps, the probability that the new block having the same attribute as the caution block that is the block arranged in the number of caution steps appears. The block game program is characterized in that it is made to function larger than the other exposed blocks.

  A second invention is a block game program for a block game in which new blocks having a plurality of attributes appear in order on the play screen, the blocks are stacked in the stacking direction, and the game is terminated when the number of blocks reaches the limit number. In accordance with the type of the exposure block determined by the exposure block determination means determined by the exposure block determination means, the exposure block determination means for determining the attribute of the exposure block that is a block arranged to be exposed in the stacking direction ahead side, New block appearance control means for determining a new block that is a block to be stacked on the exposed block, operation means for receiving a player's operation, block moving means for moving the exposed block in accordance with the operation of the operation means, When blocks with the same attribute are concatenated for the number of erasures that satisfies the erasure condition, they are concatenated. The new block appearance control means is made to function as block erasure control means for erasing the lock, and determines whether or not the block at the front end in the stacking direction has the number of cautions, and determines that the block at the top in the stacking direction has the caution stage In this case, the block is characterized in that the probability that the new block having the same attribute as the attention block that is the block arranged in the number of attention steps appears is set to be set larger than that of the other exposed blocks. It is a game program.

According to a third invention, in the block game program of the first or second invention, when there are a plurality of the caution blocks, the new block appearance control means has the same attribute as the caution block ahead in the stacking direction. It is a block game program characterized by functioning so as to set the probability of causing a block to appear large.
According to a fourth invention, in the block game program according to any one of the first to third inventions, the new block appearance control means sets a probability that a new block having the same attribute as the attention block appears. The block game program is configured to function so as to make the number of times smaller by one than the number of erased.
According to a fifth invention, in the block game program according to any one of the first to fourth inventions, the new block appearance control means changes the value of the number of cautions in accordance with the difficulty level of the block game. It is a block game program characterized by making it function.

  According to a sixth aspect of the present invention, in the block game program of the first or second aspect, the new block appearance control means causes each new block having the same attribute as the exposed block on the rear side in the stacking direction to appear in the stacking direction. The total value of the probabilities to be performed is constant, the total probability of occurrence of each new block having the same attribute as the attention block of the number of attention steps is constant, and there is one attention block. Makes the appearance probability of the new block having the same attribute as the one attention block equal to the appearance probability of the attention block, and when there are a plurality of the attention blocks, each attribute of the plurality of the attention blocks It is a block game program characterized by functioning to distribute the attention block appearance probability according to the ratio of the number.

  7th invention is a block game machine provided with the memory | storage means to memorize | store the block game program of any invention from 1st to 6th, and the control means to execute the said block game program of the said memory | storage means. .

According to the present invention, the following effects can be obtained.
According to the first invention, a new block is arranged on the exposed block in accordance with the operation of the operating means, and the probability that a new block having the same attribute as the caution block arranged in the number of caution stages appears more than other exposed blocks. Since the size is increased, the probability that the attention block and the new block have the same attribute can be improved. For this reason, the player operates to connect the attention block and the new block, erase the attention block and the new block, and easily remove from the pinch. That is, a new block having an attribute corresponding to the play situation can appear.
In the first invention, when the exposure block reaches the caution stage number, the attribute of the new block depends on the caution block. For this reason, even if it is a case where it plays several times, the dispersion | variation in the difficulty after the exposure block reaches the caution stage number can be reduced. Thereby, a game reflecting the skill of the player can be provided.

In the second invention, the exposure block is moved in accordance with the operation of the operation unit, and the probability that a new block having the same attribute as the attention block arranged in the number of attention steps appears as in the first invention. Since it is larger than the other exposed blocks, the same effect as the first invention can be obtained.
In the third invention, when there are a plurality of caution blocks, the probability that a block having the same attribute appears as the caution block ahead in the stacking direction is increased. The probability of appearing can be improved. This makes it easier for the player to delete the attention block that is close to the limit number of steps, so that the player can easily remove it from the pinch.

In the fourth aspect of the invention, the process of causing a new block having the same attribute as the attention block to appear is set to be one less than the number of deletions, so that the player repeatedly appears a new block having the same attribute as the attention block. Can be suppressed. Thereby, for example, even when the player waits for a new block having an attribute different from that of the attention block, a new block having a desired attribute can be easily made to appear after the number of times smaller than the erased number.
In the fifth invention, the value of the number of cautions is changed according to the difficulty level of the block game. For example, when a plurality of stages are cleared in order and the play progresses, the number of cautions increases as the stage progresses. And the difficulty can be improved.

In the sixth invention, when there are a plurality of attention blocks, the attention block appearance probability is distributed according to the ratio of the number of each attribute of the plurality of attention blocks. It is easy to make the same new block appear. This makes it easier for the player to satisfy the erasure condition for a large number of attention blocks, so that the player can easily get out of the pinch.
Since the seventh invention comprises storage means for storing the game programs of the first to sixth inventions and control means for executing the same, the same effects as the first to sixth inventions are achieved.

It is a block diagram of game machine 1 of a 1st embodiment. It is an external view of the game machine 1 of 1st Embodiment. It is an external view of the game machine 1 of 1st Embodiment. It is a flowchart of the whole play progress process of 1st Embodiment. It is a figure explaining one scene of the play screen 7a of 1st Embodiment. It is a flowchart of the new block filling process of 1st Embodiment. It is a figure of the play screen 7a explaining the new block filling process of 1st Embodiment. It is a figure of the play screen 7a explaining the new block filling process of 1st Embodiment. It is the figure of the play screen 7a progressed so that play conditions might be satisfied according to the new block filling process of 1st Embodiment. It is a figure of the play screen 7a of the play progress example by the advanced player of 1st Embodiment. It is a flowchart of the new block launch process of 1st Embodiment. It is a figure of the play screen 7a explaining the normal discharge process of 1st Embodiment. It is a figure of the play screen 7a explaining the jump shot process of 1st Embodiment. It is a figure of the play screen 7a explaining the jump shot process of 1st Embodiment. It is a figure of the play screen 7a explaining the jump shot process of 1st Embodiment. It is a figure of the play screen 7a explaining the jump shot process of 1st Embodiment. It is a figure of the play screen 7a explaining the jump shot process of 1st Embodiment. It is a figure of the play screen 7a explaining the jump shot process of 1st Embodiment. It is a figure explaining the probability increase supply process of 2nd Embodiment. It is a figure explaining the play screen 307a of 3rd Embodiment. It is a block diagram of game machine 401 of a 4th embodiment. It is an external view of the game machine 401 of 4th Embodiment. It is a figure of the play screen 407a explaining the normal discharge process of 4th Embodiment. It is a figure of the play screen 407a explaining the jump shot process of 4th Embodiment. It is a figure of the play screen 407a explaining the jump shot process of 4th Embodiment.

(First embodiment)
Hereinafter, a first embodiment of the present invention will be described with reference to the drawings and the like.
FIG. 1 is a block diagram of a game machine 1 according to the first embodiment.
FIG. 2 (FIGS. 2-1 and 2-2) is an external view of the game machine 1 of the first embodiment.
The game machine 1 is a portable information terminal capable of playing this block game. In addition to playing the block game, the game machine 1 is used as a portable information terminal to make a call and send / receive information to / from another terminal (not shown) via a communication network, or to a server (not shown). ) Can send and receive information.

An outline of the block game will be described.
As shown in FIG. 2A, a plurality of blocks B and a turret 20 are displayed on the play screen 7a.
The play screen 7a is a play area where a block game is actually played, and is a rectangle elongated in the vertical direction Y. In the play screen 7a, blocks B can be arranged in 11 rows and 8 columns.
In addition, in order to make the explanation easy to understand, the number of stages 1 to 11 is shown on the left side X1 and the number of columns a to h on the upper side Y2 from the play screen 7a, but these are shown on the actual device. It is not a thing.
Further, in the following description, when a specific block B is designated, from 1 to 11 from the upper side Y2 (back side in the stacking direction) to the lower side Y1 (front side in the stacking direction) for the stage, from the left side X1 for the column Symbols a to h are attached toward the right side X2, and expressed as blocks (stages) (columns). For example, the block B in the ninth row and the sixth column is expressed as “block 9f”. Similarly, when a specific position is indicated, it is expressed as a position (stage) (column) (for example, “position 9f”).

The block game is played by a block B of three colors (attributes). In the figure, the colors of the block B are “R (red)”, “B (blue)”, and “G (green)” inside the block B.
In the block game, the block aggregate B0 formed by stacking the blocks B is displayed on the play screen 7a. The block aggregate B0 is a collection of blocks B that have already been placed on the play screen 7a and stopped and do not move unless the player moves down.
As shown in FIGS. 2 (a) and 2 (b), a block B appears one by one at the top of the top level in the play screen 7a, and the block aggregate B0 is displayed accordingly. Move to the lower Y1 step by step.

The turret 20 is displayed on the lower side Y1 in the play screen 7a. A new block N is filled inside the turret (reference position). The turret 20 fires a new block N toward the block aggregate B0 according to the operation of the player. When the new block N is fired, the new new block N is filled in the turret 20. For example, the scene of FIG. 2C is a scene in which a new block N of color B is fired and a new block N of color R is newly filled.
As shown in FIGS. 2C and 2D, when a new block N is fired and three or more blocks B of the same color are connected, the erasure condition is satisfied. The block B that satisfies the erasure condition is erased from the play screen 7a. Thereby, the player can reduce the number of steps of the block aggregate B0.
When a total of 100 blocks B are erased, this stage is cleared and the process proceeds to the next stage. The number of erased blocks B is displayed on the play screen 7a (illustration is omitted).
On the other hand, as shown in FIG. 2 (e), the block aggregate B0 moves to the lower side Y1 step by step, and the lower end block 11c reaches the 11th step (limit step number), or FIG. As shown in FIG. 5, when the new block N is arranged at the 11th position 11c, the game is over (the play ends).

  The score of play increases, for example, as the number of blocks B to be erased at a time increases (for example, it is higher for four connected conditions to satisfy the erasing condition than to connect three to satisfy the erasing condition). As the play time becomes shorter, a higher score is given. The total value of these scores is displayed on the play screen 7a (illustration is omitted).

A configuration of the game machine 1 will be described.
The game machine 1 includes a case 2, a microphone 3, a speaker 4, an antenna 5, a touch panel 6, a storage unit 9, and a control unit 10. In the present invention, a computer refers to an information processing device including a storage device, a control device, and the like, and the game machine 1 is an information processing device including a storage unit 9, a control unit 10, and the like. Included in the concept.
The case 2 is a casing of the game machine 1 and is a rectangular parallelepiped with a thin outer shape.
The microphone 3 is a voice input device used when making a call with another terminal.
The speaker 4 is an audio output device that outputs a game sound (sound effect, BGM, etc.) when making a call with another terminal.
The antenna 5 is used when communicating with other terminals and servers.

The touch panel 6 is a device in which a monitor 7 for displaying a play screen 7a and a touch operation unit 8 are integrally formed.
The monitor 7 is a display device such as a liquid crystal display device.
The touch operation unit 8 is a resistive film type, electrostatic capacity type panel or the like. The touch operation unit 8 is stacked on the monitor 7. The touch operation unit 8 receives the operation when the player operates to touch the finger 30, acquires coordinate data corresponding to the contact position, and outputs the coordinate data to the control unit 10.
The touch operation unit 8 is operated when the play of the block game is started, or receives an input operation of the player during the play. The touch operation unit 8 is operated when a user (player) inputs a call number or address of another terminal, a URL of a server, or the like.

The storage unit 9 is a storage device such as a semiconductor memory element for storing a program, information, and the like necessary for the operation of the game machine 1. The storage unit 9 stores a game program 9a.
The game program 9 a is a program for playing a block game on the game machine 1. The game program 9 a incorporates a program for determining the color of the new block N to be newly filled in the turret 20, a program for launching the new block N, an operation program according to the operation of the touch operation unit 8, and the like. As a storage method of the game program 9a, for example, there is a method of downloading and loading from a server or the like via a communication network.

The control unit 10 is a control device for controlling the game machine 1 in an integrated manner, and includes, for example, a CPU (central processing unit). The control unit 10 reads and executes various programs stored in the storage unit 9 as appropriate, thereby realizing various functions according to the present invention in cooperation with the hardware described above.
The control unit 10 includes a communication control unit 11 and a block game control unit 12.
The communication control unit 11 is a control unit that performs control related to communication with other terminals and servers.

The block game control unit 12 is a control unit that performs processing related to a block game.
The block game control unit 12 includes an exposed block determination unit 12a, a new block filling control unit 12b (new block appearance control means), a new block launch control unit 12c, a block erase control unit 12d, a display control unit 12e, and a play progress control unit 12f. Is provided.
The exposed block determination unit 12a is a control unit that determines the number and color of exposed blocks that are blocks B exposed on the lower side Y1 in the play screen 7a.
The new block filling control unit 12b is a control unit that performs processing related to the new block N newly disposed on the turret 20. The new block filling control unit 12b determines the color of the new block N according to the type of exposure block (described later) determined by the exposure block determination unit 12a.

The new block launch control unit 12 c is a control unit that launches (moves) the new block N in accordance with the operation of the touch operation unit 8. The new block firing control unit 12c moves and arranges the new block N on the exposed block, that is, on the lower side Y1 of the exposed block in accordance with the operation of the touch operation unit 8.
The block erase control unit 12d is a control unit that erases the block B that satisfies the erase condition. The block erasure control unit 12d erases the connected blocks B when three or more blocks B of the same color are connected.
The display control unit 12 e is a control unit related to the display on the monitor 7.
The play progress control unit 12f is a control unit that comprehensively controls play.
Details of the control of each control unit will be described later.

Next, the game rules will be described while explaining the processing of the block game control unit 12.
[Overall play progress processing]
First, the entire play progress process will be described.
FIG. 3 is a flowchart of the overall play progress process of the first embodiment.
FIG. 4 is a diagram illustrating a scene of the play screen 7a according to the first embodiment.
First, in S <b> 1, when the player operates the touch operation unit 8, the play progress control unit 12 f starts a block game play process in response to the output of operation information of the touch operation unit 8.
In S2, the play progress control unit 12f determines whether or not the block B appears in the first stage. For example, the play progress control unit 12f causes the block B to appear in the first row every time a predetermined time (for example, about 5 seconds) elapses. When it is determined that the block B appears in the first stage (S2: YES), the play progress control unit 12f proceeds to S3, whereas when it is determined that the block B does not appear in the first stage ( (S2: NO), the process proceeds to S4.
In S3, the play progress control unit 12f causes the block B to appear in the first stage, and the block B that has been arranged so far, that is, the block aggregate B0, is lowered by one stage (see FIG. 2B).

In S4, the new block filling control unit 12b performs a new block filling process for filling the turret 20 with a new new block N. Details of the new block filling process will be described later.
In S5, the new block firing control unit 12c performs a new block firing process for firing the filled new block N toward the block aggregate B0 in accordance with the operation of the player. Details of the new block firing process will be described later.
As will be described later, as long as the play continues (S9: NO), the process from S2 is repeated, so that the new block filling process and the new block firing process are repeated.

  In S6, the block erase control unit 12d determines whether or not there is a block B in which three or more blocks B of the same color are continuously arranged and the erase condition is satisfied. If the block erase control unit 12d determines that there is a block B that satisfies the erase condition (S6: YES), the block erase control unit 12d proceeds to S7, whereas if it determines that there is no block B that satisfies the erase condition ( (S6: NO), the process proceeds to S9.

  In S7, the block erase control unit 12d erases the block B that satisfies the erase condition from the play screen 7a (see blocks 5a, 6a, and 7a in FIG. 2D). The play progress control unit 12f counts the erased blocks B and stores the total value of the blocks B erased at this stage in the storage unit 9.

As shown in FIG. 4, when a gap is generated in the block aggregate B0 due to block erasure, the play progress control unit 12f moves the block B on the lower side Y1 below the gap to the upper side Y2 so as to close the gap. Moving.
FIG. 4A shows a scene in which the blocks 3d, 3e, 4c, 4e, 5c, 5d, and 5e satisfy the erasing conditions and are erased when the new block N is arranged at the position 5e.
FIG. 4 (b) shows that the blocks 3d, 3e, 4c, 4e, 5c, 5d and 5e are arranged on the lower side Y1 below the gap in FIG. 4 (a) so as to fill the gap created by erasing. This is a scene in which the blocks 4d, 6c, 6d moved to the upper side Y2.
By erasing the block B in this manner, the player can reduce the number of stages of the block aggregate B0 and can proceed with the play so that the lower end of the block aggregate B0 does not reach the 11th stage.

  In S8, the play progress control unit 12f refers to the storage unit 9 and determines whether or not the number of erased blocks B has reached 100. When it is determined that the total number of erased blocks B has reached 100 (S8: YES), the play progress control unit 12f proceeds to S81, whereas when it is determined that the total of 100 blocks has not reached 100 ( (S8: NO), the process proceeds to S9.

In S81, the play progress control unit 12f moves to the next stage. In the next stage, the play progress control unit 12f increases the number of attention steps (described later) from 7 to 1 and sets it to 8 steps.
Thus, the difficulty level of play is improved by increasing the number of caution steps as the stage progresses. That is, the play progress control unit 12f increases the difficulty level by increasing the value of the number of caution steps as the stage progresses.

  In S9, the play progress control unit 12f determines whether or not the lower end of the block aggregate B0 has reached eleventh stage. When it is determined that the lower end of the block aggregate B0 has reached the 11th stage (S9: YES), the play progress control unit 12f proceeds to S10 to end the play, that is, the game over process. When it is determined that the lower end of the block aggregate B0 has not reached the 11th stage (S9: NO), the progress control unit 12f repeats the processes from S2.

[New block filling process (new block appearance process)]
Next, the new block filling process for determining the color of the new block N and filling the turret 20 will be described.
FIG. 5 is a flowchart of the new block filling process of the first embodiment.
6 (FIGS. 6-1 and 6-2) is a diagram of the play screen 7a for explaining the new block filling process of the first embodiment.
FIG. 7 is a diagram of the play screen 7a that has been played to satisfy the erasure condition in accordance with the new block filling process of the first embodiment.
FIG. 8 is a diagram of a play screen 7a of a play progress example by the advanced player of the first embodiment.

The new block N arranged in the turret 20 is determined by the following process.
(Exposure block judgment process)
In S41, the exposure block determination unit 12a determines the color (attribute) of the exposure block.
As shown in FIG. 6 (a), the exposed block is a region in the lower Y1 (stacking direction front side) of the block aggregate B0 in the direction of at least one of the lower Y1, the left X1, and the right X2. An exposed block B. In the example of FIG. 6A, the exposed blocks are blocks 5a, 6b, 5c to 5g, and 4h.
In the rule of the embodiment, the blocks exposed in the oblique direction (in the example of FIG. 6A, blocks 5b and 4g) are not defined as exposed blocks, but these blocks B are also defined as exposed blocks. May be.

  In S <b> 42, the new block filling control unit 12 b determines whether or not the block B at the tip in the stacking direction is in the seventh to tenth stages, that is, the number of caution stages. The caution stage number means a stage number close to 11 stages (limit number of stages) at which the game is over. In this stage, it is set to 7 to 10 stages. When the new block filling control unit 12b determines that there is a block B at the 7th to 10th steps (S42: YES), the process proceeds to S43, while when it is determined that there is no block B at the 7th to 10th steps. (S42: NO), the process proceeds to S42a to perform the normal process supply process.

  In S43, the new block filling control unit 12b determines whether or not the probability increase supply process (the process from S44) has already been performed twice in succession. When it is determined that the new block filling control unit 12b has already been performed twice consecutively (S43: YES), the process proceeds to S42a to perform the normal supply process. On the other hand, if the new block filling control unit 12b determines that the probability increasing supply process has not been performed twice in succession (S43: NO), the process proceeds to S45 to perform the probability increasing supply process. That is, the new block filling control unit 12b performs the normal supply process without performing the third probability increase supply process when the probability increase supply process has already been performed twice in succession. The reason for this will be described later.

(Normal supply processing)
In S42a, the new block filling control unit 12b determines the color probability of the new block N according to the number of exposed blocks of each color. That is, the new block filling control unit 12b determines which color of the exposed block is to be used according to the color of the exposed block. The new block filling control unit 12b determines the color of the new block N by random number processing. In the normal supply processing, the probability in this case is adjusted according to the color of the exposed block.

In the scene of FIG. 6A, the colors of the blocks 5a, 6b, 5c-5g, and 4h, which are exposed blocks, are as follows.
R: 2 G: 2 B: 4 The new block filling control unit 12b determines the color of the new block N with the following probabilities according to the ratio of each color of the exposed block.
R: 2/8
G: 2/8
B: 4/8

Thus, the reason why the new block N of the same color as the exposed block is filled is that the new block N is fired on the exposed block and the new block N of the same color is connected to make it easy to satisfy the erasure condition. is there. The reason for setting the probability of filling a new block N of the same color as the number of exposed blocks with more colors is that when two or more exposed blocks of the same color are already connected, This is because if the new block N is filled, the erasing condition can be satisfied.
For example, in the scene of FIG. 6A, since the two blocks 5c and 5d of color R are already connected, if the player fires the new block N so as to connect to the blocks 5g and 5h, It can be erased by satisfying the erasure condition.
In this way, the new block filling control unit 12b determines and fills the color of the new block N so that the erasure condition is easily satisfied to some extent.

(Probability increase supply processing)
In S44, the new block filling control unit 12b starts the probability increase supply process. In this process, the probability that a new block N having the same color as the attention blocks arranged in the seventh and subsequent stages will appear larger than the colors of the other exposed blocks B as follows. Note that the caution block is a block arranged in the 7th to 10th stages, which is the number of caution stages.

  In S45, the new block filling control unit 12b determines whether there are a plurality of caution blocks. When it is determined that there are a plurality of caution blocks (S45: YES), the new block filling control unit 12b proceeds to S45a. On the other hand, when it is determined that there are no caution blocks (S45: NO), that is, there are caution blocks. In the case of one, it progresses to S46.

(Probability increase supply processing when there is one attention block)
If the new block filling control unit 12b determines in S46 that the number of cautions has been reached, the probability that a new block N having the same color as that of the caution block will appear is greater than the color of the other exposed blocks.
The new block filling control unit 12b sets the probability that a new block N of the same color as one attention block appears to “7/8”, and the total probability of the appearance of a new block N of the same color as other exposed blocks Set the value to "1/8". This increases the probability that a new block N having the same color as one attention block appears.

For example, FIG. 6B shows a scene in which the block aggregate B0 in FIG. 6A descends, and the lowest block 7b reaches the seventh stage and becomes an attention block.
In this scene, the color of the exposure block is as follows.
・ Attention block G: 1 piece ・ Other exposed blocks R: 1 piece G: 1 piece B: 5 pieces

In this case, the new block filling control unit 12b determines the color of the new block N with the following probability.
・ Attention block G (same color as the attention block): 7/8
・ Other exposure blocks R: 1/7 x 1/8
G: 1/7 × 1/8
B: 5/7 × 1/8
Therefore, the probability that a new block N of the same color G as the attention block appears is “7/8”, which is much higher than the other colors R and B.
In addition, since the other exposure block “G: 1/7 × 1/8” is added to the probability that the new block N of the color G will finally appear, “7/8 + (1/7 × 1) / 8) ", which is even higher.

For example, as shown in FIGS. 6B to 6D, the player operates to connect the attention block and the new block N, erases the attention block and the new block N, and removes from the pinch. It becomes easy. FIGS. 6B to 6D are scenes in which the fired new block N is arranged at the position 8g and the blocks 5b to 8b are deleted.
When the process of S46 ends, the new block filling control unit 12b proceeds to S47 and returns to the main process (S5 shown in FIG. 3).

(Probability increase supply processing when there are multiple attention blocks)
In S45a, the new block filling control unit 12b sets the total probability of occurrence of each color of the plurality of attention blocks to “7/8”, but among the plurality of attention blocks, the attention block on the lower side Y1 The probability that a new block N of the same color will appear is increased.
For example, in the scene of FIG. 7A, among the exposure blocks, the two attention blocks 7b and 8b and the colors of the other six exposure blocks are as follows.
・ Attention block B: 1 piece (8th stage attention block)
G: 1 (7th caution block)
・ Other exposed blocks R: 1 G: 1 B: 5

In this case, the new block filling control unit 12b determines the color of the new block N with the following probability.
・ Attention block B (same color as the eighth attention block): (2/3) × 7/8
G (same color as the seventh caution block): (1/3) × 7/8
・ Other exposure blocks R: 1/7 x 1/8
G: 1/7 × 1/8
B: 5/7 × 1/8

In other words, the probability “(2/3) × 7/8” that the eighth stage color B is supplied among the attention blocks 7 b and 8 b is the probability “(1/3) that the seventh stage color G is supplied. ) × 7/8 ”, which is twice as large as the other colors R and B.
Note that, finally, the probability of the appearance of the new block N of color B is added with “G: 1/7 × 1/8” of the other exposure blocks, so “((2/3) × 7 / 8) + (1/8 × 1/8) ”.
As a result, the caution block with the number of steps closer to the eleventh step is more likely to be filled with the new block N of the same color, and the player can easily remove the caution block and the new block N closer to the eleventh step and remove from the pinch.

In order to fill the new block N of the color with the attention block close to 11 steps, the setting may be incorporated into the game program 9a. For example, when attention blocks are arranged in all of the attention level numbers 7 to 10, the following settings can be made (the ratio in parentheses is set).
10th stage: (4/8) × 7/8
9th stage: (2/8) × 7/8
8th stage: (1.5 / 8) × 7/8
7th stage: (0.5 / 8) × 7/8

As described above, in the game 1, when there is a caution block, the color of the new block N is changed after the exposure block reaches the seventh level by performing the probability increase supply process (S 44 to 46, S 45 a). A lot depends on the color of the caution block. For this reason, when the game is played a plurality of times, the difficulty levels after the exposure block reaches the seventh level are almost equal, and variations can be reduced. Thereby, the game which can reflect a player's skill with a score can be provided.
When the process of S45a ends, the new block filling control unit 12b proceeds to S47 and returns to the main process (S5 shown in FIG. 3).

The reason why the new block filling control unit 12b performs the normal supply process without performing the third probability increase supply process when the probability increase supply process is already performed twice in S46.
For example, in the scene of FIG. 8A, seven blocks B of color R are already connected to the play screen 7a as shown by the solid line frame. In this scene, as shown in FIG. 8B, if the new block N of color R is arranged at the position 7f (or position 7e), the erasure condition for the eight blocks B is satisfied. In this case, the play progress control unit 12f gives a high score.
In such a situation, the advanced player with high skill waits until the new block N of color R is filled in order to aim for a higher score without considering erasing the seventh attention block 7b. There is a time to take a strategy.
As shown in FIG. 8 (b), in such a case, even if the advanced player fills a new block N of a color B (or color G) other than the color R, it will fire without any particular aiming ( Blocks 6h, 7h). This is because the advanced player thinks that even if there is a caution block after the seventh stage, the skill is sufficient, so that it can be erased immediately in later play.

In such a situation, when the probability increasing supply process is repeated many times, only the new block N of the same color B as the attention block is filled, and the new block N of the color R that the advanced player is waiting for is hardly supplied. It will be.
In order to prevent such a situation, the new block filling control unit 12b sets the number of continuous processes of the probability increase supply process to two, and the advanced player is supplied with a new block N of a color R different from the attention block. In this case, the new block N of the desired color R can be filled. Thereby, the game machine 1 can advance a play so that it may follow the intention of the advanced player aiming at a high score.

  On the other hand, even if there is one caution block, the beginner player with a low skill level wants to delete this caution block quickly. For this reason, the new block filling control unit 12b makes it easy to fill the new block N of the same color as the attention block in succession by making the number of consecutive times twice smaller by 1 than the erased number of 3. . That is, the beginner player can erase the caution block by firing the filled new block N twice continuously toward the caution block.

[New block launch processing]
Next, a new block firing process for firing the new block N filled in the turret 20 in accordance with the operation of the touch panel 6 will be described.
FIG. 9 is a flowchart of the new block firing process of the first embodiment.
FIG. 10 is a diagram of the play screen 7a for explaining the normal firing process of the first embodiment.
FIG. 11 (FIGS. 11-1 to 11-6) is a diagram of the play screen 7a for explaining the jump shot process of the first embodiment.
In addition, the play of the stage of FIG. 10, FIG. 11 has the area | region where a block does not exist in both upper side Y2 and lower side Y1 of block aggregate B0.

In S51, when the player touches the touch operation unit 8 with the finger 30, the new block firing control unit 12c receives the operation of the touch operation unit 8 and determines the coordinate position (XY coordinate) being touched.
(Launching direction determination process)
In S52, as shown in FIG. 10 (a), the new block firing control unit 12c rotates and moves the cylinder 20a of the turret 20 so as to face the position where the player's finger 30 is touching, and the firing direction is given to the player. Is notified. Further, the new block firing control unit 12c determines the moving direction of the new block N.

In S53, the new block firing control unit 12c determines whether the operation reception time of the touch operation unit 8 is less than 1 second (less than the specified time) or 1 second or more (specified time or more). That is, the new block firing control unit 12c determines whether or not the finger 30 is continuously touching the same position of the touch operation unit 8 for one second or more. When the new block firing control unit 12c determines that the operation reception time is less than 1 second (S53: NO), the process proceeds to S53a to perform the normal firing process, and on the other hand, when it is determined that it is 1 second or longer. (S53: YES), the process proceeds to S54 to perform jump shot processing.
Thereby, the game machine 1 can accept input of two launch modes according to the touch time.

(Normal firing process)
In S53a, the new block firing control unit 12c determines the new block N disposed in the turret in S52 in response to the finger 30 being released from the touch operation unit 8 in less than 1 second (S53: NO). Launched (moved) in the direction of movement (see FIG. 10B).
As shown in FIG. 10 (b), when the new block N collides with an exposed block on the lower side Y1 of the block aggregate B0, the new block launch control unit 12c causes the new block N to move under the exposed exposed block. Laminate on side Y1.
When the process of S53a ends, the new block firing control unit 12c proceeds to S61 and returns to the main process (S6 shown in FIG. 3).

(Jump shot processing (destination setting movement processing))
In S54, the new block firing control unit 12c starts jump shot processing.
In S55, as shown in FIG. 11A, the new block firing control unit 12c turns the direction in which the tube 20a faces, that is, the firing direction of the new block N, when the finger 30 is kept touching for 1 second or longer. The arrow 40 (track display) is displayed. The tip of this arrow 40 is the movement destination of the new block N, that is, the location of the new block N.

As shown in FIG. 11B, the new block firing control unit 12c extends the arrow 40 toward the block aggregate B0. Further, as shown in FIG. 11C, the new block firing control unit 12c extends the arrow 40 as it is on the block aggregate B0 and extends to the upper side Y2 above the block aggregate B0.
As shown in FIG. 11 (d), when the arrow 40 reaches the uppermost part, the new block firing control unit 12c reduces the arrow 40 to the original size that is the lowermost end. Again, the arrow 40 is extended.
The new block firing control unit 12c repeats expansion and contraction (reciprocating movement) in the moving direction of the arrow 40 while the operation of the touch operation unit 8 is accepted, that is, while the touch is continued. Thereby, the new block launch control unit 12c can inform the player of the moving direction and the moving destination (that is, the moving distance) of the new block N in an easily understandable manner.

  In S <b> 56, the new block firing control unit 12 c determines, based on the output of the touch operation unit 8, whether or not the operation has been accepted, that is, whether or not the finger 30 has been released from the touch operation unit 8. When it is determined that the finger 30 has been released from the touch operation unit 8 (S56: YES), the new block firing control unit 12c proceeds to S57, and determines that the finger 30 has not been released from the touch operation unit 8. If so (S56: NO), the processing from S55 is repeated.

  In S57, the new block firing control unit 12c displays the new block N arranged inside the turret when the finger 30 is released in response to the finger 30 being released from the touch operation unit 8. Move to the tip of the arrow 40 and place it.

As shown in FIG. 11E, when the player wants to place the new block N so as to overlap the block aggregate B0, when the tip of the arrow 40 is displayed superimposed on the block aggregate B0, The finger 30 may be released from the touch operation unit 8. Thereby, as shown in FIG.11 (f), the new block launch control part 12c launches the new block N, and arrange | positions it on the block aggregate | assembly B0.
Note that when the player first touches the touch operation unit 8 with the finger 30 (S51), the player can also touch the finger 30 at the place where the new block N is to be placed. Then, when the expanding / contracting arrow 40 passes through the place, that is, when the arrow 40 is hidden by the finger 30, if the finger 30 is released, the new block firing control unit 12c places the new block N at the place. Because. Thereby, the game machine 1 can arrange | position the new block N correctly in the place which the player aimed.

  On the other hand, as shown in FIG. 11 (g), when the player wants to place the new block N in the area Y2 above the block aggregate B0, the tip of the arrow 40 is Y2 above the block aggregate B0. The finger 30 may be released from the touch operation unit 8 when displayed in the area.

Further, as shown in FIG. 11 (h), when the new block launch control unit 12c moves the new block N to the upper side Y2 from the block aggregate B0, the new block N passes through the block aggregate B0. When this is done, the new block N is displayed over the block aggregate B0. Thereby, the new block launch control unit 12c can produce the new block N so as to jump over the block aggregate B0 and move like a jump shot of billiards.
Although illustration is omitted, the new block N arranged on the upper side Y2 from the block aggregate B0 descends toward the block aggregate B0 (see arrow A) and is stacked on the upper side Y2 of the block aggregate B0. The

As described above, the touch operation unit 8 accepts three input operations for determining the moving direction of the new block N, determining the moving destination (moving distance), and performing the firing with one touch. Thereby, the game machine 1 can simplify input operation.
Moreover, since the game machine 1 should just provide one of the touch operation parts 8 as an input device, it can simplify a structure.

  In S58, the new block launch control unit 12c determines whether or not the new block N is arranged inside the block aggregate B0. When the new block launch control unit 12c determines that the new block N is arranged in the block aggregate B0 (S58: YES), the process proceeds to S59, and on the other hand, it is not arranged in the block aggregate B0. If it is determined (S58: NO), that is, if it is determined that it is arranged outside the block aggregate B0, the process proceeds to S61 and returns to the main process (S6 shown in FIG. 3).

  In S59, the block erase control unit 12d determines whether or not the erase condition is satisfied inside the block aggregate B0 as a result of the jump shot of the new block N. When the block erasure control unit 12d determines that the erasure condition is satisfied within the block aggregate B0 (S59: YES), the process proceeds to S60, while when it is determined that the erasure condition is not satisfied within the block aggregate B0. (S59: NO), the process proceeds to S59a.

In S60, the block erase control unit 12d erases the block B and the new block N that satisfy the erase condition in the block aggregate B0.
For example, in the scene of FIG. 11 (f), a new block N of color R and three blocks 4e and 5e are connected and arranged. Therefore, as shown in FIG. 11 (i), the block erase control unit 12d erases these blocks B.
As described above, the game machine 1 can provide a block game of a new mode in which, after the jump shot, the block B satisfying the erasure condition is erased inside the block aggregate B0.

Note that by erasing the blocks 4e and 5e, a gap is formed inside the block aggregate B0. As shown in FIG. 11 (j), the play progress control unit 12f moves the block 3e arranged on the upper side Y2 of the gap to the lower side Y1 so as to fill the gap, and arranges it at the position 4e.
When the process of S60 ends, the block erasure control unit 12d proceeds to S61 and returns to the main process (S6 shown in FIG. 3).

In S59a, in response to the block erasure control unit 12d determining that the erasure condition is not satisfied inside the block aggregate B0 (S59: NO), the new block launch control unit 12c removes the new block N from the block aggregate B0. Go further.
For example, in the scene of FIG. 11 (k), the new block N does not satisfy the erasure condition with the block B inside the block aggregate B0. In this case, the new block launch control unit 12c further moves the new block N to the outside of the block aggregate B0 as shown in FIG. 11 (L).

Thereby, the game 1 can prevent the new block N that does not satisfy the erasure condition from being overlaid on the block aggregate B0. In addition, the game 1 can be produced so that the new block N falls on the ball like a billiard jump ball and the new block N is played outside the block aggregate B0.
When the process of S59a ends, the block erase controller 12d proceeds to S61 and returns to the main process (S6 shown in FIG. 3).

As described above, the game machine 1 of the present embodiment can fill the turret 20 with the new block N that sufficiently reflects the play situation, so that the player can proceed with the play so that the player can easily get out of the pinch.
In addition, the game machine 1 can accept three operations, that is, the determination of the moving direction of the new block N, the determination of the moving destination (moving distance), and the launch execution by only one touch operation unit 8. The destination display can be notified to the player in an easy-to-understand manner.

(Second Embodiment)
Next, a second embodiment of the present invention will be described.
In the second embodiment, the probability increase supply process is changed from the first embodiment.
Note that, in the following description and drawings, the same reference numerals or the same reference numerals are given to the portions that perform the same functions as those in the first embodiment described above, and overlapping descriptions will be omitted as appropriate.
FIG. 12 is a diagram illustrating the probability increase supply process according to the second embodiment.
In the scene shown in FIG. 12A, the color of the exposure block is as follows.
・ Attention block B: 1 piece (9th stage attention block)
B: 1 (8th caution block)
G: 1 (7th caution block)
・ Other exposed blocks R: 1 G: 1 B: 5

In this case, the new block filling control unit (see the new block filling control unit 12b in FIG. 1) determines the color of the new block N with the following probability.
Attention block The attention block appearance probability “7/8”, which is a constant value, is distributed according to the number of attention blocks. In the scene shown in FIG. 12A, since there are three attention blocks, it is as follows.
B (9th stage caution block): (1/3) x 7/8
B (attention block on the 8th stage): (1/3) × 7/8
G (7th stage caution block): (1/3) × 7/8
In this way, the attention block appearance probability “7/8” is distributed according to the number of colors, and the total of the color B is “(2/3) × 7/8”, and the color G “(1/3) ) × 7/8 ”.
As for the other exposure blocks, as in the first embodiment, the total value “1/8” of the appearance probability is assigned according to the number of colors.
R: 1/7 × 1/8
G: 1/7 × 1/8
B: 5/7 × 1/8

On the other hand, in the scene shown in FIG. 12B, the color of the exposure block is as follows.
・ Attention block B: 1 piece (9th stage attention block)
B: 1 (8th caution block)
G: 2 (7th stage caution block)
・ Other exposed blocks R: 1 G: 1 B: 5

The new block filling control unit (see the new block filling control unit 12b in FIG. 1) determines the color of the new block N with the following probabilities as in the case of FIG.
Attention block The attention block appearance probability “7/8”, which is a constant value, is distributed as follows according to the number of attention blocks of four.
B (9th stage caution block): (1/3) x 7/8
B (attention block on the 8th stage): (1/3) × 7/8
G (7th stage caution block): (2/3) x 7/8
・ The other exposed blocks are as follows.
R: 1/7 × 1/8
G: 1/7 × 1/8
B: 5/7 × 1/8

As described above, the new block filling control unit according to the present embodiment calculates the total probability of each new block N appearing in the same color as the exposed blocks other than the caution block (the exposed block on the rear side in the stacking direction with respect to the number of caution steps) 1/8 "is made constant. Also, the attention block appearance probability “7/8” of the new block N of the same color as the attention block is made constant, and the attention block appearance probability is distributed according to the ratio of the number of each color of the plurality of attention blocks.
Therefore, when there are a plurality of caution blocks, the new block filling control unit according to the present embodiment fills the turret 220 with new blocks having the same color as the number of caution blocks, regardless of the number of caution blocks. it can. This makes it easier for the player to satisfy the erasure condition for a large number of attention blocks, so that the player can easily get out of the pinch.

  The process when there is one caution block is the same as the process of FIG. 6B of the first embodiment, that is, the process of S64 of FIG. 5, and the probability that a new block N of the same color as that of the caution block appears. The attention block appearance probability is set to “7/8”.

(Third embodiment)
Next, a third embodiment of the present invention will be described.
In the third embodiment, the appearance form of a new block and the moving method of the exposed block are changed from the first and second embodiments.
FIG. 13 is a diagram illustrating the play screen 307a of the third embodiment.
The block game of the third embodiment is a type called a so-called fallen game, and a new block N appears on the play screen 307a and moves to the lower Y1, and on the exposed block of the upper Y2 of the block aggregate B0. Laminated.
The lower Y1 of the play screen 307a is the first stage, and the block B is arranged up to the eleventh stage of the upper Y2. Block B appears sequentially in the first stage, and block aggregate B0 moves to upper side Y2.
Similar to the first and second embodiments, the number of caution stages is the 7th to 10th stages, and the limit number of stages is the 11th stage.

  When the player touches the finger 30 with the touch operation unit (see the touch operation unit 8 in FIG. 1), the block movement control unit (not shown) of the control unit is based on the output from the touch operation unit, and the play screen 307a. A square 320 surrounding the four blocks B is displayed. Then, the block B in the cell 320 is rotated clockwise. Thereby, the block movement control part can move an exposure block according to operation of a touch operation part.

  As described above, in this embodiment, the new blocks N are sequentially stacked on the exposed block regardless of the player's operation. Further, the new block appearance control unit (not shown) sets the color probability of the new block N according to the caution block having the caution stage number 7 to 10 as in the first or second embodiment ( (See the new block filling control unit 12b in FIG. 1).

With the above configuration, the new block appearance control unit of the present embodiment causes the new block N to appear according to the color of the attention block and sequentially stacks on the exposed block. Further, the player can move the exposed block in the cell 320 so as to satisfy the erasure condition.
As described above, the block game machine 301 according to the present embodiment has the same effects as those of the first or second embodiment even if the block game machine is a fallen block game.

(Fourth embodiment)
Next, a fourth embodiment of the present invention will be described.
In the fourth embodiment, a mobile phone that is a portable information terminal is used as the game machine 401.
FIG. 14 is a block diagram of a game machine 401 according to the fourth embodiment.
FIG. 15 is an external view of a game machine 401 according to the fourth embodiment.
The game machine 401 includes a monitor 407, an operation unit 408, and a new block launch control unit 412c.

The monitor 407 is a display device such as a liquid crystal display device having only a display function.
The operation unit 408 is an operation button for the player to operate the game machine 401. The operation unit 408 includes a left button 408a (movement direction operation means), a right button 408b (movement direction operation means), an enter button 408c (movement distance operation means), and a numeric keypad 408d.
The left button 408a, the right button 408b, and the enter button 408c are operated during play as will be described later. The left button 408a, the right button 408b, and the enter button 408c are connected in the left-right direction X so that the player can operate with one finger.
The numeric keypad 408d is operated when a call or information is transmitted / received to / from another terminal.
Thus, the game machine 401 is a terminal in which the monitor 407 and the operation unit 408 are provided separately.
The new block launch control unit 412c is a control unit that launches the new block N in response to the operation of the left button 408a, the right button 408b, and the determination button 408c.

[New block launch processing]
The new block firing process will be described.
FIG. 16 is a diagram of the play screen 407a for explaining the normal firing process of the fourth embodiment.
FIG. 17 (FIGS. 17-1 and 17-2) is a diagram of the play screen 407a for explaining the jump shot process of the fourth embodiment.

(Launching direction determination process)
As shown in FIG. 16A, the new block firing control unit 412c rotates the cylinder 420a of the turret 420 in accordance with the operation of the left button 408a and the right button 408b. Then, when the left button 408a and the right button 408b are not operated, that is, when the player's finger is released from the left button 408a and the right button 408b, the new block firing control unit 412c faces the cylinder 420a. Is set to the firing direction of the new block N.

(Normal firing process)
As shown in FIG. 16 (b), the new block firing control unit 412c, when the decision button 408c is pressed by the player's finger and the pressed time (operation time) is less than 1 second (less than the specified time). The normal firing process of the new block N is performed in the firing direction determined by the firing direction determination process. That is, the new block firing control unit 412c performs normal firing processing when the determination button 408c is pressed by the player's finger and the finger is released from the determination button 408c in less than 1 second.
The normal firing process after launching is the same as in the first embodiment (see S53a in FIG. 9).

(Jump shot processing)
On the other hand, as shown in FIG. 17 (a), the new block firing control unit 412c is configured such that the determination button 408c is pressed by the player's finger and the pressed time (operation time) is 1 second or longer (specified time or longer). In this case, the jump shot process of the new block N is performed in the firing direction determined by the firing direction determination process. That is, the new block firing control unit 412c performs the jump shot process when the determination button 408c is pressed and continuously pressed for 1 second or longer. The jump shot process is as follows and is the same as in the first embodiment.

As shown in FIG. 17A, the new block launch control unit 412c displays an arrow 440 that faces the launch direction determined in the launch direction determination process.
As shown in FIG. 17B, the new block firing control unit 412c expands and contracts the arrow 440 in the firing direction while the determination button 408c is pressed.
As shown in FIG. 17C, the new block firing control unit 412c moves the tip of the displayed arrow 440 to the new block N when the player's finger is separated from the determination button 408c (OFF determination button 408c is off). Set as the destination.
As shown in FIG. 17D, the new block launch control unit 412c moves and arranges the new block N at the set destination. The jump shot process after the launch is the same as in the first embodiment (see S58 to S60 and S59a in FIG. 9).

  As described above, the game machine 401 according to the present embodiment has an operation button (left button 408a and right button 408b) for determining the moving direction, an operation button for performing the moving distance and firing (with the one finger of the player). The decision button 408c) can be operated, and these two types of operation buttons can accept three operations: determination of the moving direction, determination of the moving distance, and execution of launch.

  Although the embodiments of the present invention have been described above, the present invention is not limited to the above-described embodiments, and various modifications and changes are possible, and these are also within the technical scope of the present invention. In addition, the effects described in the embodiments are merely a list of the most preferable effects resulting from the present invention, and the effects of the present invention are not limited to those described in the embodiments. The embodiments described above can be used in appropriate combination, but detailed description thereof is omitted.

  1, 201, 301, 401 ... Game machine 6 ... Touch panel 7,407 ... Monitor 7a, 207a, 307a, 407a ... Play screen 8 ... Touch operation unit 9 ... Storage unit 9a ... Game program 12 ... Block game control unit 12a ... Exposure Block determination unit 12b ... New block filling control unit 12c, 412c ... New block launch control unit 12d ... Block erase control unit 12e ... Display control unit 12f ... Play progress control unit 20, 220 ... Battery N ... New block B0 ... Block aggregate 408a ... Left button 408b ... Right button 408c ... Set button

Claims (6)

A block game program for a block game in which new blocks having a plurality of attributes appear one by one on a play screen one by one and are stacked in a stacking direction,
Computer
Each time a predetermined time elapses, the blocks appear one by one on the back side of the stacking direction, which is the opposite side to the stacking direction of the blocks on the play screen, and the block aggregate that is the aggregate of the blocks displayed so far is stacked. Block assembly moving means for moving one step at a time toward the direction side;
The new block occurrence control means for the new block appearance process to a layout block so as to be exposed in the stacking direction tip side is a block to be stacked on the exposed block to determine the attributes of the new block to appear the new block When,
A new block moving means for moving and arranging the new block that has appeared by the new block appearance control means to a position corresponding to the player's operation on the stacking direction ahead side of the block aggregate;
When the new block moving means moves the new block and blocks having the same attribute are connected by the number of erases that satisfies the erase condition, the new block moving means functions as a block erase control means for erasing the connected blocks. ,
The new block appearance control means,
When the block at the top in the stacking direction is arranged in a caution stage, the probability that the new block having the same attribute as the caution block that is the block arranged in the caution stage is more likely to appear than the other exposed blocks. To make it work
A block game program characterized by The block game program according to claim 1,
The new block appearance control means, when there are a plurality of the attention blocks, to function to set a larger probability of appearing the same attribute block as the attention block on the stacking direction destination side,
A block game program characterized by In the block game program according to claim 1 or 2,
Causing the new block appearance control means to function so that the number of new blocks having the same attribute as the caution block appearing continuously with a large probability is smaller by one than the number of erasures;
A block game program characterized by In the block game program according to any one of claims 1 to 3,
Causing the new block appearance control means to function to change the caution stage according to the difficulty level of the block game;
A block game program characterized by The block game program according to claim 1,
The new block appearance control means,
The total value of the probability that each new block having the same attribute as the exposed block on the rear side in the stacking direction from the caution stage is constant,
The attention block appearance probability, which is a total value of the probability that each new block having the same attribute as the attention block in the attention stage appears, is constant,
When there is one caution block, the appearance probability of the new block having the same attribute as the one caution block is set to be the same as the caution block appearance probability,
When there are a plurality of the attention blocks, the function to distribute the attention block appearance probability according to the ratio of the number of each attribute of the plurality of the attention blocks,
A block game program characterized by Storage means for storing the block game program according to any one of claims 1 to 5 ,
Control means for executing the block game program in the storage means;
A block game machine.

Images