JP5140976B2 - GAME PROGRAM AND GAME DEVICE - Google Patents

Description

  The present invention relates to a game program, such as a mistaken search game, and a game apparatus that display images having various image patterns on a screen.

  In recent years, mistaken search games have attracted attention as brain training aimed at preventing blurring and the like.

  And, regarding a mistaken search game, (Prior Art 1) that prepares a plurality of problem images in advance, (Prior Art 2) that generates a problem image by randomly arranging correct image patterns and similar image patterns (Prior Art 3) There is a technique in which a correct image pattern and a similar image pattern are randomly arranged while being enlarged or reduced according to a predetermined rule to generate a problem image.

  In the prior art 1, it is necessary to generate problem images equal to the number of problems, and the load of game development is great.

  In the prior art 2, it is necessary to freely arrange a correct image pattern and a similar image pattern in order to generate a problem image. The sizes of both patterns are approximated, and the change of the problem image is poor. For this reason, there was a problem that a variety of questions could not be made.

  In the prior art 3, if the change in the enlargement ratio / reduction ratio is increased, the distribution of the image pattern generated in the problem image is biased. If the change in the enlargement ratio / reduction ratio is reduced, the generated problem image is monotonous. There was a problem of becoming.

  The present invention was devised to solve such a conventional problem, and it is possible to automatically generate a variety of problem images by the control means while adjusting the bias of the display screen distribution by simple processing. With the goal.

  The present invention is a game program for displaying a plurality of image patterns on a display means, an image pattern setting step for setting the image pattern, and a display area dividing step for dividing the display means into a plurality of display areas. And a display area selecting step for allocating areas to be sequentially arranged when the image pattern is arranged in each display area, and an image pattern arranging step for arranging the image pattern in the selected area.

  Thus, a variety of problem images can be automatically generated by the control means while adjusting the distribution deviation of the display screen by simple processing.

  In the game program according to the present invention, the display area dividing step includes predetermined area division set in advance.

  Thereby, a preferable region dividing method can be selectively applied as appropriate, and the uniformity of the display screen distribution can be ensured.

  The game program according to the present invention further includes an overlap determination radius setting step for setting a radius for determining overlap in the image pattern arrangement, wherein the image pattern arrangement step includes the new image pattern and another image pattern. Is smaller than the sum of the overlap determination radii of the two image patterns, it is determined that an overlap has occurred.

  As a result, the overlap can be detected by an easy calculation process, and it is easy to eliminate it.

  The game apparatus according to the present invention includes a display means for displaying an image pattern, an operation input means for a player to select the image pattern, an image pattern setting means for setting the image pattern, and a plurality of the display means. Display area dividing means for dividing the image pattern into display areas, display area selecting means for allocating areas to be sequentially arranged when the image patterns are arranged in the respective display areas, and arranging the image patterns in the selected areas Image pattern placement means.

  As a result, a variety of problem images can be generated while avoiding uneven distribution of the display screen by simple processing.

  According to the present invention, a variety of problem images can be automatically generated by the control means while adjusting the bias of the distribution of the display image over the entire display area by simple processing.

  Next, embodiments of a game program and a game device according to the present invention will be described with reference to the drawings.

[Game device]
1 is a front view showing an embodiment in which the image processing device according to the present invention is applied to a game device, FIG. 2 is a block diagram showing the game device of FIG. 1, and FIG. 3 is a display unit in the game device of FIG. FIG. 6 is a diagram illustrating an example of an image pattern used in the game device, FIG. 7 is a diagram illustrating another image pattern, and FIG. 10 is a plurality of regions that are selectively used. It is a figure which shows a division | segmentation pattern.

  In FIG. 1, a game device 2000 is a so-called portable game device, and the game device 2000 is provided with an operation input unit 1140 such as operation buttons and a display unit 1032 such as a liquid crystal display.

  The display unit 1032 displays a first image pattern MP1 and a second image pattern MP2, and a plurality of image patterns MP2 are displayed in various sizes without being biased at random angles. On the other hand, only one image pattern MP1 is displayed at a random angle in any size.

  The image patterns MP1 and MP2 have a shape imitating a butterfly, and are selected from, for example, the image patterns 6A, 6B, 6C, 6D, and 6E in FIG. That is, the image pattern 6C is selected as the image pattern MP1, and the image pattern 6E is selected as the image pattern MP2. Also, the image pattern 6C is deformed to various sizes (for example, 32 levels of 32 × 32 pixels, 40 × 40 pixels, 48 × 48 pixels, 56 × 56 pixels, 64 × 64 pixels in five large and small sizes) and rotated. (For example, 16 rotation directions in increments of 22.5 degrees with reference to the angle serving as the reference direction). Thus, in the situation where the first image pattern 6E is mixed in the second image patterns 6C of various sizes and rotation directions, the purpose of the game is to search for the image pattern 6E, and the brain is extremely effective. It is evaluated as training.

  The selection, deformation size, and rotation direction of the image patterns 6A to 6E are automatically generated at the start of the game, and other various image patterns 7A to 7G (for example, image patterns imitating a light bulb) as shown in FIG. It is easy and you can enjoy a variety of games every time.

  In FIG. 2, a game apparatus (image processing apparatus) 2000 includes a CPU 1000 that controls the whole, a boot ROM 1010 that stores a program for starting the game apparatus 2000, and a system memory that stores programs and data executed by the CPU 301. 1020 and a timer 1022 for managing the operation time of the CPU 1000.

  The game apparatus 2000 is provided with a video processor 1030 that generates and controls an image to be displayed, and a graphic memory 1040 that stores an image that is a source of the generated image and a generated image. The displayed image is displayed on the display unit 1032.

  The game apparatus 2000 is provided with an audio processor 1070 that generates sound and an audio memory 1080 that stores data of the generated sound. The audio processor 1070 is a digital audio signal based on the data stored in the audio memory 1080. And outputs sound through a speaker 1072 and headphones (not shown).

  The game apparatus 2000 is provided with a CD-ROM drive 1090 or the like as an external storage media drive for program data and the like. The game program and data stored in the storage medium in the drive 1090 are stored in the system memory 1020, the graphic memory 1040, and the audio memory 1080. Read in.

  The game device 2000 is provided with a memory interface 1130 and can read and write to the memory cards A and B held by the player. Thereby, it is possible to register the game results of each user, the state of the game finished halfway, and the like.

  A modem 1150 is connected to the game device 2000 via a communication interface 1160, and a network game by a plurality of game devices 2000 can be executed via a network. Further, game results statistics and each game can be played from a server (not shown). Various information related to the game such as the player ranking and various events can be acquired.

  As shown in FIG. 3, the display unit 1032 is divided into, for example, four display areas a1, a2, a3, and a4. When determining the arrangement of the image pattern MP2, the CPU 1000 displays each display area ( Here, the position of the image pattern MP2 is randomly determined in each display area (a1 to a4) while sequentially selecting the four areas a1 to a4). As a result, the distribution of the image pattern MP2 can be made uniform, and uneven distribution can be prevented.

  In other words, a relatively simple process of dividing into areas and evenly assigning to each area has a wide variety of image patterns for each stage size without being biased to one place and adjusting the dispersion. A problem image may be generated. Note that the number of divided display areas and the divided shapes can be variously selected. In general, the distribution of the image pattern MP2 can be made uniform as the display areas a1 to a4 themselves have the same area, shape, and arrangement. Further, the distribution of the image pattern MP2 can be made uniform as the number of divided areas is increased.

  As shown in FIG. 10, a plurality of area division patterns P1, P2, P3, and P4 may be set in advance, and which area division pattern is used in the game apparatus 2000 may be appropriately selected. For example, the area division pattern P1 is a general pattern that is composed of the display areas DA1, DA2, DA3, and DA4 that are equally divided into four parts in the upper, lower, left, and right directions as in FIG. The area division pattern P2 includes horizontal three equally divided display areas DA1, DA2, and DA3, and is slightly more likely to be biased in either the vertical direction compared to P1. The area division pattern P3 is composed of display areas DA1, DA2, DA3, DA4, DA5, and DA6 that are divided into three equal horizontal parts and two equal upper and lower parts, and are arranged more evenly than P1 and P2 because of the larger number of divisions. . The area division pattern P4 includes a square area (DA5) inclined at 45 degrees in the center in addition to the vertical and horizontal equal divisions (DA1, DA2, DA3, DA4) of the area division pattern P1.

  In this case, for example, when comparing the area division pattern P2 and the area division pattern P3, P3 obtained by further dividing P2 in the vertical direction has an advantage that the deviation of the distribution with respect to the entire display area is reduced. However, when the number of image patterns to be displayed is extremely small, for example, when the number is 5 or less, there is a disadvantage that nothing is displayed on the DA 6 if the arrangement is performed in ascending order of the region numbers. Therefore, depending on the number of image patterns to be displayed, it is desirable to devise a method of randomly determining the order of arrangement cycles in each region. In addition, as shown in FIG. 11, for example, when the display screen is very large, it is difficult for the player to look around the entire screen as it is, and as a result, when adjustment is required when the difficulty level is high, If only the central part is intentionally made to have a small area (divided pattern P4), the peripheral part of the display area is sparse and the image pattern is displayed densely in the central part of the display area. In this method, the distribution density of the image pattern for each decomposed area is inversely proportional to the size of the area of the area, so that the difficulty level can be adjusted by this, and the area on the outer periphery side of the display area can be made uniform. It is possible to make adjustments (divided pattern P5) to bias the distribution of the image pattern in the peripheral portion by narrowing it to be narrow, and it is possible to give questions by displaying an image full of variety.

  Further, as shown for the image pattern 6E in FIG. 6, a collision radius rc (6E) for determining a collision region CC (6E) for determining the overlap determination is set in each of the image patterns 6A to 6E, and each image pattern 6A. The arrangement of the image patterns MP1 and MP2 is set so that the collision areas CC (6A) to CC (6E) on .about.6E do not overlap each other. Collision here means a determination element for determining the overlap between image patterns.

  This prevents all or part of the image patterns MP1 and MP2 from being concealed by the other image patterns MP1 and MP2, and ensures a smooth game progress.

  A pick area PA (6E) for selecting the image pattern MP1 is set by the operation input unit 1140 in the image pattern 6E to be the first image pattern MP1, and when the player finds the image pattern MP1 The image pattern MP1 can be indicated. The pick area is not provided in the image pattern MP2 other than the image pattern MP1, and has no response to erroneous selection. As a result, unnecessary detection operation is omitted, and the game progresses smoothly. The pick here means an element for determination processing when an operation input is performed when the player picks up an image that seems to be correct.

In FIG. 7, a collision area CC (7F), a collision radius rc (7F), and a pick area PA (7F) surrounding the image pattern 7F of the light bulb can be set. For 7B, a collision area CC (7B), a collision radius rc (7B), and a pick area PA (7B) surrounding this can be set.
[Game program]

  Next, a game program executed on the game device 2000 will be described.

[Example 1]
FIG. 4 is a flowchart showing the first embodiment of the game program according to the present invention, and FIG. 5 is a flowchart showing the collision process in FIG.

  In FIG. 4, the game program is executed by the following steps.

  Step S401: First, each divided area (for example, a1 to a4) is set based on any one of the predetermined display area divided patterns (for example, P1), and images to be displayed as the image patterns MP1 and MP2. A pattern is selected, and the process proceeds to step S402.

  Step S402: The sequence number i (0 to N) of the image patterns MP1 and MP2 to be displayed, the display area number a (0 to 3) to display the image patterns MP1 and MP2, and the image pattern arrangement processing time t are set to 0. The process proceeds to step S403. The image patterns MP2 are sequentially arranged by a predetermined number n (s) from a large size.

  Step S403: The image pattern MP1 or MP2 position in each display area (for example, the center of the collision area CC) (x, y), the rotation angle rt of the image pattern MP1 or MP2, and any image pattern of i to N A number ch for setting whether to set one image pattern MP1 is set by a random number RND.

  When the width w and height h of each display area a1 to a4 are set, for example, x = w × RND, y = h × RND can be calculated, and rt = (π / 16) × INT (15 × RND), ch = INT (N × RND).

  Step S404: Following step S403, the coordinates (x, y) of each display area are converted into the coordinates (tx, ty) of the entire display unit 1032. If the coordinates of the start points (for example, the upper left point) of each display area a1 to a4 are (sx (a), sy (a)), tx (i) = sx (a) + x, ty (i) = sy (a ) + Y.

  Step S405: Following step S404, a collision process described later with reference to FIG. 5 is executed, and the process proceeds to step S406.

  Step S406: Following step S405, it is determined whether or not the image pattern placement processing time t has exceeded a predetermined value tm as a result of the collision processing. When t> tm, the flag err is rewritten to 1. When err = 1, the process proceeds to step S413, and when err = 0, the process proceeds to step S407. This prevents the image pattern arrangement process from taking an abnormally long time and ensures a smooth game progression.

  Step S407: It is determined whether or not the display area number a has reached the maximum value 3. When a = 3 is not true, the process proceeds to step S408, and when a = 3, the process proceeds to step S409.

  Step S408: The display area number a is incremented by 1, and the process proceeds to step S410.

  Step S409: The display area number a is returned to 0, and the process proceeds to step S410.

  Step S410: It is determined whether or not the number of image patterns MP2 to be displayed with the size s has reached a predetermined value n (s). When the number of image patterns MP2 has reached the predetermined value n (s), the process proceeds to step S411, and when the number of image patterns MP2 has not reached the predetermined value n (s), the process jumps to step S413.

  Step S411: It is determined whether or not the size s has reached the minimum number 0. When s = 0, the process jumps to step S413, and when s = 0, the process proceeds to step S412.

  Step S412: The size s is decreased by one step, and the process proceeds to step S413.

  Step S413: The image pattern number i is incremented by 1, and the process proceeds to step S414.

  Step S414: It is determined whether or not the image pattern number i has reached the maximum value N. When i = N, the process proceeds to step S415, and when i = N, the process returns to step S403.

  Step S415: The image pattern number i is returned to 0, and the process proceeds to step S416.

  Step S416: It is determined whether or not the image pattern number i is a number ch that should be the first image pattern MP1. If i = ch, the process proceeds to step S417, and if i = ch, the process proceeds to step S418.

  Step S417: The selected image pattern (6E in FIG. 1) is selected as the image pattern MP1, and the process proceeds to Step S419.

  Step S418: The selected image pattern (6C in FIG. 1) is selected as the image pattern MP2, and the process proceeds to Step S419.

  Step S419: The image pattern MP1 or MP2 is written in the graphic memory 1040 so as to be displayed at the coordinates (tx (i), ty (i)) of the display unit, and the process proceeds to Step S420.

  Step S420: The image pattern number i is incremented by 1, and the process proceeds to step S421.

  Step S421: It is determined whether or not the image pattern number i has reached the maximum value N. When i = N, the process is terminated as it is, and when i = N is not satisfied, the process returns to step S416.

  In FIG. 5, the collision process for determining the overlap of the image patterns in FIG. 4 is executed by the following steps.

  Step S501: First, a number k for evaluating an image pattern MP1 or MP2 already arranged, a flag err, and a counter CNT described later are initialized to zero.

  Step S502: Compare the distance (collision area center distance) between the image pattern MP1 or MP2 of the image pattern number i to be newly arranged and the image pattern (number k) to be compared with the sum of the collision radii of the two. To do.

  The distance between the collision area centers is represented by (xk−xi) 2+ (yk−yi) 2, and the sum of the collision radii is given by rck2 + rci2. In step S502, (xk−xi) 2+ (yk−yi) 2 <rck2 + rci2 is determined. If the determination result is true, it is considered that collision (overlap) has occurred. When a collision has occurred, the process proceeds to step S503, and when no collision has occurred, the process proceeds to step S512.

  Step S503: The value of the counter CNT is determined. If CNT = 0, the collision elimination by the movement of the image pattern i is executed, and if CNT = 1, the collision elimination by the reduction of the image pattern i is executed. When CNT = 0, the process proceeds to step S504, and when CNT = 1, the process proceeds to step S506.

  Step S504: The image pattern i is moved away from the image pattern k to eliminate the collision. The movement distance is a predetermined value (Δx, Δy), and is set to, for example, Δx2 + Δy2 = rci. In order to set the moving direction away from the image pattern k, Δx is positive when (xi−xk) is positive, and Δy is positive when (yi−yk) is positive. That is, xi = xi + sign (xi−xk) and yi = yi + sign (yi−yk).

  Next, the process proceeds to step S505.

  Step S505: As a result of performing one collision in step S504, the counter CNT = 1 is set, and the process proceeds to step S509.

  Step S506: It is determined whether or not the size of the image pattern is minimum s = 0. When s = 0, the process jumps to step S508, and when s = 0, the process proceeds to step S508.

  Step S507: The size s is decreased by one step, and the process proceeds to Step S508.

  Step S508: The counter CNT is reset to 0 to enable image pattern movement processing, and the process proceeds to step S509.

  Step S509: It is determined whether t> tm. When t> tm, the process proceeds to step S510. When t> tm is not satisfied, the process returns to step S502.

  Step S510: For the image pattern i, the null value is substituted into the (x, y) coordinates, and the image pattern is not displayed. The process proceeds to step S511.

  Step S511: 1 is substituted into the flag err, and the process is terminated as it is.

  Step S512: The image pattern number k to be compared is advanced by 1, and the process proceeds to step S513.

  Step S513: k = i That is, it is determined whether or not the comparison with all image patterns to be compared is completed. When k = i, the process is terminated as it is. When k = i is not satisfied, the process returns to step S502.

  By the above collision processing, it is possible to eliminate collision by moving or reducing a new image pattern, and abnormally long processing can be interrupted.

  In the processing of FIGS. 4 and 5, the number of the image pattern MP1 is generated by a random number. However, it is also possible to set a specific number in advance such as i = 0, N.

  Further, if a plurality of display planes are provided in the graphic memory 1040, and the image pattern MP1 is always drawn on the uppermost plane and other image patterns are drawn on the lower display plane, the image pattern MP1 is hidden by the image pattern MP2. It is possible to prevent the generation of an unanswerable game in which the image pattern MP1 cannot be found.

  Further, when the processing time t exceeds the predetermined value tm, or when the processing time t exceeds the predetermined value tm and the processing is interrupted, the number of image patterns becomes insufficient (such as N is less than a predetermined ratio). It is also possible to call and use an image pattern arrangement that has been created in advance as the processing at the time.

[Example 2]
FIG. 8 is a flowchart showing a second embodiment of the game program according to the present invention, and FIG. 9 is a flowchart showing the overhang and collision processing in FIG.

  In FIG. 8, in the second embodiment, instead of the collision processing S <b> 405 of the first embodiment, the protrusion and collision processing S <b> 805 are executed, and the jump destination of step S <b> 406 when err = 1 is set as step S <b> 403.

  The protrusion and collision processing S805 cancels the protrusion when a part of the image pattern protrudes from the display unit 1032 in addition to the protrusion processing in step S405.

  In addition, since the jump destination in step S406 is set to step S403, a predetermined number of image patterns can be reliably displayed.

  In FIG. 9, the following steps S901 to 908 are executed before the processing of steps S501 to S513.

  Step S901: First, with respect to the x coordinate tx of the entire display unit 1032, it is determined whether tx <rci, that is, whether or not there is no protrusion to the start point side of the image pattern. When there is a protrusion to the start point side, the process proceeds to step S902, and when there is no protrusion, the process jumps to step S903.

  Step S902: The x coordinate tx is increased by the collision radius rci, and the image pattern is shifted toward the center of the display unit to eliminate the protrusion. Next, it progresses to step S903.

  Step S903: For the x-coordinate tx of the entire display unit 1032, it is determined whether tx <2w-rci, that is, whether or not there is no protrusion to the side opposite to the start point side of the image pattern. If there is a protrusion to the side opposite to the start point, the process proceeds to step S904. If there is no protrusion, the process jumps to step S905.

  Step S904: The x coordinate tx is subtracted by the collision radius rci, and the image pattern is shifted toward the center of the display unit to eliminate the protrusion. Next, the process proceeds to step S905.

  Step S905: For the y coordinate ty of the entire display unit 1032, it is determined whether ty <rci, that is, whether or not there is no protrusion to the start point side of the image pattern. When there is a protrusion to the start point side, the process proceeds to step S906, and when there is no protrusion, the process jumps to step S907.

  Step S906: The y coordinate ty is increased by the collision radius rci, and the image pattern is shifted toward the center of the display unit to eliminate the protrusion. Next, the process proceeds to step S907.

  Step S907: For the x coordinate tx of the display unit 1032 as a whole, it is determined whether or not ty <2h-rci, that is, there is no protrusion to the side opposite to the start point side of the image pattern. If there is a protrusion to the side opposite to the start point side, the process proceeds to step S908. If there is no protrusion, the process jumps to step S501.

  Step S908: The y coordinate ty is subtracted by the collision radius rci, and the image pattern is shifted toward the center of the display unit to eliminate the protrusion. Next, it progresses to step S501.

  Through the above processing, the protrusion of the image pattern can be completely eliminated, and the generation of unclear problems and unanswerable problems can be prevented.

  In the game apparatus 2000 of FIG. 2, the CPU 1000, the system memory 1020, the video display processor 1030, the graphic memory 1040, and the display unit 1032 function as display means in cooperation.

  In the game apparatus 2000, the operation input unit 1140 functions as an operation input unit for selecting the first image pattern MP1.

  In the game apparatus 2000, the CPU 1000 and the system memory 1020 cooperate to function as an image pattern setting unit that sets the first and second image patterns.

  In the game apparatus 2000, the CPU 1000 and the system memory 1020 cooperate to function as a display area dividing unit that divides the display unit into a plurality of display areas.

  In the game apparatus 2000, the CPU 1000 and the system memory 1020 cooperate to function as display area selection means for sequentially allocating the second image pattern to the display areas.

  In the game apparatus 2000, the CPU 1000 and the system memory 1020 cooperate to function as second image pattern arrangement means for randomly arranging the second image pattern within the selected area.

  In the game apparatus 2000, the CPU 1000 and the system memory 1020 cooperate to function as first image pattern arrangement means for randomly arranging the first image pattern in any one of the display areas.

  In the game apparatus 2000, the CPU 1000 and the system memory 1020 cooperate with each other so that the first or second image pattern newly arranged by the first or second image pattern arrangement unit is the other first or second image pattern. It functions as an overlap determination means for determining whether or not the image pattern overlaps with the second image pattern.

  In the game apparatus 2000, the CPU 1000 and the system memory 1020 cooperate to move the newly arranged first or second image pattern away from the other first or second image pattern. , Function as image pattern moving means.

  In the game apparatus 2000, the CPU 1000 and the system memory 1020 cooperate with each other so that the first or second image pattern newly arranged by the first or second image pattern arrangement unit is the other first or second image pattern. It functions as an overlap determination means for determining whether or not the image pattern overlaps the second image pattern.

  In the game apparatus 2000, the CPU 1000, the system memory 1020, the video display processor 1030, the graphic memory 1040, and the display unit 1032 cooperate to reduce the newly arranged first or second image pattern. It functions as a reduction means.

  In the game apparatus 2000, the CPU 1000, the system memory 1020, and the timer 1022 function as a processing time measuring unit that measures the processing time for arranging the first and second image patterns in cooperation.

  In the game apparatus 2000, the CPU 1000 and the system memory 1020 cooperate to make the first and second when the processing time exceeds a predetermined value before the first and second image pattern arrangements are completed. It functions as a halfway ending means for ending the arrangement of the image pattern.

  In the game apparatus 2000, the CPU 1000, the system memory 1020, the video display processor 1030, the graphic memory 1040, and the display unit 1032 are newly arranged by the first or second image pattern arranging unit in cooperation. When a part of the first or second image pattern protrudes from the display area or the display means, the newly arranged first or second image pattern faces the inside of the display area or the display means. Function as image pattern moving means for moving the image pattern.

  In the game apparatus 2000, the CPU 1000, the system memory 1020, the video display processor 1030, the graphic memory 1040, and the display unit 1032 cooperate to select a first image pattern for the player by the player. It functions as a pick area setting means for setting a pick area.

  In the game apparatus 2000, the CPU 1000, the system memory 1020, the video display processor 1030, the graphic memory 1040, and the display unit 1032 cooperate to collide radius setting means for setting an overlapping radius for the first and second image patterns. Function as.

  Although the above embodiment has mainly described the portable game device, the game program according to the present invention can be applied to a game program executed on a personal computer or a mobile phone, and a large game installed in a game center. Needless to say, the game device and the game program according to the present invention can be applied to the machine.

  When the game program according to the present invention is introduced into a personal computer or the like, a program code for the computer to execute the game program is read into the system memory 1020 by a computer-readable storage medium or communication medium.

It is a front view which shows the Example of the game device which concerns on this invention. It is a block diagram which shows the game device of FIG. It is a front view which shows the area division of the display part in the game device of FIG. It is a flowchart which shows Example 1 of the game program which concerns on this invention. It is a flowchart which shows the collision process in FIG. It is a figure which shows the example of the image pattern used for Example 1 of the game program which concerns on this invention. It is a figure which shows the example of the other image pattern used for Example 1 of the game program which concerns on this invention. It is a flowchart which shows Example 2 of the game program which concerns on this invention. It is a flowchart which shows the collision process in FIG. It is a several example of the area | region division pattern of the display part which concerns on this invention. It is an example of the adjustment conceptual diagram of the distribution of the image pattern in the case of using different area ratios and shapes according to the present invention.

Explanation of symbols

1000 CPU
1020 System memory 1030 Video display processor 1040 Graphic memory 2000 Game device 1032 Display unit 1072 Operation input unit

Claims (5)

A game program for causing a computer having a display means to display a plurality of image patterns,
An image pattern setting step for selecting the image pattern to be displayed on the display means;
A display area dividing step of dividing the display means into a plurality of display areas;
A display area selection step of allocating each of the image patterns to the display areas sequentially arranged so as to be arranged in any of the divided display areas;
An image pattern arrangement step of placement in a variety of sizes or angles at random locations of the image pattern in the display area allocated in the display area selection step of,
A game program for causing the computer to execute.   The game program according to claim 1, wherein the display area dividing step divides using a predetermined area dividing pattern set in advance. The image pattern placement step further includes an overlap determination step for determining an overlap based on a collision radius preset in the image pattern,
The overlap determining step determines that an overlap has occurred when a distance between the image pattern newly arranged and another image pattern is smaller than a sum of the collision radii of the two image patterns. Item 3. A game program according to any one of Items 1 to 2. Display means for displaying image patterns;
Operation input means for the player to select the image pattern;
Image pattern setting means for selecting the image pattern to be displayed on the display means;
Display area dividing means for dividing the display means into a plurality of display areas;
Display area selection means for allocating each of the image patterns to the display areas sequentially arranged so as to be arranged in any of the divided display areas;
An image pattern arrangement means for placement in a variety of sizes or angles at random positions in the display area allocated in the display area selection means said image pattern,
A game device comprising:   A computer-readable storage medium storing the game program according to claim 1.

Images