JP2015134070A - Game program and game device - Google Patents

Abstract

PROBLEM TO BE SOLVED: To appropriately control the speed of a movable object depending on the level of a player.SOLUTION: In response to an operation of a player, a game program according to the present invention causes a computer to execute a game advancing process for advancing a game through moving a movable object along a course set in a virtual space; a correction amount determining process for comparing a moving rate of the movable object moving along the course to a predetermined reference moving rate and then determining an amount of correction to correct the speed of the movable object on the basis of results of the comparison; and a speed controlling process for controlling the speed of the movable object moving along the course on the basis of the determined amount of correction.

Description

  The present invention relates to a game program and a game device.

  In a game in which a plurality of racing cars (moving bodies) compete, a game device is known that controls the moving speed of a following vehicle so that the distance between the preceding vehicle and the following vehicle increases when the distance between the preceding vehicle and the following vehicle increases. (For example, Patent Document 1).

Japanese Patent No. 2747405

Generally, when highly skilled advanced players compete with each other in a race, the race is deployed at a relatively fast pace, so the race is close to a serious game where the advantage is reduced and overtaking techniques are required. Development tends to be preferred. On the other hand, when low-skilled beginner players compete in a race, the race is developed at a relatively slow pace, so the race can be enjoyed with ease by increasing the advantage and changing the ranking one after another. Development tends to be preferred.
However, in the conventional game device, the advantage given to the player is determined by the distance between the moving objects, and therefore the speed control of the moving object is uniformly performed regardless of the level of the player. It was.
The present invention has been made in view of such circumstances, and an object of the present invention is to appropriately control the speed of the moving body in accordance with the level of the player.

The main invention of the present invention to solve the above problems is
On the computer,
In response to the player's operation, a game progress process for advancing the game by moving the moving body along the course set in the virtual space;
A correction amount for comparing the moving pace of the moving body moving along the course with a preset reference moving pace and determining a correction amount for correcting the moving speed of the moving body based on the comparison result The decision process,
Based on the determined correction amount, a speed control process for controlling the moving speed of the moving body that moves along the course;
Is a game program characterized in that
Other features of the present invention will become apparent from the description of the present specification and the accompanying drawings.

It is a schematic diagram of game device 1 concerning this embodiment. It is a hardware block diagram of the game device 1 which concerns on this embodiment. It is a functional lineblock diagram of game device 1 concerning this embodiment. It is a data structure figure of standard data. 4 is a flowchart for explaining an operation of the game apparatus 1 according to the present embodiment. It is a graph which shows the relationship between the value of F / Fi, and correction amount. It is a figure explaining the process in case the movement pace of a following vehicle is slower than a reference movement pace. It is a figure explaining the process in case the movement pace of a following vehicle is faster than a reference movement pace.

At least the following matters will become apparent from the description of the present specification and the accompanying drawings.
In other words,
In response to the player's operation, a game progress process for advancing the game by moving the moving body along the course set in the virtual space;
A correction amount for comparing the moving pace of the moving body moving along the course with a preset reference moving pace and determining a correction amount for correcting the moving speed of the moving body based on the comparison result The decision process,
Based on the determined correction amount, a speed control process for controlling the moving speed of the moving body that moves along the course;
Is a game program characterized in that
According to such a game program, the moving speed correction amount corresponding to the player's level is determined by comparing the moving pace of the moving body with the reference moving pace. Accordingly, it is possible to appropriately control the speed of the moving body.

Further, the correction amount determination process sets different correction amounts when the moving pace of the moving body is faster than the reference moving pace and when the moving pace of the moving body is slower than the reference moving pace. It may be determined.
According to such a game program, the advantages given to the advanced player and the beginner player can be made different.

Further, the correction amount determination process reduces the correction amount as the moving pace of the moving body becomes faster than the reference moving pace, and corrects as the moving pace of the moving body becomes slower than the reference moving pace. The amount may be increased.
According to such a game program, the advantage becomes smaller as the player becomes an advanced player, and the advantage becomes larger as the player becomes a beginner, so the speed control of the moving body is more appropriately performed according to the level of the player. It becomes possible.

Further, the correction amount determination process determines a correction amount that is larger than a lower limit correction amount or a lower limit correction amount when the moving pace of the moving body is faster than the reference moving pace, and When the moving pace is slower than the reference moving pace, an upper limit correction amount or a correction amount smaller than the upper limit correction amount may be determined.
According to such a game program, the speed control of the moving object is performed while the correction amount is limited. Therefore, the speed control of the moving object is appropriately performed according to the level of the player without losing the game balance. Can be performed.

Next, on the computer
In response to the operation of each of a plurality of players, a game progress process for advancing the game by moving a moving body corresponding to each player along a course set in the virtual space, and
A determination process for determining which of the plurality of moving bodies is the moving body on the rearmost side with respect to the traveling direction of the course;
A correction for comparing the moving pace of the moving object on the most rear side with a preset reference moving pace and determining a correction amount for correcting the moving speed of the moving object on the most rear side based on the comparison result A quantity determination process;
Based on the determined correction amount, a speed control process for controlling the moving speed of the most rear moving body that moves along the course;
Is a game program characterized in that
According to such a game program, even when a plurality of moving bodies are moved along the course, it becomes possible to appropriately control the speed of the moving bodies according to the level of the player.

Next, in response to the player's operation, a game progress processing unit that advances the game by moving the moving body along the course set in the virtual space,
A correction amount for comparing the moving pace of the moving body moving along the course with a preset reference moving pace and determining a correction amount for correcting the moving speed of the moving body based on the comparison result A decision processing unit;
Based on the determined correction amount, a speed control processing unit that controls a moving speed of the moving body that moves along the course;
It is a game device provided with.
According to such a game device, it becomes possible to appropriately control the speed of the moving body according to the level of the player.

Next, in response to the operations of each of the plurality of players, a game progress processing unit that advances the game by moving a moving body corresponding to each player along a course set in the virtual space, and
A determination processing unit that determines which one of the plurality of moving bodies is the moving body on the rearmost side with respect to the traveling direction of the course;
A correction for comparing the moving pace of the moving object on the most rear side with a preset reference moving pace and determining a correction amount for correcting the moving speed of the moving object on the most rear side based on the comparison result An amount determination processing unit;
Based on the determined correction amount, a speed control processing unit that controls the moving speed of the most rearward moving body that moves along the course;
It is a game device provided with.
According to such a game apparatus, even when a plurality of moving bodies are moved along the course, it becomes possible to appropriately control the speed of the moving bodies according to the level of the player.

=== Embodiment ===
<< Configuration of Game Device 1 >>
FIG. 1 is a schematic diagram of a game apparatus 1 according to the present embodiment. The game apparatus 1 has a configuration in which a plurality of operation devices 10 (first operation device 10A and second operation device 10B) are connected so that each player performs a game operation. Each operation device 10 includes a monitor 40 on which a racing image of a vehicle operated by a player is displayed, a steering wheel 11 that receives an operation input by the player, an accelerator pedal 12, a brake pedal 13, and a driving seat 20. Sensors for detecting respective operation amounts are attached to the steering wheel 11, the accelerator pedal 12, and the brake pedal 13, and these sensors send signals indicating the operation amounts via a peripheral interface 36 described later. It transmits to CPU31.

  FIG. 2 is a hardware configuration diagram of the game apparatus 1 according to the present embodiment. The game apparatus 1 includes a CPU (Central Processing Unit) 31 that is a control subject, a geometry processor 32 that performs drawing processing of three-dimensional graphics using polygons, and a RAM (Random Access Memory) that holds a running program and data. ) And other storage devices such as ROM (Read Only Memory), HDD (Hard Disk Drive), flash memory, CD (Compact Disk) drive, DVD (Digital Versatile Disk) drive, etc. 34, a boot ROM 35 that holds a startup program, and a peripheral interface 36 that functions as an interface with the steering wheel 11, the accelerator pedal 12, and the brake pedal 13, and these are connected to a bus arbiter 37 that arbitrates the system bus. Yes.

  The bus arbiter 37 is connected to a monitor 40 through a rendering processor 38 that performs screen drawing using the graphic memory 39, and for audio output through the audio processor 41 that performs audio output using the audio memory 42. A speaker 43 is connected. The bus arbiter 37 is connected to a communication interface 44 for communicating with other game devices and the like via a network.

  FIG. 3 is a functional configuration diagram of the game apparatus 1 according to the present embodiment. The game apparatus 1 has a game progress processing unit 101, an image display control unit 102, a data storage as functional blocks that function when the CPU 31 develops (loads) a program stored in the storage device 34 into the system memory 33 and executes the program. Unit 103, determination processing unit 104, correction amount determination processing unit 105, and speed control processing unit 106.

  The game progress processing unit 101 has a function of controlling the progress of the game. The game progress processing unit 101 in the present embodiment controls the progress of the race game by moving a racing car as an example of a moving body along a course set in the virtual space in response to a player's operation. To do.

  The image display control unit 102 has a function of controlling image display. The image display control unit 102 according to the present embodiment generates image data for each frame (1/60 second), and sequentially displays a race game screen corresponding to the image data on the monitor 40.

  The data storage unit 103 has a function of storing various data used in the racing game. The data storage unit 103 according to the present embodiment stores reference data that defines the movement pace (reference movement pace) of a reference racing car.

  FIG. 4 is an example of a data structure diagram of the reference data. In this reference data, reference coordinates (X, Y, Z) are stored in association with the frame number. The frame number is a serial number when the running time from the start to the goal is divided every frame (1/60 seconds) (for example, the frame number when 1 second has elapsed since the start of the race is “60”) Become). The reference coordinates are position data serving as a reference when the course is run at a relatively fast movement pace, and are values set by a game developer in advance (in this case, for example, frame number “1”). Corresponding reference coordinates (X1, Y1, Z1) are set).

  In this embodiment, when the game developer actually travels the course at a relatively fast moving pace, the case where the running time from the start to the goal is 3:00 seconds is an example of the reference moving pace. Yes. In this case, since the number of frames is 10800, as shown in FIG. 4, “1” to “10800” are set in the frame numbers. The reference coordinates corresponding to each frame number are values based on log information (coordinate values for each frame from the start of the race) acquired when the game developer actually traveled the course at a relatively fast moving pace. Is set.

  The determination processing unit 104 has a function of executing various determination processes. The determination processing unit 104 according to the present embodiment is based on the position information of each racing car acquired from the game progress processing unit 101, and any of the plurality of racing cars is located on the rearmost side with respect to the course traveling direction. Determine if it is a racing car.

  The correction amount determination processing unit 105 has a function of determining a correction amount for correcting the moving speed of the racing car. The correction amount determination processing unit 105 in the present embodiment compares the movement pace of the racing car with a preset reference movement pace, and determines the correction amount of the movement speed based on the comparison result.

  The speed control processing unit 106 has a function of controlling the speed of the racing car. When the speed control processing unit 106 in the present embodiment acquires the correction amount determined by the correction amount determination processing unit 105, the speed control processing unit 106 controls the moving speed of the racing car based on the correction amount.

<< Operation of Game Device 1 >>
FIG. 5 is a flowchart for explaining the operation of the game apparatus 1 according to the present embodiment. In the present embodiment, the process related to the speed control of the racing car is repeatedly performed for each frame (every 1/60 seconds have elapsed since the start of the race). It is not limited to one frame, and may be repeated at a larger frame interval (for example, every 60 frames).

  First, initial setting (i = 0) of the index i corresponding to the frame number (Fi) is performed (S101). In the present embodiment, it is assumed that the maximum playable time of one race is 4:00 seconds. For this reason, the maximum value (MAX) of the index i is set to 14400.

Next, the index i corresponding to the frame number (Fi) is incremented by 1 (i = i + 1) (S102), and the determination process of the following vehicle is performed (S103).
Specifically, first, the determination processing unit 104 obtains the current coordinates of each racing car based on the position information of each racing car acquired from the game progress processing unit 101.

  Next, the determination processing unit 104 refers to the course data stored in the data storage unit 103 (the course shape / position and the like are defined), thereby obtaining the current coordinates of each racing car and the coordinates of the course. In comparison, it is determined which one of the plurality of racing cars is the racing car (rear-running vehicle) located on the rearmost side with respect to the traveling direction of the course.

Next, returning to FIG. 5, a correction amount determination process is then performed for the traveling vehicle (S104).
Specifically, first, the correction amount determination processing unit 105 obtains the moving pace of the following vehicle based on the position information of the following vehicle acquired from the game progress processing unit 101. That is, the current coordinates of the subsequent vehicle when the time corresponding to the frame number (Fi) has elapsed since the start of the race is obtained.

  Next, the correction amount determination processing unit 105 refers to the reference data stored in the data storage unit 103 to obtain the closest reference coordinate from the current coordinates of the following vehicle, and further corresponds to the closest reference coordinate. The frame number (F) is obtained.

  Next, the correction amount determination processing unit 105 compares the movement pace of the following vehicle with a preset reference movement pace, and calculates a correction amount for correcting the movement speed of the following vehicle based on the comparison result. decide.

  In this embodiment, the ratio of the moving pace of the following vehicle to the reference moving pace, that is, the value (F / Fi) obtained by dividing the frame number (F) by the frame number (Fi) is calculated. For example, when F / Fi = 1.0, the moving pace of the following vehicle matches the reference moving pace. In the case of F / Fi <1.0, the moving pace of the following vehicle is slower than the reference moving pace. When F / Fi> 1.0, the moving pace of the following vehicle is faster than the reference moving pace. In this way, by calculating the value of F / Fi, it is possible to grasp whether the player who operates the rear-running vehicle is an advanced player or a beginner.

  Next, the correction amount determination processing unit 105 obtains a correction amount corresponding to the calculated F / Fi value by using the graph shown in FIG.

FIG. 6 is a graph showing the relationship between the value of F / Fi and the correction amount.
In this embodiment, when the value of F / Fi is in the range of 0.9 to 1.2, the correction amount is proportional to the magnitude of F / Fi. That is, the correction amount determination processing unit 105 decreases the correction amount as the moving pace of the following vehicle becomes faster than the reference moving pace, and increases the correction amount as the moving pace of the following vehicle becomes slower than the reference moving pace. To do. Thereby, the advantage becomes smaller as the player becomes an advanced player, and the advantage becomes larger as the player becomes a beginner player, so that the correction amount corresponding to the level of the player is determined.

  In this embodiment, when the value of F / Fi is in a range smaller than 0.9, the correction amount is 20 km / h which is the upper limit value. That is, the correction amount determination processing unit 105 determines a correction amount that does not exceed the upper limit when the movement pace of the following vehicle is slower than the reference movement pace. As a result, even if the beginner player is greatly delayed from the reference movement pace, the correction amount is limited, so that the correction amount corresponding to the beginner level is determined without breaking the game balance.

  In this embodiment, when the value of F / Fi is in a range larger than 1.2, the correction amount is 2 km / h which is a lower limit value. That is, the correction amount determination processing unit 105 determines a correction amount that does not divide the lower limit when the moving pace of the following vehicle is faster than the reference moving pace. As a result, even if the advanced player is greatly accelerated with respect to the reference movement pace, a slight correction amount corresponding to the advanced level is determined. For this reason, it is possible to leave the possibility of race development in which the ranking changes even in the serious game between advanced players. Note that the lower limit value of the correction amount may be zero without setting a slight correction amount. In this case, the advanced player can perform a serious game in which the game is determined by absolute skills.

  FIG. 7 is a diagram for specifically explaining the processing when the moving pace of the following vehicle is slower than the reference moving pace. FIG. 7 shows a state in which the preceding vehicle B and the following vehicle A are moving along the course on the game screen. The direction parallel to the game screen is the XY direction, the left-right direction of the player viewing the game screen is the X direction, the direction perpendicular to the X direction is the Y direction, and the direction perpendicular to the XY plane is the Z direction. .

  Hereinafter, a frame when the index i is 1000 (frame number (Fi): 1000) will be described. First, based on the reference data shown in FIG. 4, the reference coordinates (X800, Y800, Z800) closest to the current coordinates (xA, yA, zA) of the following vehicle A are obtained, and the reference coordinates (X800, Y800, Z800) are obtained. The frame number (F) “800” corresponding to is obtained. This indicates that the moving pace of the following vehicle A is slower by 200 frames than the reference moving pace. Next, the value of F / Fi is obtained. Here, 800/1000 = 0.8. Next, based on the graph shown in FIG. 6, the correction amount of the moving speed of the following vehicle A is obtained. Here, the correction amount when the value of F / Fi is 0.8 is 20 km / h.

  FIG. 8 is a diagram for specifically explaining the processing when the moving pace of the following vehicle is faster than the reference moving pace. Similarly, a frame when the index i = 1000 (frame number (Fi): 1000) will be described. First, based on the reference data shown in FIG. 4, the reference coordinates (X1200, Y1200, Z1200) closest to the current coordinates (xA, yA, zA) of the following vehicle A are obtained, and the reference coordinates (X1200, Y1200, Z1200) are obtained. The frame number (F) “1200” corresponding to is obtained. This indicates that the moving pace of the following vehicle A is faster by 200 frames than the reference moving pace. Next, the value of F / Fi is obtained. Here, 1200/1000 = 1.2. Next, based on the graph shown in FIG. 6, the correction amount of the moving speed of the following vehicle A is obtained. Here, the correction amount when the value of F / Fi is 1.2 is 2 km / h.

  In this way, if the movement pace of the following vehicle is slower than the reference movement pace, it is assumed that the beginner player is operating the following vehicle A, and the advantage is increased by increasing the correction amount, It is possible to provide a race development that can be enjoyed with ease, with the order changing one after another. On the other hand, if the moving pace of the following vehicle is faster than the reference moving pace, it is assumed that the advanced player is operating the following vehicle A, and the advantage is reduced by making a slight correction amount. It is possible to provide a race development close to a serious game that requires overtaking techniques. Therefore, the correction amount of the moving speed that matches the player's level is determined.

  Next, returning to FIG. 5, when the correction amount of the moving speed of the following vehicle is obtained in this way, the speed control process is performed for the subsequent vehicle (S105). That is, the speed control processing unit 106 controls the moving speed of the following vehicle based on the correction amount acquired from the correction amount determination processing unit 105. In the present embodiment, the correction amount determined by the correction amount determination processing unit 105 is added to the current speed of the following vehicle. Thereby, the speed performance of the following vehicle can be improved, and catching up with the preceding vehicle can be facilitated.

  Next, the determination processing unit 104 refers to the course data stored in the data storage unit 103 to compare the current coordinates of the following vehicle with the coordinates of the course, and whether the following vehicle has reached the goal. It is determined whether or not (S106). If the goal has been reached (S106: YES), this process ends. If the goal has not been reached (S106: NO), the routine proceeds to step 107.

  Next, the determination processing unit 104 determines whether or not the index i matches the maximum value (MAX = 14400) (S107). If they match (S107: YES), this process ends. That is, the time is up because the goal could not be achieved within the time limit (4:00), and the game play is forcibly terminated. If they do not match (S107: NO), the process returns to step S102, the index i is incremented by 1, and the subsequent processing is repeated.

  As described above, according to the game apparatus 1 according to the present embodiment, the moving pace of the racing car (moving body) operated by the player is compared with the preset reference moving pace, so that the level matches the level of the player. A correction amount of the moving speed is determined. Therefore, it becomes possible to appropriately control the speed of the moving body according to the level of the player.

=== Others ===
The above embodiments are for facilitating the understanding of the present invention, and are not intended to limit the present invention. The present invention can be changed and improved without departing from the gist thereof, and the present invention includes equivalents thereof. In particular, the embodiments described below are also included in the present invention.

  In the above-described embodiment, a racing game in which a plurality of moving bodies compete is described as an example, but the present invention is not limited to this. For example, the present invention can also be applied to a case where only one moving body moves on a course (when playing alone) in a game of competing for lap times. In such a case, the determination process for the following vehicle is not required.

  In the above-described embodiment, the reference movement pace may be changed according to the level of the player, the game situation, and the like. For example, by accumulating and analyzing log information (coordinate values for each frame from the start of the race) when a plurality of players play a game, the preset reference movement pace is slower than the assumed pace, When the preset reference movement pace is faster than the assumed pace, the reference movement pace is changed by multiplying each of the reference coordinates stored in the reference data shown in FIG. 4 by a predetermined coefficient. Can do. In such a case, the correction amount determination processing unit 105 uses the reference movement pace after the change to determine the correction amount of the movement speed that matches the level of the player.

  In the above-described embodiment, the case where the correction amount of the moving speed is determined using the graph shown in FIG. 6 has been described as an example. However, the present invention is not limited to this, and the moving pace of the moving body is not limited to this. Other graph shapes that have different correction amounts may be employed depending on whether the moving body is faster than the reference moving pace or the moving body is moving slower than the reference moving pace.

  Further, the slope of the straight line shown in the graph shown in FIG. 6 (in FIG. 6, the value of F / Fi is in the range from 0.9 to 1.2) may be varied according to the type of course. For example, when competing on a race course with many straight portions, the difference in lap time tends to be small, so by increasing the degree of inclination of the straight line, it is possible to easily generate a single race development. Conversely, when competing on a race course with many curves, the difference in lap times tends to increase, so reducing the slope of the straight line can make it easier to generate one race development. it can. As described above, the correction amount determination processing unit 105 can also change the correction amount of the moving speed according to the difficulty level of the course.

  Further, the upper limit value of the correction amount shown in the graph shown in FIG. 6 (in FIG. 6, the range in which the value of F / Fi is smaller than 0.9) may be varied according to the course type and the like. For example, when competing on a race course with a lot of straight parts, the upper limit of the correction amount is set higher than 20 km / h. By reducing the length, it is possible to easily generate one race development. Further, a parameter may be set for each section such as a straight portion and a curve portion in the same course, and further correction may be performed on the correction amount determined by the graph shown in FIG. 6 based on this parameter. . As described above, the correction amount determination processing unit 105 can also change the correction amount of the moving speed according to the difficulty level of the course.

  In the above-described embodiment, when a race game can be performed on a plurality of types of courses, the movement speed correction amount may be determined by sharing the graph shown in FIG. However, the reference data (reference movement pace) is set for each course.

  In the above-described embodiment, a racing car (moving body) that moves at a reference movement pace regardless of the player's operation during the race is displayed on the course in a display mode (for example, semi-transparent display) that can be seen by the player. Also good. Accordingly, the player can play the game while visually checking the reference movement pace.

  In the above-described embodiment, the case where the game program 1 according to the present invention is executed by the business game device 1 has been described as an example. However, the present invention is not limited to this. It can also be executed. Note that the game apparatus 1 according to the embodiment is an example of a computer.

1 game device, 10 operation device, 10A first operation device, 10B second operation device 11 steering wheel, 12 accelerator pedal, 13 brake pedal, 20 driving seat, 31 CPU, 32 geometry processor, 33 system memory, 34 storage Device, 35 Boot ROM, 36 Peripheral interface, 37 Bus arbiter, 38 Rendering processor, 39 Graphic memory, 40 Monitor, 41 Audio processor, 42 Audio memory, 43 Speaker, 44 Communication interface, 101 Game progress processing unit, 102 Image display control unit , 103 Data storage unit, 104 Determination processing unit, 105 Correction amount determination processing unit, 106 Speed control processing unit

Claims (7)

On the computer,
In response to the player's operation, a game progress process for advancing the game by moving the moving body along the course set in the virtual space;
A correction amount for comparing the moving pace of the moving body moving along the course with a preset reference moving pace and determining a correction amount for correcting the moving speed of the moving body based on the comparison result The decision process,
Based on the determined correction amount, a speed control process for controlling the moving speed of the moving body that moves along the course;
A game program characterized by causing a game to be executed. The game program according to claim 1,
In the correction amount determination process, different correction amounts are determined when the moving pace of the moving body is faster than the reference moving pace and when the moving pace of the moving body is slower than the reference moving pace. ,
A game program characterized by that. The game program according to claim 1,
The correction amount determination process decreases the correction amount as the moving pace of the moving body becomes faster than the reference moving pace, and sets the correction amount as the moving pace of the moving body becomes slower than the reference moving pace. Enlarge,
A game program characterized by that. A game program according to claim 2 or 3,
The correction amount determination process includes:
When the moving pace of the moving body is faster than the reference moving pace, a correction amount that is larger than a lower limit correction amount or a lower limit correction amount is determined,
When the moving pace of the moving body is slower than the reference moving pace, an upper limit correction amount or a correction amount smaller than the upper limit correction amount is determined.
A game program characterized by that. On the computer,
In response to the operation of each of a plurality of players, a game progress process for advancing the game by moving a moving body corresponding to each player along a course set in the virtual space, and
A determination process for determining which of the plurality of moving bodies is the moving body on the rearmost side with respect to the traveling direction of the course;
A correction for comparing the moving pace of the moving object on the most rear side with a preset reference moving pace and determining a correction amount for correcting the moving speed of the moving object on the most rear side based on the comparison result A quantity determination process;
Based on the determined correction amount, a speed control process for controlling the moving speed of the most rear moving body that moves along the course;
A game program characterized by causing a game to be executed. In response to the player's operation, a game progress processing unit that advances the game by moving the moving body along the course set in the virtual space;
A correction amount for comparing the moving pace of the moving body moving along the course with a preset reference moving pace and determining a correction amount for correcting the moving speed of the moving body based on the comparison result A decision processing unit;
Based on the determined correction amount, a speed control processing unit that controls a moving speed of the moving body that moves along the course;
A game device comprising: In response to the operation of each of the plurality of players, a game progress processing unit that advances the game by moving a moving body corresponding to each player along a course set in the virtual space, and
A determination processing unit that determines which one of the plurality of moving bodies is the moving body on the rearmost side with respect to the traveling direction of the course;
A correction for comparing the moving pace of the moving object on the most rear side with a preset reference moving pace and determining a correction amount for correcting the moving speed of the moving object on the most rear side based on the comparison result An amount determination processing unit;
Based on the determined correction amount, a speed control processing unit that controls the moving speed of the most rearward moving body that moves along the course;
A game device comprising:

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