TW201043301A - Moving image generation device, game device, moving image generation method, information recording medium, and program - Google Patents

Abstract

The moving image generation device (600) comprises a shape calculating unit (201), a determining unit (202), and a generating unit (203). Upon provision of a time that is within a predetermined period, the shape calculating unit (201) calculates the shape of a character associated with the provided time. The determining unit (202) determines generation times, each of which is associated with one of delimiting times, which divide the predetermined period at an equal interval from the start to the end thereof. The generating unit (203) provides the generation times thus associated to the shape calculating unit (201) for calculation thereby. In turn, the generating unit (203) generates images of the character, which are to be displayed at the respective delimiting times, from the calculated shapes of the character. The generation time associated with the first delimiting time is identical to the first delimiting time. The generation time associated with the last delimiting time is identical to the last delimiting time. If delimiting times are arranged in the order of time and generation times associated with the delimiting times are arranged in the corresponding order, the arrangement of the generation times is in the same order of time.

Description

201043301 VI. Description of the Invention: [Technical Field] The present invention relates to a preferred book generating device, a game device, an animation generating method, an information recording medium, and a program which can appropriately display a character. [Prior Art] Ο 先前 Previously, there was known a music game in which the rhythm of the music or the display of the screen was played, and the player performed the operation of the button or the foot switch. In such a music game, for example, in the same manner as a piece of music played, a specific object appears sequentially from below the screen and moves to the top of the face, respectively. On the other hand, the tenth button presses the button when the object reaches the decision line as the criterion for judgment. Also, when the button is pressed, the score is added. In addition, the display of the success of the input operation is not shown. In this type of music game, the ancient _ sometimes shows the human eye spot & _ as the background dancer during the game play. The rhythm of the music and the role of dancing. When the character that dances with the rhythm of the music is displayed in such a manner, the player feels like entering the T with the character. Such a music game is shown in Patent Document 1. In this type of music game, the dance of the character displayed is determined by the decision of the music. The result is _ a ^ ^ ° ', the player's operation input is not related to the proficiency, and the character matches the festival section. ...„^, and danced accurately. Further, in the music tour of the type in which a plurality of characters are displayed, the material 1f 'multiple characters match the rhythm of the music 3 201043301 and all the same dances are accurately performed. [Prior Art Document] A (Patent Document) . Patent Document 1: Japanese Patent No. 3245 147 [Summary of the Invention] However, the actual background dancers do not perform the same thing even when they perform the same dance. Dancing. In the dance of the background dancers, there will be deviations in the praise. Moreover, the actual background dancers will generally be disrupted by the rhythm of the 2 corners (equivalent to the player in the above music game), causing the rhythm to be disrupted. Thus, it is strongly desired that the dancing of the character be changed as close as possible to the actual dance of the background dancer. The present invention has been made in view of the above problems, and an object thereof is to provide a preferred motion generating device, a game device, a dynamic generating method, an information recording medium, and a program for appropriately displaying a character. In order to achieve the above object, the dynamics generating apparatus according to the first aspect of the present invention includes a shape calculating unit, a determining unit, and a generating unit, and is configured as follows. First, the shape calculation unit calculates the shape of the character corresponding to the time when any one of the times included in the specific period is given. That is, the shape #calculation unit' is given any of the time periods from the time B to the time E, and the time is 1. Then, the shape calculating unit calculates the character corresponding to the time t. In the present invention, the character performs a specific dance action in a virtual space for a specific period of time. The shape calculation unit calculates the shape and shape of the character at each time. In addition to the shape of the character, it is also possible to calculate the character's 4 201043301 color center or the like. In the present specification, the shape of the character may include the color of the character. Φ and the like will be described. Further, when the generating unit generates the image 9 obtained when the character in the virtual space is projected onto the specific projection surface with respect to the specific viewpoint, the specific period can be set to be based on the same viewpoint. Period (the following 'called "scene" as needed). Then, the decision is made to determine the generation time corresponding to the division time from the beginning to the end of the specific period at equal intervals. In other words, the determination unit 〇N and N are natural numbers, and the division times D[0] Β ' D(1) and Ε corresponding to the generation time g[〇], G[l] corresponding to the division time of the specific period are determined at equal intervals. ..., G[N^ The interval may also be the display update rate of the display portion, that is, the period of vertical synchronization insertion (typically 1/6 sec.). Hereinafter, for example, the "model role" is described by the actor who performs the dance movement at an exemplary speed. The generating unit gives a shape calculation unit to the shape calculation unit to calculate the shape of the character. Then, the generating unit generates an image of the character to be displayed at the dividing time based on the shape of the character calculated by the calculation. That is, the generator is for the integer i=〇, ! , ..., N, respectively, the generation time G[i] corresponding to the dicing time D[i] is given to the shape calculation unit. The shape '•10 calculation unit calculates the shape of the character based on the shape of the model character at the generation time G[i]. Then, the generating unit generates an image of the character displayed at the "Hai division time D[i] based on the shape of the calculated character. Therefore, when the shape of the character at each division time generated by the generation unit is arranged in the order of the time of the division time, it becomes the motion of the character. Further, the movement of the exemplary character can be obtained by giving the division calculation time to the shape calculation unit and generating an image to be displayed at the time of the division 5 201043301. Here, the first divided time of the divided time and the generated time corresponding to the first divided time are equal to the first time of the specific period. Further, the division time at the end of the division time and the generation time corresponding to the division time at the end are equal to the time at the end of the specific period. Furthermore, the time of the division of money is arranged in accordance with the passage of time.

And the generation timings corresponding to the division timings are arranged in this order, which is the order of passage of time. Hereinafter, a method of determining the generation time will be described. First, the division time is arranged in accordance with the passage of time, and (4) n is arranged in this order to correspond to the generation time corresponding to the time of the knife. The knot &, the division time: and the generation time are arranged in the order of the passage of time. That is, the decision department determines the generation time in such a manner as to satisfy the following two conditions. (Condition 1) G[0]=B and G[N]=E (Condition 2) For answering · ; — Λ 蹩 卜 0, 1, ..., Ν·1 and integer k= jj + 2 , ···, N, G (1) first called]. B. The time of the first period of the special period The time of the end of the specific period N: Constant (natural number) j ·· 〇 to the integer of N k : integer Here, the so-called situation. G[j] precedes G[k], and the same timing as G[j] and G[k] corresponds to the division time. ϋ From the above conditions, it is not necessary to change the order of the generation time, and the order is the same as the corresponding division time. In other words, the generation time corresponding to a certain division time is determined at an earlier time than the generation time corresponding to the later division time. ' As mentioned above' G [〇卜6 was established. Therefore, based on the shape of the character at the time B, an image of the character to be displayed at the time B is generated. Further, it is called ...^^, and therefore the image of the character to be displayed at the time E is generated based on the shape of the character at the time E. In addition, for each of the integer divination, 丨, ..., n i and ◎ integer k = j + l, j + 2, .., and Ν, G[j] precedes. As a result, the action performed by the character at the beginning of the division is the first action β χ of the specific period of the model character, and the action performed by the character at the end of the stroke (four) is the last action of the specific period of the model character. At the generation time other than the division time at the beginning and the end, the order of the action of the character is similar to the order of the action of the model. That is, there is no need to change the order of the characters' actions. Thus, in addition to the beginning and the end of the scene, the character performs actions that follow the dance action earlier or later than the exemplary character. That is, except for the first and last scenes of the scene, the movement speed of the character in the generated movement is swung. Moreover, the time required for the character to follow the action of the dance action is equal to the time required for the model character to follow the action of the dance action. Therefore, at the seams of the scene, the action of the character does not become unnatural. As described above, in the animation generating apparatus of the present invention, the character does not change in accordance with the time required for the action of the dance action. However, in the generated animation, the character changes in accordance with the speed of the action in the action of the dance action. Therefore, the character "generated by the animation generating device of the present invention" can be oscillated. Further, in the dynamic generating apparatus of the present invention, the determining unit may determine the difference between the dividing time and the generation time corresponding to the division # " SJ knife timing in a random number. With such a configuration, the speed of the movement in accordance with the movement of the dance action can be randomly changed. Further, in the animation generation exhibition of the present invention, the generating unit may generate an image of a plurality of characters. In this case, the & department determines the generation time for each of the plural characters. In the case of J J, the decision department uses the random number to determine the situation at the time of generation, and the generation time is randomly determined for each character. In this case, in the generated animation, each character performs the following dance movements at different speeds (4). Because of the towel, in the generated animation, a plurality of characters dance in different swinging manners. The animation generating apparatus of the present invention can generate the movement of each of a plurality of characters, and the movement of the swing. Further, in the dynamic generation device of the present invention, the determination unit can select a specific number of division times (hereinafter referred to as "representative time") from the division time by including the division time of the first head and the division time of the end. The generation time is determined in the manner shown by (Α) to (D) below. First, (A) is determined to be equal to the division time of the first division time with respect to the division timing of the leading time. - Further, '(B) determines the generation time corresponding to the division time at the end of the representative time to be equal to the division time at the end. Further, (C) determines the difference between the division time other than the division time at the representative time and the division time at the end of the representative time, and the generation time corresponding to the division time 201043301 based on the random number. Further, (D) is a generation time at a division time between two adjacent representative moments when the representative time is 'arranged' in time, and the generation time corresponding to the division time is generated. The interval is determined by the way of equal intervals. In the animation generating apparatus of the present invention, the generation time corresponding to the representative time is determined based only on the random number. Further, the other generation time is determined by equally dividing the generation time corresponding to the two adjacent representative times at equal intervals. Therefore, the processing speed is improved as compared with the case where all generation times are determined based on the random number. Furthermore, by dividing the generation time, the speed of the displayed character does not change extremely in a short time. That is, the swing of the character action can be reduced. Further, in the moving machine generating apparatus of the present invention, the memory unit may be further provided with a reference value for storing the difference between the dividing time (four) and the generating time corresponding to the dividing time for each divided time.于此 In this case, the determination unit determines the difference between the division time and the generation time corresponding to the division time. Further, the determination unit determines the difference based on the reference value at the time of each division stored in the memory unit. According to the animation generating apparatus of the present invention, since the generation time is determined based on a predetermined reference value, the processing speed can be expected to be improved as compared with the case where the generation time is determined based on the random number. In order to achieve the above object, a game device according to another aspect of the present invention includes a receiving unit, a determining unit, and a display unit, and is configured as follows. First, the accepting unit accepts an instruction input from the player. 9 201043301 For example, the player controls the controls of the game device (the type is the various phases of the foot juice, the player = or the foot performs the operator) or the joystick. It is also possible to play 豕 (4) to simulate the input of various instruments to connect the components of D. Accepted. The various sensors detect such operations or the player's movements: and the 'determination unit inputs ❹ = :=! based on the instructions accepted by the accepting unit. For example, the game device is a rhythm player. -: In the game, the player presses the special μ::: score at a specific time. Based on the score at a specific time, the second display unit is judged to display the motion generated by the animation generating device. Thus, the display unit displays the character performing the specific dance action. In the game play where the rhythm game is executed, more than one character is displayed as a background dancer on the display portion. The plurality of characters cooperate with the rhythm of the music to perform actions in accordance with the specific dance action. In previous rhythm games, multiple characters performed the exact same dance action at exactly the same speed. Such a display sometimes gives the player an impression that the game lacks authenticity. Therefore, in the game device to which the present invention is applied, the motion speeds of the plurality of characters displayed are swung (deviation, undulation). As a result, the player can enjoy the game as if he were dancing with a real background dancer. In the present invention, the determination unit may determine the difference between the division time and the generation time corresponding to the division time based on the number of random numbers, and change the range of the random number according to the determined score of the player. 201043301

此处 Here, for example, when the range of adoption of the random number is set to be wide, the waiting value of the difference between the division time and the generation time corresponding to the division time becomes large. The characters displayed as described above are operated in accordance with the dance action. Therefore, the unevenness of the speed of the action in this action will become large. Therefore, the swing of the dancing performed by the displayed character will become larger. On the other hand, for example, when the range of use of the secret number is set to be narrow, the expected value of the difference between the division time and the generation time corresponding to the division time will become small. Therefore, the unevenness of the speed of the action in the action will be small. Therefore, the swing of the dance performed by the displayed character will become smaller. Furthermore, the range of the range of the number of random numbers corresponding to the player's score can be adjusted as appropriate. For example, in the case of a rhythm game, the better the player's performance is, the narrower the range of use of the random number is. According to the dance, the movement unevenness in the action of the action is set according to the variation of the random number. Therefore, the better the player's performance, the less the speed of the character's movement. Thus, the better the player's performance, the more the action of the displayed character follows the dance movement at an appropriate speed. According to the game apparatus of the present invention, the swing size of the dance performed by the displayed character can be changed in accordance with the score of the player. In this way, the player can perform as if he were dancing with a real background dancer. In order to achieve the above object, the animation generation method of the other aspects of the present invention, the calculation unit of the animation unit, the determination unit, and the generation unit of the generation unit, includes a shape calculation step, a determination step, and a generation step. And it is constructed as follows. In other words, in the shape calculation step, the shape calculation unit calculates the shape of the character corresponding to the time when the time period included in the special period of 201043301 is given. • In the decision step, the determination unit determines the generation time corresponding to the division time from the beginning to the end of the special period at equal intervals. Further, in the generating step, the generating unit gives the shape calculating unit a calculation time corresponding to the dividing time to the calculation unit, and generates a character to be displayed at the dividing time based on the shape of the calculated character. image.划分 The dividing time of the leading point in the J-knife moment and the generating time corresponding to the dividing time of the leading point are equal to the first moment of the specific period. Further, the division time at the end of the division time and the generation time corresponding to the division time at the end are equal to the time at the end of the specific period. Further, if the division timings are arranged in the order of passage of time, and the generation timings corresponding to the division timings are arranged in this order, the order of passage of time is obtained. C) The information recording medium of other viewpoints of the month of the month is to make the computer function as the following part: (The juice calculation department, if it is given any time contained in a specific period, the calculation corresponds to the time a shape of the angle I; a decision 邛, which determines a generation time corresponding to a division time from the beginning to the end of the specific period at equal intervals; and a generation unit that gives the shape to the generation time corresponding to the division time The calculation unit performs calculation, and generates an image of the character to be displayed at the division time based on the shape of the character to be calculated, and 12 201043301 divides the first division time of the time and the first The generation time corresponding to the eighth time is equal to the first time of the specific period: the division time at the end of the division time and the generation time corresponding to the last $8 time are equal to the end of the specific period: : If the division time is arranged in the order of time, and the generation time corresponding to the division time is given from the order According to the present invention, the computer can function as an animation generating device or a game device that operates as described above. ~ The program of the other aspect of the present invention causes the computer to be used as a part of the following Function: 77 a shape calculation unit that calculates a shape of a character corresponding to the time if it is given any of the time periods included in the specific period; 'the determination unit determines the start of the specific period at equal intervals to The dividing time at the end is respectively corresponding to the generating time; and the generating unit is configured to perform the calculation by the shape calculating unit corresponding to the dividing time, and based on the calculated angle The shape generates an image of the character to be displayed at the division time, and the division time of the first of the division times and the generation time corresponding to the division of the first time are equal to the first time of the specific period. The dividing time at the end and the generating time corresponding to the cutting moment at the end are equal to the specific period At the time of the tail, if the division time is arranged in the order of the passage of time, and the generation timings corresponding to the division timing are arranged in this order, the order of the time is 13 201043301. According to the present invention, the electricity can be made. The program of the present invention can be recorded in an information recording medium readable by a disc, a floppy disk, a hard disk, a magneto-optical disk, a digital video disk, a magnetic tape, or a semiconductor memory material. The computer that executes the program is independently released and distributed through the computer communication network. The above information recording medium can be released and sold separately from the computer. (Effect of the invention) The preferred dynamic information recording medium of the character is according to the present invention. An appropriate display 昼 generation device, a game device, a dynamic generation method, and a program can be provided. [Embodiment] Hereinafter, embodiments of the present invention will be described. In the following, in order to facilitate understanding, the present embodiment is applicable to an information processing apparatus dedicated to games, but in various information processing apparatuses such as computers, PDAs (Personal Data Assistants), and mobile phones, The same applies to the present invention. The embodiments described below are for illustrative purposes and do not limit the scope of the invention. Therefore, those skilled in the art can adopt embodiments in which each element or all elements are replaced by the same, and such embodiments are also included in the scope of the present invention. 201043301 (First Embodiment) (Description of Information Processing Apparatus) Fig. 1 is a schematic diagram showing a schematic configuration of a typical information processing apparatus for realizing the game device according to the first embodiment of the present invention. The game device of the present embodiment has a function as a power generating device. The game device displays a specific character on a monitor during a game play by the player. The information processing apparatus 1〇〇 includes (:1>1; ((:^ plus 1^11^0(; to 3111§1; 1^, 〇 central processing unit)1〇1, ROM (ReadOnlyMemory, read-only memory) Body 102, RAM (Random Access Memory) 103, interface 1〇4, mat type controller 105, external memory unit 〇6, image (image) processing unit 107, DVD-ROM (Digital VersatileDisk- ReadOnly

Memory, digital versatile CD-ROM only driver 1, NIC (NetworklnterfaceCard ’ network interface card) 〇9, audio processing unit 10, RTC (RealTimeClock 'instant clock) in, and monitor 112. First, the DVD-ROM, which stores the game program and the material, is loaded onto the DVD-ROM drive 108. Then, the power of the information processing device 1 is turned on. The program is executed by the power on. The game device of this embodiment is realized by execution of a program. The CPU 101 controls the operation of the entire information processing apparatus 1 . Further, cpuioi is connected to each component to exchange control signals or data. CPU1〇1 • Obtain various data from each component. Further, the CPU 101 processes the various data by various calculations, and gives each constituent element as a material or a control signal. In the CPU 101, various kinds of data are temporarily stored in the cache memory of the CPU 101, and the various data are acquired by the CPU 301. In the ROM 102, IpL ( Initial Pr〇gram Loader ') which is executed immediately after the power is turned on is recorded. By the execution of Ip]L, the program recorded on the DVD-ROM is read out into the river 1〇3. Further, execution of the program is started by the CPU 101 by the execution of 1PL. In the operation control of the entire information processing apparatus 100, the program of the operating system is required. In the ROM 1 02, the program of the operating system and various materials are recorded. 〇 RAM103 is used to temporarily store data or programs. In RAM1〇3, programs or materials read from the DVD-ROM and other materials required for the progress or communication of the game are maintained. In the RAM1〇3, various information transmitted and received with various devices connected to the information processing apparatus 100 are temporarily stored. The mat type controller 105 is connected via the interface 104. The mat type controller 105 accepts an operation input by the player at the time of execution of the game. In the specific area of the mat type controller 105, buttons indicating "left", "down", "up", and "right" are arranged. Each button accepts an instruction input from the player. The player can press each button 18 at any time. Furthermore, CPU1〇1 is pressed by the player for each button (four). In the present embodiment, the case where the mat type controller 1A5 is provided with four buttons will be described. However, the number of slaves is not limited to four, and may be three or less or five or more. Further, the dice type controller (8) is not limited to the shape of the floor. The dice type controller 1〇5 can also be in the shape of a so-called touch pad for hand-held operation or a shape held by a hand. The external memory 106 is detachably connected via the interface 1〇4. The external memory 1〇6t' rewritably records the progress status of the marked game 16 201043301. When the input is made by the play, for example, via the mat type controller, the same can be recorded: To the external memory i%. Ο

The DVD-ROM is installed in the DVD R〇M drive 〇8. A program for realizing the game has been recorded on the DVD-ROM. Also, in the DVD-ROM, the image data or audio material attached to the game is also recorded. The DVD-ROM mounted therein is read by the control of the CPU 101 by the 'Dvd_r〇n actuator (10). By the reading process, necessary programs or materials are read out and temporarily memorized in RAM1〇3 or the like. The image processing unit 1〇7 processes the data read from the DVD_R〇M by an image calculation processor (not shown) provided in the cnmw image processing unit 1G7. Then, the image processing unit 107 records the processed material, δ, into the frame memory (not shown) provided. The image information recorded in the frame A It is converted into a video signal at a specific synchronization timing. The converted image information is then output to the monitor 112 connected to the image processing unit. Thereby, various images can be displayed. The image operation processor can perform various operations at high speed. The calculation can also be a superposition operation of a dimensional image, a transmissive operation such as shouting, a variety of saturation operations, and the like. The polygon to be drawn is placed in the imaginary (virtual) three-dimensional space in the empire-shaped information, and various texture information is attached. The following operation can also be performed at a high speed: the polygon information is reproduced by the Z-buffer method (imaging (Cai (4) (8))' to obtain a reproduced image. Further, the reproduced image system is obtained by tilting the polygon from a specific viewpoint position. The light source may be a point light source, a parallel light source, a cone light source or the like, and the function of calculating the degree of the polygon by the (positive) light source 17 201043301 is programmed or hardened. Therefore, the image operation processor can perform the calculation at a high speed. Further, by the coordinated operation of the cpuioi and the image operation processor, the edge character string can be defined. The font information defines the shape of the character. According to the font = Baye The substring is drawn as a two-dimensional image into the frame memory or drawn onto the surface of each polygon. The font f is recorded in R Ο Μ 10 2 . However, it can also be recorded to Dedicated font information in the DVD-ROM 0 ο Ν ^ IC109' is used to connect the information processing device 100 to a computer communication network (not shown) such as the Internet. The NIC1G9 is used for Internet connection. Interface between the machine and the CPU1G1 (not shown). The Internet connection device can also be used in accordance with the 1〇Base t/1〇〇base_t specification used to form a LAN (Local Area Network). Or an analog data machine (tegrated Services Digital Network) Ο data machine, ADSL (Asymmetric Digital Subscriber Line) data machine connected to the Internet using a telephone line, A cable television modem connected to the Internet using a cable television line, etc. The 9-channel processing unit 110 converts the audio data read from the DVD-ROM into an analog audio signal, and then the audio processing unit iiq The connected speaker (not shown) outputs a sound. Further, the audio processing unit 11 生成, under the control of c, generates an effect sound or a music piece 2 to be generated during the progress of the game, for example, The BGM or the vocal music that is reproduced with the singer or the button operation of the player*, the effect sound of the reproduction, etc., is converted. 18 201043301 Further, the audio processing unit 110 corresponds to The sound of the play is output from the speaker. The RTC111' is equipped with a component for timing such as a crystal oscillator or an oscillating circuit. The RTC 111 is supplied with power from the built-in battery even when the power of the information processing device 100 is turned off. When it is turned on, the operation can be continued. The monitor 112' displays an image based on the video signal supplied from the image processing unit 107. The monitor 112 is composed of, for example, a liquid crystal display, a plasma display, a CRT, or the like. In addition, the information processing device 100 may use a large-capacity external memory device such as a hard disk to function in the same manner as the ROM 102, the RAM 103, the external memory 106, and the DVD-ROM mounted in the DVD-ROM drive 108. Features. (Description of Dynamic Generator) Next, the function of the power generating apparatus according to the embodiment of the present invention will be described with reference to the drawings. Furthermore, in the present specification, the earlier the setting time is, the smaller the value is, and the inequality sign is used. First, the configuration of the power generating device and the game device according to the embodiment of the present invention will be described with reference to Figs. 2 and 3 . Fig. 2 is a view showing a minimum configuration of the present invention. Fig. 3 is a view showing the general configuration of the present invention. As shown in Fig. 2, the animation generating device 6A' includes a shape calculating unit 201, a determining unit 202, and a generating unit 203. The shape calculation unit 201 calculates the shape of the character at each time. The character is attached to the narrative space and performs specific dance moves during a specific period. Here, the first time of the specific period is set to the time B, the time of the end of the specific period 19 201043301 is set to the time E, and the time of the specific period is set to the time t. Specifically, the shape calculation unit 201 calculates the shape when it is given. Furthermore, the time t is taken. The shape calculation unit 201 has an example in which the shape of the character corresponding to the time t (associated) is included in the specific period from the time B to the time E. The sub-unit is composed of a CPU 101 or the like. The determination unit 202 determines the generation time corresponding to each of the division times. Furthermore, the division time is divided into the beginnings of the specific period by equal intervals to

The generation time G[0], G[l], and G[N]. Here, the determination unit 2〇2 determines the generation time so as to satisfy the following two conditions.

(Condition 1) G[t)]=B and G[N]=E (Condition 2) For integers j_ = 〇, .1, . . . , n _ 1 and integers let =j+ 1, j + 2, ..., N, G[j]g G[k] is established. B: Time at the beginning of the specific period ◎ E. Time at the end of the specific period N: constant (natural number) j: integer from 0 to N k: integer The determination unit 202' determines the generation time, for example, by generating a random number. The determination unit 2〇2 ’ is constituted by, for example, the CPU 101 or the like. The generating unit 203 gives the shape calculating unit 201 the calculation timing corresponding to each of the division timings, and calculates the shape of the character. Then, the generating unit 203 generates an image of the angle & which should be displayed at the time of the division 20 201043301, based on the shape of the calculated character. In other words, the generating unit 2〇3 gives the generation time G[i] corresponding to the division time D[i] to the shape calculation unit 2〇1 for the integers 1 〇, 1, ..., Ν, respectively. And calculate. Then, the generating unit 203 generates an image of the character to be displayed at the dividing time D(1) based on the shape of the character calculated by the leaf. The generating unit 203 determines the generation time of each character when generating an image of a plurality of characters. Then, the generating unit 203' gives the shape calculating unit 201 the generation time of each character corresponding to the divided time. The shape calculation unit 2〇1 calculates the shape of each character in the division time based on the shape of the model character in the generation time J. Furthermore, 'model angle &' performs the role of dancing in accordance with the dance movement at a typical speed and with the rhythm of the music. The generating unit 2〇3 generates a round image of each character to be displayed at each division time based on the calculated shape of each character. The generating unit 203 outputs the generated image as, for example, a video signal indicating the image. The generating unit 2〇3 is constituted by, for example, the CPU 101, the image processing unit 1〇7, the RTCU 1, and the like. 〇 (Description of Game Device) Next, the function of the game device according to the embodiment of the present invention will be described with reference to the drawings. First, the configuration of the game device 200 according to the embodiment of the present invention will be described with reference to Fig. 3. - As shown in Fig. 3, the game device 200 includes a shape calculating unit 201, a finalizing unit 2, a generating unit 2〇3, a receiving unit 204, a determining unit 205, and a display unit 206. The shape calculating unit 2〇1 Since it is the same as the shape calculation unit 201 in the dynamic generation device 6A, the description thereof is omitted. 21 201043301 The determination unit 202' is the same as the determination unit 202 in the animation generating device 600. Therefore, the description thereof is omitted. Since the generating unit 203 is the same as the generating unit 203 in the animation generating device 600, the description thereof will be omitted. The accepting unit 204 accepts an instruction input (operation input) from the player. The receiving unit 204' is constituted by, for example, a CPU 101, an interface 1, and a die controller 105. The determination unit 205' determines the score of the game based on the instruction input accepted by the accepting unit 204. The determination unit 205 is constituted by, for example, the CPU 101. The display unit 206 displays an image generated by the generating unit 2〇3. Specifically, the display unit 206 displays the image to be represented by the video signal supplied from the generating unit 2〇3. The display unit 2〇6 is constituted by, for example, a monitor 112. Here, an example of the operation of the game device 200 will be briefly described. First, the generation unit 203' causes the determination unit 2〇2 to determine the generation time corresponding to the division time before reaching the division time. The determining unit determines the generation time corresponding to the division time in accordance with the score of the player determined by the judgment 4 2G5, and the generation unit 203 supplies the signal indicating the determined generation time to the shape calculation. unit. Then, the shape calculation unit 2〇j, ten counts a pound for, and. The shape of the character corresponding to the generation time. Here, the generation unit 203' generates the image 1 of the character to be displayed at the division time based on the shape of the character calculated by the shape calculation unit 2〇1, and the generation unit 203, when the division time is reached, The image of the generated character is supplied to the display unit 2〇6 to display the image supplied by the display unit. 22 201043301 Next, the display screen of the game device 200 of the present embodiment will be described with reference to Fig. 4 . In addition, the game device 2 is described as being applied to a game device that executes a dance game. 'The game device 2〇〇 displays various information required for the dance game. For example, the game device 200' displays a list of music pieces or the like before the start of the game to urge the player to select the desired piece of music. After the player selects the music, the game begins. When the game starts, the game device 200 displays, for example, the game screen shown in Fig. 4. On the game screen, the stationary marks 301L, 301D, 301U, and 301R are fixed images for indicating the timing of the pedaling operation to the player. Hereinafter, the stationary marks 3〇1L, 3〇1D, 301U, and 3〇111 are collectively referred to as a stationary mark 301 as needed. On the other hand, the targets 302L, 3〇2D, 3〇2U, and 3〇2r are used to indicate to the player an image of the stepping motion of the task. Hereinafter, the targets 302L '302D, 302U '302R are collectively referred to as the target 302 as needed. The target 3〇2 is matched with the music being played, for example, scrolling from the lower side of the screen to the display, and the display 302 will reach the stationary mark 3〇1. That is, the target 3〇2 will coincide with the same image of the stationary target 301. If the player performs the required pedaling action at this time, the score can be obtained. Here, in the present embodiment, as a material for realizing such processing, task data, a music data string, and an audio data string are prepared in advance. The -before, for example, is pre-stored in the DVD to be mounted in the Dvd-R〇m drive 108. Again, such information is read to rami〇3 as needed. For the task data, refer to Figure 5 for a detailed description. Figure 5 is a schematic diagram of the shape of the task data in the task data area of the RAM 103. The mission data 400' is equivalent to the music score in the music field. In the present embodiment, the 'task data 400' includes a table 401 composed of a plurality of records 4〇2, a threshold time 411 (the value is d), and an end gate 421 (the value is set to E) Information. Among the records 4〇2, there are a recording task time 403 (the value is T), an operation input type 4〇4, and a target state 405. Each record 402 is equivalent to a note. The mission time is 4〇3, which is the time from the start of the game until the target 302 reaches the stationary mark 301. That is, the task time 403 is the elapsed time from the start of the game until the time when the player should input the operation for the target 3〇2. That is, the mission time 4〇3' is the elapsed time from the start of the game until the moment the player should step on the button. The mission profile 400 includes a task time 403 corresponding to the number of targets 3〇2. The type of operation input 4〇4 is the data corresponding to the task time 4 (10). That is, the type 4G4 of the operation input means that the player should step on the cushion type controller 1〇5 when the task time corresponding to the operation type 4〇4 is 4〇3 自 from the start of the game. New Zealand's information. The state of the target is determined by the value of the target 3〇2. The status of the target 3〇2: for example, “〇” is used to indicate “unprocessed”, and it is expressed by “...” to indicate “force”. The threshold time 4" is the value used to determine the success of the operation input. That is, it indicates the time from the start of the game until the allowable value of the difference between the elapsed time of the player stepping on the button and the task time of 4〇3. The difference between the time (4) and the time of the task is that it is within 411 of the threshold time. End time (3) is the time from the start of the game until the end of the game. 24 201043301 Task time 403, threshold time 411, end time 42ι, etc., can also be expressed by numerical values in units such as ms. Also, the times may be represented by a value in units of a period of vertical update insertion (vertical sync interrupt) (typically 1/60 second). The music data string is a data string of the music that is reproduced as a deletion. The audio data string represents the data string of the output audio. The audio is output when the player presses the pad type control to press the button. Display 3 characters as a background dancer 〇 〇 and 'on the game screen, that is, display the first! The character 303, the second character 3〇4, and the third character 3〇5. The horns and the dance movements correspond to the dance. Furthermore, the dance action is pre-defined for each scene of the music in accordance with the rhythm of the music. Here, for the dance of each character, the better the player's score is, the closer they are to each other. Hereinafter, the dancing performed by the character will be described with reference to Figs. 6 to 8. First, a method for determining a generation time corresponding to a division time will be described with reference to Fig. 6. Further, the division time is divided into the respective periods of the specific period at equal intervals, and the time system is generated and the time determined in correspondence with the division time is determined. The generation time is generated for each character. Then, the specific period is, for example, equivalent to the period of the scene. In the following description, N is set to an arbitrary natural number. Set the division time to D[0], D[l], ..., D[N]. The generation time determined for the i-th character 3〇3 is set to Gl[0], G1(1), ..., G1[N]. The generation time determined for the second character _ is set to (1), ..., G2[n]. The generation time determined by the third character 305 is set to 〇3[〇], G3|n, LJ, . . . , G3[N] 〇25 201043301 ==1 is set to ΤΡ, and the first time of the specific period is set. When Β is set, the time of the time gate = is set to Ε. The interval between Js in the time series adjacent to the time series (hereinafter, referred to as "the division time can be dragged into a squadron + 祛") 5 Ding 5. 』Time-sharing - The period of vertical sync insertion (typically 1/6 〇). In the example tenth division time shown in Fig. 6, the period d[0] = b, d(1), and the division time are divided into six time intervals at regular intervals. In Figure 6, it shows that the specific period is divided into 6 periods.

For the example m, the specific _ will be divided into more periods. For example, when the time is divided into 5 seconds for a specific period of 5 seconds, the specific period is divided into 300 sections. Also, in this case, the number of division times is 3 〇 1. Here, the generation time corresponding to each division time is determined by determining the generation time corresponding to each of the strokes in accordance with the score of the player. However, the restrictions (Α) to (C) shown below must be met. (Α) The first division time in the division time and the generation time corresponding to the division time of the first time are equal to the first time of the specific period 0 Β) the division time at the end of the stroke time and The generation time at the end of the division time is equal to the time at the end of the specific period. (C) When the division timings are arranged in the order of passage of time, and the generation timings corresponding to the division timings are arranged in this order, the order of passage of time is obtained. 26 201043301 In the example shown in Figure 6, to satisfy the limit of (A), let D[〇] = G1[0]=G2[0]=G3[0]=B. Further, in order to satisfy the limitation of (B), it is assumed that D[6] = G1 [6] = G2[6] = G3 [6] = E » Further, in order to satisfy the limitation of (c), the following relationship holds. G1[0]^G1[1]^G1[2]^G1[3]^G1[4]^G1[5]SG1[6] G2[0]^ G2[l]^ G2[2]^ G2[ 3]^ G2[4]^ G2[5]^ G2[6] G3[0]^ G3[l]^ G3[2]^ G3[3]^ G3[4]^ G3[5]^ 〇3[ 6] The generation time is determined for each character. First, the generation timing determined for the i-th role 303, that is, G1[0], Gl[l], ..., G1[6] will be described. In the present embodiment, the number of random numbers is used, and G1[0], Gl[l], ..., Gl[6]» are determined in order from the earlier time. First, G1[0]=:D[0] is determined. . Then, Gl[l]~Gl[5] is determined using the random number. Specifically, first, the range of generation of random numbers is determined according to the score of the player. Here, if the generated random number is R and the erratic amplitude of the random number is Rmax (where Rmax 〇 is a positive number), the random number generation range is -RmaXgRSRmax. Here, the better the score of the player, the smaller the yaw amplitude of the random number is set. Further, the random number is processed as a value in units of time (for example, milliseconds). Also, determine the candidate for the generation time. The candidate for the determined generation time is the time after the time indicated by the random number is passed from the division time. When the candidate of the determined generation time does not satisfy the limitation of the above (c), the random number is acquired again. Further, in this case, the candidate for the generation time is again determined. The acquisition of the random number and the re-determination of the candidate for the generation time are repeated until the candidate for the determined generation time satisfies the above-mentioned (c) limit 27 201043301. On the other hand, when the candidate of the determined generation time satisfies the limitation of the above (c), the candidate of the generation time is set as the generation time. For example, 'for Gl[l] 'first' is obtained in the range of -RmaxSRigRmax. Then, D[1]+R1 is determined as a candidate for Gl[l]. Here, when the situation of any of D[1]+R12D[0], D[1]+R1^d[6] is not satisfied, R1 is acquired again and D[1] + R1 is determined again. Further, the process of acquiring R1 and determining D[l] + R1 is repeated until both of D[1] + R12D[0] and D[1]+R1$D[6] are satisfied. On the other hand, when D[l]+RlgD[0], d[1]+R1$D[6] are satisfied, D[l]+R1 is determined as Gl[l]. Once Gl[1] is determined, G丨[2] is determined by the same method. That is, first, R2 is obtained within the range of -Rmax g R2 g Rmax. Then, D[2]+R2 is determined as a candidate for G1[2]. Here, in the case where one of d[2] + R2=D[l], D[2] + R2 $ d[6] is not satisfied, ◎ R2 is acquired again and D[2]+R2 is determined again. . Further, the acquisition and the process of determining D[2] + R2 are repeated until the two of D[2] + R22D[1] and D[2]+R2SD[6] are satisfied. On the other hand, d[2]+r2& is defined as 2] when D[2]+R2 2 D[l], D[2] + R2SD[6] are satisfied. The same way 'determines G1[3]~Gl[5]. Moreover, gi[6] -D[6] is determined. For the second character 3G4 and the third character 3 () 5, the generation time is also determined in the same manner. The generation time determined by this side is usually different from the corresponding division time. Further, the generation time is a time different for each character. 28 201043301 Then, referring to Figure 7, we will explain what kind of dancing each character performs. In Fig. 7, it is shown how each character is displayed at each division time, that is, in 〇[〇]= B, D[1 ]'·.., d[6]. Furthermore, in Fig. 7, it is also shown how the exemplary character 500 is displayed at each division time. The Model Character 500 performs the role of dancing in accordance with the rhythm of the music at an exemplary speed. Each character, when the division time and the generation time corresponding to the division time coincide with each other, are danced at the same typical speed as the model character 5〇〇. In the example shown in Fig. 7, the exemplary character is 5〇〇, and the following dance is performed during a specific period. The model character 500 stands up at D[0]. The model character 5 〇〇 D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D D The hand on the right side (actually the left hand of the character). The model character 5 (8) lifts the foot on the left side of the face when facing D[3] (actually the right foot of the character). The model character 500 is D[4] puts the hand on the left side of the screen (actually the right hand of the character) when facing the player. The model character is placed on the right side of the screen when facing the player (actually the character) The left hand.) The model character 5 is located on the left side of the screen when the player is facing the player (actually the right foot of the character). As mentioned above, for the first character 3〇3 Qiaoba W determines The generation time corresponds to the division time. The generation time is 俜祜冰^町』 You are determined to be a time different from the division time. The method of determining the generation time is arbitrarily arbitrary. For example, it can be based on chaos The number of random numbers generated by the number generator determines the timing of the generation. The body determines the generation time by the difference between the time of the division 29 201043301 and the generation time corresponding to the division time, and the time is represented by the random number. Here, when the random number is 〇 The random number is generated again so that the random number is a value other than 0. Thereby, the generation time corresponding to the division time is determined to be a time different from the division time. Therefore, the first character 303 performs the following dance, that is, At the timing different from the model character 500, each action is performed. Specifically, the j-th character 3〇3 is at an earlier timing than the model character 500 or later, and each dance is performed, and the first character 3〇 3 is to dance at the same time as the end of the specific period and at the end of the specific period. Similarly, the second character 304 and the third character 3〇5 are also in the exemplary role. At the different timings of 5 00, each dance is performed. In addition, the time is generated and determined for each character. Each corner & each dances at a different timing than the other characters. Therefore, the display is displayed on the screen. Corner Each dance is performed at different timings. In addition, the better the player's score is, the better the player's score is, and the time is shifted (4) to divide the moment. Therefore, the player's score is higher. Well, the deviation of the timing of each of the three characters is smaller. Dance here's with reference to Figure 8, which shows what kind of example each character performs at each division time—such as 'the first character 303, when it is just, perform and model The action performed when the character $Gl[〇]=D[()] is the same. And, 303, at DH], performs the same action as the model role. Again,......... The 动 动 , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , , In addition, when the coin color is 3 〇 3, 妒^· -叩], the same action as that performed when the model character 5 (10) is called 2] is performed. Furthermore, the 2] system is determined in correspondence with D[2]. Here, it is called 2]>叩], so at the time of 叩], the i-th character plus also performs the action ahead of the model character 500. Further, for example, when the second character 304 is at _, the same operation as that performed when the model character 〇 500 is at G2 [0 Bu D [〇] is performed. Further, when the second character 304' is at D[1], the same operation as that performed when the model character 5〇 (^g2(1) is performed. Further, G2(1) is determined in association with 叩]. G2(1)>D[1], therefore, the second character 304 performs a more advanced action than the exemplary character 500 at the time point of the 叩], and the second character 304' is performed in the D[2] with the exemplary role. The action performed at the same time is the same. Further, G2[2] is determined corresponding to D[2]. Here, since G2[2]<D[2], it is at D[2] At the time point, the second character 3〇4 〇 performs an action later than the model character 500. As described above, each character performs an action different from the model character and the other character at each division time. Then, the game of the present embodiment The operation of the device 2 will be described with reference to Fig. 9 and Fig. 10. Fig. 9 is a flowchart showing the character display control process executed by the game device 200 of the embodiment. A flowchart of the generation time determination process executed by the game device 200 of the present embodiment. 31 201043301 The initial value of the service data 400 is stored in the DVD-ROM to be installed in the DVD-ROM drive 108. When the game starts, the CPU 101 reads the task material 400 from the DVD-ROM to the specific task data of the RAM 103. The area is initialized (step S1〇1), and cpul〇1, the generation time corresponding to the division time in the first scene after the start of the game is determined as the division time. Then the CPU 101 issues to the audio processing unit 110. Instructing the audio processing unit to start regeneration corresponding to the task material 400 according to the indication

BGM (background music) (Step S102 V BGM audio data string, pCM (Pulse Code Modulation) format, Mp3 (MPEGLayed, standard compression encoding third level) format, 〇 ggV〇rbis format, MIDI The (Music Instrument Digital Interface) format is recorded, and the CPU 101 confirms the presence or absence of the operation input (step sl3). Specifically, the CPU 101 investigates the buttons of the mat type controller 105. The operation of the 〇 operation is pressed. Further, the audio processing unit 发出0 can be instructed when there is a button to start the pressing operation. In this case, the audio processing unit m reproduces the audio data. The audio player who expresses the button is pressed. As the audio data string, various audio data as described above can be used. However, in order to achieve high speed processing, it is desirable to use the audio data string. Read in advance to the shakuhachi 1^1〇3. Also, as the storage format of the audio data strings, the form of the data format such as the _work format can be utilized. The operation input is determined (step si〇4). The CPU 101 determines the task based on the task time 403, the type of operation input 4〇4, and the threshold time 411. The CPU 101 determines whether there is success. In addition, cpuioi also determines whether there is a failed operation round. That is, 'CPU101' determines whether the specified time (the time at which the vertical synchronization is inserted) should be pressed. The CPU 1 01 'confirmes whether or not the button that should not be pressed at the time of division is pressed. The CPU 101 adds a score when there is a successful operation input. ^ And 'The CPU 101 acquires the shape of the character (step S1). Specifically, the CPU 101 calculates the shape of the character in the corresponding division time based on the generation time. The generation time is determined in step 8108. In the initial scene after the game starts, the generation time is in the step. The generation time (division time) determined in 3101. Furthermore, the dance action is predetermined for each scene. Therefore, once determined and in the scene When the generation time corresponds to the generation time, the shape of the character at the division time is also determined. The CPU 101 obtains the shape of the character displayed at the division time for each character. Then the CPU 101 displays the character (step S106). In other words, the CPU 1〇1 controls the image processing unit 107 to generate a video signal of each character in the shape of the character acquired in the step S1, and the CPU 101 supplies the generated video signal to the CPU 101. To the monitor 112. Further, the 'CPU 101' discriminates whether or not the current division time is the last division time included in the current scene. That is, the CPU 101 discriminates whether or not the current state has been completed (step S107). When the CPU 101 determines that the current scene has not been completed (NO in step S107), the CPU 101 shifts to the processing until the next division 33 201043301 (step Si〇9h, on the other hand, cpm 〇 1, if the scene of the target is determined When the process is completed (step s7: YES), the process proceeds to the generation time-determination process (step S108). • The generation time determination process will be described in detail with reference to the flowchart shown in Fig. 10. First, 'CPU101, The score of the player in the current scene is obtained (step S201). As described above, in the step "(10), the determination of the operation input β 〇 is typically obtained by acquiring the score based on the result of the determination, In the current scene, the score is added. Then, the CPU 101 sets the generation range of the random number in accordance with the score of the player obtained in step S201 (step S202). Here, the generation range of the random number is set to The player's score is as narrow as possible. Then, the CPU 101 selects j characters from the three roles of the first character 303, the stupid 2 character 3〇4, and the third character 305 (step S2〇3). Then 'CPU1 01 selects one division time (step S2〇4). For example, the O CPU 101 sequentially selects the division time from an earlier time. Further, the CPU 101 determines whether the division time selected in step S204 is the head of the scene or At the end of the division time (step S205), the CPU 101 determines the division time of the beginning or the end of the scene at the division time (step S205: Yes), and determines the division time as the generation corresponding to the division time. Time (step S2〇6). When the CPU 101' determines that the division time selected in step S2〇4 is not the first or the last division time of the scene (step S205: NO), in step S2 The random number is generated in the range set in 〇2, and the random number is acquired 34 (step S207). Further, if the acquisition of the random number (step S2〇7) is ended, the CPU 1〇1 is determined to be in step S204. The candidate generation time is selected as the candidate for the generation time (step S208). Specifically, the CPU 101 determines the time after the time indicated by the random number acquired in step S207 from the division time. In the case where the random number is a negative value, the candidate of the generation time is earlier than the division time. 0 As described above, in step S208, the candidate for the generation time is determined. The CPU 101 'determines the generation. Whether or not the candidate is satisfied with the time limit (step S209). When the CPU 101 determines that the candidate for the generation time satisfies the restriction condition (step S209: YES), the CPU 101 determines the candidate of the generation time as the generation time (step S210). On the other hand, if cpui 〇 1 determines that the candidate for the generation time does not satisfy the restriction condition (step S2 〇 9: NO), the process returns to the process of acquiring the random number (step S207). - As described above, in step S206, the CPU 101 performs a process of determining the division time as the generation time. Further, in step 821, cpui〇i performs a process of determining the candidate for the generation time as the generation time. The CPU 101 right-ends the processing of the step S2〇6 or the processing of the step, and determines whether or not all the division times have been selected (step S211). When it is determined that the arbitrary-partition time is not selected (step S211: NO), the CPU 1W returns the process to the process of selecting the split time (step S204). On the other hand, if it is determined in U101 that all the division times have been selected (step YES: YES), it is judged whether or not all the characters have been selected (step S212). If it is determined that the role-role is not selected (step S212: NO), the process returns to 35 201043301 to select the role (step S203). On the other hand, if it is determined that all the characters have been selected (YES in step S212), the CPU 101 ends the generation time determination processing. When it is determined that the scene has not ended (step sl7: No) or the generation time determination processing (step si08) is completed, the CPU 101' waits until the next vertical synchronization, that is, the next vertical synchronization (step S109). During this standby period, the CPU 101 can also perform other processing. Further, Cpui 〇 1 discriminates whether or not it is the game end time (step S110). Whether or not the game is over can be determined by whether or not the elapsed time since the start of the game exceeds the game time included in the mission material 400. CPUHH, if it is the game end time (step siio: YES), ends the character display control process. On the other hand, if cpui〇i is determined not to be the game end time (step SUG: NO), the process returns to the process of confirming the presence or absence of the operation input (step si〇3). According to the game device 2 (10) of the present embodiment, the operation speed in the operation can be changed for each (four) color without changing the total time for executing the material in accordance with the dance operation. Therefore, each character will respond to the end of the scene, fast-forward regeneration at a certain time in the scene, and Wang is slow in other moments in the % scene. However, the character will be in the end of the scene. The structure of the ^^ is displayed in the scene. Furthermore, the timing of fast forward regeneration or slow regeneration is different for each character. Because of the unpredictable movements, each fish performs the action of following the dance movement at its own reproduction speed. And the better the score, the less the deviation of w nr, +. ± 1 Fu < In this way, the method is displayed, that is, the player's practice is stepped on, and the W score is better, that is, the player is more mature and stepping on the dance step, and the more consistent the background color is, the more consistent the color is. Each action. Further, it is displayed in such a manner that the worse the player's score is, that is, the more the player is stepping on the dance step, the more the role of the background dancer is to perform the movement in accordance with the dance action. (Second Embodiment) In the i-th embodiment, 'there is an example in which a random number is generated each time in order to determine i generation times. However, according to the present invention, it is also possible to select a division time (hereinafter referred to as "representative time" as a representative from all the time sheets, and to generate a random number only at the generation time corresponding to the representative time. Further, the production time corresponding to the division time other than the representative time is determined by supplementing the generation time corresponding to the representative time. The game device 200 of the second embodiment will be described below. However, the configuration of the game device 2A of the second embodiment is the same as the configuration of the game device 200 of the embodiment, and thus the description thereof is omitted. First, let's refer to Figure 11, and explain how to determine the time of generation. Hereinafter, a method of determining the generation time for the first character 303 will be described. Among them, for other characters, the same method is used to determine the generation time. In the example shown in Figure U, the division time is D[〇] = b, then, ·,., _]=Ε. (4) The specific period is divided into 31 moments of 30 periods. Here, for the first character 303, the generation time corresponding to each of D[l], ..., D[30] is set to G1[1J, ..., Gl[30]. Here, a plurality of representative times are selected from all the division times t. Furthermore, 37 201043301 The interval between the representative moments adjacent in the time series is set to be equal intervals. In the example shown in Fig. 11, the time is divided into the formulas including the first and last divisions, and the timing is selected every nine from all the division times. That is, the four division times of the selected D[〇], D[10], D[20], and D[30] are representative moments. First, the generation time corresponding to the selected representative moments D[〇], d[i〇], d[20], and D[3 0] is determined. That is, 〇 1 [〇], 〇 j [ ^ 〇], 0 Gl [20], Gl [3 0]. Specifically, first, decide G1[〇]= D[〇]. Then, use random numbers to determine G1 [10] and G1 [20]. Specifically, first, the range of the random number is determined according to the player's score. Here, the better the player's performance is, the narrower the yaw amplitude is. In the present embodiment, when the yaw amplitude of the random number is set, the generation time determined by the random number is required to satisfy the restriction condition. That is, even if the player's performance is the worst, the degree of falsity of the random number is determined by way of the i/6 or less of the specific period. Further, the time after the representative time passes the time indicated by the random number , is determined as the generation time. For example, for G1 [10], when R3 is obtained within the range of -RmaxS R3 s Rmax , D[10]+ R3 is determined as Gl[10]. Similarly, for Gl[20], when R4 is obtained within the range of -RmaxS R4S Rmax, D[20]+R4 is determined to be Gl[20] » ' and, and the decision time other than the representative time is determined. Corresponding generation time. The generation time corresponding to the division time other than the representative time is determined to divide the time between the generation times corresponding to the representative time at equal intervals. Specifically, when the time of G1[0] to Gl[10] is equally divided into 10, 38 201043301 is set to G1[l] to Gl[9], respectively. Similarly, the time at which the time from Gl[l〇] to Gl[20] is equally divided into 10 is set to G1 [11] to • Gl [19]. Similarly, the time at which the time from Gl[2〇] to Gl[30] is equally divided into 1 is set to G1[21] to G1[29]. Next, the operation of the game device 2000 of the present embodiment will be described. Further, the character display control process 'executed by the game device 200 of the present embodiment is the same as the first embodiment except for the generation time determination process'. In the following, the generation time determination processing executed by the game device 2A of the present embodiment will be described with reference to Fig. 2 . First, the CPU 101 finds the score of the player in the current scene (step S301). Then, the CPU 101 sets the generation range of the random number in accordance with the score of the player obtained in step S301 (step 83〇2). Then, 〇卩11101, one of the three characters of the first character 303, the second character 304, and the third character 305 is selected (step S303). Then, the CPU 101 selects the representative time of one division time (step S304). In the present embodiment, the CPU 101 sequentially selects the representative time from an earlier time. Further, the CPU 101 determines whether or not the representative time selected in the step S3 04 is the first or last division time of the scene (step S305). When the representative time selected in the determination step S3〇4 is the division time of the beginning or the end of the scene (step S3〇5: YES), the representative time is determined as the division time with the representative time. The time corresponding to the time of generation (step S306). On the other hand, when cpuioi 'the representative of 39 201043301 selected in the discriminating step 83〇4 is not the first or the last divided time of the scene (step S3 05 : No) 'In the range set in step S3 02, a random number is generated and a random number is acquired (step S3 07). • As described above, in step S3〇4, the divided time as the representative time is selected. Further, in step S307, the random number is acquired. Further, if the acquisition of the random number (step S307) is completed, the CPU 1 determines the generation time corresponding to the division time (step S308). Specifically, the CPU 1 〇1, the time after the time indicated by the random number is changed from 0 to the time of division, and is determined as the generation time corresponding to the division time. The CPU 101 determines the representative time as the generation time (step S306). When the processing for determining the generation time (step S3〇8) is completed, it is determined whether or not all the representative times have been selected (step S3〇9). CPui〇i, if it is determined that any representative time has not been selected (step S3〇9: Otherwise, the process returns to the process of selecting the division time (step S3〇4). On the other hand, if the CPU 101' determines that all the representative times have been selected (step s3: YES), then the decision is made between the decision time and the representative time. Specifically, the CPU 101' is equally spaced between the generation times corresponding to the two representative times adjacent to each other when the representative time is arranged in time series. In other words, the CP (10) finds that the generation time is equally divided into (the number of division times that exist between the two adjacent representative times + 1). Further, the CPU 1G1 divides the time. At the time of the interval, it is determined as the generation time corresponding to the division time existing between the two representative moments of the adjacent. cpui〇1, if it is determined to be the division time of the generation 201043301 The processing of the generation time (step (4) ι〇), and the mouth bundle determines whether all the characters have been selected (step S3u) 〇cpu(8), and if it is determined that the role-character (step (four) u••No) is not selected, the processing is returned. To the process of selecting a character (step (4) 3). In the other aspect (10) ,, if it is determined that all the characters have been selected (step training is YES), the generation time determination process is ended. 游戏 The game device 2 according to the present embodiment The generation time is determined only by the random number for the representative time... The generation time is determined in such a manner that the division time three other than the representative time is added between the generation time corresponding to the representative time. Thereby, the dancing of the displayed character becomes smooth. According to the composition of the Hai, even if the range of the random number is increased to a certain extent, the restriction condition can be satisfied. Further, it is judged whether or not the restriction condition is satisfied, and it is no longer necessary to process the random number again. Therefore, the processing time can be expected to be shortened. (Third Embodiment) In the first and second embodiments, the generation time is determined using a random number. However, it is also possible to prepare a type in which the "partition time" and the "offset amount of the generation time corresponding to the division time from the division time" are associated with each other, and the table can be used to determine the generation time. Hereinafter, the animation generating device 6 of the third embodiment will be described with reference to Fig. 13 . (Description of the animation generating device) The reference value of the difference between the memory division time and the generation time corresponding to the SJ knife timing, that is, the offset amount, for each division time. . The hidden portion 610' is realized by the external memory 106 or a DVD-ROM or the like mounted in the DVD-ROM drive 201043301. The shape calculation unit 201 is the same as the shape calculation unit 2〇1 in the configuration of Fig. 2, and thus the description thereof is omitted. The decision unit 202' determines the difference between the division time and the generation time corresponding to the division time. The determination unit 202 determines the difference based on the offset amount ' at each of the division times stored in the storage unit 610. Specifically, based on the product of the offset S[i] corresponding to the division time D[i] and the offset gain 0 corresponding to the player's score, the G[i] = D[i] is satisfied. The way of the relationship of S[i]xg determines the generation time G[i]. Since the generating unit 203 is the same as the generating unit 203 in the configuration of Fig. 2, the description thereof is omitted. (Description of the game device) The configuration of the game device 2A according to the third embodiment is the same as the configuration of the game device 2A of the second embodiment and the second embodiment, and thus the description thereof is omitted. Next, the operation of the game device 200 of the present embodiment will be described. In addition to the generation time determination process, the character display control process executed by the game device 2 of the present embodiment is the same as the first and second embodiments, and 'references' the i i 4th, and determines the generation time. Details of the method. ^ & order instructions. The following describes the method for determining the generation time for the first character 303. Among them, for other characters, the same method M & also generates the moment. In the example shown in Fig. 14, the division time system D[〇] DU], ..., D[8]: = E ' is a time period in which the specific period is divided into eight periods. Here, the slanting flute 1 & for the first character 3 〇 3, will be compared with D[0], D[l], ..., D [8] with respect to the deer $ Α heart generation time, set to G1[0] , Gl[l], ..., Gl[8]» 42 201043301 Here, in the table, "the division time" corresponds to "the offset amount of the generation time from the division time". The table is pre-exposed to the external memory 1() 6 or to the VD-R〇M or the like in the dvd_r〇m driver (10). Based on the table, the generation time is determined. Further, the offset is a time amount in which the difference between the time and the generation time corresponding to the division time is not divided. In the table, the offset corresponding to the first division time and the offset corresponding to the last division time are all G. Further, it is preferable to make the division time correspond to the offset amount in such a manner that the offset amount gradually changes in accordance with the change in the division time. The table may be stored such that the offset value of the variable is a specific function value and the discrete value of the variable is associated with the discrete value of the function value. Referring to Fig. 14, an example will be described in which a shift amount is associated with a division time based on a method in which an offset amount corresponding to a division time is a sine function value having the division timing as a variable. , to determine the example of the generation moment. In the example shown in Fig. 14, the offset of 2Gl[〇] corresponding to D[〇] and the offset of 01[8] corresponding to D[8] are 〇. Here, Smax is set to the amplitude of the sine function. Furthermore, the offset of 〇1[2] corresponding to D[2] is the maximum (Smax)' and the offset of iG1[6] corresponding to D[6] is the minimum (-Smax). Here, the gain of the offset is determined according to the player's score. Specifically, the better the & 'the player's score is' then the gain is set to the smaller value. Further, the time from the division time to the value obtained by multiplying the offset corresponding to the division time by the gain (the time after the offset) is determined as the generation time 43 201043301 Further, the offset and the gain , is set to meet the above restrictions. The gain can also be shared by each character', but ideally, ', ten pairs of parent roles are prepared separately. Each character performs a dance action. Thereby, the better the score of the player is, the smaller the deviation of the timing at which each character performs the respective actions is displayed. Again, with the player’s score

The worse the difference in the timing at which each character performs the respective actions is displayed. Next, the operation of the game device 200 of the present embodiment will be described. Further, the character display control unit executed by the game device 2A of the present embodiment is the same as the second embodiment and the second embodiment except for the generation time determination processing. Therefore, the generation time determination processing executed by the game device 200 of the present embodiment will be described below with reference to Fig. 5 . First, the CPU 101 obtains the score of the player in the current scene (step S401). Then, CPm 〇 1 determines the gain of the offset in accordance with the score ' of the player obtained in step 84 〇 1 (step S402). Then, the CPU 1〇1 selects one of the three roles of the first character 303, the second character 304, and the third character 305 (step S403). Then, the CpU1 reads the table corresponding to the character from the external memory 106 (step S404). Furthermore, in the table, the division time is memorized in correspondence with the offset. Then, 'cpu 1 ο 1 selects one division time (step S4〇5). For example, CPU 1 〇 1 sequentially selects the division time from an earlier time. As described above, in step S402, the gain is determined. Also, the table is read in step §4 〇4 44 201043301. Further, in step S4〇5, the division time is selected. Υιοί determines the generation time (step, and) corresponding to the division time. The CPU 101, from the division time, passes the gain, and the offset corresponding to the division time in the table. The time after the product is determined as the generation time corresponding to the division time. U101 'The process of right-determining the generation time (step 〇6) ends, and J疋 has selected all the division times (step S407). , Ο 4] In order to not select any of the division times (step S407: NO), the process returns to the process of selecting the division time (step S405). On the other hand, if it is determined that all the division times have been selected (step S4〇) 7 : Yes), do not select all the roles (step S4 〇 8). If the disci 〇i, if it is determined that the ren-role has not been selected (step just: no), the process returns to the process of selecting the role (step S4G3) On the other hand, if the cp deletion is determined to have selected all the characters (step s: yes), the generation time determination process is ended. 四 (4) The game device of the embodiment can be generated without generating random numbers. , The generation time corresponding to the knives time is determined as the generation time of each character. Thus, the improvement of the processing degree can be expected. (Modification) The present invention is not limited to the above-described third embodiment, and various changes can be implemented. In the first embodiment, in each scene, the degree of deviation of the dance performed by each character is generated according to the player's score of the previous scene. 45 201043301 The change n also enables each character to perform in each scene. The degree of deviation of the dance changes according to the player's performance in any period after the start of the game. In the first to third embodiments, the variation of the dance performed by each character is changed according to the score of the player. The dance performed by each character may be changed irrespective of the score of the player. In the third embodiment, in the table, the division between the "divided time" and the "generation time corresponding to the divided time" is divided. The ◎ offset in the time axis of the time corresponds to. Further, the watch is previously stored in the external memory 106. Also, use this table to determine the generation time. However, the table can also be pre-stored in the program. Further, it is also possible to determine the generation time by using a specific function of obtaining the offset amount by using the division time as a variable without using the table. In this case, a function is used, and the generation time corresponding to the first division time is determined as the division time of the first division, and the generation timing corresponding to the last division timing is determined as the division timing of the end. . Further, this application claims priority based on Japanese Patent Application No. 2009-022527, the entire contents of which are incorporated herein by reference. (Industrial Applicability) As described above, according to the present invention, it is possible to provide a preferred motion generating device, a game device, a dynamic generating method, an information recording medium, and a program which can appropriately display a character. 46 201043301 [Brief Description of the Drawings] Fig. 1 is a schematic diagram showing a schematic configuration of an information processing device which realizes a typical game device according to the first to third embodiments. Fig. 2 is a block diagram showing the configuration of the power generating device of the first embodiment. Fig. 3 is a block diagram showing the configuration of the game device of the third to third embodiments. 0 Fig. 4 is a view for explaining the display of the game device of the first to third embodiments. Fig. 5 is an explanatory view showing a case of storing data in the ram. Fig. 6 is a view for explaining the generation timing determined by the game device of the first embodiment. Figure 7 is a first diagram for explaining the actions of each character. Figure 8 is a second diagram for explaining the actions of each character. Fig. 9 is a flowchart showing the angular color display control processing executed by the game device of the third to third embodiments. The first diagram is a flowchart showing the generation time determination processing executed by the game device of the first embodiment. Fig. 11 is a view for explaining a generation time determined by the game device of the second embodiment. Fig. 12 is a flowchart showing the generation time determination processing executed by the game device of the second embodiment. Fig. 13 is a block diagram showing the configuration of the animation generating apparatus of the third embodiment 47 201043301. Fig. 14 is a view for explaining a generation time determined by the game device of the third embodiment. Fig. 15 is a flowchart showing the generation time determination processing executed by the game device of the third embodiment.

[Description of main component symbols] 100 Information processing device 301L, 301D, 301U, 301R Stationary mark 101 CPU 302L, 302D, 302U, 302R Target 102 ROM 303 First character 103 RAM 304 Second role 104 Interface 305 3rd character 105 Mat type Controller 400 Task data 106 External memory 401 Table 107 Image processing unit 402 Record 108 DVD-ROM drive 403 Task time 109 NIC 404 Type of operation input 110 Audio processing unit 405 Target status 111 RTC 411 Time limit 112 Monitor 421 End time 200 Game device 500 Exemplary character 201 Shape calculation unit 600 Animation generation device 202 Determination unit 610 Memory unit 203 Generation unit S101-S110 Step 204 Acceptance unit S201-S212 Step 205 Decision unit S301-S311 Step 206 Display unit S401-S408 Step 48

Claims (1)

201043301 VII. Patent application scope: 1. An animation generating device (600) is characterized in that it has a shape calculating unit (2〇1) which is calculated and given any time included in a specific period. a shape of a character corresponding to the time; a determination unit (202) that determines a generation time corresponding to a division time from the beginning to the end of the specific period at equal intervals; and a generation unit (203) that The shape calculation unit (201) is calculated and generated based on the generation time corresponding to the division time, and an image of the character to be displayed at the division time is generated based on the shape of the calculated character; The first division time in the division time and the generation time corresponding to the first division time are equal to the first time of the specific period, and the division time and the division end of the division time The time at which the time corresponds to the generation is equal to the time at the end of the specific period of 0, if the division time is The order of time is arranged in the order of time, and the generation times corresponding to the division time are arranged in this order, and the order of time is obtained. The dynamic generation device (6〇〇) according to the first aspect of the invention, wherein the determination unit (202) determines the division time and the generation time corresponding to the division time based on the random number. Difference. The 昼 昼 昼 疋 2010 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋 疋P (202) determines a generation time for each of the plurality of roles. 4. The animation generating device (6) according to claim 2, wherein the determining unit (202) includes the first dividing time and the ending dividing time, and The division time selects a specific number of division times (hereinafter referred to as "representative time"), and (A) determines the generation time corresponding to the above-mentioned division time of the representative representative time towel as the division with the first (B), the generation time corresponding to the end time of the division of the representative time is determined to be equal to the division time at the end, and Ο(C) is determined based on the random number'. (D) is located adjacent to the division time other than the division time at the beginning and the generation time other than the division time at the end, and (D) when the representative moments are sequentially arranged in time. The division time between the two representative times, the generation time corresponding to the division time is equal to the interval of the generation time Formula to decide. 5. The animation generating device (6〇〇) according to claim 1, wherein 50 201043301 further includes a memory unit (610) that memorizes the time zone and the time of the division time for each division time. The determination unit (202)' determines the division time and the corresponding division time based on the reference value 'of the parent division time of the memory unit (610), corresponding to the reference value of the difference between the generation times. The difference between the moments is generated. 6. A game device (200) characterized by: a receiving unit (204) that accepts an instruction input from a player; and a determining unit (205) that determines an achievement of the player based on the received instruction input; And a display unit (206) that displays the dynamics generated by the dynamic generating device (600) described in the jth item of the patent application. 7. The game device (2) according to claim 6, wherein the determining unit (202) determines a difference between the dividing time and a generating time corresponding to the dividing time based on a random number, And according to the above-mentioned judged performance of the game, the range of the above-mentioned random number can be changed. 2〇1), the decision (600) is given to the special 8· a method of generating the dynamics, which is provided by the shape calculation unit (the part (202) and the generation unit (2〇3) The forming method includes: a shape calculating step, wherein the shape calculating unit (201), 51 201043301, at any time included in the predetermined period, calculates a shape of a character corresponding to the time; • a determining step, the determining The unit (202) determines to divide the generation time corresponding to the division time from the beginning to the end of the specific period at equal intervals, and the generation step, wherein the generation unit (203) generates the generation corresponding to the division time At the time, the shape calculation unit (2〇1) is given and calculated, and an image of the character to be displayed at the division time is generated based on the shape of the calculated character; wherein, the division time is The division time of the head and the generation (4) corresponding to the division time of the head, 胄 is equal to the time of the first period of the specific period, and the division time The dividing time at the end of the middle and the generating time corresponding to the dividing time at the end are equal to the time at the end of the specific period, and if the dividing time is arranged in the order of time, and in this order The time at which the division time corresponds to the generation time is the order of time. 9. A computer-readable information recording medium characterized in that the program "program" causes the computer to function as: The calculation unit (20 1 )' calculates the shape of the character corresponding to the time when it is given the time-in time included in the specific period; the determination unit (202)' determines to divide the specific period 52 at equal intervals. The generation time of the first to the last division time of 201043301 corresponds to the generation time, and the generation unit (203) gives the shape calculation unit (2〇1) corresponding to the division time, and gives the shape calculation unit (2〇1) Performing a calculation, and generating a map of the character to be displayed at the division time based on the shape of the calculated character An image of the first dividing time of the dividing time and the generating time H corresponding to the first dividing time in the first time of the specific period Q, the dividing time of the dividing time and the The generation time corresponding to the division time at the end is equal to the time at the end of the specific period, and the division timings are arranged in the order of time, and the generation times corresponding to the division timing are arranged in the order. Then, it becomes a sequence of time. A program is characterized in that the computer functions as a part: a shape calculation unit (201) that is calculated if given a time-time included in a specific period a shape of the character corresponding to the time; the determining unit (202)' determines a generation time corresponding to the division time from the beginning to the end of the specific period at equal intervals; and a generation unit (203) that will The generation time corresponding to the division time is given to the shape calculation unit (201) to advance Calculating, and according to the shape of the calculated character, generating an image of the character to be displayed at the time of division; 53 φ of the above-mentioned division time in 201043301 from * ^ . v + In this case, the generation time of SAA^μ is equal to the time of the first period of the specific period, and the division time corresponding to the generation time at the end division time of the division time and the division time and the end are equal to the specific The end of the period = If the division timings are arranged in the order of the passage of time, and the generation timings corresponding to the division timings are arranged in this order, the passage of time is obtained. , 54