WO2007077851A1

WO2007077851A1 - Representation method and operation object

Info

Publication number: WO2007077851A1
Application number: PCT/JP2006/325996
Authority: WO
Inventors: Hiromu Ueshima; Shinya Katsumata; Hitoshi Suzuki
Original assignee: Ssd Company Limited
Priority date: 2005-12-30
Filing date: 2006-12-20
Publication date: 2007-07-12
Also published as: JPWO2007077851A1

Abstract

Before an enemy character (60) performs an attack, a prediction object (62TR, 62L, 62BR) explicitly indicates the attack start position and the attack direction. That attack order is a display order of the prediction objects (62TR, 62L, 62BR). After display of the prediction objects (62TR, 62L, 62BR), the enemy character (60) performs an attack. By this prediction, a player need not learn the attack pattern of the enemy character (60) by playing many times. This reduces the player learning load.

Description

Description Production method and operation «I Technical Field

The present invention relates to an effect method and related technology for performing an effect process based on the positional relationship between an object linked to a player's movement and an object operating according to a computer program on a screen.

The present invention also relates to an effect method for detecting an action of a player and performing an effect process based on the detection result, and a related technique.

Furthermore, the present invention relates to an operation for causing a player to perform »in a loaded state and related technology. Background art

Patent Document 1 (Japanese Patent Laid-Open No. 2 093-7 9 94 3) discloses a game in which a player sword-type controller is swung to slash with an enemy character displayed on the TO. In this game, the player's attack posture and defense posture are discriminated according to the orientation on the screen of the sword-type controller, and an attack or defense according to each posture becomes possible.

However, in this game, the player does not know from which position the enemy character is slashed at any timing, so the player eventually determines the attack position of the enemy character while being slashed many times. Learn and complete each stage. Many players feel that learning is bothersome or regrettable while learning.

Accordingly, an object of the present invention is to provide a presentation method and related techniques that can reduce the learning burden on the player.

Another object of the present invention is to provide a production method capable of supporting exercise and related techniques. Still another object of the present invention is to provide an operation suitable for exercise support and the related techniques. »It is to make a mistake.

According to the first aspect of the present invention, the presentation method includes the first object in a manner corresponding to the movement of the player. Display the display mode on the display device, and before the second object displayed on the display device performs an operation, clearly indicate the start mode of the ¾i 乍 to the SiilS display device, and it's own ¾IM 乍After the end of the start mode, the step of causing the second object to perform the predetermined action, and ΙΪΙΪΞ the first object force on the ttilB display device within a predetermined time after the second object starts the operation. Determining the displayed color in a manner corresponding to the specified tif! E start t.

According to this configuration, since the start mode is clearly indicated before the second object performs an operation, the player can know in advance what force the second object will perform, and play The player does not need to play many times to learn how to open the second object's movement, and the learning burden on the player can be reduced.

The above-mentioned production method is after the end of lift's own work and before letting fiJlH 2nd object do its work; 表示 ίΠΕ2nd object will display the notice that the second work will start The method further includes the step of:

According to this configuration, the player can prepare for the start of his / her own action and perform the β of his / her heart by opening the predetermined action.

In the above production method, the step of determining is in accordance with the ttlfB start state specified in the tirlE first object camera fijf self-display device within a predetermined time of ttrfE after the second object starts the predetermined operation. The method further includes a step of determining a time until completion of the self-work of the second object when it is determined that it is displayed in the form.

According to this configuration, if the player makes an accurate action earlier, the time until the completion of the first object of the second object is completed. This means that the second object's movement power S will become faster depending on the player's ability, so you can enjoy timeless entertainment.

In the above method, the starting mode of the work is a ¾1 | 2 direction and the opening position of the work. At the timing of starting the work, the first object of ttiiE is in the direction corresponding to the direction of selfishness specified on the ego device, and within the predetermined range including the self start position specified on the device. Judge the key.

In the above production method, the tins action tine start mode is the direction of ¾I 乍, and the tif! E step to be judged is the timing at which the second object starts ΙΙ 所 ¾j

1 Determine whether the force is displayed in the direction corresponding to the ffllE direction specified on the object force display device.

In the above production method, llll's ftllE start 所 is lift self-placed ¾ « The tiff self step to be determined is that when the second object is at til! S; the first object is clearly displayed on the tins display device. Judge whether or not to hesitate.

According to the second aspect of the present invention, the rendering method includes a step of moving a plurality of first objects from a plurality of directions toward a predetermined position on the screen of the display device, and a second step linked to the action of the player. Displaying the object on the display device, and moving the first object according to a predetermined size when the second object and the first object are in a predetermined positional relationship; , including.

According to this configuration, the player can move the first object by moving the body and operating the second object, so the player simply compares his body with the power m " The above-described presentation method further includes a step of performing a display to indicate the timing of returning the first object with the tiilS second object. Including.

According to this configuration, by causing the first object to appear in time with the music and instructing the timing to match the music, the player can return the music by returning the first object at the instructed timing. You can move according to your needs.

In the exit method, the self-moving step to be moved is as follows: When the speed of the second object is greater than or equal to the predetermined value, the second object of tilf and the first object of ttilE are in the predetermined positional relationship. Sometimes, the first object is moved according to ia predetermined value ij.

According to this configuration, the player cannot move the first object unless the speed of the second object linked to his / her movement is equal to or higher than a predetermined value. For this reason, the player must move at a certain speed (Mi amount), and the player's momentum can be increased. According to a third aspect of the present invention, the presentation method includes a step of displaying a character on a display device, a step of causing the heel character to perform a predetermined movement in a predetermined order, and , Tin t in the predetermined order tirfa The timing of performing the predetermined type of movement at a timing different from the timing of the predetermined time tin 明示 The step of clearly indicating the predetermined type of movement to the fine display device And including.

According to this configuration, since the character instructs the player to perform the same movement after showing the example of movement, the player can accurately recognize and recognize the movement to be performed by the player.

In the above | ¾¾ output method, the explicit IS step causes a plurality of objects prepared for each predetermined type to appear on the display device in a predetermined order. This includes a step of moving the object in a predetermined direction so as to pass through the object, and the timing at which the object passes the timing instruction object is after the character has performed the type of movement represented by the object.

According to this configuration, the player can recognize the type of action to be performed by the object, and can recognize the timing at which the action represented by the object should be performed by the timing instruction object. Can be recognized accurately.

In this production method, frf will move along with the tiiE music. According to this configuration, the player can perform an instructed operation in accordance with music, and can exercise while having fun.

On the other hand, in the presentation method, the step of specifying includes a step of arranging a plurality of objects prepared for each predetermined type in a predetermined order and displaying them on a self-display device, and IE predetermined. A step of applying an effect to a plurality of objects arranged in a predetermined order with a predetermined period of time), and the timing of giving an iia effect gives the tilt of the fiiiB object Is performed after the fiiia character performs the movement of the table · τ®.

According to this configuration, the player can recognize the type of the action to be performed by the object, and can recognize and recognize the timing at which the action represented by the object is to be performed by the effect. Can be recognized accurately.

In this production method, the fijf self-evaluator is given to MIS music. According to this configuration, the player can perform an instructed operation in accordance with music, and can exercise while having fun.

According to the fourth aspect of the present invention, the production method includes a step of displaying a character on a display device, a step of causing a tilting self character to perform a predetermined movement, and a step of detecting a movement of the player. When the player's movement is lost in response to a predetermined movement, the step of starting time counting and the passage of time from the start of counting are directly or indirectly connected to the self display apparatus. And a step to explicitly specify.

According to this configuration, the player can perform a stretching exercise by maintaining the final difficulty of the predetermined movement, and can also know the time during which ^ is maintained. Therefore, it can support the player's exercise.

According to the fifth parent of the present invention, the operation is an operation that is held and given movement by the operator, and the light received is recursively counteracted t "T or the light is emitted by itself. In addition, a weight of a predetermined weight that applies a predetermined load to the ffJlE operator is attached. According to this configuration, since the operation I has a recursive material or a self-luminous member attached thereto, it is easy to capture the operation and extract the operation image from the obtained image. Become. Because the operation is more clearly reflected. Therefore, it becomes easy to detect the movement of the operation, and it becomes easy to generate a video corresponding to the detection result and display it on the display device. This video allows the player to have fun while exercising. However, since the weight is attached to the operation f ^ I, the player can drive the operation to cause the player to perform the operation under load, and the operation also has a function as an exercise. ing. As described above, this operation is suitable for supporting the movement of the player. Brief Description of Drawings

The novel features of the invention are set forth in the appended claims. However, the invention itself and other advantages and effects can be easily obtained by reading the detailed description of specific embodiments with reference to the drawings.

FIG. 1 is a block diagram showing the overall configuration of an effect system according to an embodiment of the present invention. FIG. 2 is a diagram showing an electrical configuration of the information processing device a 1 shown in FIG.

FIG. 3 shows an example of the notice screen of the first embodiment.

FIG. 4 is an exemplary view of a play start screen according to the first embodiment.

FIG. 5 is an illustration of the play screen (successful defense) in the first embodiment.

FIG. 6 is an illustration of the play screen (defense failure) in the first embodiment.

FIG. 7 is an explanatory diagram of defense determination according to the first embodiment.

FIG. 8 is a flowchart showing the overall processing »of the mano-media processor 50 in FIG.

FIG. 9 is a flowchart showing the flow of the photographing process which is one of the processes in step S3 of FIG. FIG. 10 is a flowchart showing the flow of shield control, which is one of the processes in step S3 of FIG. FIG. 11 is a state transition diagram of effect processing executed by the multimedia processor 50 of FIG. FIG. 1.2 is a flowchart showing the process flow of the notice stage in step S 61 of FIG. FIG. 13 is a flowchart showing the process flow of the play stage in step S 65 of FIG.

FIG. 14 is an exemplary view of a play screen according to the second embodiment.

FIG. 15 shows the state transition of the rendering process of the second embodiment executed by the multimedia processor 50 of FIG. It is a transfer.

FIG. 16 is an exemplary view of a play screen according to the third embodiment.

FIG. 17 is an explanatory diagram of operation determination (up and down) in the third embodiment.

FIG. 18 is an explanatory diagram of the operation determination (rotation) of the third embodiment.

FIG. 19 is a state transition diagram of the rendering process of the third embodiment executed by the multimedia processor 50 of FIG.

FIG. 20 is a flowchart showing the flow of the operation determination process in step S 2 33 of FIG. FIG. 21 is a flowchart showing the flow of the first motion determination process in step S 2 53 of FIG. FIG. 22 is a flowchart showing the flow of the third motion determination process in step S 2 57 of FIG. FIG. 23 is a flowchart showing the flow of the fifth operation determination process in step S 2 61 of FIG. FIG. 24 (a) is an exemplary view of a notice screen of a modification of the third embodiment, and FIG. 24 (b) is an exemplary view of a play screen of the modification of the third embodiment.

FIG. 25 is a state transition diagram of the notice stage of the modification of the third embodiment, which is assumed by the multimedia processor 50 of FIG.

FIG. 26 is a state transition diagram of a stage of a modification of the third embodiment executed by the multimedia processor 50 of FIG.

FIG. 27 is an illustration of the play screen of the fourth embodiment.

FIG. 28 is a state transition diagram of the effect process of the fourth embodiment executed by the multimedia processor 50 of FIG. BEST MODE FOR CARRYING OUT THE INVENTION

Hereinafter, embodiments of the present invention will be described with reference to the drawings. In the drawings, the same or corresponding parts are denoted by the same reference numerals, and the description thereof is incorporated.

(Embodiment 1)

FIG. 1 is a block diagram showing the overall configuration of an effect system according to an embodiment of the present invention. As shown in FIG. 1, the effect system includes an information processing device 1, an input device 3, and a television monitor 5.

The shape of the input device 3 is a job, and the left and right ends of the input device 3 are drip 1 5 L and 1

5 R is provided. A total of three retroreflective sheets are attached to the peripheral surface between the drip 15 L and 15 R of the input device 3. The input device 3 has a built-in weight for applying a predetermined load to the player. The player holds the drip 15 L with his left hand and Hold the lip 1 5 R to power the input device 3 (moving or rotating).

Information processing unit 3 3 is sent to TV monitor 5 by AV Cape Nore 7. Further, although not shown, the information processing unit 3 is supplied with an AC adapter or a battery. A tt¾g switch (not shown) is provided on the back of the information processing apparatus 1.

The information processing unit 3 3 is provided with an infrared filter 20 that only receives infrared light on the front side thereof, and four red light diodes 9 that generate infrared light so as to surround the infrared filter 20. Is exposed. On the back side of the infrared filter 20, an image sensor 54 described later is disposed.

Four red light diodes 9 emit infrared light intermittently. The infrared light from the red light diode 9 is resisted by the retroreflective sheet 13 attached to the input device 3 and is input to the image sensor 54 provided on the back side of the infrared filter 20. In this way, the input device 3 is ^^ by the image sensor 54.

When infrared light is irradiated intermittently, the wrinkle processing by the image sensor 54 is performed even when infrared light is not irradiated. The information processing device 1 obtains ¾ ^ of the image signal at the time of infrared light irradiation and the image signal at the time of non-irradiation of the input device 3 moved by the player, and this symbol DI (image DI) Based on the above, the position of the input device 3 (that is, the retroreflective sheet 1 3) is calculated. Thus, by obtaining, it is possible to remove as much as possible noise caused by light other than Orchid from the recursive sheet 13, and to detect the retroreflective sheet 13 with high accuracy.

FIG. 2 is a diagram showing the electrical generation of the information processing unit 1 in FIG. As shown in FIG. 2, the information processing apparatus 1 includes a multimedia processor 50, an image sensor 5 4 (for example, 32 pixel sensor 3 32 pixel CMO image sensor), red light ¾ light diode 9, external Includes memory 52 and bus 56. The external memory 52 is, for example, ROM, RAM, and memory or flash memory.

The multimedia processor 50 can access the external memory 52 through the bus 56. Therefore, the mano! ^ Media processor 50 can read the program stored in the external memory 52 and can read and process the data stored in the external memory 52. The external memory 52 stores in advance a program for performing various processes such as control of an image displayed on the television monitor 5 and detection of the position of the retroreflective sheet 13, image data, audio data, and the like.

Although not shown, the multimedia processor 50 is a central processing unit (hereinafter referred to as “CPU”), a graphics processing unit (hereinafter referred to as “GPU”), a sound processing unit (hereinafter referred to as “SPU”). ), Geometry engine (hereinafter referred to as “GE”), external interface block, main RAM, and AZD converter (hereinafter referred to as “AD C”). Huh. ) Etc.

The CPU stores the program stored in the external memory 52 to perform various calculations and control the entire system. As the CPU processing related to graphics processing, input the program stored in the external memory 52, and enlarge / reduce, rotate, and / or rotate each object: / or ffi ^ motion parameters, viewpoint coordinates (camera coordinates) ), And vector calculation. Here, the unit that consists of one or more polygons or sprites and applies the same scaling, rotation, and motion conversion force is called an “object”.

The GPU generates a 3D image composed of polygons and splices in real time and converts it into an analog composite video signal. The SPU generates PCM waveform data, amplified data, and main volume data, and multiplies them to analog audio signals. GE performs an apologetic operation to display a 3D image. Specifically, GE performs operations such as matrix product, vectoraffin transformation, beta orthogonal transformation, Fuji ¾ ^ transformation, vertex brightness Ζpolygon brightness calculation (beta inner product), and polygon back force ring processing (beta outer product). Execute.

The external interface block is an interface with peripheral devices (image sensor 54 and infrared light emitting diode 9 in the present embodiment), and includes 24 channels of programmable digital input / output (入出力) ports. The ADC is connected to the 4-channel analog input port, and through these, the analog signal input from the analog input device (in this embodiment, the image sensor 54) is converted into a digitalano W code. The main RAM is used as a CPU work area, a variable storage area, and a virtual storage management area.

The input device 3 is irradiated with the infrared light of the red light diode 9 and the infrared light is the retroreflective sheet 13. The reflected light from the recursive sheet 13 is swollen by the image sensor 54, and thus an image signal including the recursive sheet 13 is output from the image sensor 54. As described above, since the multimedia processor 50 intermittently blinks the infrared light emitting diode 9 for strobe shooting, an image signal when the infrared light is extinguished is also output. These analog image signals from the image sensor 54 are converted into digital data by an ADC built in the multimedia processor 50.

The multimedia processor 50 generates the above-mentioned symbol DI (image DI) from the digital image signal input from the image sensor 54 via the ADC, and based on this, the presence / absence of input by the input device 3, Detect the position of input device 3. Based on the detection result, the multimedia processor 50 performs computations, graphics related to input by the input device 3. In addition to processing, sound processing, etc., other operations, graphic processing, sound processing, etc. are entered to generate video and audio signals. The video signal and the audio signal are given to the television monitor 5 through the AV cable 7, and accordingly, is displayed on the television monitor 5, and sound is output from the speaker (not shown).

In the present embodiment, the direction in which the enemy character displayed on the television monitor 5 is slashed is clearly indicated to the player in advance, and then the enemy character slashing operation is started. Hereinafter, a specific example will be described.

FIG. 3 shows an example of the notice screen of the first embodiment. Referring to Fig. 3 (a), first, the multimedia processor 50 displays this notice screen. This notice screen includes an enemy character 60, an arrow-like notice object 6 2 TR, and a gauge 64 indicating the progress of play. Referring to FIG. 3 (b), Mano ^ media processor 50 next displays this notice screen. This notice screen includes an enemy character 60, an arrow-like notice object 62 L, and a gauge 64 indicating the progress of play. Referring to FIG. 3 (c), the multimedia processor 50 further displays this notice screen. This notice screen includes an enemy character 60, an arrow-like notice object 6 2 BR, and a gauge 64 indicating the progress of play.

The notice object 6 2 TR indicates that the enemy character 60 attacks from the upper right to the lower left diagonally (slashes), and the notice object 6 2 L indicates that the enemy character 6 0 moves from the left center to the right center. Indicates that the attacking object will be attacking horizontally (slashing), and the notice object 6 2 BR will attack the enemy character 6 0 power S from the lower right to the left # ) Is shown. The attack order of the enemy character 60 is the display order of the notice screen.

In addition, when the reflexion sheet 1 3 force image sensor 5 4 of the input device 3 is in the job range of the image sensor 5 4, the multimedia processor 50 Return I † Sheet 1 3 Displays the strip-shaped shield object 6 6 (transparent or translucent color) according to the g¾ orientation.

The multimedia processor 50 controls the movement of the shield object 6 6 according to the detected position of the recursive sheet 1 3, and changes the direction of the shield object 6 6 according to the orientation of the recursive sheet 1 3. Control. In other words, the multimedia processor 50 associates the shield object 6 6 with the movement of the recursive ^ 1 "sheet 13, that is, the input device 3. Specifically, the multimedia processor 5 0 The image of the retroreflective sheet 1 3 is extracted from the image, and the upper end coordinate, lower end coordinate, left end coordinate, and right end coordinate of the image are calculated (calculation of the four end points). The center coordinates of the quadrangle formed with the coordinates are calculated. Then, the multimedia processor 50 determines the inclination of the recursive Sli sheet 13 based on a quadrilateral having four calculated end points as four vertices (which is regarded as an image of the recursive reflection sheet 13), and determines the determined inclination. Depending on the situation, the inclination of the shield object 6 6 is determined. The multimedia processor 50 obtains the center coordinates of the retroreflective sheet 13 on the screen of the television monitor 5 by converting the calculated center coordinates into screen coordinates. The multimedia processor 50 sets the center of the shield object 6 6 to the obtained center coordinates, sets the inclination of the shield object 6 6 to the determined inclination, and displays it on the television monitor 5. .

In this way, the mano! ^ Media processor 50 interlocks the shield object 6 6 with the movement of the retroreflective sheet 13, that is, the input device 3. The screen coordinate system is set to TV MOUTA 5! This is a coordinate system used when displaying.

After the display of the notice screens in FIGS. 3 (a) to 3 (c), the multimedia processor 50 displays a play start screen.

FIG. 4 is an exemplary view of a play start screen according to the first embodiment. Referring to FIG. 4, this play screen includes the characters “AC T I ON”. By displaying this character, the multimedia processor 50 indicates to the player that the enemy character 60 will then start the slashing action. In this way, by making an attack announcement, the player can start and move his / her own action.

After the display of the play start screen is completed, the multimedia processor 50 displays a play screen in which the enemy character 60 is slashed or kicked. In the following, an example is given in the order of the player's defensive power S succeeded ^ \ failed ^^.

FIG. 5 is an illustration of the play screen (successful defense) in the first embodiment. Referring to FIG. 5 (a), the mano-recimedia processor 50 first determines the position indicated by the notice object 6 2 TR in FIG. 3 (a).

From ¾_ direction, make enemy character 60 perform a slashing action. In this example, the player moves the input device 3 and moves the shield object 6 6 to an appropriate position (position indicated by the advance notice object 6 2 TR) in a timely manner. Since the shield object 6 6 is pointed in the direction indicated by 6 2 TR, the enemy character 60 is successfully defended against attacks. Referring to Fig. 5 (b), the mano-recimedia processor 50 then slashes the enemy character 60 from the position indicated by the notice object 6 2 L in Fig. 3 (b). Let the action take place. In this example, the player moves the input device 3 to move the shield object 6 6 to an appropriate position (position indicated by the notice object 6 2 L) in a timely manner, and in an appropriate direction (notice object 6). Since the shield object 6 6 is pointed in the direction indicated by 2 L), the enemy character 60 is prevented from attacking. I am successful.

Referring to FIG. 5 (c), the multimedia processor 50 further next kicks the enemy character 60 from the position and direction indicated by the notice object 6 2 BR force S in FIG. 3 (c). i) Make a work. In this example, the player moves the input device 3 to move the shield object 6 6 to an appropriate position (the position indicated by the notice object BR force S) in a timely manner, and in an appropriate direction (notice object 6). Since the shield object 6 6 is pointed in the direction indicated by 2 BR), the attack of the enemy character 60 is successfully defended.

FIG. 6 is an illustration of the play screen (defense failure) in the first embodiment. Referring to FIG. 6 (a), the multimedia processor 50 first causes the enemy character 60 to perform a slashing action from the direction of the MR indicated by the notice object 6 2 TR in FIG. 3 (a). . In this example, the player cannot move the shield device 6 6 to an appropriate position (position indicated by the notice object 6 2 TR) in a timely manner by moving the input device 3, and Z or an appropriate Since the shield object 6 6 could not be directed in the direction (direction indicated by the advance notice object 6 2 TR), the enemy character 6 0 is defending against the attack ^ (so the multimedia processor 50 is The notice object 6 2 TR displays the fate (cutting mark) 6 8 according to the position and direction indicated by the TR Referring to FIG. 3 (b) notice object 6 2 From the direction indicated by 2 L, the enemy character 6 0 performs a slashing action in this direction: In this example, the player moves the input device 3 to make an appropriate action in a timely manner. Position Notification object 6 2 L force position) cannot be moved, and shield object 6 6 can be directed in Z or an appropriate direction (direction indicated by notice object 6 2 L) Therefore, the defense of the attack of the enemy character 60 is unsuccessful, so the multimedia processor 50 displays the fate (slash mark) 6 8 corresponding to the position indicated by the notice object 6 2 L. ing.

Referring to FIG. 6 (c), the multimedia processor 50 then further kicks up to the enemy character 60 from the direction indicated by the notice object 6 2 BR in FIG. 3 (c). Let go of the trap. In this example, the player cannot move the shield object 6 6 to the appropriate position (the position indicated by the notice object 6 2 BR) in a timely manner by moving the input device 3, and the Z or appropriate Since the shield object 6 6 could not be directed in the correct direction (direction indicated by the notice object 6 2 BR), the enemy character 60 failed to defend the attack. Therefore, the multimedia processor 50 displays the effect (kick trace) 69 according to the position and direction indicated by the object 62 BR. Here, the notification objects 62 TR, 62 L, and 62 BR are taken as examples, but other notification objects 62R, 62B, 62BL, 62T L, and 62 T are prepared. The notice object 62R indicates that the enemy character 60 attacks from the right center to the left center in a horizontal direction (slashing). The notice object 62R indicates that the enemy character 60 moves from the lower center to the upper center. Indicates that it will attack vertically (Kicking), and the object 62BL indicates that the enemy character 60 power S will attack from the lower left to the right ± ^ (Kicking)卜 62TL indicates that the enemy character 60 is attacking diagonally diagonally from the upper left to the lower right, and the warning object 62 が indicates that the enemy character 60 moves vertically from the upper center to the lower center. Indicates attacking (slashing). Not limited to the example in Figure 3, these notice objects 62TR, 62R, 62BR, 62Β, 6 2BL, 62L, 62Τ L and 62Τ may be displayed on the notice screen in any combination and arbitrary order. it can. Ϊ ^ Objects 62TR, 62R, 62BR, 62B, 62B L, 62 L, 62 TL, and 62 T are collectively referred to as the notice object 62.

FIG. 7 is an explanatory diagram of defense determination according to the first embodiment. Referring to FIG. 7, multimedia processor 50 divides the screen of television monitor 5 into nine blocks BL0 to BL8, and makes a defense decision. An example in which the enemy character 60 attacks from the direction in which the notice object 62TR in FIG. In this ^^, the multimedia processor 50 determines whether the block B L 2 including the table ^ S area of the notice object 62 TR includes a part of the shield object 66 or not. Included ^, the multimedia processor 50 has a force ヰ IJ¾ff "T in which the longitudinal center line 33 of the shield object 66 is orthogonal to the direction indicated by the notice object 62TR. For example, the multimedia processor 50 determines that the defense is successful. However, it does not require strict orthogonality and has a predetermined margin.

However, if the shield object 66 is not in such a state within a predetermined time after the enemy character 60 is ready to launch an attack (slashing or kicking up), the multimedia processor 50 will defend if Judges failure and displays effect 68. That is, if shield object 66 is not included in block BL 2 or if shield object 66 is not orthogonal to the direction indicated by warning object 62 UR, multimedia processor 50 determines that the defense has failed, and 68 is displayed.

Similarly, with respect to the defense judgment for the attack according to the other notice objects 62R, 62BR, 62B, 62BL, 62L, 62C and B 62C, the corresponding block B L 5, BL

8, BL7, BL6, BL3, BL0 and BL1. Here, the animation of the slashing action of the enemy character 60 will be described. The animation of the slashing motion is performed, for example, by displaying each of N pictures in M (two or more S¾) frames. Note that the number of frames to be displayed can be different for each picture, but it is shared for convenience of explanation.

The first picture of this animation is an image of the enemy character 60 with the swords striking, and as the number increases, the swords are gradually swung down. The picture is an image of a sword shaken. By displaying each of these pictures in M frames, a slashing animation is generated. In other words, the animation of the slashing operation ends with an N X M frame.

If you move the shield object 6 6 in the position and direction that the notice object 6 2 gives a notice by the end of the K «N) picture (KXM frame) of the animation of this slashing action, the P direction It will be successful. Then, depending on the player, while the first picture is being displayed, the shield object 66 may be moved to an appropriate position, or it may be the second or Kth. The smaller the number, the higher the skill level.

A player with a low ¾ slashes the enemy character 60 even if the animation ends in the N XM frame. ¾ A player with a high S «has an enemy character 60 You may feel that the slashing ¾ is slow, that is, the enemy character 60 may feel that it takes a long time for the sword to hit the shield object 6 6 after starting to slash the sword. Get faster.

Therefore, in this embodiment, when the player determines that the player has moved the shield object 66 in an appropriate direction, the number of display frames of each picture after that is determined. For example, “1” is set shorter than the standard M frame. Then, if the player moves the shield object 66 quickly in the appropriate direction, the animation of the slashing action will be faster, and the slashing ¾g will not feel slow. Therefore, it is possible to provide entertainment that will not get bored even for the obtained player.

Next, the flow of the program executed by the multimedia processor 50 for the above-described effects (FIGS. 3 to 6) will be described using a flow chart.

FIG. 8 is a flowchart showing the flow of the entire process by the mano-remediator processor 50 of FIG. Referring to FIG. 8, when the switch is turned on, in step S1, the multimedia processor 50 performs the initial setting of the system. Here, flags, counters, registers, etc. are initialized. In step S 3, the multimedia processor 50 executes processing in accordance with the application: / program stored in the external memory 52. In step S5, the multimedia processor 50 waits until an interrupt due to the video synchronization signal occurs. In other words, the multimedia processor 50 does not generate the interrupt power S due to the video synchronization signal, ^ returns to the same step S 5, and the interrupt ^ ^ generated after the video synchronization signal proceeds to step S 7. For example, an interrupt due to a video sync signal occurs every 1/60 seconds. In synchronization with this interrupt, in steps S 7 and S 9, the multimedia processor 50 updates the image to be displayed on the television monitor 5 and performs sound processing to generate music, sound effects, etc. To do. Then, the multimedia processor 50 returns to Step S3.

FIG. 9 is a flowchart showing the flow of the photographing process which is one of the processes in step S3 of FIG. Referring to FIG. 9, in step S 21, the retina media processor 50 turns on the red light diode 9. In step S 23, the multimedia processor 50 acquires the image data when the infrared light is lit from the image sensor 54 and puts it in the main RAM. In step S 2 5, the media processor 50 turns red; ^ light diode 9 is turned off. In step S 27, the media processor 50 acquires the image data when the infrared light is turned off from the image sensor 54 and stores it in the main RAM. Flash photography is performed as described above. Each pixel data constituting the image data is a luminance value.

The multimedia processor 50 calculates the scattered image DI from the result of the expansion process, and controls the shield object 66 as an image of the retroreflective sheet 13 reflected in the image DI. Details are as follows.

FIG. 10 is a flowchart showing the flow of shield control, which is one of the processes in step S3 of FIG. Referring to FIG. 10, in step S 4 1, the multimedia processor 50 calculates the image data when the infrared light is turned on and the image data when the infrared light is turned off and ^ image data DI is calculated. Ask. In step S 43, the multimedia processor 50 binarizes the image data DI based on a threshold value (which may be a predetermined value or may be determined dynamically). In other words, among the pixels composing the image data DI, those exceeding the threshold are set to “1”, and those below the threshold are set to “0”. Therefore, it can be estimated that the image composed of pixels with the value “1” is the recursive sheet 1 3.

In step S 4 5, the multimedia processor 50 determines, based on the binarized image data DI, the coordinates of the upper end point, the lower end point, the left end point of the image of the retroreflective sheet 13, Find the coordinates of the right end point. In step S 4 7, the multimedia processor 50 The inclination of the image, that is, the retroreflective sheet 13 is obtained based on the quadrangle having the upper end point, the lower end point, the left end point, and the right end point as vertices. In step S 4 9, the mano! ^ Media processor 50 obtains the center coordinates of the rectangle. Since this center coordinate is a coordinate on the image DI, in step S 51, the multimedia processor 50 converts the center coordinate into the screen coordinate system.

Returning to FIG. 8, the multimedia processor 50 displays the shield object 66 in step S 7 with the inclination corresponding to the inclination of the image of the retroreflective sheet 1 3 (step S 4 7). The center coordinates of this shield object 6 6 are set to the center coordinates of the image of the recursive sheet 1 3 (step S 5 1).

Next, the transition of processing performed by the multimedia processor 50 for the sake of the above (FIGS. 3 to 6) will be described.

FIG. 11 is a state transition diagram of effect processing executed by the multimedia processor 50 of FIG. Referring to FIG. 11, in step S 61, the manolet media processor 50 detects the notice stage (see FIG.

(Refer to 3). Next, in step S 63, the multimedia processor 50 displays the play start screen shown in FIG. Next, in step S 65, the multimedia processor 50 executes processing for the play stage (see FIGS. 5 and 6).

Next, the flow of processing for the notice stage and the play stage will be described in detail. This process is executed as a process by the application program selected in step S3 in Fig. 8. For convenience of explanation, this process is not a flowchart in synchronization with the video sync signal. This will be described with reference to a flowchart included in the figure.

FIG. 12 is a flowchart showing the process flow of the notice stage in step S 61 of FIG. Referring to FIG. 12, in step S 80, multimedia processor 50 displays the notice screen (excluding notice object 62) in FIG. 3. In step S 81, the multimedia processor 50 generates a random number and selects one of a plurality of notice tapes prepared in the external memory 52. The notice table shows the kind of notice object 6 2 to be displayed (6 2 T R, 6 2 L,

6 2 B R, 6 2 R, 6 2 B, 6 2 B L, 6 2 T L, 6 2 T) and the tape no. In step S 83, the multimedia processor 50 displays (updates) the notice object 62 according to the selected notice table. At step S 85, Mano ^ Media Processor

If it is determined that the predetermined time has elapsed after displaying the preview object 62, the process proceeds to step S89, and if not, the process returns to step S85. In step S 8 9, the multimedia processor 50 displays the last notice object 6 2 in the notice table. Is finished, ^ is returned, and is not finished: ^ returns to step S 83 and updates the notice object 62 according to the notice table.

FIG. 13 is a flowchart showing the process flow of the play stage in step S 65 of FIG. Referring to FIG. 13, in step S 1 0 1, multimedia processor 50 displays the play screen shown in FIG. 5 etc. (enemy character 60 does not yet attack). In step S 1 0 3, the multimedia processor 50 starts displaying the animation attacked by the enemy character 60 according to the attack table. The attack table corresponds to the notice table selected in step S 8 1 in FIG. 12, and the attack of the enemy character 60 is performed so as to match the type and order of the notice object 62 defined by this table. This table defines the types and order of animations.

In step S 1 0 5, the multimedia processor 50 determines whether the force included in the partial force S of the shield object 6 6 in the bookmark (BL 0 to BL 8) where the notice object 6 2 is displayed is displayed. If it is included, go to step S 1 0 7. If not, go directly to step S 1 0 9.

(See Figure 7). In step S 1 0 7, the multimedia processor 50 determines whether the shield object 6 6 is orthogonal to the notice object 6 2, and ^ is orthogonal to step S 1

1 Proceed to step 3. If not orthogonal, proceed to step S 1 0 9 (see FIG. 7).

In step S 1 0 7, “Y E S” is judged and the player succeeds in the defense, so step S 1

In 13, the multimedia processor 50 increases the example of the attack animation of the enemy character 60. In other words, increase the attack animation playback. In step S 1 15, the manolet media processor 50 displays an animation indicating that the enemy character 60 has successfully defended (see FIG. 5). On the other hand, in step S 1 0 9, the multimedia processor 50 determines whether the predetermined time has passed since the start of the attack animation, and if not, returns to step S 1 0 5, Is a defense failure, so step S 1

1 Proceed to 1. In step S 1 1 1, the multimedia processor 50 displays an animation indicating that it has been attacked by the enemy character 60 (see FIG. 6).

In step S 1 1 7, the multimedia processor 50 determines whether the last attack animation in the attack table has been terminated, exited returns, not terminated: ^ is step S Return to 1 0 3 and display a new attack animation.

As described above, in the present embodiment, before the enemy character 60 makes a series of attacks, the notice object 6 2 opens the attack (the standing and attack directions are clearly indicated and the attack is performed). Is displayed in the order in which the notification object 6 2 is displayed. It is possible to know in advance in what order, and the player does not have to learn the attack pattern of the enemy character 60 by playing many times, thereby reducing the learning burden on the player.

Also, since the input device 3 has a built-in weight of a predetermined weight, the player moves the input device 3 and enjoys the above-described play, so that the player exercises in a loaded state, and the player's health It can also contribute to maintenance or promotion. That is, the input device 3 also has a function as a luck tool. As described above, this production system is suitable for supporting the player's exercise.

(Embodiment 2)

The hardware of the production system shown in FIGS. 1 and 2 is used as the production system hardware of the second embodiment. Also, the program flow that the multimedia processor 50 uses is the same as in FIG. However, since the shield object 6 6 is not used, the control of the cursor 76, which will be described later, is controlled by the same control as in FIG. Both control methods are the same.

FIG. 14 is an exemplary view of a play screen according to the second embodiment. Referring to FIG. 14, the multimedia processor 50 displays a play screen on the television monitor 5 including the ball object 70, the end point 72, the timing ^ line 74, and the rectangular cursor 76. To do.

The multimedia processor 50 causes a plurality of ball objects 70 to appear one after another from the direction 6 4, starting from the edge of the screen of the television monitor 5. Then, the multimedia processor 50 moves all the ball objects 70 that have appeared to the end point 72 at a constant speed.

Further, the multimedia processor 50 controls the movement of the force sol 7 6 according to the detected position of the retroreflective sheet 1 3, and the direction of the cursor 7 6 according to the direction of the recursive sheet 1 3. To control. That is, the multimedia processor 50 links the cursor 76 to the movement of the recursive Si sheet 13, that is, the input device 3. This is the same as the shield object 6 6 of the first embodiment (see FIG. 10).

Further, the multimedia processor 50 rebounds the ball object 70 when the cursor 76 retreats with the ball object 70 at a speed equal to or higher than a predetermined value. This ^^, the parameters of the ball object 70 (speed and direction of movement) and the parameters of the cursor 7 6 (speed, direction of movement, direction of the center line in the longitudinal direction, side where the ball object 70 was wormed) Based on and, the rebound direction and speed of the ball object 70 are determined.

The player operates the input device 3 to strike back the ball object 70 with the force-sonore 76 before the ball object 70 reaches the final point. This: ^, the ball object 7 0 is hit only when the speed of the cursor 7 6 is above a certain value. Lobject 7 0 passes through force 1 7 6 and heads to the end 7 2. Therefore, the player has to move the input device 3 at a certain speed.

Further, when the player hits the ball object 70 at the timing when the Bonole object 70 arrives at the timing instruction line 74, the player can perform an action suitable for music. In other words, the multimedia processor 50 makes the ball object 70 appear at the appearance timing, interval, position, and ¾g that match the music to be generated.

Next, the transition of processing performed by the mano-media processor 50 for the above-described production (FIG. 14) will be described. Note that this process is not a flowchart synchronized with the video sync signal, but a state transition diagram for convenience of explanation as a process by the application program entered in step S3 of FIG. It explains using.

FIG. 15 is a state transition diagram of the rendering process of the second embodiment executed by the manolet media processor 50 of FIG. Referring to FIG. 15, mano media processor 50 displays the play screen (excluding ball object 70) in FIG. 14. In step S 1 7 3, the multimedia processor 50 checks the pattern data stored in the external memory 52. This pattern data is data that defines the direction (64 direction) and appearance timing of the ball object 70. In this case, the appearance timing is set to match the music being played when the Bonole object 70 force S reaches the timing indication line 74.

In step S 1 75, the multimedia processor 50 checks the pattern data. As a result, if the appearance timing of the ball object 70 is reached, the process proceeds to step S 1 7 7. Proceed to S.1 7 9 In step S 1 7 7, the mano-media processor 50 causes the ball object 70 to appear from the appearance direction indicated by the pattern data and move toward the end point 72 at a constant ¾g.

In step S 1 7 9, the multimedia processor 50 determines the power that the cursor 7 6 has selected as one of the ball objects 70, and ^ ¾ ^ proceeds to step S 1 8 1 and touches it. If not: ^ proceeds directly to step S 1 8 5. In step S 1 8 1, the multimedia processor 50 determines whether or not the cursor 7 6 is a force that is greater than or equal to a certain ¾g. Otherwise, go to step S 1 8 5. In step S 1 8 3, the multimedia processor 50 determines the parameters of the ball object 70 (speed and direction of movement) and the parameters of the cursor 76 (speed, direction of movement, longitudinal center line). Based on the direction, the side where the ball object 70 is wormed), and the rebound direction and speed are determined, and the ball object 70 is returned. Then, the process proceeds to step S 1 8 7. Meanwhile, In step S 1 8 5, the multimedia processor 50 determines whether or not the force has been applied to step S 1 79 for all the ball objects 70 displayed, and if not, step S 1 7 Return to 9 and if yes, go to Step S 1 8 7.

In step S 1 8 7, the multimedia processor 50 determines whether the ball object 7 0 has reached the end point 7 2, and the reached # ^ proceeds to step S 1 8 9, where the ball object 7 0 disappears and goes to step S 1 9 3, not reached: ^ goes to step S 1 9 1. At step S 1 9 1, Mano! ^ The media processor 5 0 determines whether or not it has performed the processing of step S 1 8 7 for all ball objects 70 displayed. Return to step S 1 8 7, if yes, go to step S 1 93.

In step S 1 93, the multimedia processor 50 determines whether or not the music has ended. If not, the process proceeds to step S 1 73. If completed, the process ends. The multimedia processor 50 performs the sound processing in step S9 in FIG. 8, and when the player hits the ball object 70 at the timing when the ball object 卜 70 reaches the timing instruction line 74, the operation is performed. Start playing the music so that it matches the music.

As described above, according to the present embodiment, the input device 3 has a built-in weight of a predetermined weight. Therefore, when the player moves the input device 3 and enjoys the above-described play, the player is loaded. You can do »in the state, which can contribute to maintaining or improving the player's health. In this production system, the player can hit the pole object 70 by moving the input device 3 and operating the cursor 7 6, so that the player just exercises in a loaded state compared to ^ It can give a certain kind of fun and increase the tendency to frustration. .

If the speed of the cursor 7 6 is not equal to or higher than a certain value, the ball object 70 is not hit back, so the player must move the input device 3 at a certain speed (movement *), and the player Can increase the amount of exercise.

(Embodiment 3)

As the hardware of the rendering system of the third embodiment, the hardware of the rendering system of FIGS. 1 and 2 is used. The flow of the program executed by the multimedia processor 50 is the same as in FIG. In the third embodiment, the shield object 66 is not used, but the control shown in FIG. 10 is performed to determine the player's movement.

FIG. 16 is an exemplary view of a play screen according to the third embodiment. Referring to FIG. 16 (a), the multimedia processor 50 includes a character object 94 imitating a human and a mouth object imitating an input device 3. A play screen including a tattoo 96, a rectangular notice mark 901, and a rectangular frame-shaped timing mark 92 is displayed on the television monitor 5.

The multimedia processor 50 causes the notice mark 90 I to appear from the right edge of the screen, moves it to the left edge of the screen at a constant level, and disappears there. The arrow written in the notice mark 90 I gives a notice of the direction in which the player should power his hand in accordance with the subsequent player action instruction mark 90P. Note that the multimedia processor 50 can also cause the character 94 to perform an action in synchronization with the notice mark 90 I to show the player an example of the movement. In other words, when entering the warning mark 90 I force and timing instruction mark 92, an animation in which the character 94 moves his hand in the direction indicated by the warning mark 90 I can be displayed.

Following the warning mark 9 0 I, as shown in FIG. 16 (b), the multimedia processor 50 causes the player motion f indication mark 9 0 P to appear from the right end of the screen to instruct the player to perform an action. Move to the left edge of the screen with ¾ ^, which is the same as K 9 0 I, and disappear there. The direction in which the player powers the hand is indicated by an arrow written in the player motion mark 9 0 P. Player action instruction mark 9 0 P force At the timing of entering the timing instruction mark 92, the player performs the action indicated by the player action instruction mark 90P.

Player power S, player action indication mark 9 0 When P enters the timing indication mark 92, the action indicated by the player action mark 9 0 P ^ \ Multimedia processor 5 0 Player movement t mark 9 0 A success mark (◯) is displayed on P (see Fig. 16 (a)).

In addition, when the player motion instruction mark 90P enters the timing instruction mark 92 and the player motion instruction mark 90P performs the action indicated by the player motion instruction mark 90P, the player may perform an action that matches the music. it can. That is, the multimedia processor 50 causes the player action instruction mark 90 P to appear at the appearance timing, interval, and so on that match the music to be generated. On the other hand, the player does not perform the action indicated by the player movement instruction mark 9 0 P at the timing when the player movement mark 9 0 P enters the timing instruction mark 92, and the multimedia processor 50 A; ^ mark (X) is displayed on the player operation instruction mark 9 0 P (see FIG. 16 (a)).

In addition, the multimedia processor 50 has a character 9 with a rod object 9 6.

Instruct the player to perform an action and give the player an example of movement. In other words, the player movement f t ^ mark 9 0 When the P force timing indication mark 9 2 is entered, the character 9 4 moves to the player movement f indication mark.

9 0 An animation of moving your hand in the direction indicated by P is displayed. Here, the arrow in the warning mark 9 0 1 and the player movement instruction mark 9 0 p alone cannot distinguish whether it is wi or movement with rotation. Therefore, the following measures are taken.

The notice mark 9 0 and the player action instruction mark 9 0 P displayed in the mouth object 9 8 correspond to the rod object 9 6 that the character 9 4 has. Make the right grip color (crossed shaded area) of mouth object 9 6 gripped by character 9 4 with the right hand the same as the right grip color (crossed shaded part) of mouth object 9 8 Yes. Also, the left drip color of the mouth object 9 6 that the character 9 4 grips with the left hand (upward diagonal line) and the left grip color of the rod object 9 8 (upward diagonal line part) are the same I have to. Therefore, the player can discriminate whether the movement is a W movement or a movement accompanied by rotation. Of course, it can also be distinguished by looking at the movement of the character 94.

Also, as shown in FIG. 16 (b), the multimedia processor 50 shows the action to be performed by the player also by the arrow object 97 and the characters displayed in the center of the screen. The upper arrow object 9 7 (upwardly hatched area) corresponds to the left drip (upwardly hatched area) of mouth object 96, and the lower arrow object 9 7 (crossed diagonal line area) is Corresponds to the right grip (crossed and shaded area) of object 96. This also facilitates the recognition of the action to be performed by the player.

In the present embodiment, the neutral state is a state in which the mouth object 96 is gripped with the character 94 force and a hand extending horizontally in the virtual space. The same applies to players. Also, six types of actions for performing the character 94 and for instructing the player are set. In other words, with the neutral state as the reference, the mouth dove jar 96 and the input device 3 are raised (first action), lowered (second action), and rotated clockwise only by the arm (third action). ), Rotate counterclockwise with arm alone (4th movement), move clockwise using up ^ (5th movement), and move counterclockwise using up ^ ( Sixth operation), and six types. A method for determining whether the player has performed these actions will be described.

FIG. 17 is an explanatory diagram of the movement I 淀 (up and down) of the third embodiment. The determination of the first operation will be described with reference to FIG. The multimedia processor 50 divides the screen of the television monitor 5 into three parts in the vertical direction, and sets areas 2 0 0 T, 2 0 0 Μ and 2 0 0 Β. The recursive reflection sheet 1 of the input device 3 is included in the image area 2 0 0 の of the 3 (see Fig. 17 (a)), and the force of the horizontal state (neutral state) forces the recursive sheet 1 3 When the image is included in the area 20 0 T (see Fig. 17 (b)) and it is level, the media processor 50 determines that the first operation has been performed. Determine. The same applies to the second operation. However, the areas 2 0 OM and 2 0 0 B are used. Note that the horizontal judgment is not strictly horizontal, but has a predetermined margin.

FIG. 18 is an explanatory diagram of operation determination (rotation) in the third embodiment. The determination of the third action will be described with reference to FIG. The multimedia processor 50 sets the areas 2 0 2 L, 2 0 2 M, and 2 0 2 R by dividing the screen of the television monitor 5 into three in the horizontal direction. From the horizontal state (neutral state) to the image power S region 2 0 2 M of the retroreflective sheet 1 3 When it is included and goes to the 45 degree state that goes up to the left, and when the image of the recursive sheet 1 3 is included in the region 2 0 2 M and becomes a force, one, and a perpendicular state, it is multi The media processor 50 determines that the third operation has been performed. The same applies to the fourth operation. However, the condition is that the state is 45 degrees from the horizontal state to 45 degrees and further vertical. The 45 ° and vertical judgments are not strictly 45 ° and vertical, but have a predetermined margin.

In the determination of the fifth motion, the image of the recursive sheet 1 3 is included in the region 2 0 2 M and the image of the recursive sheet 1 3 is included in the region 2 0 2 R from the horizontal state (neutral state). When the state becomes vertical, the multimedia processor 50 determines that the fifth operation has been performed. The same applies to the sixth operation. However, the region 2 0 2 M and 2 0 2 L force is applied. Note that vertical judgment is not strictly vertical, but has a predetermined margin.

In the above determination, the detection method of the center position and inclination of the input device 3, that is, the retroreflective sheet 13 is the same as that of the first embodiment (see FIG. 10).

Next, the transition of the process performed by the mano-media processor 50 for the sake of the above-mentioned results (FIG. 16) will be described. This process is regarded as a process by the application program executed in step S3 in FIG. 8. For convenience of explanation, this process is not a flowchart synchronized with the video sync signal. This will be described with reference to the drawings.

FIG. 19 is a state transition diagram of the rendering process of the third embodiment executed by the manolet media processor 50 of FIG. Referring to FIG. 19, multimedia processor 50 displays the play screen (notification mark 9 0 I, player movement mark 9 0 P, and J except for instruction animation) in FIG. In S 2 1 3, multimedia processor 50 is connected to external memory

5 Check the mark pattern data obtained in ¾¾¾. This mark pattern data is data that defines the type and appearance timing of the notice mark 90 I and the player action instruction mark 90 P. In this case, the appearance timing of the player action instruction mark 9 0 P is set to match the music being played when the player action indication mark 9 0 P force S is reached at the timing instruction mark 9 2. ing.

In step S 2 15, the multimedia processor 50 checks the mark pattern data, and as a result, the appearance timing of the warning mark 9 0 I or the player movement t mark 9 0 P has arrived: Proceed to 2 1 7 and ^ that has not arrived, proceed directly to step S 2 1 9. In step S 2 17, the multimedia processor 50 appears the notice mark 90 I or the player action instruction mark 90 P indicated by the mark pattern data from the right end of the screen and moves it constantly toward the left end of the screen.

In step S 2 19, the multimedia processor 50 checks the instruction pattern data stored in the external memory 52. This instruction pattern data is data defining the animation type and start timing of the character 94. The instruc- tion pattern data is set to synchronize with the player movement ^ t indicator mark 9 0 P determined by the character 94 pattern movement data (based on when the timing indicator mark 92 is reached). The

In step S 2 2 1, the multimedia processor 50 checks the instruction pattern data. As a result, the animation timing of the character 94 has arrived! ¾ ^ If not, go directly to step S 2 2 5. In step S 2 2 3, the multimedia processor 50 starts the animation of the character 94 indicated by the instruction pattern data.

In step S 2 25, the multimedia processor 50 checks the arrow pattern data stored in the external memory 52. This arrow pattern data is data that defines the type and appearance timing of the arrow object 97. The arrow pattern data is set so that the appearance of the arrow object 97 synchronizes with the player action instruction mark 90 P defined by the mark pattern data (based on the arrival of the timing instruction mark 92).

In step S 2 2 7, the multimedia processor 50 checks the arrow pattern data. As a result, if the appearance timing of the arrow object 9 7 has arrived, the process proceeds to step S 2 2 9. Proceed directly to step S 2 3 1. In step S 2 29, the mano media processor 50 displays the arrow object 97 indicated by the arrow pattern data for a predetermined time.

In step S 2 3 1, the mano-recimedia processor 50 determines whether or not the player movement instruction mark 9 0 P has reached the player's movement determination section. Proceed to step 3. If not reached, proceed directly to step S 2 3 5. The movement ^ l 淀 section is the timing finger This is a predetermined range on the left and right with the indication mark 92 as the center. In step S 2 3 3, the multimedia profiler 5 0 indicates the player's movement from the result of the input device 3, and the player motion instruction mark 9 0 P instructed in the timing instruction mark 9 2 indicates Judgment is made on whether or not the player has made the movement, and a success mark (◯) or a regular mark (X) is displayed on the player action instruction mark 90 P.

In step S 2 3 5, the multimedia processor 50 determines whether the warning mark 9 0 I or the player movement mark 9 0 P force S has reached the left edge of the screen. The notice mark 9 0 I or the player action indication mark 9 0 Ρ disappears, and the process proceeds to step S 2 39, and if not reached, the process proceeds to step S 2 39.

In step S 2 39, the multimedia processor 50 determines whether or not the music has ended. If it has not ended, the process proceeds to step S 2 13. If it has ended, the process ends. The multimedia processor 50 performs audio processing in step S9 in FIG. 8, and when the player performs an operation instructed when the player operation instruction mark 9 0 に reaches the timing instruction mark 92, Start playing music so that the action matches the music.

FIG. 20 is a flowchart showing the flow of the operation determination process in step S 2 33 of FIG. Referring to FIG. 20, in step S 2 51, the multimedia processor 50 determines that the first to sixth actions are based on the type of player action instruction mark 9 0 した that has reached the action determination section. Determine which action should be determined and, depending on the result, steps S 2 5 3, S 2 5 5, S 2 5 7, S 2 5 9, S 2 6 1, or S Proceed to 2 6 3.

In step S 2 53, the multimedia processor 50 determines whether the player has performed the first action (raising) based on the result of the input device 3 and returns. In step S 2 55, the multimedia processor 50 turns based on the result of the input device 3 by determining whether the player has performed the second action (lowering). In step S 2 57, the multimedia processor 50 determines, based on the result of the input device 3, whether or not the player has made a force that causes the player to rotate only the third operating arm, and returns. In step S 2 59, the multimedia processor 50 determines, based on the shooting result of the input device 3, whether or not the player has made a force (only counterclockwise rotation of the fourth movement arm) and returns. . In step S 2 61, the multimedia processor 50 determines whether the player has performed the fifth action (clockwise rotation in the upper body) based on the photographing result of the input device 3 and returns. . In step S 2 63, the multimedia processor 50 determines whether the player has performed the sixth action (counterclockwise rotation in the upper body) based on the shooting result of the input device 3, and returns. To do. FIG. 21 is a flowchart showing the flow of the first operation determination process in step S 2 53 of FIG. Referring to FIG. 21, in step S 2 8 1, the multimedia processor 5 0

3 indicates whether force is in neutral state. Determines if TB I flag is ON (neutral state) force. If ON, go to step S 2 8 9 because it is neutral. If OFF, step S 2 8 3 Note that the first flag is turned off by the initialization process.

In step S 2 8 3, the multimedia processor 50 determines that the image of the retroreflective sheet 1 3 is an area.

Judge whether the force is included in 2 0 0M. If not included, it is not neutral, so step S 2

Go to 9 5 and include: ^ go to step S 2 8 5. In step S 2 85, the multimedia processor 50 determines whether the image of the retroreflective sheet 1 3 is a horizontal force. If it is not horizontal, it is not neutral, so the process proceeds to step S 2 9 5 where horizontal ^ is neutral. Because step S

Proceed to 2 8 7 to turn on the first flag.

In step S 2 8 9, the multimedia processor 50 determines that the image of the recursive sheet 1 3 is an area.

It is determined whether or not the force is included in 2 0 0 T. Since the not included ^^ is not the first action, the process proceeds to step S 2 95, and if included, the process proceeds to step S 2 9 1. In step S 2 9 1, the multimedia profiler 5 0 determines whether the image of the recursion ^ h 1 3 is a horizontal force ^ and if it is not horizontal, it is not the first action, so it goes to step S 2 9 5 If it is horizontal and the player has performed the first action, step S

Proceed to 2 9 3 to display the success mark over the corresponding player action instruction mark 9 0 P. On the other hand, if it is determined that the player does not perform the first action ^ (steps S 2 8 3, S 2 8 5,

S 2 8 9, S 2 9 1), In step S 2 9 5, the multimedia processor 50 determines that a certain time has elapsed since the player movement indication mark 9 0 P reached the movement extension zone. If it has not passed, the process proceeds to step S 2 9 9.

Proceed to 7 and display the failure mark over the corresponding player action instruction mark 9 0 P. After step S 2 9 3 or S 2 9 7, in step S 2 9 9, the multimedia processor 5

0 returns with the first flag off.

Here, the determination process of the second operation in step S 2 55 of FIG. 20 is the same as the control of FIG. 21, and the description thereof will be omitted. However, in step S 2 8 9, region 2 0 0 T becomes region 2 0 0 B. FIG. 22 is a flowchart showing the flow of the third motion determination process in step S 2 57 of FIG. Referring to FIG. 22, in step S 3 1 1, the multimedia processor 5 0

Indicates whether the force 3 is in the neutral state Φ 1 Determines whether the flag is on (eutral state) force, and if it is on, it is neutral, so go to step S 3 1 9; if it is off, step S 3

1 Proceed to 3. It is assumed that the first and second flags are turned off by the initialization process. In step S 3 1 3, the multimedia processor 5 0 displays the image of recursive ^ 1

2 0 2M

3 Proceed to 3 and the included ^^ proceeds to step S 3 1 5. In step S 3 1 5, the multimedia processor 50 determines whether the image of the recursive sheet 1 3 is a horizontal force and is not horizontal: ^ Since it is not neutral, it proceeds to step S 3 3 3, and if it is horizontal, it is neutral. Therefore, the process proceeds to step S 3 1 7 to turn on the first flag.

In step S 3 19, the multimedia processor 50 determines whether or not the second flag is on. If it is off, the process proceeds to step S 3 21. If it is on, the multimedia processor 50 proceeds to step S 3 3 3. The second flag is a flag that is turned on when the image of the recursive sheet 13 of the input device 3 is included in the region 2 0 2 M and has a wisteria of 45 degrees.

In step S 3 2 1, the multimedia processor 50 determines whether the image of the recursive sheet 1 3 is included in the region 2 0 2 M, and if not included ^ proceeds to step S 3 3 3 and is included If so, go to Step S 3 2 3. In step S 3 2 3, the multimedia processor 50 determines whether the image of the retroreflective sheet 1 3 is 45 degrees up to the left, and if it is not 45 degrees up to the left, it goes to step S 3 3 3. If it is 45 degrees, go to step S 3 2 5 and turn on the second flag.

In step S 3 2 7, the multimedia processor 50 determines that the image of the recursive Sit sheet 1 3 is an area.

It is determined whether or not the force is included in 2 0 2 M, and since it is not the third action, the process proceeds to step S 3 3 3 and the process proceeds to step S 3 29. In step S 3 2 9, the multimedia profiler 50 determines whether the image of the recursive sheet 1 3 is normal force, and the vertical movement is not the third movement. If it is vertical, the player has performed the third action, so step S

Go to 3 3 1 and display the success mark over the corresponding player action instruction mark 9 0 P. On the other hand, if it is determined that the player is not performing the third action (steps S 3 1 3, S 3 1 5,

S 3 2 1, S 3 2 3, S 3 2 7, S 3 2 9), In step S 3 3 3, the multimedia processor 5 0 moves the player operation indication mark 9 0 P If it has not passed, the process proceeds to step S3 37.If it has passed, it is determined to have failed and the process proceeds to step S3 35. Player action instruction mark 9 0 A failure mark is displayed over P.

After step S 3 3 1 or S 3 3 5, in step S 3 3 7, the multimedia processor 50 turns off the first flag and the second flag and returns.

Here, the determination process of the fourth operation in step S 2 59 of FIG. 20 is the same as the control of FIG. I will omit the description. However, at step S 3 2 3, it is determined whether the image of the retroreflective sheet 1 3 is 45 degrees upward.

FIG. 23 is a flowchart showing the flow of the fifth operation determination process in step S 2 61 of FIG. Referring to FIG. 23, in step S3 51, the multimedia processor 50 indicates whether the input device 3 is in the neutral state. 1 ^ 1 Determines whether the flag is on (neutral state). If it is on, it is neutral, so proceed to step S 3 5 9. If it is off, proceed to step S 3 6 5. It is assumed that the first flag has been turned off by the initialization process.

In step S 3 5 3, the multimedia processor 50 determines that the image of the recursive sheet 1 3 is an area.

It is determined whether or not it is included in 2 0 2 M, and it is not included: ^ is not neutral, so proceed to step S 3 6 5, and included ^ proceeds to step S 3 5 5. In step S 3 5 5, the mano reciprocal media processor 50 determines whether the image of the recursive sheet 1 3 is a horizontal force and proceeds to step S 3 6 5 because it is not horizontal or neutral. Step S for being neutral

3 Go to 7 and turn on the first flag.

In step S 3 5 9, the multimedia processor 50 determines whether the image of the recursive Sli sheet 1 3 is included in the region 2 0 2 R and does not include it: tj ^ is not the fifth operation Therefore, the process proceeds to step S 3 6 5, and the included ^ proceeds to step S 3 6 1. In step S 3 6 1, the multimedia profiler 50 determines whether the image of the retroreflective sheet 1 3 is normal force ^, and if it is not vertical, the flow proceeds to step S 3 6 5 because it is not the fifth operation. In this case, since the player has performed the fifth action, the process proceeds to step S 3 63 and a success mark is displayed over the corresponding player action instruction mark 9 0 P. On the other hand, if it is determined that the player is not performing the fifth action (steps S 3 5 3, S 3 5 5, S 3 5 9, 3 6 1), in step S 3 6 5, the multimedia processor 5 0 is the player motion indicator 9 0 It is determined whether a certain amount of time has passed since P reached the motion determination section, and the player who has not passed proceeds to step S 3 6 9, Is judged as a failure, the process proceeds to step S 3 6 7, and a failure mark is displayed over the corresponding player action instruction mark 9 0 P. After step S 3 6 3 or S 3 6 7, in step S 3 6 9, the mano ^ media processor 50 turns off the first flag and returns.

Here, the determination process of the sixth operation in step S 2 63 of FIG. 20 is the same as the control of FIG. 23, and the description is omitted. However, in step S 3 5 9, region 2 0 2 R force ′; region 2 0 2 L is obtained. Next, a modified example will be described.

FIG. 24 (a) is a view showing an example of a notice screen of a modification of the third embodiment. Referring to FIG. 24 (a), in the modified example, the multimedia processor 50 has a character 10 0 imitating a human, an input device. A preview screen including a rod object 1 0 2 simulating device 3 and an operation indication mark 1 0 4 is displayed on the television monitor 5.

The multimedia processor 50 causes the character 1 0 0 with the rod object 1 0 2 to perform an action and shows the player an example of movement. In addition, the multimedia processor 50 sequentially displays the operation indication marks 10 4 sequentially from the ± ¾ edge of the screen to the upper right edge in accordance with the movement of the character 100.

A mouth object 1 0 6 is displayed in the action indication mark 1 0 4. The mouth object 1 0 6 corresponds to the rod object 1 0 2 held by the character 1 0 0. The right grip color of the mouth object 1 0 2 gripped by the right hand 1 0 0 (crossed shaded part) and the right grip color of the rod object 1 0 6 (crossed shaded part) should be the same. ing. Also, the color of the left grip of the rod object 1 0 2 that the character 100 grips with the left hand (upward diagonal line), the color of the left drip of the rod object 1 0 6 (upward diagonal line part), and , Are the same. Therefore, the player can also recognize the movement of the character 1 0 0 by looking at the rod object 1 0 6 of the action explicit mark 1 0 4. In the example shown in the figure, the character 1 0 0 is currently performing the movement indicated by the rod object 1 0 6 of the fifth motion indication mark 10 4 from the left.

When the display of the eight motion indication marks 1 0 4 and the character 1 0 0 has been completed, the multimedia processor is then operated as shown in FIG. 5 0 is a rectangular timing instruction mark (effect) 1 0 8 is moved from the leftmost operation explicit mark 1 0 4 toward the rightmost operation explicit mark 1 0 4 (play screen). The player performs the movement indicated by the action indication mark 10 4 surrounded by the timing instruction mark 10 8.

When the player performs the action indicated by the action explicit mark 1 0 4 at the timing when the timing instruction mark 1 0 8 encloses the action explicit mark 1 0 4, the multimedia processor 5 0 A success mark (○) is displayed in 4 (see Fig. 24 (b)). In addition, the player may perform an action that matches the music when the action indication mark 1 0 4 force S is shown at the timing when the timing indication mark 1 0 8 surrounds the action indication mark 1 0 4. it can. That is, the multi-media processor 50 moves the timing indication mark 10 8 at a timing suitable for the music to be played.

On the other hand, when the player does not perform the action indicated by the action indication mark 1 0 4 at the timing when the timing instruction mark 1 0 8 surrounds the action indication mark 1 0 4, the multimedia processor

5 0 displays a failure mark (X) in its operation clear mark 10 4 (see Fig. 24 (b)). In the modified example, a state in which the mouth object 1 0 2 is gripped with the hand extended horizontally forward in the character 1 0 force virtual space is defined as a neutral state. The same applies to the player. In addition, six types of forces S are set as the actions performed by the characters 100 and the actions instructed to the player. These points are the same as in the third embodiment. Further, the method for determining whether or not these actions are performed by the player is also the same as in the third embodiment.

In this way, in the modification, the player is instructed to perform the same movement after showing the model of the character 10 0 power movement, so that the player can accurately recognize the movement to be performed by the player.

Next, the transition of processing performed by the media processor 50 for the above statement (Fig. 24) will be described. This transition is the same as in Figure 11. However, step S 63 is not performed. Details will be described below with reference to FIG.

FIG. 25 is a state transition diagram of the notice stage (step S 6 1 in FIG. 11) of the modified example of the third embodiment executed by the manolet media processor 50 of FIG. Referring to FIG. 25, in step S 3 81, multimedia processor 50 determines that the notice screen shown in FIG. 24 (a) (excluding the motion indication mark 10 4 and the animation of character 100). Is displayed. In step S 38 3, the multimedia processor 50 checks the pattern data stored in the external memory 52. This pattern data is data that defines the type, position, and appearance timing of the operation explicit mark 104.

In step S 3 85, if the multimedia processor 50 checks the pattern data and the timing of appearance of the operation explicit mark 104 is reached, the process proceeds to step S 3 8 7 and has not arrived. ^ Proceeds directly to step S 3 8 9. In step S 3 87, the multimedia processor 50 displays the operation indication mark 10 4 indicated by the pattern data at the position indicated by the pattern data.

In step S 3 8 9, the multimedia processor 50 checks the instruction data written in the external memory 52. This instruction data is data that defines the start timing of the animation of character 100. The instruction data is set so as to synchronize with the movement force S of the character 100 and the action indication mark 10 4 defined by the pattern data.

In step S 3 91, the multimedia processor 50 checks the instruction data, and as a result, the start timing of the animation for character 1 0 0 has arrived and proceeds to step S 3 9 3. If not, go directly to step S 3 95. Step S 3

9 In 3, the multimedia processor 50 indicates the character indicated by the instruction data. Open the 1 0 0 animation.

In step S 3 95, the multimedia processor 50 determines whether or not the last animation of the character 100 indicated by the instruction data has ended. If not, step S 3 8 Proceed to 3 and return if completed.

FIG. 26 is a state transition diagram of the play stage (step S 65 in FIG. 11) of the modified example of the third embodiment executed by the multimedia processor 50 of FIG. Referring to FIG. 26, in step S 4 1 3, multimedia processor 50 displays a timing instruction mark 1 0 8 on operation explicit mark 1 0 4 on the left end of the screen. In step S 4 1 5, the multimedia processor 50 checks the same instruction data as the notice stage. In step S 4 1 7, if the multimedia processor 50 checks the instruction data, and the timing for opening the animation of character 100 is reached, it proceeds to step S 4 19 and has not arrived ^ Proceed directly to step S 4 2 1. In step S 4 19, the multimedia processor 50 opens the animation of the character 100 indicated by the instruction data.

At step S 4 2 1, the multimedia processor 50 is instructed by the player by the action indication mark 1 0 4 and the timing indication mark 1 0 8 in the same manner as at step S 2 3 3 in FIG. Judgment is made of the force that performed the action, and a success mark or ^ ί mark is displayed over the corresponding action indication mark 1 0 4. In step S 4 2 3, the multimedia processor 50 determines whether or not the timing indicator mark 10 8 has a force applied to the same position for a predetermined time, and the unrecognized level returns to step S 4 2 1 to stay. If yes, go to Step S 4 2.5.

In step S 4 2 5, since the timing instruction mark 10 8 stays at the same position for a predetermined time, the multimedia processor 50 moves the timing instruction mark 1 0 8 to the right. In step S 4 2 7, the multimedia processor 50 determines whether the timing indicator mark 10 8 has moved off the screen. If not, the process proceeds to step S 4 1 5. Ends processing.

The processing in FIGS. 25 and 26 is performed as a processing by the application program executed in step S3 in FIG. 8, but for convenience of explanation, the processing in the form synchronized with the video synchronization signal is performed. It was explained using a state-S transition instead of a flowchart.

As described above, according to the present embodiment and the modification, the player can select the type of action to be performed by the notice mark 9 0 I, the player action mark 9 0 P, and the action indication mark 1 0 4. The player action instruction mark 9 0 P can be recognized by the timing instruction mark 9 2 and 1 0 8 Oihi explicit mark 1 0 4 can recognize the timing to perform Table 1 "», so it can recognize the movement to be performed by itself more accurately.

In addition, since the input device 3 has a built-in weight of a predetermined weight, the player exercises in a loaded state, which is suitable for shape-up and the like.

(Embodiment 4)

The hardware of the production system shown in FIGS. 1 and 2 is used as the production system hardware of the fourth embodiment. The flow of the program executed by the multimedia processor 50 is the same as in FIG. In the fourth embodiment, the shield object 66 is not used, but the control shown in FIG. 10 is performed to determine the player's movement.

FIG. 27 is an illustration of the play screen of the fourth embodiment. Referring to FIG. 27, the mano remedy processor 50 displays on the television monitor 5 a play screen including a human-like character 80, a pictograph 82, a counter 84, and a text display unit 86. .

The multimedia processor 50 causes the character 80 to perform a stretching exercise and instructs the player to take the same character as the character 80. Also, the pictograph 8 2 and the counter 8 4 form clearly indicate ^! In addition, the text display area

8 6 shows the appearance that the player should take.

The multimedia processor 50 starts counting the time after the player holding the input device 3 takes a certain value ^. And the mano reciprocal media processor 50 has a counter 8 4

Flashes at 1 second intervals. The player can grasp how long he / she is standing by looking at the counter 84.

When a certain amount of time has elapsed since the player took a certain ^ !, the multimedia processor 5 0 causes the character 8 0 to take the next ^! And, depending on its appearance, the pictograph 8 2, the text display section. 8 6 and counter 8 4 are changed to instruct the player to take the form. In this way, the player's stretching exercise is supported by switching the display of the character 80, the pictograph graph 82, the text display unit 86, and the counter 84. The certain time to be counted is determined in advance according to the form to be taken.

Here, the determination of ^ taken by the player is performed by detecting the input device 3 held by the player with the image sensor 54. That is, it is determined how the input device 3 has moved, and the difficulty of the player is estimated. This movement determination method is the same as in the third embodiment. For example, when it is determined that the player has performed the sixth action, it can be inferred that the final difficulty of the player is the appearance shown by the character 80 in the example of FIG. Also input device 3, ie recursive The method for detecting the standing position in the sheet l 3 is the same as in the first embodiment.

Next, the transition of processing performed by the mano-media processor 50 for the above-described production (FIG. 27) will be described. This process is regarded as a process by the application program entered in step S3 of FIG. 8, but for convenience of explanation, a state transition diagram is used instead of a flowchart in synchronization with the video synchronization signal. It explains using.

FIG. 28 is a state transition diagram of the rendering process of the fourth embodiment performed by the mano-media processor 50 of FIG. Referring to FIG. 28, in step S4 41, the multimedia processor 50 reads the play screen (pictograph 8 2, text display portion 8 6, counter 8 4, and character 8 in FIG. (Excluding the animation of 0.) is displayed. In step S 4 4 3, the multimedia processor 50 compares the pictograph 8 2 according to the first pattern data, the text display section 8 6 according to the second pattern data, and the counter 8 4 according to the third pattern data. Is displayed (f). The first pattern data is data that defines the type and appearance timing of the pictograph 82. The second pattern data is data defining the seed plate appearance timing of the text display part 86. The third pattern data is data that defines the type, position, and appearance timing of the counter 84.

In step S 4 45, the multimedia processor 50 checks the instruction pattern data obtained in the external memory 52. This instruction pattern data is data that determines the animation seed and start timing of the character 80. The instruction pattern data is set so as to correspond to the movement indicated by the movement power first to third pattern data of the character 80.

In step S 4 4 7, the multimedia processor 50 checks the instruction pattern data, and as a result, the opening timing of the animation of character 80 has arrived: ^ advances to step S 4 4 9 and arrives. If not, go directly to step S 4 5 1. In step S 4 4 9, the multimedia processor 50 opens the animation of the character 80 indicated by the instruction pattern data.

In step S 4 51, the multimedia processor 50 keeps the player instructed by the character 80 etc. in the same manner as in step S 2 33 in FIG. Judgment is made. In step S 4 5 3, the multimedia processor 5 0 determines that the player maintains the indicated ^ proceeds to step S 4 5 5 and determines that it does not maintain the ^: step S 4 5 Proceed to 7.

In step S 4 5 5, multimedia processor 50 starts counter 8 4 and Flashes every second. On the other hand, in step S 4 5 7, the multimedia processor 50 stops the counter 8 4 and stops blinking. In step S 4 5 9, the multimedia processor 50 determines whether the time counted by the counter 8 4 has exceeded the predetermined time. If not, the process proceeds to step S 4 5 1. Advances to step S 4 6 3. In step S 4 6 3, the multimedia processor 50 determines whether or not all the items of the predetermined exercise menu are finished, and if not finished ¾ ^ goes to step S 4 4 3, The pictograph 8 2 is updated according to the one pattern data, the text display unit 86 is updated according to the second pattern data, and the counter 84 is updated according to the third pattern data, and the exercise menu ends. As described above, the player can perform the stretching exercise by maintaining the ^! Indicated by the character 80, and can also know the time during which the character is maintained. Therefore, this production system can support stretch exercise. Further, since the input device 3 has a built-in weight of a predetermined weight, the player performs stretching in a loaded state, which is suitable for shape up and the like.

The present invention is not limited to the above-described embodiment, and can be implemented in various modes without departing from the gist thereof. For example, the following modifications are possible.

(1) In male form 1, both the attack opening direction and the attack direction were notified by the notification object 62. However, either one of them can be announced in advance.

(2) Instead of attaching a 5-year-old like the recursive Sit sheet 13 to the input device 3, a self-luminous device such as a red light diode can be attached. This is because the information processing 1 does not require the infrared light emitting diode 9. By attaching a reflective member or a self-luminous member to the input device, the processing power S for extracting the image of the input device from the image becomes easy. This is because the input device is reflected more clearly. Therefore, it becomes easy to detect the movement of the input device S, and it is easy to display the signal on the television monitor with a spider according to the detection result. However, without using an input device, it is also possible to detect a motion by displaying the image by taking a picture of an image sensor, a CCD, or the like.

Although the present invention has been described in detail with reference to the embodiments, it is obvious that the present invention is not limited to the embodiments described in the present application. The present invention can be implemented as modified and changed modes without departing from the spirit and scope of the present invention defined by the description of the scope of claims.

Claims

The scope of the claims

1. The step of displaying the first object on the display device according to the movement of the player, and the start state of the operation before the second object displayed on the display device performs the action. A step to clearly indicate to the self-display device;

After clearing the editing start mode of the editing program, make the editing object the second editing object,

Within a predetermined time after the second object of selfishness starts stumble work, determine whether or not the rn object is displayed in a mode corresponding to the start mode specified on the display device. And a directing method comprising:

2. After the end of the ia operation, and before letting the 2 objects perform the self-work, w and 2 objects will start displaying the tfft home ^] work. The rendering method according to claim 1, further comprising a step performed on the device.

3. The self-judgment step determines that m 1 object corresponds to the self-starting mode specified in the tfits¾ display device within the specified time after the second object starts irf self-initiation. 3. The production method according to claim 1 or 2, further comprising a step of determining a time until completion of the self-initiating operation of the HUfB ^ 2 object when it is determined that the display is in the form.

4. The knitting start mode of the knitting work is the tilE place ¾ «the direction and starting position of the J work. The judging IE step is the timing at which two objects start the knitting work ^]. The first object is set in the direction corresponding to the self direction specified on the display device. The production method according to claim 1.

5. The start mode of the predetermined operation is a direction of the predetermined operation,

Judging fflt step is the timing when the second object of it itself starts the work of tins ¾®J, and the first object of fil! E is displayed in the orientation according to the direction of selfishness specified on the display device. The production method according to claim 1, wherein the directing force is determined.

6. The tins start mode of tins work is the establishment of the work

The ftjf self-determining step is that when! E 2nd object starts work ¾15, is the force that 1 object moves to a predetermined range including the self-establishment position specified on the iE display device? The production method according to claim 1, wherein:

7 · Move multiple first objects from multiple directions toward a predetermined position on the screen of the display device. A step to move,

When the second object linked to the player's movement is displayed on the display device and when the tin second object and the first object are in a predetermined positional relationship, the second object is displayed.

A step of moving an object in accordance with a predetermined rule;

8. The effect method according to claim 7, further comprising a step of performing a display for instructing a timing of returning the first object by the second object.

9. Move the ^ ίίΐΞ step when the speed of the second object of tiilB is equal to or higher than the predetermined value, and when the second object of self and the first object of tiilH are in the predetermined positional relationship. The production method according to claim 7 or 8, wherein the first object is moved according to a predetermined rule of tiHE.

1 0. displaying the character on the display device;

Different from the step of letting the self character perform a predetermined type of movement in a predetermined order, and the timing when the tiff self character makes a predetermined type of movement in a predetermined order A step of explicitly displaying tins a predetermined type of movement of ffriE in a predetermined order on a tilt display device at a timing.

1 1. In the tins step, the multiple objects prepared for each predetermined type appear in the knitting display device in the predetermined order and pass the timing indication object. Includes a step of moving in a predetermined direction,

The rendering method according to claim 10, wherein the timing at which the object passes through the timing instruction object is after the llE character performs the type of movement represented by the object.

1 2. The above steps to specify

Disposing a plurality of objects prepared for each predetermined type in a predetermined order and displaying them on a display device;

tirf self, giving to the plurality of tillB objects arranged in the predetermined order tillB in the predetermined order, and

The rendering method according to claim 10, wherein the timing of applying the effect is performed after the character that performs the tilt self-effect has performed the movement of the type shown in Table 10.

1 3. The stage method according to claim 11, wherein the heel object moves in accordance with the selfish music.

1 4. The method according to claim 12, wherein the SfJlE effect is given in accordance with tir! E music.

1 5. Displaying the character on the display device;

L Let your character perform a predetermined movement;

Detecting the movement of the player; fijf self, when a tiff player movement according to a predetermined movement is detected, opening a time force unit;

Directing the time elapsed since the start of counting to the display device directly or indirectly, and an effect method.

1 6. There is an operation Mr 'held by the operator and given movement,

An operation in which a gift that recursively refracts the received light or a light that emits light by itself is attached, and a weight of a predetermined weight that applies a predetermined load to the operator is attached.