JP3401899B2 - Image display processing device - Google Patents

Description

Detailed Description of the Invention

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to an image display processing apparatus, and in particular, one form for display is divided into a plurality of units in a predetermined unit, and each divided part is displayed by data having a predetermined relationship. The present invention relates to an image display processing device having such a shape.

[0002]

2. Description of the Related Art Generally, this type of image display processing apparatus is
A display object (hereinafter referred to as "character") according to the display signal.
Say. ) And other screens, a memory for storing data such as the coordinates of the character and its various series of movement states, and a memory for storing other necessary data and processing programs, and operating the character. Based on the operation signal from the operation panel and the operation signal from the operation panel, a process for movably displaying the character on the display device is executed according to various data in the memory and the processing program. , And a data processing device that outputs a screen including the processing result as a display signal.

When such an image display processing device is turned on and a necessary operation is given to the image display processing device, the data processing device operates according to a program in the memory to perform the following processing. Run.

When an operation signal is given to the data processing device from the operation panel, the data processing device takes out the required movement state data from the various movement state data of the character in the memory based on the operation signal. , Executes processing for moving the character on the display device. Then, the data processing device forms a display signal of the screen including the processing result on another screen displayed according to the program or the like, and gives the display signal to the display device. As a result, the character moves on the display device within the predetermined background specified by the operation panel.

By the way, in the above-mentioned conventional image display processing device, in order to move the character on the display device, data is prepared for all modes of each motion for the entire image of the character, and this data is prepared. The data is tabulated and stored in the memory, and based on the operation signal from the operation panel, all the data of the motion relating to the character is taken out from the table, and based on this, the character is moved and displayed on the display device.

[0006]

However, in the conventional image display processing device, a large amount of data is required for each motion of each character in order to move the character on the display device. However, it has a drawback that it requires a large capacity and a large capacity memory.
Therefore, creating such a table requires a lot of labor and time.

Further, in the image display processing apparatus, since the character moving display is executed while referring to the table having a large amount of data, there is a drawback that the processing time becomes long and the image display is delayed.

Therefore, an object of the present invention is to provide an image processing apparatus capable of reducing the amount of data required to move and display a display feature in order to solve such a problem. It is another object of the present invention to provide an image display processing device capable of shortening the processing time for displaying a display feature and rapidly executing image display. Moreover, it aims at providing the image display processing apparatus which can diversify the expression of a character.

[0009]

In order to achieve such an object, the image display processing apparatus of the present invention comprises display means for displaying a display feature; and an operation signal for operating the display feature. operation means for outputting; before one of the components
Data storage area for basic parts for arranging the central part as a basic part in the coordinate system in a series of movements of the display feature, and the accessory parts other than the basic part, relative to the basic part. Storage means having a data storage area for accessory parts to be physically arranged; data for outputting a display signal to the display means based on the air operation signal and the storage data of each storage area in the storage means A processing device,
An image display processing device comprising:
The data storage area consists of a series of movements of basic parts.
Storage data area for the accessory parts,
For the above-mentioned basic parts of each accessory or other accessories
At least the relative coordinate data and relative angle data
The data processing device, the data processing device
The layout of the basic parts is determined based on the data
Relative coordinate data with respect to the basic parts or other accessory parts
Data or relative angle data,
The arrangement of the accessory components other than the basic component is determined .

The image display processing apparatus of the present invention is a human body.
Display means for displaying similar display features, and said display form
An operation means for outputting an operation signal for operating the body,
At least an abdominal part and a waist part
Divided into a plurality of parts, the abdomen of the parts
Or for placing the waist in the coordinate system as a basic part
Data storage area for basic parts and accessories other than the basic parts
The parts are arranged relative to the basic part.
For storing data for accessory parts for storage
And a description of the operation signal and each storage area in the storage means.
Output a display signal to the display means based on the stored data
An image display processing device including a data processing device.
The basic component data storage area is
Includes motion data consisting of a series of movements
The storage data area for parts is used for the above-mentioned basic parts of each accessory.
Relative coordinate data and relative to other accessories
The data processing includes at least one of angle data
The device is based on the motion data
Determine the layout and add the basic parts or other
Of relative coordinate data and relative angle data for metal parts
Based on any information, the above accessories other than the above basic parts
It is characterized by determining the arrangement of parts.

Further , the image display control method of the present invention is
A table consisting of multiple parts arranged in a three-dimensional coordinate system in space
The motion of reading the display form from the storage means
It is an image display control method that controls display based on data.
In the series of movements of the display form among the parts,
Select the central part as the basic part and the other parts as the basic parts.
Selecting as an accessory of the part, and the memory
Predetermined from among multiple motion data stored in columns
The step of selecting motion data and said selecting
Coordinate position and time of the basic part
Determining and storing a turning angle, and the selected
Based on motion data, the basic parts are
The step of placing in the coordinate system and the coordinate position of the basic part
Based on the rotation angle and the rotation angle,
Relative coordinate data and other related accessories
And determining the angle data and storing the
Display means for forming an image signal based on stored data of a product
And a step of outputting to
is there.

Further , the image display control method of the present invention is
At least part of the abdomen that is placed in the three-dimensional coordinate system of space
And a human-like body composed of a plurality of parts having a waist part
The display of the display feature is displayed on the motion
Image display control method for controlling display based on
The part of the abdomen or the waist of the parts
Select this part, and other parts as accessory parts of the basic part.
And the step of selecting the
Predetermined motion data from a number of motion data
The step of selecting the
Determine the coordinate position and rotation angle of the basic parts
Storing step and the selected motion data
Based on the above, the basic parts are arranged in a three-dimensional absolute coordinate system.
Step and coordinate position and rotation angle of the basic parts
Based on the above-mentioned basic parts or other in a predetermined connection
Determines relative coordinate data and angle data for accessory parts
The step of storing and storing
Based on the step of forming an image signal based on
It is characterized by having the following.

[0013]

[0014]

[0015]

According to the present invention, relative data with respect to the reference component is stored in the accessory component storage area, and all the components are displayed on the display device by the relative data and the data stored in the reference component storage area. The data to be placed in the coordinate system of can be obtained. Normally, when the display feature is displayed on the display means, there is a plurality of display modes of the display feature because the display feature moves. According to the present invention, it is sufficient to store only the relative data of the accessory parts for all the aspects, and even if there is no absolute data for each aspect for arranging the accessory parts in the coordinate system of the display means, the accessory parts. Can be displayed. As a result, the amount of data required to move and display the display feature can be reduced, the processing time for displaying the display feature can be shortened, and image display can be performed more quickly.

Since the basic component data storage area is provided with motion data consisting of a series of movements of the basic component, the display feature can be moved and displayed while shortening the processing time for image display. .

By storing the relative coordinate data and the relative angle data in the storage data area for accessory parts, the display of the display features can be diversified. Since the relative data is the data for the adjacent basic parts or other accessory parts, the relative data of the adjacent parts are sequentially calculated to combine the calculated data, and the data of the whole image of the display form can be quickly obtained. it can.

Since the storage means has a storage area for storing data indicating the connection relationship between the parts, the connection of the parts can be accurately determined. The display form is a form similar to a human body, and by using a part, which is the center of the series of movements, of the form similar to the human body as a basic part, a series of movements of the display form can be accurately displayed. it can.

The storage means is provided with a storage area for storing data relating to display characteristics such as color and material of each component, so that the display of the display features can be diversified. Further, by configuring the basic component and the accessory component from an aggregate of a plurality of polygons, it is sufficient to provide data for arranging each component in the coordinate system of the display device at the vertices of the polygon. Since it is not necessary to provide data for all pixels, the amount of data for displaying the display feature can be further reduced.

Since the storage means includes a plurality of the motion data, and the processing means includes a motion selection means for selecting a predetermined motion data based on an operation signal from the operation panel, the display means can display the plurality of motions. It is possible to move and display the features, and it is possible to further diversify the display of the features for display.

Further, the data processing device forms a display feature by calculating data for arranging each accessory in the coordinate system from the data of the basic part in one mode of the series of movements, and all modes. By sequentially configuring the display features, the display features are sequentially configured in the course of a series of movements of the display features. As a result, the moving display of the display form can be executed quickly.

Further, by constructing the coordinate system in three dimensions, the display feature can be displayed three-dimensionally, and the realism of the display screen can be improved. The basic component data storage area can stereoscopically display the display feature by including the rotation angle data of the basic component in the coordinate system.

[0023]

Embodiments of the present invention will be described below with reference to the drawings. FIG. 1 is a diagram for explaining an embodiment of an image display processing device according to the present invention. In FIG. 1, the image display processing device 1 is roughly divided into a display 2 as a display device for displaying the characters Ca, Cb, etc., a memory 3 for storing various data, tables and programs, and the display 2 for displaying. Character Ca or C
An operation panel 4 for giving an operation signal for movement command to b, and a data processing device for producing display data by referring to various data in the memory 3 based on the operation signal from the operation panel 4 and giving it to the display 2. 5 and. Each device is configured as follows.

The display 2 includes a data processing device 5
And is displayed three-dimensionally as one screen 6 including the characters Ca, Cb and other screens (for example, background screen (BG)) according to the display signal supplied from the data processing device 5. It is a thing. Note that, here, to display three-dimensionally means that the display 2 has a three-dimensional coordinate system and an image is displayed three-dimensionally.

As shown in FIG. 2, the character Ca or Cb (hereinafter, the character will be generically represented by "C") is, for example, 16 fixed parts U1. ~ It is composed as a collection of U16.

Each component is configured as an aggregate of polygonal bodies such as triangles and squares (hereinafter referred to as "polygons"). As a result, in order to display each component on the screen, it is possible to give coordinate data for the vertices of each polygon. If each part is an aggregate of all pixels, it is necessary to give coordinate data of all pixels. Therefore, if each part is a set of polygons, the amount of data is small, and the processing time for displaying an image can be further shortened.

Each of the above parts (hereinafter, "polygon unit")
Say. ) One of the U1 to U16 polygon units is selected as the basic component unit, and the other polygon unit is selected as the accessory component unit. As a unit of the basic part, it is preferable that it is a central polygon unit of this motion in a series of movements of the character (hereinafter referred to as “motion”, for example, refer to FIG. 3). Polygon unit U1 is preferred. The waist polygon unit U10 may be used.

In the characters Ca and Cb, the abdominal polygon unit U1 is arranged in the three-dimensional absolute coordinate system of the display 2, and the polygon units U2 to U16 are arranged relatively with respect to the polygon unit U1. It is connected to the abdominal polygon unit U1 so that it can be displayed as an object whose shape changes as a whole.

FIG. 4 shows details of a data storage area (table) regarding the basic part polygon unit and the auxiliary part polygon unit in the memory 3. Of these, 31 is a region for storing motion data of a character, and this region 31 stores absolute coordinate data of the abdominal polygon unit U1 which is the component for each mode of a series of motions for each of a plurality of motions. ing. The absolute coordinate data refers to coordinates corresponding to the coordinates on the display screen of the display 2. Here, there are a plurality of motions, and FIG. 3 is an example thereof. This motion data is, for example, 5 for one character C.
It is sufficient to prepare about 00 to 700.

In addition to the absolute coordinates of each motion, rotation angle data of the basic part polygon unit U1 with respect to the virtual axis is stored in the storage area 31 for each mode in a series of motions of each motion. ing. The coordinate data and the angle data in the motion data are set and stored for each polygon in the basic part U1.

Reference numeral 32 is a polygon unit U1 of the abdomen.
Is a region for storing data of other accessory unit U2 to U16, and the relative coordinate data D1 (x1, y1, z1), D2 (x
2, y2, z2), D3 (x3, y3, z3), ... Are stored.

The relative coordinate data is composed of relative coordinate data of all polygons in each part with respect to a predetermined center point of each part. The storage area 32 stores the angle (θ) of each polygon unit with respect to the adjacent polygon unit. More specifically, with reference to FIG. 5, which is an enlarged view of FIG. 2, for example, an abdominal polygon unit U1 to which the chest polygon unit U2 is connected.
To the polygon unit U2 of the chest to which the polygon unit U3 of the head is connected (θ2), and the angle (θ3) to the polygon unit U2 of the chest to which the polygon unit U4 of the upper arm is connected. , The angle (θ4) with respect to the polygon unit of the upper arm to which the polygon unit U5 of the lower arm is connected, and the angle (θ5) with respect to the polygon unit of the lower arm U5 to which the polygon unit U6 of the wrist is connected. As described above, the angle between the polygon unit of each accessory and the other polygon unit to which it is connected is stored for each polygon unit.

The polygon unit U2 of each accessory
The distances L1, L2, L3 ... Of the predetermined (or virtual) center points of the respective U to U16 to the predetermined (or virtual) center of the adjacent component polygon units are stored. Furthermore, data indicating the connection relationship between the respective polygon units, for example, the upper arm polygon unit U4 is connected to the chest polygon unit U2, and the lower arm unit U5 is connected to the polygon unit U4. Characteristic data K1, K2, K3 ... Are also stored.

That is, the storage area 32 stores the relative coordinate data, the angle data, the distance data between the predetermined center of each component and the center of the basic component, and the connection relation data for each polygon unit of each accessory component. Remembered

Further, the memory 3 includes color data E1, E2, E3, ... For all polygons U1, U2, U3, ... For each of the component polygon units including the basic unit polygon unit U1, and the material ( It has a storage area 33 in which data regarding display characteristics such as data F1, F2, F3 ... Representing wood grain and metal surface) is stored.

Further, as shown in FIG. 1, the memory 3 is connected to the data processing device 5, and the character C
4 for three-dimensional display of various storage areas 31 to 33 shown in FIG. 4 and other necessary data (for example,
It stores data for displaying a background image) and a processing program. Each of these data and programs
It is provided to the data processing device 5.

The operation panel 4 is connected to the data processing device 5 so that an operation signal for operating the character Ca or the character Cb is formed and given to the data processing device 5. The data processing device 5 displays the character C on the basis of the operation signal from the operation panel 4 in accordance with various data in the memory 3 and the processing program.
The process of moving and displaying the above is executed, and the screen including the process result is output as the display signal Vd.

Further, the data processing device 5 is provided with a CPU 50 for executing various kinds of processing, and this CPU 50 is
It operates according to various motion data and programs in the memory 3, and realizes a motion selection means 51, a motion position determination means 52, a motion angle determination means 53, and an image output control means 54.

FIG. 6 is a functional block diagram showing the image display processing apparatus 1. In FIG. 6, the CPU 50 reads the operation signal from the operation panel 4 by executing the above program, and selects a predetermined one of the motions of the character C from the motion data 31 of the memory 3 based on the operation signal. Motion selection means 51
A motion position determining means 52 for determining the coordinate position of each part with respect to the motion selected by the motion selecting means 51, and each of the polygon units U2 to U16 for the position determined by the motion position determining means 52. The motion angle determining means 53 for determining the angle and the image output control means 54 for forming an image based on the data of the polygon units U1 to U16 obtained from the motion angle determining means 53 are realized.

Further, the data processing device 5 is
It is composed of the CPU 50 and an image output control circuit 55 which forms a display signal based on the image signal from the CPU 50 and the image data stored in the ROM of the memory 3 and supplies the display signal to the display 2.

The operation of the embodiment of the image display processing apparatus having the above configuration will be described with reference to FIG. Figure 7
8 is a flowchart for sequentially calculating coordinate data and angle data of each component, and FIG. 8 is a matrix MD formed in the RAM of the memory 3 for storing the calculated coordinate data and angle data of each polygon unit. Is. In this matrix, the coordinate data and the angle data of the polygon unit of each part are sequentially stored each time they are calculated.

In such an image display processing device 1,
First, when the power is turned on, and then the processing device 1 is operated by performing a necessary operation, the data processing device 5 starts operating according to the program in the memory 3, and the CP
U50 realizes each means 51, 52, 53, 54. When the operation signal is given to the data processing device 5 by operating the operation panel 4, the motion selecting means 51 realized by the CPU 50 makes the motion data storage area 31 in the memory 3 based on the operation signal. Specific motion data is selected from the predetermined motion data among these, and thereby absolute coordinate data in the first mode ((a) of FIG. 3) of the series of continuous movements of the polygon unit U1 is determined. At the same time (S101), the rotation angle of the polygon unit U1 in this mode is determined. These coordinate data and angle data are stored in the memory 3
Save to stack matrix (SMT) in RAM
rush) (S102).

The coordinate data and angle data of the polygon unit U1 of the abdomen are stored in the storage matrix MD (see FIG. 8).
It is loaded in the corresponding address of (See). Then, the motion position determining means 52 uses the coordinate data and the rotation angle data of the polygon unit U1 of the abdomen in the SMT, and the table 3
The coordinate data of the chest polygon unit U2 with respect to the reference polygon unit is calculated with reference to the relative coordinate data D1 of the chest unit U2 connected to the abdominal unit U1 in 2 (S103). That is, the polygon unit U
The coordinate of the center of the unit U2 with respect to the unit U1 is determined from the data of the distance of the predetermined center of the unit U2 from the predetermined center of 1, and the unit of each polygon is determined from the relative coordinates of each polygon in the unit U2 with reference to this coordinate. U1
The coordinate data for can be calculated. As a result, the coordinates of the chest polygon unit U2 in the coordinate system of the display device are calculated and determined.

The motion angle determining means 53 uses the coordinate data and rotation angle data of the polygon unit U1 in the SMT and the angle data (θ2) of the chest unit U2 in the table 32 to determine the actual display coordinate system of the unit U2. The angle data of is calculated.

These data are stored in the corresponding addresses of the display matrix shown in FIG. 8 and also saved in the SMT (S106). Hereinafter, since the data of each component is calculated and then sequentially stored in the storage matrix MD, it will not be described each time.

Next, the motion position determination means 52 extracts the coordinate data of the unit U2 and the coordinate data of the polygon unit U3 of the head from the relative coordinate data of the polygon unit U3 of the head in the table 32 in the table 32. The calculation is performed (S105). Similarly, the motion angle determination means 53 calculates the angle of the unit U3 from the coordinate data and angle data of the unit U2 in the SMT and the relative angle data of the polygon unit U3 of the head in the table 32.

Next, by the pop command, the data of the chest polygon unit U2 stored after the SMT is changed to p.
Opted (S106), and this data is referred to for calculation of the part of the right arm connected to the chest unit. In addition,
Since the chest data is used for the left arm calculation after the right arm unit calculation, it is saved in the stack again by the push instruction at the same time as pop (S107).

Next, the process proceeds to the upper right arm calculation process (S108). This processing is similar to the above-described steps S103 and 105, and based on the coordinate data and angle data of the chest polygon unit U2, the polygon unit U4 of the upper right arm portion.
The coordinate data and the angle data are calculated.
Further subsequently, the coordinate data and angle data of the polygon unit U5 of the lower right arm are calculated (S109). Further, the coordinate data and angle data of the polygon unit U6 of the wrist are calculated, and the calculation of the polygon unit for the right arm is completed. For these calculations, the characteristic data K for each polygon unit of the storage table 32 shown in FIG. 4 is referred to so that each component can be connected to a predetermined component. This also applies to the following description.

Next, the stack matrix (SM
T) data (data of the chest polygon unit U2) is popped (S111), and from the read data, the data of the left upper arm polygon unit U7, the left lower arm polygon unit U8, and the left wrist polygon unit U9 are sequentially arranged. It is calculated (S112 to S114).

Then, SMT is popped again (S115).
Then, the coordinate data and angle data of the abdominal polygon unit U1 pushed in S102 are read into the register, and the coordinate and angle data of the waist polygon unit U10 are calculated based on this data (S1).
16). Since the data of the waist polygon unit is necessary for the calculation of the polygon unit of the foot connected to the waist, it is saved in the stack matrix SMT (S1).
17).

Then, as described in the calculation of the right-hand polygon unit, the coordinate data and the angle data of the polygon units U11, U12, U13 of the right upper leg, the lower right leg, and the right ankle are sequentially calculated based on the data of the waist polygon unit. It is calculated (S118 to S120). Furthermore, SMT is po
Then, the coordinate data and the angle data of the polygon units U14, U15, U16 of the upper left leg, the lower left leg, and the left ankle are calculated based on the data of the waist polygon unit (S122 to S124).

As described above, the image data of the upper body of the character is calculated by the processing of S101 to S114,
Moreover, the image data of the lower half of the character is calculated by the processing of S115 to S124. Therefore, when the series of processes are completed, the coordinate data and the angle data of all polygon units of the first mode ((a) of FIG. 3) of the predetermined motion are calculated, and at the same time, all the data are stored in the storage matrix MD ( (See FIG. 8).

The image output control circuit 54 (see FIG. 6)
Forms an image signal for displaying an image from the data in the matrix MD. Then, the image output control circuit 55 forms an image signal Vd including this image signal and other image data (for example, a background image) set and stored in the memory 3, and outputs these signals together with the display device control signal. Output to the display 2. As a result, the entire image of the character in the first mode among the selected motions is displayed.

After that, based on the data of the abdominal polygon unit U1 in the second mode of the selected motions, the processing shown in FIG.
The entire image of the character of the second aspect ((b) of FIG. 3) is displayed. By repeating this in sequence, it is possible to display the character aspects of all the scenes (moments) constituting the series of motions of the selected motion (see FIG. 3). Then, when the processing for the last character mode ((m) in FIG. 3) is completed, the display of the selected motion is terminated.

Therefore, by continuing the above processing, the character C will be, for example, as shown in FIG.
It is displayed in the shape as shown in FIG. 3A, and at time t2, it is displayed in the shape as shown in FIG.
At time t13, the character C is displayed, for example, in the shape shown in FIG. 7 (m), and the character C appears to be continuously moving on the display 2.

In the process of the process shown in FIG. 7, the process shown in FIG.
The table 33 shown in FIG. 1 is sequentially referred to, and the storage data for specifying the predetermined color E, the material F, etc. for each polygon of each polygon unit is read out, and the predetermined color and material appearance can be expressed. Has been done.

As described above, in this embodiment, the character C is divided into, for example, 16 polygon units U1 to U16, and for each polygon unit, for example, the abdominal polygon unit U1 is defined as a basic polygon unit, which is used as an operation signal and From the motion data 31, the motion selection means 51 determines the motion position of the basic polygon unit U1 and places it in the three-dimensional coordinate system of the display space.
Then, with reference to the coordinate data D and the angle data θ of the table 32 with reference to the basic polygon unit U1, the polygon units U2 to U16 are relatively arranged and constructed and displayed as one character C. Is.

Therefore, the only data required to represent the character C is the data of the motion U1 (motion data 31) for the basic polygon unit, and Table 3 for the other polygon units.
Since only the relative information stored in Nos. 2 and 33 is sufficient, the storage capacity is small, and since it is a relative expression, the amount of calculation is small and high-speed processing can be achieved.
Furthermore, since the movement data of the character C is coordinates and angles, the amount of data can be small.

Further, since the storage table 31 is provided with the motion data of the polygon unit of the abdomen, the character can be moved and displayed while shortening the processing time for image display. Further, the storage table 32 includes not only the relative coordinate data but also the relative angle data, so that the display of the character can be diversified such that each part of the character can be rotated.

Since the relative data is the data for the adjacent polygon units, the data of the entire character image can be quickly obtained by sequentially calculating the data of the adjacent polygon units and combining the calculated data.

Since the memory has a storage area for storing data indicating the connection relationship between the polygon units, the connection between the polygon units can be accurately determined. The memory has a plurality of motion data, and since predetermined motion data can be selected based on an operation signal from the operation panel, it is possible to display the movement of the character by a plurality of motions, further diversifying the movement display of the character. It will be possible.

Further, the data processor 5 constructs a character by calculating data for arranging each polygon unit in the coordinate system from the character data in one mode of the series of movements, and the character processing is performed for all modes. By sequentially configuring the characters, the character is continuously configured in the course of a series of movements. As a result, the moving display of the character can be quickly executed.

Further, by constructing the coordinate system in three dimensions, it is possible to display a character or a background image three-dimensionally, and to improve the realism of the display screen. Further, the data storage area of each polygon unit can also display the display feature stereoscopically by providing the rotation angle data.

In the above embodiment, the display form is described as a character, but a background image or the like may be used as the display form. Further, although the relative data of the accessory parts are set and stored in the table in advance, a method of sequentially calculating the data for arranging the accessory parts based on the absolute data of the basic parts may be used.

[0065]

As described above, according to the present invention, the relative data with respect to the reference component is stored in the storage area for accessory parts, and the relative data and the data stored in the storage area for the reference component are used. Since the data for arranging all the parts in the coordinate system of the display device can be obtained, it is sufficient to store only the relative data of the accessory parts, and the amount of data required to move and display the display feature can be calculated. Further, the processing time for displaying the display feature can be shortened and the image can be displayed quickly.

Further, by providing the motion data consisting of a series of movements of the basic parts, it is possible to move and display the display form while reducing the processing time for displaying the image. Further, by storing not only the relative coordinate data but also the relative angle data, it becomes possible to rotatably display the respective parts of the display feature, so that the display of the display feature can be diversified.

Since the relative data is the data for the adjacent basic parts or other accessory parts, the relative data of the adjacent parts are sequentially calculated and the calculated data are synthesized.
It is possible to quickly obtain the data of the whole image of the display form.

By storing the data indicating the connection relationship between the parts, the connection of each part can be accurately determined. A series of movements of the display form can be accurately displayed by using the display form as a form similar to a human body and using the part that is the center of the series of movements of the form similar to the human body as a basic part. .

By storing data relating to display characteristics such as color and material of each part, it is possible to diversify the display of the display features. Further, by configuring the basic component and the accessory component from an aggregate of a plurality of polygons, it is sufficient to provide data for arranging each component in the coordinate system of the display device at the vertices of the polygon. Since it is not necessary to provide data for all pixels, the amount of data for displaying the display feature can be further reduced.

Further, since the predetermined motion data can be selected based on the operation signal, it becomes possible to move and display the display form by a plurality of motions, and the display of the display form can be further diversified. . Further, data for arranging each accessory in the coordinate system is calculated from the data of the basic part in one mode of the series of movements to configure the display feature, and the configuration of the display feature is sequentially performed for all the modes. As a result, the display features are sequentially formed in the course of a series of movements. As a result, the moving display of the display form can be executed quickly.

Further, by making the coordinate system three-dimensional, the display feature can be displayed three-dimensionally, and the realism of the display screen can be improved. By storing the rotation angle data of the basic parts, the display feature can be displayed three-dimensionally.

[Brief description of drawings]

FIG. 1 is a block diagram showing an embodiment of a polygonal shape display processing device according to the present invention.

FIG. 2 is an explanatory view showing a display form used in the embodiment.

FIG. 3 is an explanatory diagram showing an example of movement of a display feature realized in the same embodiment.

FIG. 4 is an explanatory diagram showing an example of a table used in the same embodiment.

FIG. 5 is an explanatory view showing a part of the display form used in the embodiment.

FIG. 6 is a functional block diagram of the embodiment.

FIG. 7 is a flowchart for explaining the operation of the embodiment.

FIG. 8 is a storage matrix of the same embodiment.

[Explanation of symbols]

1 Image processing device 2 Display (display device) 3 memory 4 control panel 5 Data processing device 6 screens 50 CPU 51 Motion selection means 52 Motion Position Determining Means 53 Motion angle determination means 54 image output control means 55 Image output control device C, Ca, Cb characters

─────────────────────────────────────────────────── ─── Continuation of front page (51) Int.Cl. ⁷ Identification code FI G09G 5/38 G09G 5/38 B (56) References JP 63-5478 (JP, A) JP 63-36385 ( JP, A) JP 4-71078 (JP, A) JP 4-336678 (JP, A) JP 4-195476 (JP, A) JP 5-298422 (JP, A) JP Sho 62-295182 (JP, A) JP-A-2-39379 (JP, A) Special Table 7-509081 (JP, A) (58) Fields investigated (Int.Cl. ⁷ , DB name) G06T 13 / 00 G06T 15/70 G09G 5/00 G09G 5/36 G09G 5/38 CSDB (Japan Patent Office)

Claims (13)

(57) [Claims] 1. A display means for displaying a display feature, an operation means for outputting an operation signal for operating the display feature, and a center among a series of movements of the display feature among the parts.
Specific basic component data storage area for arranging the coordinate system as the basic component parts, accessories other than the basic component
And a storage unit having a attachment data storage area for relatively positioned the base part as a reference, the display based on the stored data of the gas-operated signal and each storage area in the storage means An image display processing device comprising a data processing device for outputting a display signal to the means , wherein the basic component data storage area is a series of moving parts of the basic component.
Includes motion data consisting of air, said accessory storage data area, the base of each attachment
Relative coordinate data for this part or other accessory parts
And at least one of the relative angle data.
The data processing device, based on the motion data,
The layout of this part is decided and the basic part or
Is relative coordinate data and relative angle to other accessories
Based on any of the information in the data,
An image display processing device that determines the arrangement of the accessory . 2. A display hand for displaying a display feature similar to a human body.
Dan, An operation for outputting an operation signal for operating the display form.
Means of work, At least the abdominal part and the lumbar region are provided with the display form.
Divide into multiple parts that have a product,
Part or the waist part as a basic part to be arranged in the coordinate system
Data storage area for basic parts of
Place the metal parts relative to the basic parts.
And a data storage area for accessory parts for
When, The operation signal and the storage data of each storage area in the storage means.
Data that outputs a display signal to the display means based on the data.
Data processing device, An image display processing device comprising: The data storage area for the basic parts is a series of the basic parts.
With motion data consisting of The storage data area for the accessory is the base of each accessory.
Relative coordinate data for this part or other accessory parts
And at least one of the relative angle data.
The data processing device, based on the motion data,
The layout of this part is decided and the basic part or
Is relative coordinate data and relative angle to other accessories
Based on any of the information in the data,
An image display processing device for determining the arrangement of the accessory. And calculation means 3. A pre-Symbol data processing apparatus for sequentially calculating the data to place the parts adjacent on the basis of the motion data and the relative data to the coordinate system, by combining the operation data for all parts claim 1 or and a display feature configuration means for configuring the display feature
The device according to 2 . Wherein said storage means according to claim 1 or 2, wherein a storage area of the data indicating the connecting relation of the components to each other. Wherein said storage means according to claim 1 or 2 wherein comprises the color of each component, the storage area of the data relating to display characteristics, such as material. Wherein said storage means comprises a plurality of said motion data, said data processing apparatus, based on the operation signal from the operation panel comprises a motion data selection means for selecting a predetermined motion data according to claim 1 or 2 The described device. 7. The data processing device calculates data for arranging each accessory in a coordinate system from data of a basic part in one mode of the series of movements to form a display feature, and Forming a sequence of movements of the display features by sequentially configuring the display features for the aspects.
The device according to 3 . 8. The basic component data storage area comprises angle data of the basic component in the coordinate system.
Or the apparatus according to 2 . 9. An image display control method for controlling display of a display feature formed of a plurality of parts arranged in a three-dimensional coordinate system of a display space based on motion data read from a storage means. Of the parts , the center of the series of movements of the display features
Specific parts of the selected basic component, a step of selecting and selecting the other components as an accessory part of the basic component, a predetermined motion data from a plurality of motion data previously stored Symbol storage means Determining and storing a coordinate position and a rotation angle of the basic part with respect to the selected motion, and the basic part based on the selected motion data.
Is arranged in a three-dimensional absolute coordinate system, and based on the coordinate position and rotation angle of the basic part, relative coordinate data and angle data for the basic part or other accessory parts in a predetermined connection relationship are determined. An image display control method, comprising: a step of storing the image signal; and a step of forming an image signal based on the stored data of the respective parts and outputting the image signal to a display means. 10. A display space is arranged in a three-dimensional coordinate system,
A plurality of parts having at least an abdominal part and a lumbar part
The display of the display form similar to the human body made up of
Display control based on motion data read from
An image display control method, Of the above parts, the abdominal or waist parts are basic parts
And select other parts as accessory parts of the above basic parts.
The steps to select, Among the plurality of motion data stored in the storage means
Selecting the predetermined motion data from Coordinates of the basic part with respect to the selected motion
Determining and storing the position and rotation angle; The basic parts based on the selected motion data
To place in a three-dimensional absolute coordinate system, Based on the coordinate position and rotation angle of the basic part,
For basic parts or other accessory parts that have a prescribed connection
Relative coordinate data and angle data to be determined and stored
Step, An image signal is formed based on the stored data of each component.
The output to the display means Characterized by having
Image display control method. 11. The image display control method according to claim 9, wherein the selection of the motion data is performed based on an operation signal generated by an operator operating an operation unit. 12. The method of claim 11, wherein the basic parts and accessories are made consists of at least one polygon claims 1 to 8
The image display control device according to claim 1. Wherein said basic component and accessory components, formed by composed of at least one polygon claim 9 or 1
The image display control method described in 0 .