JP2002253718A - Device, method and program for evaluating training - Google Patents

Abstract

PROBLEM TO BE SOLVED: To solve a problem that it is difficult to evaluate the form of a player while reflecting the difference of body types, physical conditions, etc., between a model person and the player because these body forms, etc., are different between the two persons. SOLUTION: A training evaluation device which measures the movement of the player, evaluates the form of the player based on measured data and data on the form of the model, and outputs it is provided with evaluation information preparation means for preparing the evaluation information of the form of the player by evaluating the difference between model form data and player form data with the difference between model body data and player body data as reference. Since the evaluation of the form of the player reflects the difference of the body forms, the physical conditions, etc., between the model and the player, it is possible to evaluate the form of the player objectively while reflecting the difference of the body forms, the physical conditions, etc., between the model person and the player to train.

Description

DETAILED DESCRIPTION OF THE INVENTION

[0001]

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a training evaluation apparatus and a training evaluation apparatus for measuring the movement of a player performing training and evaluating and outputting the form of the player based on the measured data and data on the model form. On methods and training evaluation programs.

[0002]

2. Description of the Related Art Conventionally, in order to improve the skills of one's own sports and the like, a player has been training using a form such as a professional player as a model. At that time, a person such as a person or a coach evaluates the player's form by observing the player's actions. In order to grasp the form of the golf ball as an objective numerical value, a measuring device for measuring the head speed of a golf club, the speed of a baseball bat swing, and the like is also used. In the case of a golf club head speed measuring device, multiple optical sensors are installed on the floor surface,
The optical sensor detects that the head of the golf club has passed the vicinity, and calculates the head speed.

[0003]

The above-mentioned prior art has the following problems. That is, since there is a difference in the body shape, physical strength, and the like between the player and a model person such as a professional player, it is difficult to evaluate the player's form by appropriately reflecting the difference in the body shape and the like.
When the above-described measuring device is used, it is possible to obtain numerical information on items measured by the measuring device, but it is not possible to evaluate a player's form by reflecting a difference in body type, physical strength, and the like. Also, when a human looks at a player's form and evaluates it, it is possible to take into account differences in body type, physical strength, etc., but it is difficult to evaluate the player's form objectively because the criteria are ambiguous from the beginning. It is.
The present invention has been made in view of the above problems, and is a training that can objectively evaluate a player's form by reflecting a difference in a figure or a physical strength between a model person and a training player. An evaluation device, a training evaluation method, and a training evaluation program are provided.

[0004]

In order to achieve the above object, the invention according to claim 1 measures the action of a player performing training, and based on the measured data and the data related to the model form, the player performs the training. A training evaluation device for evaluating and outputting a form,
A model data storage area storing model body data relating to the body of the model, and model form data relating to the form of the model; player body data acquiring means for acquiring player body data relating to the body of the player; operation of the player A player form data obtaining means for obtaining the player form data by measuring the data based on a difference between the model body data stored in the model data storage area and the player body data obtained by the player body data obtaining means. Evaluation information generating means for evaluating the difference between the model form data stored in the model data storage area and the player form data obtained by the player form data obtaining means and generating evaluation information of the player form And this evaluation information It is constituted comprising an evaluation information output means for force.

In the invention according to claim 1 configured as described above, the model data storage area stores model body data relating to a model body as a model of a form and model form data relating to a form of the same model. are doing. On the other hand, the player body data obtaining means obtains player body data relating to the body of the training player, and the player form data obtaining means obtains player form data by measuring the operation of the player. The evaluation information creating means evaluates a difference between the model form data and the player form data based on a difference between the model body data and the player body data, and creates evaluation information of a player form. Then, the evaluation information output means outputs the evaluation information. Then, the user can obtain the evaluation information of the player's form from the training evaluation device.

[0006] Here, the difference between the data on the form of the model and that of the player is evaluated and the evaluation information of the form of the player is created. Therefore, the form of the player is evaluated based on the form of the model. At this time, since the difference in the data on the body between the model and the player is used as a reference, the evaluation information of the form of the player reflects the difference in the body type and physical strength between the model and the player. Therefore, it is possible to objectively evaluate the player's form by reflecting the difference in the physical form, physical strength, and the like between the model person and the training player.

Here, the model referred to in the present invention only needs to be able to model a form. For example, it may be a professional player such as golf or baseball, or a teacher of karate, kendo or dance. When the training evaluation apparatus is considered as a game machine or the like, it may be a comedian performing imitation or a horse running at a racetrack, and various models can be considered. On the other hand, the player may be a person who trains, but may be a person who has repeatedly trained using the model form as a model, or may perform a one-time training without knowing the model form It may be a person, and the target of the player may be various.

The model body data and the player body data according to the present invention may be any data relating to the body of the model or the player. For example, data such as height, weight, and length of feet may be used, or data indirectly affecting the form such as age may be used. Further, the data may be data relating to physical strength such as back muscles and grip strength, and various types of data may be used. On the other hand, the model form data and the player form data may be any data relating to the model and the form of the player. For example, it may be data representing the movement of a certain part of the body, such as the rotational speed of the shoulder or waist, or data representing the position of the certain part of the body, such as the width of both feet. Further, the data may be data representing the movement or position of a tool used, such as the head speed of a golf club or the position of a sword in kendo, and various types of data may be used.

The evaluation information creating means for creating the evaluation information includes:
Various configurations are possible. As an example, the invention according to claim 2 is the training evaluation apparatus according to claim 1, wherein the evaluation information creating unit is configured to determine the model form data based on a difference between the model body data and the player body data. To generate corrected model form data, and evaluation means for generating the evaluation information based on a difference between the corrected model form data and the player form data.

[0010] In the invention according to claim 2 configured as described above, the model form data is corrected by the correction means based on the difference between the model body data and the player body data, and becomes corrected model form data. . That is, the model form data can be corrected according to the player's body type, physical strength, and the like. Then, the evaluation information of the player's form is created by the evaluation means based on the difference between the corrected model form data and the player form data. That is, an evaluation information creation unit can be configured by the correction unit and the evaluation unit.

As an example of creating evaluation information, the invention according to claim 3 is a training evaluation apparatus according to claim 2, wherein the model body data, model form data, player body data, player form data and Is quantified, the modifying means creates the quantified modified model form data, and the evaluating means creates the evaluation information based on the quantified modified model form data and player form data There is a configuration to do.

[0012] In the invention according to claim 3 configured as described above, the correcting means creates the digitized modified model form data from the digitized model body data, player body data and model form data. I do. Then, the evaluation means creates evaluation information from the digitized modified model form data and the player form data. In other words, the evaluation information of the player's form can be created by numerical calculation from various types of numerical data. Of course, the configuration for converting various data into numerical values is merely an example, and for example, a configuration in which evaluation information is created from various types of character data using character variables is also possible.

Here, as an example of a configuration for creating modified model form data from various types of numerical data, the invention according to claim 4 is the training evaluation apparatus according to claim 3, wherein the modifying means includes: The modified model form data is obtained by multiplying the ratio of the player body data to the model body data by the model form data.

In the invention according to claim 4 configured as described above, the corrected model form data is obtained by multiplying the ratio of the player body data to the model body data by the model form data. In other words, the model form data is corrected to a numerical value calculated in proportion to the ratio of the data on the body between the model and the player. That is, the model form data can be modified with a simple configuration in accordance with the player's body type and physical strength. Of course, the modified model form data can be created in various configurations other than the above configuration. For example, the ratio of the player body data to the model body data may be squared and then multiplied by the model form data to obtain corrected model form data. The modified model form data may be multiplied by the data.

Here, as an example of a configuration for creating evaluation information from various numerical data, the invention according to claim 5 is a training evaluation apparatus according to any one of claims 2 to 4, The evaluation means is configured to calculate the ratio of the player form data to the modified model form data and create the evaluation information. In the invention according to claim 5 configured as described above, the evaluation information is created from the ratio of the player form data to the corrected model form data. That is, evaluation information can be created with a simple configuration. The evaluation information may be the ratio of the player form data to the corrected model form data as it is, or may be further processed information such as multiplying the calculated ratio by a correction coefficient or adding character information. Good.

As another example, the invention according to claim 6 is the training evaluation apparatus according to any one of claims 2 to 4, wherein the evaluation means includes the modified model form data and the player The difference from the form data is calculated to create the evaluation information. In the invention according to claim 6 configured as described above, evaluation information is created with a simple configuration. Of course, in addition to the above-described configuration, various configurations for creating the evaluation information are possible. For example, the ratio of the player form data to the corrected model form data may be squared as the evaluation information, or may be further multiplied by a correction coefficient to obtain corrected model form data.

Further, the data relating to the form may have a plurality of items. As an example of a configuration for creating evaluation information in this case, the invention according to claim 7 is the training evaluation device according to claim 6, wherein the model form data and the player form data have a plurality of corresponding items. The correction means creates the corrected model form data for each of the items, and the evaluation means calculates the difference for each of the items and calculates a score corresponding to a ratio of the difference to the corrected model form data. All of the calculated points are subtracted from the predetermined points, and the obtained points are used as the evaluation information.

In the invention according to claim 7 configured as described above, the evaluation means calculates a difference between the modified model form data and the player form data for each item of data relating to the form. Then, a score corresponding to the ratio of the difference with respect to the modified model form data is calculated, all the calculated scores are subtracted from the predetermined score, and the obtained score is used as evaluation information. That is, for a plurality of items related to the form, the player's form is evaluated in a deduction method. Of course, besides the deduction method, for example,
All of the calculated points may be added and used as the evaluation information, or all of the calculated points may be averaged and used as the evaluation information. Further, all of the calculated points may be included in the evaluation information, and the evaluation information can be created in various configurations.

It should be noted that the evaluation information can be created other than based on the difference between the modified model form data and the player form data. As an example, the invention according to claim 8 is the training evaluation device according to claim 1, wherein the evaluation information creating means is configured to determine the player form data based on a difference between the model body data and the player body data. Is modified to create modified player form data, and evaluation means is created to create the evaluation information based on the difference between the modified player form data and the model form data. In the invention according to claim 8 configured as described above, the player form data is corrected by the correction means based on the difference between the model body data and the player body data, and the corrected player form data is obtained. Then, the evaluation information of the player's form is created by the evaluation means based on the difference between the corrected player form data and the model form data. That is, the evaluation information creating means can be constituted by the correction means and the evaluation means.

As described above, the present training evaluation device can target various models,
Various types of data can have various configurations. As a specific example of the configuration, the invention according to claim 9 is the training evaluation device according to any one of claims 2 to 8, wherein the model body data includes body shape data and physical strength data of a professional golf player. Wherein the player's body data is any or a combination of the player's body data and physical strength data, and the model form data is the head when the golf professional player swings a golf club. Speed, and the player form data is a head speed when the player swings the golf club. That is, the present training evaluation device is effective as a device for evaluating a player training a golf club swing. Of course,
In addition to the swing of a golf club, a device for evaluating various forms such as a swing of a baseball bat, a movement of karate or kendo, a body position, a dance step, and the like can be used.

The evaluation information output means constituting the present invention is only required to output the evaluation information created by the evaluation information creation means. As an example of the configuration, the invention according to claim 10 is the training evaluation apparatus according to any one of claims 1 to 9, wherein the evaluation information output unit is configured to perform the same evaluation as a display that displays the evaluation information. It is configured to include one or a combination of audio output devices that output information as audio. In the invention according to claim 10 configured as described above, the evaluation information is output from at least one of the display and the audio output device. That is, evaluation information means is configured.

The player body data acquiring means only needs to be able to acquire player body data relating to the player's body. As an example of the configuration, the invention according to claim 11 is the training evaluation device according to any one of claims 1 to 10, wherein the player body data obtaining means is configured to transmit data on the body of the player from the player. Operation input means capable of inputting
The player body data is acquired from the data input by the operation. Claim 1 configured as described above.
In the invention according to the first aspect, the operation input means accepts an operation input of data relating to the player's body from the player. Then, the player body data obtaining means obtains player body data from the data relating to the player's body input by the operation. That is, player body data can be acquired with a simple configuration.

The player form data obtaining means only needs to be able to obtain the player form data by measuring the operation of the player. As an example of the configuration,
The invention according to claim 12 is the invention according to claim 1 to claim 11.
In the training evaluation device according to any one of the above, the player form data obtaining means has an acceleration sensor attached to any or a combination of the tool of the player and a tool used by the player to detect acceleration, and The player form data is obtained from the acceleration detected by the acceleration sensor. In the invention according to claim 12 configured as described above, the acceleration sensor is attached to at least one of the player's body and a tool used by the player,
Detect acceleration. Then, the player form data obtaining means obtains the player form data from the detected acceleration. That is, a player form data acquisition unit configured to measure the movement of the player and acquire the player form data is configured.

According to another aspect of the present invention, there is provided a training evaluation apparatus as set forth in any one of claims 1 to 12, wherein Has an object to be measured attached to any one or a combination of tools used by the player and the player's body, and position detecting means for detecting the position of the object to be measured. And a motion capture unit for acquiring the player form data from a change in the position of the measured object. In the invention according to claim 13 configured as described above,
The position detecting means of the motion capture means detects a position of the measured object attached to at least one of the player's body and a tool used by the player. And
The motion capture means acquires player form data from the detected change in the position of the measured object. That is, even when the motion capture unit is used, the player's operation can be measured to acquire the player form data.

Here, as an example of the structure of the object to be measured and the position detecting means constituting the motion capture means, claim 1
According to a fourth aspect of the present invention, in the training evaluation apparatus according to the thirteenth aspect, the object to be measured is colored in a predetermined color, and the position detecting means includes a plurality of digital cameras that monitor directions different from each other. And the coordinates corresponding to the color of the object to be measured are detected from the image data of the respective digital cameras, and the position of the object to be measured is calculated from the detected coordinates. In the invention according to claim 14 configured as described above, the position detecting means detects coordinates corresponding to the color of the measured object from the image data of the plurality of digital cameras, and detects the coordinates based on the detected coordinates. Calculate the position of the measured object. Here, since multiple digital cameras monitor different directions from each other,
The position detecting means can detect the position of the measured object in three dimensions. That is, it is possible to acquire the player form data by measuring the action of the player. Needless to say, the measured object and the position detecting means can be variously changed in addition to the above-described configuration. For example, the object to be measured may be a magnet, and the position detecting means may be constituted by a plurality of magnetic sensors. in this way,
The player form data acquisition means can have various configurations.

Further, a configuration may be adopted in which data relating to the player's body is acquired using the motion capture means. As an example thereof, the invention according to claim 15 is the training evaluation device according to claim 13 or 14, wherein the player body data obtaining means is provided in the position detecting means of the player form data obtaining means. The player body data is acquired from the position of the measured object detected by the above. In the invention according to claim 15 configured as described above, the player body data is acquired from the position of the measured object detected by the position detection unit of the player form data acquisition unit. That is, the player body data can be acquired by using the motion capture means constituting the player form data acquisition means. Therefore, input of data relating to the player's body is automatically performed, and convenience is improved. As described above, the player body data obtaining means can have various configurations.

Incidentally, there may be a plurality of models to be modeled. As an example of the configuration in this case, claim 1
According to a sixth aspect of the present invention, in the training evaluation device according to any one of the first to fifteenth aspects, the model data storage area has the model body data and model form data corresponding to a plurality of models. Model data setting means having selection input means capable of selecting and inputting the model from the player, and acquiring the model body data and model form data corresponding to the selected and input model from the model data storage area. The configuration is provided.

In the invention according to claim 16 configured as described above, the selection input means receives a model selection input from a player. Then, the model data setting unit acquires the model body data and the model form data corresponding to the selected and input model from the model data storage area. That is, since the player can select a model, convenience is improved.

The model data setting means may receive an operation input other than an input for selecting a model. As an example of the configuration, the invention according to claim 17 is the training evaluation apparatus according to claim 16, wherein the model data setting means is configured to allow the player to operate and input data relating to the body and form of the model. It has an input means and is configured to create the model body data and the model form data from the data input by operation.

In the invention according to claim 17 configured as described above, the operation input means accepts an operation input of data relating to the model body and form from the player. Then, the model data setting means creates model body data and model form data from the data input by the operation. That is, since the player can freely set the data on the model body and form, the convenience is improved.

[0031] Further, according to the invention according to claim 18, in the training evaluation apparatus according to any one of claims 16 and 17, the model data setting means transmits data on the body or form of the model from the player. Operation input means capable of inputting
Based on a difference between the operation input data and the model body data or the model form data, a part of the model body data or the model form data that does not correspond to the operation input data is corrected.

[0032] In the invention according to claim 18 configured as described above, the operation input means receives an operation input of data relating to the model body and form from the player. Then, the model data setting means corrects the model body data or the model form data in a portion that does not correspond to the operation input data based on a difference between the operation input data and the model body data or the model form data. That is, the player does not need to input all the data about the model's body or form,
The model body data and model form data of the part where no operation input was performed are automatically set. Therefore, the operation input of the data relating to the model body and the form is simplified, and the convenience is improved. Thus, the model data setting means can have various configurations. Of course, in addition to the above-described configuration, for example, a configuration in which model body data and model form data are acquired using motion capture may be adopted.

If there is the model data setting means as described above, it is not always necessary to store the model body data and the model form data in the model data storage area. Therefore, as an example of the configuration, the invention according to claim 19 measures the action of a player performing training, evaluates the form of the player based on the measured data and data related to the model form, and outputs the evaluated form. An evaluation device, comprising: an operation input unit capable of inputting data on the body and form of the model from the player; and model data for creating the model body data and the model form data from the operation input data Setting means, player body data obtaining means for obtaining player body data relating to the player's body, player form data obtaining means for obtaining the player form data by measuring the operation of the player, and the model data setting means The created model body data and the above Based on the difference from the player body data acquired by the ear body data acquisition means, the model form data created by the model data setting means and the player form data acquired by the player form data acquisition means Evaluation information creating means for creating the evaluation information of the player's form by evaluating the difference between the two, and evaluation information output means for outputting the evaluation information.

In the invention according to the nineteenth aspect, when the operation input means receives an operation input of data relating to the body and form of the model from the player, the model data setting means sets the input data. Create model body data and model form data from. Then, the evaluation information creating means can create the evaluation information using the model body data and the model form data created by the model data setting means. That is, even if there is no model data storage area, it is possible to objectively evaluate the player's form by reflecting the difference in the physical form and physical strength between the model person and the training player.

As described above, the method of evaluating the player's form is not necessarily limited to a physical device, and is based on the fact that the processing is performed according to a predetermined procedure corresponding to the above-described means. It is natural that the invention exists in the procedure. Therefore, the present invention is also applicable as a method,
In the invention according to the present invention, basically the same operation is obtained. That is, the method is also effective.
Needless to say, it is possible to make the device configuration according to the eighteenth aspect correspond to the method.

When the present invention is to be implemented, a predetermined program corresponding to the above-described means is executed, so that the present invention is realized as the program itself. Therefore, in the invention according to claims 22 and 23,
Basically, the operation is the same, and it goes without saying that the device configuration described in claims 2 to 18 can be made to correspond to the program. Further, when executing the program of the present invention, the data of the program may be recorded on a recording medium, and the recording medium may be distributed.
Then, it is conceivable to read data from the recording medium into the computer as appropriate. This recording medium may be a magnetic recording medium or a magneto-optical recording medium.
The same can be considered for any recording medium developed in the future. Further, even when a part is realized by software and a part is realized by hardware, the concept of the present invention is not completely different, and a part is recorded on a recording medium and appropriately The form of reading is also included. Further, the duplication stages of the primary duplicated product, the secondary duplicated product and the like are completely indispensable.

[0037]

As described above, according to the present invention, it is possible to objectively evaluate a player's form by reflecting a difference in a figure or a physical strength between a model person and a training player. A training evaluation device can be provided. According to the second aspect of the present invention, it is possible to provide an example of the evaluation information creating means, and it is possible to modify the model form data according to the player's body type, physical strength, and the like. Further, according to the third aspect of the invention, it is possible to create evaluation information of the player's form by performing a numerical operation.

Further, according to the invention of claim 4,
With a simple configuration, the model form data can be modified according to the player's body type and physical strength. further,
According to the fifth and sixth aspects of the invention, evaluation information can be created with a simple configuration. Further, claim 7
According to the present invention, it is possible to create evaluation information for a plurality of items relating to a form by using a deduction method for the player's form.

Further, according to the invention of claim 8,
Another example of the evaluation information creating means can be provided.
Further, according to the invention of claim 9, it is possible to evaluate a player training a swing of the golf club. Further, according to the tenth aspect, an example of the configuration of the evaluation information output unit can be provided.

Further, according to the eleventh aspect, it is possible to acquire player body data with a simple configuration. Further, according to the twelfth and thirteenth aspects, it is possible to provide an example of the configuration of the player form data acquisition means. Claim 14
According to the invention, a specific configuration example of the motion capture means can be provided.

Further, according to the invention of claim 15, data relating to the player's body is automatically input, and the convenience can be improved. Further, according to the sixteenth aspect, since the player can select a model, the convenience can be improved. Furthermore, according to the seventeenth aspect, the player can freely set data on the body and form of the model, so that the convenience can be improved.

Further, according to the eighteenth aspect of the present invention, the operation input of data relating to the model body and form is simplified, so that the convenience can be improved.
Further, according to the invention according to claim 19, another configuration is provided which can objectively evaluate a player's form by reflecting a difference in a figure or a physical strength between a modeler and a training player. A training evaluation device can be provided. Furthermore, according to the invention according to claims 20 and 21, it is possible to objectively evaluate a player's form by reflecting a difference in body type, physical strength, and the like between a model person and a training player. It can provide an effective training evaluation method. Furthermore, according to the invention according to claims 22 and 23, it is possible to objectively evaluate a player's form by reflecting a difference in a figure or physical strength between a model person and a player performing training. Can provide an effective training evaluation program.

[0043]

Embodiments of the present invention will be described below with reference to the drawings. FIG. 1 is a schematic configuration diagram illustrating a training evaluation device 100 according to an embodiment of the present invention. In the present embodiment, a professional golf player or the like is used as a model, and a player who performs training of a golf swing form is used by the training evaluation apparatus 10.
It is assumed that 0 is used. Of course, the target evaluated by the training evaluation device can be variously set. For example, the training evaluation device may be a device that evaluates a form when a player swings a bat using a baseball professional player as a model, or a device that evaluates karate, kendo, and dance forms. Alternatively, a device that evaluates a movement when a player imitates a model using a comedian performing imitation, a horse running on a racetrack, or the like as a model may be used.

Referring to FIG.
0 generally indicates the game machine main body 10 and the storage element cassette 2
0, an operation panel 31, two CCD imagers 32 and 33 which are digital cameras according to the present invention, and a television 40. The game machine main body 10 includes a CPU 12, a ROM 13, a RAM 14, a signal processor 15a, an image processor 15b, interface circuits (I / F) 16a, 16b, and a CCD imager on a bus 11 including an address bus, a data bus, and a controller bus. I / O board 16 for data input from 32, 33
c, 16d, a display processing circuit 16e, and an audio processing circuit 16f. Here, the storage element cassette 20 and the operation panel 31 are connected to the I / Fs 16 a and 16 b, and the CCD imagers 32 and 33 are connected to the I / O board 16.
c, 16d. In addition, television 40
Are connected to the display processing circuit 16e and the audio processing circuit 16f via cables, respectively. In addition, the television 40
Inside, a speaker 43 is connected to the amplifier 42.
That is, the CRT 41 is the display according to the present invention, and the amplifier 42 and the speaker 43 are the audio output devices according to the present invention. Then, according to a predetermined program stored in the ROM 13 or the storage element cassette 20, the CPU 1
2 is configured to centrally control the entire training evaluation device 100.

In this embodiment, the training evaluation device 1
Although 00 is configured as a home-use game device, for example, a plurality of CCD imagers may be connected to a personal computer or a workstation having a keyboard, a mouse, and the like as a training evaluation device. All of them may be integrated into a training evaluation device for business use. In the former case, a hard disk may be used instead of the storage element cassette 20, the operation panel 31 may be replaced with a keyboard or a mouse, or a display dedicated to a personal computer may be used instead of the television.

The ROM 13 in the game machine body 10 is a read-only memory storing an operating system (OS), and the RAM 14 is a memory from which data can be read and written. When the power of the game machine body 10 is on, the CPU 12 executes the OS stored in the ROM 13 and reads the game program from the storage element cassette 20 to the RAM 14 via the I / F 16a. The storage element cassette 20 is a recording medium in which a read-only ROM 21 that stores a game program and various data and a readable and writable RAM 22 that is backed up by a battery (not shown) and stores various data are stored in a plastic case. Then, the CPU 12 reads the ROM 21 according to the OS.
And a game program stored in the RAM 22
When read out in step 4, each means according to the present invention is constituted. The CPU 12 also appropriately reads various data stored in the ROM 21 and the RAM 22 via the I / F 16a, and writes data into the RAM 22 as appropriate via the I / F 16a.

The storage element cassette 2 is used as a recording medium.
Using 0 is only an example. For example, a hard disk or a floppy disk may be used. In these cases, since data can be written, model data and model form data can be stored in the model data storage area constituted by the ROM 21. Further, a CD-ROM may be used as the recording medium. At this time, an OS, a game program, and various data stored using a hard disk drive, a floppy disk drive, or a CD-ROM drive can be read into the RAM 14 and executed. When using a CD-ROM,
Although data cannot be written, the configuration may be such that data is written to the RAM 14 of the game machine body 10 instead. It is also possible to use a non-volatile memory such as a flash memory, or to provide a modem connected to a communication line to access an external file server and download the file. In the latter case, the present invention is used by using the communication line as a transmission medium. Of course, the configuration may be such that the storage medium is directly incorporated into the circuit board of the game machine main body 10.

As shown in the front view of FIG. 2, the operation panel 31 is provided with a cursor key 31a and a stick stick 31b for moving up, down, left and right, and a decision key 31c for decision input. I have. Keys such as the cursor key 31a and the enter key 31c are push buttons, and a signal corresponding to the pressed key is created and the I / F 1
6b. The stick 31b is 360
It is supported by an elastic member so that it can be freely tilted, and has the same function as a joystick. Then, a signal corresponding to the pressed direction is created and the I / F 1
6b, and a pointer is displayed on the display surface of the cathode ray tube 41. The CPU 12 can perform various processes by obtaining these signals output from the operation panel 31. Here, the position of the pointer on the display screen is managed according to a pointer management program (not shown). If the position of the pointer is within the display area of the button displayed on the screen when the enter key 31c is pressed, The button is selected and input. That is, the stick 31b and the enter key 31c have the same functions as a mouse in a personal computer. Note that a configuration in which a keyboard and a mouse are provided instead of the operation panel 31 is also possible. Also, when the training evaluation device 100 is considered as an arcade game machine, buttons such as numbers and letters are displayed on a display,
A configuration may be adopted in which the player touches the button with a finger to receive an operation input.

Each of the CCD imagers 32 and 33 includes a camera body having a lens and the like, and a CCD device (Charge Coupled Device) attached to the camera body and converting a captured image into digital data. Here, a camera body common to silver halide photography may be used for the CCD imagers 32 and 33. In this case, conventional sophisticated hardware resources such as an interchangeable lens can be used, and if a camera pack is used as a CCD element, it is possible to respond to technological advances such as an increase in the number of pixels and an improvement in sensitivity by simply replacing the camera pack as appropriate. Become. Of course,
It is also possible to use other imaging devices and the like.

In this embodiment, for easy understanding, the CCD imagers 32 and 33 are arranged so as to monitor both horizontal directions and directions orthogonal to each other as shown in the top view of FIG. I have. Here, C in front of the player
A CD imager 32 is arranged, and a CCD imager 33 is arranged in the swing direction of the golf club 34. That is, C
The CD imager 32 is arranged in front of the player and monitors the rearward direction of the player, and the CCD imager 33 is arranged on the left side of the player and monitors the rightward direction.
Then, the digital image data output from the CCD imagers 32 and 33 is output to the I / O boards 16c and 16d, and is used in the game machine main body 10 to acquire data on the form and body of the player. The head 34a of the golf club 34 and the seal 35 as a plurality of objects to be measured are colored with a special yellow color, and the game program detects the coordinates of the pixel corresponding to the yellow color from digital image data. Various data can be obtained.

As the television 40 for displaying and outputting sound, a general-purpose television having an external input terminal and having a cathode ray tube, an amplifier and a speaker can be used. Of course, a television integrated with a VCR or a DVD player may be used. It should be noted that even a display without an amplifier or a speaker can be used instead of the television 40 because the evaluation information of the player's form is simply not output as sound. Further, since various setting inputs may be performed according to the audio output, a configuration in which only an amplifier and a speaker are provided instead of the television 40 may be employed.

A signal processor 15a provided in the game machine main body 10 performs a process of creating display data for displaying evaluation information of a player's form output to the CRT 41, three-dimensional data of a model form, and the like. Or ADP read from RAM 22 to RAM 14
CM (Adaptive DifferentialP
The audio data to be output to the amplifier 42 is created based on the audio data of the pulse code modulation (ulse code modulation) method. The audio data output from the signal processor 15a is supplied to the audio processing circuit 16f, converted into an analog audio signal, and supplied to the amplifier 42. Then, the analog audio signal is amplified by the amplifier 42 and output from the speaker 43 as audio.

The image processor 15b writes the display data created by the signal processor 15a into a predetermined display area of the RAM 14. The display data written in the display area of the RAM 14 is supplied to the display processing circuit 16e, converted into a normal NTSC signal, and supplied to the cathode ray tube 41. Then, the CRT 41
Is displayed on the display surface of.

FIG. 4 schematically shows a schematic configuration of a storage area of the storage element cassette 20 and various units included in the training evaluation apparatus 100. In addition, I / F16
Illustration of a is omitted. In FIG. 1, a ROM 21 has a game program area 21a storing a game program for realizing various functions of the present invention, an image data area 21b having texture data used for creating a three-dimensional image, and an ADPCM method. An audio data area 21c having the generated audio data, a model body data area 21d storing the model body data and the model form data according to the present invention, a model form data area 21e, and the like are provided. That is, the ROM 21 storing the model body data and the model form data constitutes a model data storage area according to the present invention.

The RAM 22 stores a player body data area 22a, a player form data area 22b, a corrected model form data area 22c, and evaluation information which store player body data, player form data, modified model form data, and evaluation information according to the present invention. Area 22d
Are provided to enable reading and writing of data.
Further, a model body data area 22e and a model form data area 22f for storing model body data and model form data are also provided, so that data relating to the body and form of the model can be set and stored in the RAM 22. Has become. The various data areas 22a to 22a
Although various data stored in 2f is backed up by the built-in battery of the storage element cassette 20,
Game machine body 1 although data is erased when power is turned off
Alternatively, the configuration may be such that it is stored in the RAM 14 within 0.

FIG. 5 shows the structure of the model body data area 21 d provided in the ROM 21. In the figure,
The model body data area 21d has data on the bodies of a plurality of models, and stores the names of the models and the model body data that are classified by model identification numbers corresponding to each model on a one-to-one basis. The model body data includes various body type data and various physical strength data. The model identification number is provided to identify each model, and functions as identification information when creating evaluation information or obtaining data about the same model from model body data and model form data. Has become. In this embodiment, a serial number is used as model identification information.

The body type data includes personality, age, height, weight,
This is data on the body type of the model having items such as hand length, shoulder width, and the like. Here, the body type data is composed of various data. Some items store numerical data such as height (in the case of height, numerical data in units of centimeters), and some characters include character data such as personality. Some items are stored. On the other hand, the physical strength data is data relating to the body type of a model having items such as abdominal muscles and grip strength. Numerical data is stored in each item of the physical strength data.

FIG. 6 shows the structure of the model form data area 21 e provided in the ROM 21. In the figure, a model form data area 21e has data relating to forms of a plurality of models, and is divided for each model identification number so as to correspond one-to-one with data stored in the model body data area 21d. Various types of form data including items such as head speed, shoulder rotation, hip rotation, left knee movement, right knee movement, and stance are stored. Here, the form data is composed of various digitized data, and is an item in which speed data of a tool to be used such as a head speed (in the case of a head speed, numerical data in units of meters / second) is stored. Some items store velocity data representing the movement of the player's body, such as shoulder rotation (in the case of shoulder rotation, numerical data in units of rotation / second), and some items include the stance, which is the width of both feet. Some items store body position data (in the case of stance, numerical data in centimeters).

Note that the model form data area 21e and the model body data area 21d do not need to have data relating to the forms and bodies of a plurality of models, but only the data relating to the forms and bodies of only one model. The area 21e and the model body data area 21d may be configured. In this case, it is not necessary to store the model identification number and the model name in the model form data area 21e and the model body data area 21d.

FIG. 7 shows the structure of the player body data area 22a stored in the RAM 22. In the figure, a player body data area 22a has data relating to the bodies of a plurality of players, and is divided into player identification numbers corresponding to each player on a one-to-one basis. Data is stored. Various data stored in the player body data area 22a can be input by the player through the operation panel 31 or the player who has the seal 35
By taking pictures with the CD imagers 32 and 33,
Created and stored. Then, the RAM 2 in which only the latest data is backed up for each player
2. Here, the items of the body type data are the same as the items provided in the model body data area 21d except that they have no personality, and the items of the physical strength data are all the same as the items provided in the model body data area 21d. . The reason for this is to correct the contents of the model form data area 21e by various methods by aligning the items provided in the model body data area 21d and the player body data area 22a.

The model body data area 21d and the player body data area 22a only need to store data on the model and the body of the player, and various configurations are possible. For example, a configuration having only one of the body type data and the physical strength data, or a configuration having only one of the items of the body type data and the physical strength data,
A configuration having data other than the body type data and the physical strength data may be adopted.

FIG. 8 shows the structure of the player form data area 22b stored in the RAM 22. In the figure, a player form data area 22b has data relating to forms of a plurality of players, and is divided for each player identification number so as to correspond one-to-one with data stored in the player body data area 22a. , Head speed, rotation of the shoulder, rotation of the waist, movement of the left knee, movement of the right knee, stance, and the like, are stored in various numerical form data. That is,
The items provided in the player form data area 22b are the same as the items provided in the model form data area 21e. Various data stored in the player form data area 22b is created and stored by photographing the player with the seal 35 attached to the body with the CCD imagers 32 and 33. Then, R which is backed up only for the latest data for each player
It is held in the AM 22.

In the present embodiment, the data relating to the forms and bodies of a plurality of players are stored in the RAM 22. May be stored in the RAM 14. In this case, player form data area 2
2b and the player body data area 22a are composed only of data relating to the form and body of only one player. Then, the player identification number and the player name do not have to be stored in the player form data area 22b or the player body data area 22a, and it is not necessary for the player to input the name from the operation panel 31.

FIG. 9 shows the structure of the modified model form data area 22c stored in the RAM 22. In the figure, a modified model form data area 22c is a modified model form created by modifying numerical data relating to a model form as a model by numerical calculation according to the player's body data and physical strength data for each player. This is the data stored. Thus, the modified model form data area 22c stores various form data, such as a model identification number and a head speed, corresponding to the selected model, which are divided for each player identification number.

FIG. 10 shows the structure of the evaluation information area 22 d stored in the RAM 22. Evaluation information area 22d
Stores the evaluation information of the player's form created based on the difference between the quantified modified model form data and the player form data for each player. Here, the evaluation information is information including the evaluation data created for each item of the form and also including the comprehensive evaluation of the form. Therefore, in the evaluation information area 22d,
The evaluation data corresponding to various items of the form such as the head speed and the evaluation data of the overall form are stored for each player identification number. The various data stored in the evaluation information area 22d and the modified model form data area 22c are held in the RAM 22 in which only the latest data for each player is backed up.

In addition, the RAM 22 stores model body data and model form data which are set by an operation input on the operation panel 31 or created based on model body data and model form data stored in the ROM 21. It is stored in the area 22e and the model form data area 22f. These model body data areas 2
The structures of 2e and the model form data area 22f are substantially the same as those of the model body data area 21d and the model form data area 21e, and a detailed description thereof will be omitted.

As shown in FIG. 4, a training evaluation device is used to perform processing such as creating evaluation information of a player's form while accessing the various data areas described above and outputting the evaluation information from the cathode ray tube 41 and the speaker 43. 1
Within 00, various means referred to in the present invention are configured. Hereinafter, the outline of these means will be described.

The player body data acquiring means acquires player body data relating to the player's body. At this time, the player body data can be obtained from the content of the operation input by the player, or the player body data can be obtained by detecting the position of the seal 35 attached to the player's body. When the power of the training evaluation apparatus 100 is turned on, a menu screen in which various buttons are displayed on the display surface of the cathode ray tube 41 is displayed as shown in FIG. When the player moves the arrow-shaped pointer 51a by operating the stick 31b of the operation panel 31 and presses the enter key 31c of the operation panel 31, the button corresponding to the position of the pointer 51a is selected. The processing corresponding to the pressed button is performed. Hereinafter, the operation of moving the pointer using the stick 31b to the position of the button displayed on the display surface of the cathode ray tube 41, and then pressing the enter key 31c to select the button at the position of the pointer will be described by simply selecting the button. .

FIG. 12 shows a display example of a player body data input screen displayed on the display surface of the cathode ray tube 41 when the player selects the body type / physical strength registration button 51b on the menu screen of FIG. In the figure, a name,
An input field 52a for inputting age, height, and the like is displayed. In one of the input fields 52a, a cursor 52b indicating that input is currently being performed is displayed, and an input button 52c displayed at the lower right of the screen is selected by operating the operation panel 31 to move the cursor to the position of the cursor 52b. A numerical value or the like is input. More specifically, an arrow-shaped pointer 52d is displayed, and the input button 5 corresponding to the position of the pointer 52d is operated by operating the stick 31b and the enter key 31c of the operation panel 31.
The content of 2c is input to the input field 52a at the position of the cursor 52b. Also, a cursor key 31a on the operation panel 31
Moves the cursor 52b up, down, left and right, and changes the input field 52a to be input. A registration end button 52e is also displayed at the lower right of the screen.
When is selected, input of player body data ends,
Return to the menu screen. When the cursor 52b is at the position of the input field 52a corresponding to the name, the katakana input button 52c is displayed and katakana can be input. When the cursor 52b is at the position of the other input field 52a, the numeric input button 52c is displayed. Is displayed and numbers can be entered.
Then, the player body data is acquired from the content input and operated in the input field 52a, and the player body data area 22a in the RAM 22 is updated.

On the other hand, the height, hand length, and shoulder width data of the player can be obtained by motion capture means constituting player form data obtaining means described later. When the player selects the measurement button 52f on the player body data input screen in FIG. 12, a measurement start screen in which an instruction to attach the seal 35 to the body is displayed as shown in FIG. When the player attaches the seal 35 to the body according to the instruction and selects the measurement start button 53a, the training evaluation device 1
00 is C by the motion capture means described later.
The image of the player is captured from the CD imagers 32 and 33, and the position of the sticker 35 is detected by three-dimensional coordinate data. Therefore, the height is calculated from the difference in the coordinate data of the seal 35 attached to the forehead and the left toe, and the hand length is calculated from the difference in the coordinate data of the seal 35 attached to the left shoulder and the back of the left hand. The shoulder width is calculated from the difference between the coordinate data of the seal 35 attached to the left shoulder and the right shoulder. Then, returning to the screen of FIG. 12, the calculated height, hand length, and shoulder width are automatically input to the corresponding input fields 52a.

The player form data obtaining means obtains the player form data by measuring the operation of the player. At that time, the motion capture means
Get player form data. When the player selects the training button 51c on the menu screen of FIG. 11, a player form data acquisition screen shown in FIG. 14 is displayed. In this player form data acquisition screen, an instruction is given to attach the seal 35 to the body, so the player attaches the seal 35 to the body according to the instruction. When the player selects the training start button 54a, the images of the player are continuously captured from the CCD imagers 32 and 33, and the positions of the seal 35 and the head 34a are sequentially detected based on the three-dimensional coordinate data. Therefore, the head speed is calculated from the time-series coordinate data of the head 34a, the rotation speed of the shoulder and the waist is calculated from the time-series coordinate data of the seal 35 attached to both shoulders and the left and right hips, and the rotation speed of the left and right knees is calculated. Seal 3 attached
The moving speed of the left and right knees is calculated from the time-series coordinate data of No. 5, and the stance is calculated from the coordinate data of the seal 35 attached to the left and right toes. The calculated head speed and the like are acquired as player form data and stored in the player form data area 22b. Then, evaluation information for evaluating the player's form is created by means described later, and is output from the television 40.

The above-described motion capture means will be described more specifically as follows. CCD imager 3
2, 33 constantly monitor a player swinging the golf club 34 with the seal 35 attached to the body, and output image data to the I / O boards 16c, 16d. Each piece of image data is, for example, two-dimensional still image data as shown in FIG. It is folded back into digital data and connected in order from top to bottom. Here, the CCD imager 3
From the arrangement of 2, 33, the image data created by the CCD imager 32 is two-dimensional data in the horizontal and vertical directions in FIG. 3, and the image data created by the CCD imager 33 is This is two-dimensional data in the vertical direction.

This motion capture means sequentially converts the two-dimensional still image data from the CCD imagers 32 and 33 into I
It is obtained via the / O boards 16c and 16d. And
From these still image data, the head 34a and the seal 35
The position of the pixel corresponding to the yellow color is detected. Where CC
The position in the left-right direction X and the vertical direction Z is detected from the still image data from the D image pickup device 32, and the position in the front-rear direction Y and the vertical direction Z is detected from the still image data from the CCD image pickup device 33. Therefore, from the two-dimensional still image data from the CCD imagers 32 and 33, the positions of the head 34a and the seal 35 are detected as three-dimensional coordinate (X, Y, Z) data. That is, a plurality of Cs monitoring different directions from each other
It has a CD imager, detects coordinates corresponding to the color of the head 34a or the seal 35, which is the measured object, from the image data of each CCD imager, and detects the position of the measured object from the detected coordinates. The position detecting means according to the present invention, which detects the position of the object to be measured by calculating the following formula, is configured. Further, since the still image data is sequentially input, data of the coordinates (X, Y, Z) of the head 34a and the seal 35 can be obtained as time-series data.

For example, when calculating the head speed of the head 34a, the head 34a moves the coordinates (X1, Y
Assuming that the coordinates have changed from (1, Z1) to coordinates (X2, Y2, Z2), the head speed V1 becomes

(Equation 1) Can be calculated. The same applies to the moving speeds of the left and right knees. On the other hand, when calculating the stance, there is no need to change the coordinates of the seals 35 attached to the left and right toes.
The coordinates of each seal 35 at a certain time are represented by (X
1, Y1, Z1) and (X2, Y2, Z2), the stance L1 is

(Equation 2) Can be calculated. The same applies to the calculation of height, hand length, and shoulder width performed by the player body data acquisition means.

In this embodiment, the CCD image pickup device 3
The positions of the seal 35 and the head 34a can be detected by three-dimensional coordinate data by monitoring the directions different from each other. Further, if the movement of the object to be measured is planar, a configuration in which one CCD imager is used is also possible.

As shown in FIG. 16, the movement of the player's body and the movement of tools used by the player may be detected using an acceleration sensor. In the figure, an acceleration sensor 36 is attached to the head 34a. The acceleration sensor 36 is connected to an I / F provided on the game machine main body 10 via a cable 36a. Since the acceleration signal is always output from the acceleration sensor 36, the game machine body 10 can obtain time-series data of the acceleration of the head 34a by sequentially converting the acceleration signal into digital acceleration data. When the acceleration of the head 34a is integrated over time, the speed of the head 34a is obtained.
By accumulating the time-series data of the acceleration from the state where is stationary and multiplying by the correction coefficient, the speed of the head 34a at the time when the time-series data of the acceleration is integrated can be calculated. The calculated speed is temporarily stored in RAM as time-series data.
14, and when the data having the maximum value is obtained from the time series data of the speed, the head speed can be calculated, and the player form data can be obtained. The acceleration sensor may be attached to the player's body. For example, when attached to the left and right knees, the movement speed of the left and right knees can be detected. That is, the player form data obtaining means has an acceleration sensor attached to one or a combination of tools used by the player and the body of the player to detect acceleration. A configuration for acquiring data may be adopted.

The model data setting means has selection input means capable of selecting and inputting a model as a reference for evaluation from the player, and obtains from the ROM 21 model body data and model form data corresponding to the selected and input model. I do. At that time, these data can be created from the contents of the operation input by the player, and the model body data and model form data of the part that was not operated can be corrected from the part of the operation input .

When the player selects the model setting button 51d on the menu screen of FIG. 11, a model data setting screen shown in FIG. 17 is displayed. In this model data setting screen, the model names are displayed in a list, and the operation panel 3
In step 1, a model can be selected. When the next screen button 55b or the previous screen button 55c is selected, the displayed model name changes sequentially. It is also assumed that the player selects the training button 51c without selecting the model setting button 51d on the menu screen. In this case, the model corresponding to the model identification number "1" is automatically selected. .

When the player selects the model name button 55a, a model body / form data display screen shown in FIG. 18 is displayed. Is displayed. When the confirm button 56a is selected, the displayed model is selected and used as a reference for evaluation. At this time, based on the player body data corresponding to the player who is performing the operation input, the model form data is corrected and corrected model form data is created. The contents of the modified model form data are displayed on the modified model form data display screen of FIG. Then, when the player selects the confirmation button 57a, the screen returns to the menu screen of FIG.

When the player selects the correction button 56b, a correction screen shown in FIG. 20 is displayed. On this correction screen, an input field 58a for inputting data corresponding to each item of the model body and form is displayed. Input field 5
A cursor 58b is displayed on one of the 8a, an input button 58c displayed on the lower right of the screen is selected by operating the operation panel 31, and a numerical value or the like is input at the position of the cursor 58b. The cursor 58b is moved up, down, left and right by operating the cursor key 31a, and the input target 5
8a changes. When the player selects the end button 58d displayed at the lower right of the screen, the input of the data on the model body and the form ends, and the screen returns to the model body / form data display screen of FIG. Although FIG. 20 shows a screen for correcting data relating to the model's physique and physical strength, when the form correction button 58g is selected, a screen (not shown) for correcting data relating to the model form is displayed. Operation data can be input. When the end button 58d is selected, the training evaluation apparatus 100 acquires the model body data and the model form data from the contents input in the input field 58a, and assigns a new model identification number to the RA.
The model body data area 22e and the model form data area 22f in M22 are updated.

A measurement button 58e having the same function as the measurement button 52f on the player body data input screen shown in FIG. 12 is also provided, and the height, hand length, and shoulder width of the model are measured by the above-described motion capture means. It is also possible to acquire model body data and model form data related to the model form. In addition, a conversion button 58f is provided, and the model body data and the model form data of the part that is not operated and input are automatically determined based on the difference between the data before and after the correction of the item corresponding to the position of the cursor 58b. It has been fixed.

In addition, a character setting button 51e is also provided on the menu screen of FIG. When the player selects the character setting button 51e, for example, it is possible to select a picture of the character 53b displayed on the upper left of FIG. The character 53b is a picture for expressing a player, and appears on various display screens. Also, in order to make it interesting,
When the player has trained, the player's form is displayed by the movement of the character 53b. Here, as the character 53b, besides various golf professional players, celebrities such as entertainers and animals such as birds and horses are prepared.

A measuring instrument for measuring the head speed of a golf club or the like may be used in order to grasp its form as an objective numerical value. But,
Since there is usually a difference in body shape, physical strength, and the like between a model as a model of a professional player and a player, it has been difficult to evaluate a player's form by reflecting the difference in the body shape and the like. Therefore, in the present embodiment, information for evaluating the player's form after correcting the model form data based on the difference between the model body data and the player body data is provided with the evaluation information creating means and the evaluation information output means. Is created and output.

The evaluation information creating means creates modified model form data from the above model body data, model form data, and player body data, and creates evaluation information from the modified model form data and player form data. The evaluation information output means outputs the evaluation information from the cathode ray tube 41 and the speaker 43. Here, the model body data and the model form data are either stored in the ROM 21 constituting the model data storage area, or generated by the model data setting means and stored in the RAM 22. The player body data is obtained by the player body data obtaining means and stored in the RAM 22.
The player form data is obtained by the player form data obtaining means and stored in the RA.
This is stored in M22. Hereinafter, the processing performed by the evaluation information creating means will be described with reference to the flowcharts of FIGS. Here, the flow of FIG. 21 showing the correction processing for creating the correction model form data is performed continuously when a model is selected on the correction model form data display screen of FIG. Note that the description will be made on the assumption that the player corresponding to the player identification number “1” selects the model corresponding to the model identification number “1” and obtains the evaluation information.

First, the modified model form data area 22
From c, the model identification number corresponding to the player identification number "1" is read (step 305). In the example of FIG.
The model identification number is “1”. In the present embodiment, the model form data is corrected based on the height difference between the model and the player. Therefore, the height data of the model corresponding to the model identification number "1" is read from the model body data area 21d or the model body data area 22e (step 310), and the height corresponding to the player identification number "1" is read from the player body data area 22a. Read the height data of the player (step 31)
5). In the examples of FIGS. 5 and 7, the height of the model is “200”.
And the height of the player is “170”. Also,
The model form data corresponding to the model identification number "1" is read from the model form data area 21e or the model form data area 22f (step 32).
0). In the example of FIG. 6, the data of the head speed of the model is “50”, and the rotation of the shoulder is “2.1”.

Then, for each item of the form, corrected model form data is created by multiplying the ratio of the player's height to the model's height by the model form data (step 325), and the corrected model form data area 22c shown in FIG. (Step 330), and this flow is terminated. For example, the head speed of the model is 170 /
Corrected to 200 * 50 = 42.5. In other words,
The head speed of the model is modified to a value proportionally calculated from the height ratio between the model and the player.

As described above, according to the game program, C
The processing of steps 305 to 330 performed by the PU 12 is, for each item of the form, multiplied by the model form data by the ratio of the player body data to the model body data to obtain modified model form data. In other words,
The modified model form data is created by modifying the model form data based on the difference between the model body data and the player body data. That is, the correcting means according to the present invention is configured.

The model form data may be modified by using items such as weight, hand length, and shoulder width in addition to the height item. At this time, a calculation formula other than calculating the ratio of the player body data to the model body data may be used, or a calculation formula involving a plurality of items may be used. Alternatively, modified model form data may be created by multiplying by a different correction coefficient according to the content of the item of the character of the model body data.

Using the created modified model form data to create player form evaluation information, FIG.
Is performed successively when the player form data is obtained. First, the modified model form data corresponding to the player identification number "1" is read from the modified model form data area 22c (step 355). Also, the player form data corresponding to the player identification number "1" is read from the player form data area 22b (step 3).
60). Then, a difference between the corrected model form data and the player form data is calculated for each item of the form (step 365). For example, the head speed of the modified model form data shown in FIG. 9 is “42.5” and the head speed of the player form data shown in FIG. 8 is “40”. The difference from the player form data is 42.5-4 as shown in the upper section of FIG.
0 = 2.5. Note that these differences are positive numbers or 0
It is an absolute value so that In other words, the smaller the difference, the closer to the form that fits the player's body.

Next, a score is calculated by multiplying the ratio of this difference to the corrected model form data by 100 for each item (step 370). In the case of the head speed, the difference is “2.5”, and the corrected model form data is “4”.
Therefore, the score is 2.5 / 42.5 * 100 = 6 as shown in the middle column of FIG. The smaller these scores are, the closer the form fits the player's body. Further, all the calculated points are subtracted from 100 points, and the obtained points are set as the points of the form evaluation (step 375), and stored in the evaluation information area 22d together with the points of each item (step 380). Step 3
Since the total of the points calculated in 70 is 11 points, the score of the form evaluation is, as shown in FIG.
89. In other words, for a plurality of items related to the form, the player's form is evaluated in a deduction manner. As shown in FIG. 24, the rank is also determined from the correspondence between the form evaluation and the rank, and the evaluation information area 22d is determined.
To be stored. For example, if the form evaluation is “89”, the rank is “A”.

As described above, according to the game program, C
The processing of steps 355 to 380 performed by the PU 12 calculates the difference between the corrected model form data and the player form data for each item of the form, calculates the score corresponding to the ratio of this difference to the corrected model form data, and calculates All of the points scored are subtracted from the given points,
The obtained score is used as evaluation information. In other words, the evaluation information of the player's form is created based on the difference between the modified model form data and the player form data. That is, the evaluation means according to the present invention is configured.

For the head speed, a score obtained by multiplying the ratio of the player form data to the corrected model form data by 100 is also calculated and added to the evaluation information (step 385). If the head speed of the modified model form data is “42.5” and the head speed of the player form data is “40”, the score is 40 / 42.5 * 100 = 94. The closer the score is to 100, the closer the form fits the player's body, and may exceed 100. As described above, the process of step 385 of calculating the ratio of the player form data to the modified model form data and creating the evaluation information also constitutes the evaluation means according to the present invention. The processing of steps 305 to 330 and the processing of steps 355 to 385 are performed by evaluating the difference between the model form data and the player form data based on the difference between the model body data and the player body data. Create evaluation information for. That is, the evaluation information creating means according to the present invention is configured.

Thereafter, display data is created in cooperation with the signal processor 15a and the image processor 15b based on the created evaluation information, and is output to the CRT 41 via the display processing circuit 16e (step 3).
90). In addition, audio data is created in cooperation with the signal processor 15a based on the evaluation information, and output to the amplifier 42 via the audio processing circuit 16f (step 395), and this flow ends. Then, as shown in the evaluation output screen of FIG. 25, the evaluation information is displayed from the cathode ray tube 41, and the evaluation information is output as voice from the speaker 43. An example of the audio output is described in parentheses in FIG. Thus, steps 390-3
The processing 95 and the television 40 output the evaluation information created by the evaluation information creating means. That is, the evaluation information output means according to the present invention is configured.

As described above, the difference between the form of the model and the player is evaluated based on the model form data and the player form data, and the evaluation information of the form of the player is created. It is evaluated based on. that time,
The difference between the model and the player is based on the difference between the model and the player, so that the evaluation of the player form reflects the difference between the model and the player. That is, since the evaluation is performed based on the optimal form according to the player's body type and physical strength, it is possible to objectively evaluate the player's form.

In order to create the evaluation information of the player's form based on the difference between the model body data and the player body data, in addition to correcting the model form data and evaluating, the player form data The evaluation may be performed after correction. In this case, as shown in FIG. 26, a modified player form data area 22g is provided in place of the modified model form data area 22c to perform processing. Then, when the player form data is obtained, the correction processing and the evaluation processing shown in FIG. 27 are continuously performed.

First, the model identification number corresponding to the player identification number "1" is read from the modified player form data area 22g (step 905). Next, the model body data area 21d or the model body data area 22e
The data of the height of the model corresponding to the model identification number "1" is read from the
The data of the height of the player corresponding to the player identification number "1" is read from "a" (step 910). Also,
The player form data corresponding to the player identification number "1" is also read out (step 915). Then, for each item of the form, corrected player form data is created by multiplying the ratio of the model height to the player height by the player form data, and stored in the corrected player form data area 22g (step 92).
0). That is, the processing of steps 905 to 920 constitutes a correcting means in another sense according to the present invention.

Then, the model form data area 21e
Alternatively, the model form data corresponding to the model identification number “1” is read from the model form data area 22f (step 925), and the difference between the modified player form data and the model form data is calculated for each form item (step 930). ). Next, a score is calculated by multiplying the ratio of this difference to the model form data by 100 for each item, and all the calculated scores are subtracted from 100, and the obtained score is used as a score for the form evaluation (step 935). ). Then, the evaluation information is stored in the evaluation information area 22d together with the score of each item (step 940), and the created evaluation information is output to the CRT 41 and the amplifier 42 via the display processing circuit 16e and the audio processing circuit 16f (step 945). ), End this flow. That is, the processing of steps 925 to 940 constitutes an evaluation means in another sense according to the present invention. As a result, the evaluation information is displayed from the cathode ray tube 41 with the same contents as the screen shown in FIG.

Hereinafter, the operation of the training evaluation apparatus 100 will be described, but a detailed description of the already described flow will be omitted. FIG. 28 shows a training evaluation device 100.
3 is a flowchart showing an outline of a main process executed by the CPU. It should be noted that some processes, such as the process when the end button 51f is pressed, are not shown. The same applies to the flowcharts described below. When a power switch (not shown) is turned on, the game program is read from the ROM 21 to the RAM 14 and the flow starts. Then, the menu screen of FIG. 11 is displayed (step 105), and various buttons 51b to 5b are displayed on the operation panel 31.
It is determined whether the selection input of 1f has been performed (step 110).

If the body type / physical strength registration button 51b is selected, a player body data acquisition process, which will be described later, is performed (step 122).
Return to When the model setting button 51d is selected,
A model data setting process described later is performed (step 14).
2) Perform the above-described correction processing of FIG. 21 (step 14)
4). When the processing is completed, the process returns to step 105. When the training button 51c is selected, a player form data acquisition process described later is performed (step 162), and the above-described evaluation process of FIG. 22 is performed (step 164). Then, it is determined whether the re-challenge button 59a is selected on the evaluation output screen of FIG. 25 (step 166). When the re-challenge button 59a is selected, the processing of steps 162 to 164 is performed again. When the menu button 59b is selected, step 1 is performed.
Return to 05. In addition, although not shown, if the character setting button 51e is selected, a character setting process (not shown) is performed, and the process returns to step 105. When the end button 51f is selected, this flow ends.

FIG. 29 is a flowchart showing the outline of the player body data acquisition processing in step 122. On the menu screen of FIG. 11, a body type / physical strength registration button 5
When 1b is selected, the player body data input screen of FIG. 12 is displayed (step 405), and buttons 52c and 52 are displayed.
It is determined whether or not e and 52f are selected and input (step 410). In addition, a process of moving the cursor 52b on the screen up, down, left, and right in accordance with an operation input of the cursor key 31a of the operation panel 31 is also performed in a flow (not shown). When the input button 52c is selected, the cursor 5
The content of the selected input button 52c is input to the input field 52a corresponding to the position of 2b, and the display content is changed (step 422). Then, the process returns to step 405 to continuously receive an operation input from the operation panel 31.

When the measurement button 52f is selected, a measurement start screen shown in FIG. 13 is displayed (step 442). When the player attaches the seal 35 to the body according to the instruction and selects the measurement start button 53a, the training evaluation device 100 uses the position detection means of the motion capture means to determine the position of the seal 35 attached to the player's body in a three-dimensional manner. Detected using coordinate data. next,
The height, hand length, and shoulder width of the player body data are calculated (step 444). After that, the calculated content such as the height is input to the input field 52a to change the displayed content (step 446). Then, the process returns to step 405 to continuously receive an operation input from the operation panel 31.

When the registration end button 52e is selected, the content input in the input field 52a is obtained as player body data relating to the player's body (step 4).
62). That is, the processing of steps 405 to 422
It constitutes an operation input means in the player body data obtaining means. Then, it is stored in the player body data area 22a (step 464), and this flow ends. Thereafter, the process returns to step 105 in FIG. 28, and the menu screen is displayed. Thus, according to the game program, the CPU
The processing of Steps 405 to 464 performed by 12 includes operation input means capable of operating and inputting data relating to the player's body from the player, and acquires player body data relating to the player's body from the operation input data. Further, the player body data can be acquired from the position of the measured object detected by the position detecting means provided in the player body data acquiring means. That is, the player body data acquiring means according to the present invention is configured.

FIG. 30 is a flowchart showing an outline of the model data setting process in step 142. Figure 1
When the model setting button 51d is selected on the first menu screen, the model data setting screen of FIG. 17 is displayed (step 505), and it is determined whether or not the buttons 55a, 55b, and 55c are selected and input (step 510). . When the model name button 55a is selected, it means that a model selection input from the player has been received. That is, the process of step 510 constitutes a selection input unit in the model data setting unit. Then, the model / form display screen of FIG. 18 is displayed (step 52).
2). At this time, data on the body and form of the model corresponding to the selected model name button 55a is displayed.
Next, it is determined whether the correction button 56b has been selected (step 524). When the correction button 56b is selected, a model data correction process is performed (step 52).
6) Return to step 522 to display the model body / form display screen. On the other hand, if the correction button 56b has not been selected, the process proceeds to step 528.

The outline of the model data correction processing in step 526 is shown in the flowchart of FIG. First, the correction screen shown in FIG. 20 is displayed (step 605), and the button 5
It is determined whether 8c, 58d, 58e, and 58f have been selected and input (step 610). In addition, a process of moving the cursor 58b on the screen up, down, left, and right in accordance with an operation input of the cursor key 31a of the operation panel 31 is also performed in a flow (not shown). When the input button 58c is selected, the input field 58a corresponding to the position of the cursor 58b
Then, the content of the selected input button 58c is input to change the displayed content (step 622). And step 6
Returning to step 05, the operation input from the operation panel 31 is continuously received. Although a detailed description is omitted, when the form correction button 58g is selected, an operation input for correcting model form data is accepted. In other words, the processing of steps 610 and 622 for receiving an operation input of data on the body and form of the model from the player constitutes an operation input unit in the model data setting unit.

When the measurement button 58e is selected, a measurement start screen similar to that shown in FIG. 13 is displayed. When a measurement start button (not shown) is selected, the position of the seal 35 attached to the body of the model is detected by three-dimensional coordinate data by the position detection means of the motion capture means. The height, hand length, and shoulder width are calculated (step 642). Then, the input field 58
The contents such as the calculated height are input to a, and the displayed contents are changed (step 644). Then, the process returns to step 605 to continuously receive an operation input from the operation panel 31.

When the conversion button 58f is selected, the contents of the input field 58a corresponding to the position of the cursor 58b are obtained (step 662), and the model body data or model form data of the item corresponding to the selected model is obtained. Is obtained from the ROM 21 or the RAM 22 (step 664). Next, the numerical value input to the input field 58a is divided by the model body data or the model form data of the item corresponding to the input field 58a at the position of the cursor 58b.
The obtained numerical value is multiplied by the model body data or the model form data of the portion not corresponding to the data input for operation to correct the model body data or the model form data. Then, based on the corrected data, the input field 58
a is changed (Step 666), and Step 6
Returning to step 05, the operation input from the operation panel 31 is continuously received. That is, steps 610 and 66
Processes 2 to 666 constitute an operation input unit in another sense in the model data setting unit. As described above, since the player can freely convert the model's physique and physical strength, an ideal model can be created, and evaluation information based on this ideal model can be obtained. When the end button 58d is selected, the present flow ends.

At step 524 in FIG.
If 6b has not been selected, it is determined whether the confirm button 56a has been selected (step 528). When the confirm button 56a is selected, the input field 58 of FIG.
a is obtained as model body data and model form data relating to the body and form of the model, and the model body data area 22e and the model form data area 2 are acquired.
2f (step 530), and this flow ends. Thereafter, the correction processing of FIG. 21 is performed, and corrected model form data is created. Then, the process returns to step 105 of FIG. 28 to display a menu screen. Note that FIG.
When the next screen button 55b or the previous screen button 55c is selected on the screen of (5), model body data or model form data to be newly displayed is read from the ROM 21 or the RAM 22 (step 542), and the process returns to step 505 to return to the model data. Display the setting screen.

As described above, according to the game program, C
The processing of steps 505 to 542 performed by the PU 12 includes selection input means capable of selecting and inputting a model from the player, and acquires model body data and model form data corresponding to the selected and input model from the model data storage area. I do. In addition, the player has an operation input unit capable of inputting data relating to the model body and form from the player,
The model body data and the model form data are created from the data input by the operation. Further, based on the difference between the operation input data and the model body data or the model form data, the part of the model body data or the model form data which does not correspond to the operation input data is corrected. That is, the model data setting means according to the present invention is configured.

FIG. 32 is a flowchart showing an outline of the player form data acquisition processing in step 162. When the training button 51c is selected on the menu screen of FIG. 11, the player form data acquisition screen of FIG. 14 is displayed (step 705), and it is determined whether or not the training start button 54a has been selected (step 710). When the same button 54a is selected, the above-mentioned motion capture means
The images of the player are continuously captured from the imaging devices 32 and 33, and the positions of the head 34a and the seal 35 are sequentially detected by three-dimensional coordinate data (step 715). And
The head speed, the rotational speed of the shoulder and the waist, and the moving speed of the left and right knees are calculated from the time-series coordinate data, and the stance is calculated from the coordinate data of the seal 35 attached to the left and right toes (step 720). Obtain the calculated head speed and the like as player form data (step 7)
25), store it in the player form data area 22b (step 730), and end this flow. Thereafter, the evaluation processing of FIG. 22 is performed, and evaluation information is created and output. When the re-challenge button 59a is selected on the evaluation output screen of FIG.
When the menu buttons 59b are selected, the process returns to step 105 to display the menu screen.

As described above, according to the game program, C
The processing of steps 705 to 730 performed by the PU 12 measures the movement of the player and acquires the player form data. At this time, the position of the measured object such as the head 34a is detected, and the player form data is obtained from the detected change in the position of the measured object. That is, a player form data acquisition unit according to the present invention is configured.

According to the above-described flow, the player registers data relating to his / her body such as his / her body type and physical strength, and when swinging the golf club, can know his / her evaluation information by displaying a CRT and outputting sound.
Here, the evaluation information reflects a difference in the body type and the like between the model and the player, so that an objective evaluation can be obtained. Also, the height and hand length of the player can be automatically registered, and a model can be selected and data on the model body and form can be set, which is very convenient.

In the above-described embodiment, various data areas such as a model body data area and a model form data area are provided. A configuration without using the element cassette 20 may be adopted. In the figure, a game program area is stored in a ROM 13 in the game machine main body 10,
Although an image data area and an audio data area are provided, a model body data area and a model form data area are not provided. That is, the training evaluation device does not include the model data storage area. The game machine body 10
In the RAM 14, model body data, model form data, player body data, player form data, modified model form data, and evaluation information are temporarily stored. When the power is turned on, various means similar to the above-described training evaluation device 100 are configured in the training evaluation device.

Each time the power is turned on, the training evaluation apparatus displays a screen similar to the correction screen shown in FIG. Set the data. Further, a screen similar to the player body data input screen of FIG. 12 is displayed, and player body data is set by the player body data acquisition means. Further, a screen similar to the player form data acquisition screen of FIG. 14 is displayed,
The movement of the player is measured by the player body data acquisition means, and the player form data is acquired. Then
By the evaluation information output means, the same processing as described above is performed from the model body data, the player body data, and the model form data, and corrected model form data can be created. Further, evaluation information can be created from the modified model form data and the player form data. Then, the evaluation information output means outputs the evaluation information. That is, the player can obtain an objective evaluation of his / her form even using the training evaluation apparatus.

In the case where the training evaluation device is a business device to be installed in a game center, for example, FIG.
A device including an integrated main body 70 as shown in FIG. This training evaluation device, as shown in FIG.
A bus 1 corresponding to a component of the game machine body 10 of FIG.
1, CPU 12, ROM 13, RAM 14, signal processor 15a, image processor 15b, I / F1
6b, I / O board 16c, display processing circuit 16
e, an audio processing circuit 16f, an operation unit 71 corresponding to the operation panel 31, a CCD imager 72, a display 73 corresponding to components of the television 40, an amplifier 74, and a speaker 75. The components corresponding to those of the game machine main body 10 are denoted by the same reference numerals as those in FIG.

In the present training evaluation device, the storage element cassette 20 is not provided. Instead, the game program is stored in the ROM 13, and various data are stored in the ROM 13.
13 and the RAM 14. A display 73 is embedded in the upper part of the front of the main body 70, and an operation unit 71 is provided below the display 73.
The operation unit 71 has a slot 71d for inserting coins, in addition to a cursor key, a rod-shaped stick, a decision key 31c, and the like similar to the operation panel 31. Operation unit 71
A CCD image pickup device 72 is embedded below the device. In the present training evaluation device, the seal is not attached to the player's body, and only the head speed of the head 34a of the golf club 34 on which the player swings is evaluated. Therefore, in order to simplify the apparatus, the movement of the head 34a is detected by one CCD imager 72.

The training evaluation apparatus outputs player's form evaluation information by the following operations. First, when the player inserts a predetermined amount of coins into the insertion slot 71d, the process starts. Then, input of various data from the player is received while displaying various setting screens. Next, the housing cylinder 76 provided in contact with the side surface of the main body 70
From the display 73 and the speaker 75 to output a command to select a golf club 34 that matches the player's body shape, and outputs an instruction to fit both feet to a footprint mark 77 drawn on the floor in front of the main body 70, and then issues a swing instruction. Is output. When the player swings the golf club 34 according to the instruction, the head speed is measured by the same motion capture means as described above. Then, the head speed data of the model is corrected based on the difference between the model body data and the player body data, and the form of the player is determined based on the difference between the corrected head speed data of the model and the measured head speed data of the player. Create evaluation information for. Then, since the same evaluation information reflects the difference in the body type and physical strength between the model and the player,
You can objectively evaluate the player's form.

As described above, according to the present invention, the evaluation information is created based on the difference between the model and the player's body type and the like. Differences are reflected. That is, since the evaluation is performed based on the optimal form according to the player's body type and physical strength, a training evaluation apparatus capable of objectively evaluating the player's form can be provided. Further, the training evaluation apparatus can be applied as a method, a program, or a medium on which the program is recorded.

[Brief description of the drawings]

FIG. 1 is a schematic configuration diagram showing a training evaluation device according to an embodiment of the present invention.

FIG. 2 is a front view showing the operation panel as viewed from the front.

FIG. 3 is a top view showing the arrangement of the CCD imagers as viewed from above.

FIG. 4 is a diagram schematically illustrating a schematic configuration of a storage area of a storage element cassette and various units included in a training evaluation device.

FIG. 5 is a schematic diagram showing a structure of a model body data area provided in a ROM 21.

FIG. 6 is a schematic diagram showing a structure of a model form data area provided in a ROM 21.

FIG. 7 is a schematic diagram showing a structure of a player body data area stored in a RAM 22.

FIG. 8 is a schematic diagram showing a structure of a player form data area stored in a RAM 22.

FIG. 9 is a schematic diagram showing a structure of a correction model form data area stored in a RAM 22.

FIG. 10 is a schematic diagram showing a structure of an evaluation information area stored in a RAM 22.

FIG. 11 is a diagram showing a display example of a menu screen.

FIG. 12 is a diagram showing a display example of a player body data input screen.

FIG. 13 is a diagram illustrating a display example of a measurement start screen.

FIG. 14 is a diagram showing a display example of a player form data acquisition screen.

FIG. 15 is a diagram schematically illustrating image data output from a CCD image pickup device.

FIG. 16 is a diagram showing an attached state of an acceleration sensor used in a training evaluation device according to a modification.

FIG. 17 is a diagram illustrating a display example of a model data setting screen.

FIG. 18 is a diagram illustrating a display example of a model body / form data display screen.

FIG. 19 is a diagram showing a display example of a modified model form data display screen.

FIG. 20 is a diagram showing a correction screen.

FIG. 21 is a flowchart illustrating an outline of a correction process for generating correction model form data.

FIG. 22 is a flowchart illustrating an outline of an evaluation process for creating evaluation information.

FIG. 23 is a diagram schematically showing calculation of evaluation information.

FIG. 24 is a table showing the correspondence between form evaluation and rank.

FIG. 25 is a diagram showing a display example of an evaluation output screen.

FIG. 26 is a schematic diagram showing a structure of a modified player form data area in a training evaluation device according to a modification.

FIG. 27 is a flowchart illustrating an outline of a correction / evaluation process performed by a training evaluation device according to a modification.

FIG. 28 is a flowchart showing an outline of a main process executed by the training evaluation device.

FIG. 29 is a flowchart showing an outline of a player body data acquisition process.

FIG. 30 is a flowchart showing an outline of a model data setting process.

FIG. 31 is a flowchart illustrating an outline of a model data correction process.

FIG. 32 is a flowchart showing an outline of a player form data acquisition process.

FIG. 33 is a diagram schematically showing a schematic configuration of a storage area of a storage element cassette in a training evaluation device according to a modification, and various units configured in the device.

FIG. 34 is a perspective view showing the appearance of a training evaluation device according to a modification.

FIG. 35 is a schematic configuration diagram of a training evaluation device according to a modification.

[Explanation of symbols]

 DESCRIPTION OF SYMBOLS 10 ... Game machine body 11 ... Bus 12 ... CPU 13 ... ROM 14 ... RAM 15a ... Signal processor 15b ... Image processor 16a, 16b ... Interface circuit 16c, 16d ... I / O board 16e ... Display processing circuit 16f ... Audio processing Circuit 20 ... Storage element cassette 21 ... ROM 21a ... Game program area 21b ... Image data area 21c ... Sound data area 21d ... Model body data area 21e ... Model form data area 22 ... RAM 22a ... Player body data area 22b ... Player form data Area 22c: Modified model form data area 22d: Evaluation information area 22e: Model body data area 22f: Model form data area 22g: Modified player form data area 31: Operation panel 3 , 33 ... CCD imager 34 ... golf club 34a ... head 35 ... seal 36 ... acceleration sensor 40 ... television 41 ... cathode-ray tube 42 ... amplifier 43 ... speaker 100 ... training evaluation device

Claims (23)

[Claims] 1. A training evaluation apparatus for measuring an action of a player performing training, and evaluating and outputting the form of the player based on the measured data and data relating to the form of the model. A model data storage area storing model body data and model form data relating to the form of the same model; a player body data acquiring means for acquiring player body data relating to the player's body; Player form data acquisition means for acquiring form data; and, based on a difference between the model body data stored in the model data storage area and the player body data acquired by the player body data acquisition means, the same model data Model stored in storage area Evaluation information creating means for evaluating the difference between the form data and the player form data obtained by the player form data obtaining means to create evaluation information for the player form; and evaluation information output means for outputting the evaluation information A training evaluation device, comprising: 2. The training evaluation device according to claim 1, wherein the evaluation information creating means corrects the model form data based on a difference between the model body data and the player body data. A training evaluation device, comprising: correction means for generating data; and evaluation means for generating the evaluation information based on a difference between the corrected model form data and the player form data. 3. The training evaluation device according to claim 2, wherein the model body data, the model form data, the player body data, and the player form data are digitized, and the correction means is a digitized correction. A training evaluation device, wherein model evaluation data is generated, and wherein the evaluation means generates the evaluation information based on the digitized corrected model form data and player form data. 4. The training evaluation device according to claim 3, wherein the correction means multiplies the ratio of the player body data to the model body data by the model form data to obtain the corrected model form data. Training evaluation device to feature. 5. The training evaluation device according to claim 2, wherein the evaluation means calculates a ratio of the player form data to the corrected model form data to create the evaluation information. A training evaluation device characterized by performing. 6. The training evaluation device according to claim 2, wherein the evaluation means calculates a difference between the modified model form data and the player form data and stores the evaluation information. A training evaluation device characterized by being created. 7. The training evaluation device according to claim 6, wherein the model form data and the player form data have a plurality of items corresponding to each other, and the correcting means includes a step of setting the corrected model form data for each of the items. The evaluation means calculates the difference for each item, calculates a score corresponding to the ratio of the difference with respect to the corrected model form data, and subtracts all the calculated scores from a predetermined score to obtain a score. A training evaluation device, wherein the evaluation score is used as the evaluation information. 8. The training evaluation device according to claim 1, wherein the evaluation information creating means corrects the player form data based on a difference between the model body data and the player body data. A training evaluation apparatus, comprising: correction means for generating data; and evaluation means for generating the evaluation information based on a difference between the corrected player form data and the model form data. 9. The training evaluation device according to claim 2, wherein the model body data is one or a combination of body shape data and physical strength data of a professional golf player, and the player The body data is one or a combination of the player's body type data and physical strength data, the model form data is a head speed when the golf professional player swings a golf club, and the player form data is A training evaluation device, which is a head speed when the player swings a golf club. 10. The training evaluation device according to claim 1, wherein the evaluation information output means outputs a voice that outputs the evaluation information in a form of a display that displays the evaluation information. A training evaluation device comprising one or a combination of instruments. 11. The training evaluation device according to claim 1, wherein the player body data obtaining means includes an operation input means capable of operating and inputting data on the body of the player from the player. A training evaluation device, comprising: acquiring the player body data from data input by operation. 12. The training evaluation device according to any one of claims 1 to 11, wherein the player form data acquisition means is attached to any one or a combination of the body of the player and a tool used by the player. A training evaluation device, comprising: an acceleration sensor for detecting an acceleration when the player form data is obtained from the acceleration detected by the acceleration sensor. 13. The training evaluation device according to claim 1, wherein the player form data acquiring means is attached to any one or a combination of the body of the player and a tool used by the player. A motion capture unit having a measured object and position detecting means for detecting the position of the measured object, and acquiring the player form data from a change in the position of the measured object detected by the position detecting means A training evaluation device comprising: 14. The training evaluation device according to claim 13, wherein the object to be measured is colored in a predetermined color, and the position detecting means has a plurality of digital cameras for monitoring different directions from each other. A training evaluation device for detecting coordinates corresponding to the color of the object to be measured from image data of each digital camera, and calculating the position of the object to be measured from the detected coordinates; 15. The training evaluation device according to claim 13, wherein the player body data acquisition unit is configured to detect the measured object detected by a position detection unit of the player form data acquisition unit. A training evaluation device characterized by acquiring the player body data from a body position. 16. The training evaluation device according to any one of claims 1 to 15, wherein the model data storage area has the model body data and model form data corresponding to a plurality of models, Model data setting means having selection input means capable of selecting and inputting the model from the player, and acquiring the model body data and model form data corresponding to the selected and input model from the model data storage area is provided. A training evaluation device characterized in that it has been performed. 17. The training evaluation apparatus according to claim 16, wherein the model data setting means has operation input means capable of inputting data on the body and form of the model from the player. A training evaluation device for creating the model body data and the model form data from the data obtained from the training. 18. The training evaluation apparatus according to claim 16, wherein said model data setting means is an operation input means capable of inputting data relating to the body or form of said model from said player. And correcting a part of the model body data or the model form data which does not correspond to the operation input data based on a difference between the operation input data and the model body data or the model form data. Training evaluation device. 19. A training evaluation apparatus for measuring the action of a player performing training, evaluating and outputting the form of the player based on the measured data and data relating to the form of the model, wherein: Model data setting means having operation input means capable of operating and inputting data relating to the body and form of the player, and creating the model body data and the model form data from the operation input data; Player body data obtaining means for obtaining data; player form data obtaining means for measuring player behavior to obtain player form data; model body data created by the model data setting means and the player body data Acquired by acquisition means The difference between the model form data created by the model data setting means and the player form data acquired by the player form data acquisition means is evaluated based on the difference from the layer body data, and the player form is evaluated. A training evaluation device comprising: evaluation information creating means for creating evaluation information; and evaluation information output means for outputting the evaluation information. 20. A model data storage area for storing model body data relating to a model body and model form data relating to a form of the model, wherein a motion of a player performing training is measured, and the measured data and the same model A training evaluation method for evaluating and outputting a form of the player based on data related to the form of the player, wherein a player body data obtaining step of obtaining player body data regarding the body of the player, and measuring an operation of the player A player form data obtaining step of obtaining the player form data by using the difference between the model body data stored in the model data storage area and the player body data obtained in the player body data obtaining step. The model stored in the model data storage area An evaluation information creating step of evaluating the difference between the Dell form data and the player form data acquired in the player form data acquiring step to create evaluation information of the player form, and an evaluation information output for outputting the evaluation information And a training evaluation method. 21. A training evaluation method for measuring an action of a player performing training, and evaluating and outputting the form of the player based on the measured data and data relating to the form of the model. A model data setting step of creating the model body data and the model form data from the operation-input data; and a player body relating to the player's body. A player body data acquisition step of acquiring data; a player form data acquisition step of measuring player movement to acquire player form data; a model body data created in the model data setting step and the player body data Acquired in the acquisition process The difference between the model form data created in the model data setting step and the player form data acquired in the player form data acquisition step is evaluated based on the difference with the layer body data, and the player form is evaluated. A training evaluation method, comprising: an evaluation information creating step of creating evaluation information; and an evaluation information output step of outputting the evaluation information. 22. A model data storage area for storing model body data relating to a model body and model form data relating to a form of the model, wherein a motion of a player performing training is measured, and the measured data and the same model A training evaluation program that evaluates and outputs the form of the player based on the data on the form of the player, and a player body data acquisition function for acquiring player body data on the body of the player, and measures an operation of the player. A player form data acquisition function for acquiring player form data by using the difference between the model body data stored in the model data storage area and the player body data acquired by the player body data acquisition function. Stored in the model data storage area An evaluation information creation function for evaluating the difference between the obtained model form data and the player form data acquired by the above-mentioned player form data acquisition function to create evaluation information of the form of the player, and an evaluation for outputting the evaluation information A training evaluation program that causes a computer to realize an information output function. 23. A training evaluation program for measuring an action of a player performing training, evaluating and outputting the form of the player based on the measured data and data relating to the form of the model, the training evaluation program comprising: A model data setting function for creating the model body data and the model form data from the operation-input data; and a player body relating to the body of the player. A player body data acquisition function to acquire data, a player form data acquisition function to measure the movement of the player and acquire player form data, a model body data created by the model data setting function and the player body data Acquired by acquisition function The difference between the model form data created by the model data setting function and the player form data acquired by the above-mentioned player form data acquisition function is evaluated based on the difference from the obtained player body data. A training evaluation program characterized by causing a computer to realize an evaluation information creation function of creating evaluation information of a form and an evaluation information output function of outputting the evaluation information.