WO2010128835A2

WO2010128835A2 - Binocular vision using an avatar, and adjustment training method and system

Info

Publication number: WO2010128835A2
Application number: PCT/KR2010/002953
Authority: WO
Inventors: 조형철
Original assignee: Cho Hyung Chel
Priority date: 2009-05-08
Filing date: 2010-05-10
Publication date: 2010-11-11
Also published as: KR20100121143A; WO2010128835A3

Abstract

The present invention relates to a visual information processing function training method and system using an avatar to improve a visual information processing function through binocular vision training. The system of the present invention includes a control unit, a storage device, a display device, a prism changer, a moving mechanism, and a processor. The prism changer enables binocular vision training with a prism for training amplitude of divergence and amplitude of convergence. The moving mechanism adjusts a distance between a trainee and the display device based on a training mode. The processor controls the storage of information on a trainee, inputted by a trainer through the control unit, in the storage device, to receive an ID input of the trainee once the training program starts in order to retrieve a training record of a corresponding trainee and to display the training record on the display device, in order to set a long-range training mode or a short-range training mode by controlling the moving mechanism according to an input of the control unit, to move an avatar after displaying a training course on the display device, to input a prism by controlling the prism changer at a preset obstacle input time, and to move the avatar again when an image integration success signal is input by the trainee through the control unit.

Description

Method and system for binocular vision and control training using avatar

The present invention relates to a binocular vision and control training technology using an avatar, and more particularly, to a visual information processing function training method using an avatar capable of improving visual information processing function through binocular vision and conditioning training. It's about the system.

In general, binocular vision refers to a function of recognizing a single object by combining images of the same object of the outer space formed on the retinas of the left and right eyes. This deterioration of binocular function is represented by Esophoria and Exophoria. Disorders such as endoscopic and exodeviation lead to deterioration of visual information processing function. The visual information processing function is a function that processes information between the eye and the brain, which is also called a vision function, which rapidly inputs information from our eyes to the brain along with information input through tactile, olfactory, and auditory senses. Refers to the information that is transmitted and integrated in the brain to interpret and give meaning. This time information processing function provides a variety of functions that can be used for social life or sports, such as a sense of distance, three-dimensional feeling and speed.

In general, visual information processing function occurs irrespective of good or bad visual acuity, and when a problem occurs in visual information processing function, sports activity is difficult, reading is difficult, concentration of attention decreases, reading disorder and dyslexia , Attention deficit disorder, learning disability, writing disorder, social life disorder. In particular, children and adolescents are experiencing problems with visual information processing due to time of eye development, excessive homework, reading, computer, and television, but conventionally, even if subjective symptoms of visual information processing function occur, they should be improved and corrected. There was no way to do this, but the only treatment was direct eye treatment such as visual examination, myopia, astigmatism treatment, and eye wear through the hospital, or treatment of stress relief due to unknown causes.

The present invention has been proposed to solve the above problems, an object of the present invention is to simulate the amplitude of divergence and amplitude of convergence training to improve the binocular function using an avatar The present invention provides a binocular binocular training method and system that can enhance the training effect by inducing the trainer's interest and concentration by executing in virtual reality.

Another object of the present invention is to provide a control training method and system using an avatar for improving the control ability through the lens.

In order to achieve the above object, the system of the present invention comprises a control unit for the trainee or training leader to operate; A storage device for storing a training program and various information of a trainee; A display device for displaying a training image selected according to the training program; A prism changer to insert a prism for training the estimated power and the congestion power to enable binocular training; A moving mechanism for adjusting a distance between a trainee and the display device according to a training mode; And storing the information of the trainee inputted by the training leader through the operation unit in the storage device, and when the training program is executed, receives the trainee's ID, brings the training record of the trainee, and displays it on the display device. By controlling the movement mechanism according to the input of the operation unit, the remote training mode or the short-range training mode is set, the training course is displayed on the display device, and the avatar is driven while the preset obstacle input timing is reached. And a processor for controlling to inject the prism and drive the avatar again when an image integration success signal is input from the trainee through the operation unit.

In the training program, the avatar is represented by an image of riding a bicycle, skiing, boarding, skating, or inline skating, and in the case of cycling, an obstacle input timing is set on an uphill or a downhill.

In addition, in order to achieve the above object, the method of the present invention includes a first step of the computer to retrieve the information of the trainees from the storage device according to the input of the operation unit; A second step of the computer setting an avatar to be identified with the trainee; A third step of setting a training mode in a distant mode or a near mode by moving a display device according to an input of an operation unit; A fourth step of causing the avatar to run a predetermined training course displayed on the display device by the computer; And a fifth step of injecting a prism into a prism changer positioned between the display device and the trainee's eye while the avatar is driven when the set obstacle insertion time is reached, wherein the trainee is separated by the prism. It is characterized by integrating the object image into one image.

The fifth step is a stop step of stopping the progress of the avatar when the obstacle is injecting time, and when the progress of the avatar is stopped, the approximation-adaptive prism or congestion-response prism is applied to the prism changer between the eyes of the trainer and the display device. And a step of inputting a prism and a step of progressing the avatar by receiving a signal of the operation unit when the trainee manipulates the operation unit after integrating the image separated by the input prism into one. .

Since the training method and system according to the present invention proceeds binocular vision and control training through the avatar which can be visualized, it promotes an interest in training, and in particular, children can immerse and actively participate in the training. Compared with the excellent effect.

In addition, the present invention expresses two object images separated by the prism input for training the estimated power and the runaway power as obstacles that hinder the bicycle driving such as wind, typhoon, stones, sticks, etc. while the avatar is running. You can double your training effectiveness by motivating your efforts to do so.

In addition, the present invention can easily grasp the degree of achievement by establishing and evaluating the training information of the trainees in a database, and can be continuously trained from time to time, and the visual information processing function of the trainees is improved as the function of binocular vision is improved. Learning disabilities, reading disorders, writing disorders, attention deficit, etc. can be solved.

1 is a schematic diagram showing the overall configuration of a binocular training system according to the present invention,

2 is an example of a prism used for training in accordance with the present invention,

3 is a flow chart illustrating a binocular training procedure in accordance with the present invention;

Figure 4 is a flow chart showing the detailed procedure of the binocular training phase according to the present invention,

5 is an example showing a binocular training course according to the present invention,

Figure 6 is a schematic diagram showing the overall configuration of the adjustment training system according to the present invention,

7 is a flow chart illustrating an adjustment training procedure in accordance with the present invention.

* Explanation of symbols for main parts of the drawings

102: operation unit 110: processor

112: storage device 120: display

122: moving mechanism 130: prism changer

140: Prism 10: Trainee

10 ': Avatar 20: Training Leader

The present invention is to enable the trainee to train effectively using a computer in performing the training to improve the binocular function of the trainee. For example, the present invention uses a computer and a display device to realize a virtual reality in which an avatar, a part of a trainee, performs a bicycle, skiing, boarding, inline skating, and the like, and inserts a prism for binocular training. By expressing the avatar as meeting an obstacle while driving, the binocular training is naturally performed while the avatar overcomes the obstacle.

The training step (S105, S110) of the present invention is to reduce the integration time on the object by the trainee 10 by repeating the image integration step and the prism repeat input step, it is possible to perform a plurality of repeated prism injection and image integration In this case, the image integration time for integrating two separate object images by a prism into one object image is shortened. In this way, the training step is executed until it is provided with one object image without being greatly influenced by the prism input. At this time, the image integration time is preferably within the range of 0.5 ~ 1 second.

In addition, when one of the training courses 32 is completed in the short-range training mode or the long-distance training mode according to the development of the story of the avatar by repetition of the training phase, the binocular vision function of the trainee through the avatar is improved and accordingly corrected. You will be able to improve your processing skills without your knowledge.

The technical problems achieved by the present invention and the practice of the present invention will be more clearly understood by the preferred embodiments of the present invention described below. The following examples are merely illustrated to illustrate the present invention and are not intended to limit the scope of the present invention.

1 is a schematic diagram showing the overall configuration of a binocular training system according to the present invention, Figure 2 is a schematic diagram showing a prism applied to the present invention.

To this end, the binocular training system according to the present invention, as shown in Figure 1, the operation unit 102 for the trainee 10 or the training leader 20 to operate, and the binocular training program according to the present invention is executed. Processor 110, a storage device 112 for storing a training program and various information of a trainee, a display device 120 for displaying a training image preferred by a trainee according to a training program, and a display according to a training mode. It comprises a movement mechanism 122 for moving the device 120, and a prism changer 130 that enables binocular training by introducing a prism 140 for training the estimated force and congestion force.

The binocular vision is a function that combines images of the same object in the left and right eyes of the retina of both eyes, and recognizes them as a single object.It is repeated training of the calculation function that widens the pupil and the congestion function that collects the pupils. The binocular function can be improved. Traditionally, training to improve the estimated power and runaway power is performed using the prism 140 as shown in FIG. 2, and when the same prism 140 is put in the thick direction, the runaway training is used. If the thickness is put in a thin direction is to be injected for the estimate power.

The operation unit 102 is an operation panel which is operated by the manual operation of the trainee 10 or the training leader 20 and uses a mouse, a keyboard, a joystick, and a separate operation device that can stop and play the video information of the avatar. .

According to the present invention, after the trainee 10 or the training leader 20 executes a computer program stored in the storage device 112 through the operation unit 102 in the processor 110, the avatar that is the trainee's avatar on the display device 120 is displayed. The binocular training is performed through the process of overcoming the obstacle by expressing the 10 'bicycle riding and expressing the prism input for training as an obstacle appearing while driving the course. In the present invention, the training mode is divided into a distance training of about 3m and a near field training of about 40Cm according to the distance between the trainee 10 and the display apparatus 120.

The prism 140 is a well-known prism widely used for optometry and correction, and when the distance between the trainee 10 and the display device 120 is greater than 3 meters, the “runaway force: estimated power” is The prism is selected to have a ratio of "16-20: 7-8" prism, and when it is short distance, the "explosive force: estimated power" is the ratio of "20-23: 18-22" prism. The prism 140 is selected to have. Here, the number of the prism 140 is a diopter which is a unit representing the refractive power of the prism. That is, the trainee 10 is a runaway power or approximation of a low value so that the runaway power or the estimated power of the trainee is located within the normal range ratio, if the runaway power or the estimated power is out of the normal range ratio according to the optometry Select a prism 140 that can increase the force. At this time, the prism 140 selects a plurality of steps so that the congestion power or the estimated power can be improved in stages, and selectively inputs according to the plurality of divided runaway power and the estimated power training area, thereby finally the congestion power or the estimated power of the trainer It should be possible to have a normal ratio.

In addition, as an example, the prism 140 may apply 10, 12, 15, 20 prisms for short distances, and 4, 6, 8, 10, 15 prisms for long distances, and the selection of such a prism is comprehensive. Can be used as That is, it is preferable to select the prism by the optometry of the trainee, but as described above, the general prism may be selected to perform the training.

3 is a flowchart illustrating a binocular training procedure according to the present invention, FIG. 4 is a detailed flowchart of the training step shown in FIG. 3, and FIG. 5 is an example of a training course for binocular training according to the present invention.

3 to 5, the training leader 20 assigns an ID to identify the trainee 10 and then inputs the trainee's personal information or the state of the binocular function, a preference, and the like, to manage the database ( S101). That is, the eyes of the trainee 10 are identified by the optometrist who is the training leader 20, the appropriate prism is selected according to the eyes of the trainee 10, and the corresponding information is recorded in the storage device 112. . For example, an expert optometrist and an ophthalmologist accurately determine the eye condition of the trainee, and select prisms to be introduced as obstacles in the remote mode and the near mode to maintain the normal ratio of the estimated power and the congestion power. 10, 12, 15, 20 prisms are selected for near-field mode, 4, 6 prisms for distance training and 8, 10, 15 prisms for runaway training. 10, 12, 15, and 20 prisms for short-range courses are used for both runaway and estimated power training.

Subsequently, an avatar 10 ′ that is a part of the trainee is set to be similar to the trainee 10 (S102). In the avatar setting process, the characteristics of the trainee are reflected in the avatar 10 'so that the trainee 10 has a sense of identity with the avatar 10'. The avatar 10 'may use a balancing technique such as a bicycle, skiing, board, etc. that the trainee can fully recognize and learn according to the trainee's age, cognitive level, and experience level. It is desirable to have a story that can be traveled or enjoyed through a tool that can be used.

After setting the training mode to distance training or short-range training in accordance with the distance between the trainee 10 and the display device 120, and performs the training while driving the training course 32 as shown in Figure 5 (S103) ).

As shown in FIG. 5, the training course 32 on which the avatar 10 'travels is shown as a course for the bicycle 30 to run, and in the training stage, the prism is expressed as a form in which obstacles are put in while driving. It is supposed to repeat the process of training runaway or estimated power. Referring to FIG. 5, the training course 32 is represented by an image in which the avatar 10 ′ rides on the bicycle 30 on the display device 120, and corresponds to a plurality of obstacle injection times (TD / TC). It includes a training area, and the prism 140 is repeatedly injected into the obstacle at each obstacle injection time (TD / TC). That is, the obstacle injection timing (TD / TC) is the injection timing of the prism for the training of the trainee 10. In addition, the obstacle injection timing (TD / TC) is set in the range of about 2 to 15 minutes, preferably about 5 to 10 minutes, and during the obstacle injection period, the trainer is allowed to perform the runaway force or the estimated power training according to the prism injection. do. The time input of the obstacle injection time may be arbitrarily set within the range determined by the trainee 10 or the training leader 20 when the avatar 10 'is set.

During the set obstacle injection timing (TD / TC), the trainee 10 performs the training for the estimated power or the congestion force, and if it does not pass during the set obstacle injection timing, the avatar 10 'is further progressed. It returns to the initial position of the obstacle injection timing (TD / TC) again. At this time, the training may be repeated by replacing the prism with a lower level than the prism under training.

Referring back to FIG. 3, in the first course driving step, the avatar 10 ′ rides the first course while riding the bicycle 30, and in the first training step, the first prism 140 as shown in FIG. 4. ) And then train the estimated power or runaway power, and if the first course is not passed, the training is repeated with a lower prism (S104 ~ S107).

In the case of passing the first course, the first course moves to the second course where the training is repeated with a higher prism, and then the second course is driven, and the second prism is introduced at the time of obstacle insertion while driving the second course. And when the second prism is put in the trainer will be trained to estimate or runaway power (S108 ~ S114).

In the present invention, the avatar 10 ′ may be configured as an image or a video imaged, and may be executed through on / offline. That is, the avatar 10 ′ may be formed by various video information such as video information through a program or real-time video information by a camcorder or the like. The avatar 10 ′ may be easily performed offline through online, projectors, and enlargers using a communication network such as the Internet. can do.

Each training step (S105, S110) is a stop step (S21) for stopping the progress of the avatar 10 'by the obstacle injection timing (TD / TC), as shown in Figure 4 and the avatar 10' When the process is stopped, the prism injection step (S22) and the prism 140 are separated by the prism for estimating the prism or congestion-response prism into the prism changer 130 between the trainee's eyes and the display device 120. The image integrating step (S23) in which the trainee integrates the image of the object on the display device into a single image, and the trainee 10 operates the operation unit 102 to advance the avatar 10 'as the image is integrated. It consists of a step S24.

Referring to FIG. 4, in the stop step S21, the progress of the avatar is automatically stopped by the elapse of the time set during the obstacle injection time TD / TC. At this time, the obstacle injection timing (TD / TC) may be selected by the trainer at random, or automatically set by a random method.

Prism input step (S22) is to inject the prism 140 as an external obstacle in accordance with the progress of the story according to the avatar 10 ', at the time of prism input (TD / TC) according to the progress of the avatar 10' The prism 140 is introduced into the prism changer 130 between the eye of the trainer staring at the avatar 10 'and the display apparatus 120. At this time, the prism 140 is placed in the range of about 0.5 ~ 5cm in the eye of the trainee, and when the prism 140 is injected in this way, the object image of the display device 120 is two images by the prism is injected Separated by.

Prism input step (S23) is to separate the selected prism 140 to fit the training course 32 of the display device 120 according to the training zone again, and then stare at the avatar according to each training zone and the timing of injection It is injected into the prism changer 130 between the eyes of the trainer and the display device 120. At this time, the prism 140 inputs a diopter prism of a low value first so that the training of the trainee is gradually increased, and intensifies the training intensity by inputting a diopter prism of a higher value in the next training area.

In the image integration step S23, the trainee integrates the two object images separated by the prism 140 into one object, and thus the prism 140 is disposed between the trainee's eyes and the display device 120. In the case of being injected into, the object of the trainee is divided into two objects on the display device 120 to be seen. At this time, the trainee trains to integrate the separated object image into one object image.

In the step S24, when the trainee 10 integrates two images separated by the trainee 10 into one image, the trainee 10 operates the operation unit 102 to stop the avatar. Proceed.

Then, when the object image is integrated into one by the trainee, the injected prism 140 is separated between the trainee's eye and the display apparatus 120 and then re-injected between the trainee's eye and the display apparatus 120 to bring the avatar object images back to two. It is to separate and repeat the image integration training. That is, the avatar 10 ′ is configured to stop progressing at the time of obstacle injection (TD / TC), and to proceed for a predetermined time only when the signal is transmitted by the operation unit 102.

Such a training step (S105, S110) of the present invention is to reduce the integration time on the object by the trainee 10 by repeating the image integration step and the prism repeated input step, a plurality of prism repeated injection and image integration In this case, the image integration time for integrating two separate object images by a prism into one object image is shortened. In this way, the training step is executed until it is provided with one object image without being greatly influenced by the prism input. At this time, the image integration time is preferably within the range of 0.5 ~ 1 second.

On the other hand, in the training mode according to the present invention will be described a specific embodiment in the distance training and a specific embodiment in the short-range training as follows.

[Distance training mode]

The training is visualized by showing the trainee the remote training mode of the avatar and the biker's image of the avatar 10 '. At this time, the avatar of the biker is to be located 3m in front of the trainer. While driving in the remote mode, the progression of the avatar is stopped when the obstacle is injected on the uphill road. At the time of obstacle injection in the), binocular control is performed by inserting a prism for training into the obstacle. For example, 8 prism is input at the time of obstacle input on the first uphill, 10 prism is input at the time of obstacle input on the second uphill, and 15 prism is input at the time of obstacle input on the third uphill to perform congestion training. In addition, 4 prism is input at the time of obstacle input on the first downhill, and 6 prism is input at the time of obstacle input on the second downhill, and the force calculation is performed.

If the prism is put in front of the eyes of the trainer staring at the avatar as an obstacle on the uphill or the downhill as described above, the subject's eyes, i.e., the biker's body, are separated into two, and thus the bicycle driving cannot proceed. As described above, when the biker is divided into two, the trainee 10 integrates the separated object into one object in order to continue driving. That is, the trainee recognizes the applied prism as an obstacle to the bicycle progression such as wind (heavy wind or weak wind), typhoon, stone, stick, etc. according to the refraction of the prism, and solves it (that is, separate two object images one by one). To the object phase), and the trainee's efforts to integrate the object phase into one, so that the bicycle trip can be safely carried out from the obstacles.

As such, when the object image is integrated into one, the trainee manipulates the manipulation unit 102 to advance the stationary avatar again and disengages the injected prism from the trainee's eyes. Since the avatar is set to have a progress time of 3 seconds, the avatar stops again after 3 seconds. At this time, the prism of the same number as an obstacle is put in front of the trainee's eyes to separate the biker image into two, and the trainee repeats the training of integrating it again into one object.

Through repeated continuous injection of the prism, the trainee adapts to the applied prism to achieve the integration on the object quickly, and when the integration on the object is performed quickly, the state of riding the bicycle lasts for a long time. Driving uphill, downhill).

[Near Training Mode]

In the short distance training mode, the display apparatus 120 is positioned about 40 cm in front of the trainee, and then the running of the avatar 10 'is started. During close range driving, the progress of the avatar 10 'is stopped at the time of obstacle injection on an uphill road (explosiveness training area). At this time, the prism for the BO training is put as an obstacle, and the downhill road is calculated. At the time of obstacle input in the training area, binocular training is performed by inserting a prism for obstacle training as an obstacle. In other words, 10 prisms are inserted at the first uphill, 12 prisms are inserted at the second uphill, 15 prisms are inserted at the third uphill, and 15 is the last uphill. At the time of input, 20 prism is injected to perform congestion training. In addition, 10 prism is inputted in the direction opposite to the input direction on the uphill, and 12 prism is inputted in the direction opposite to the input direction on the uphill when the obstacle is injected on the first downhill. At the time of obstacle insertion on the third downhill, 15 prisms are injected in the direction opposite to the direction of uphill, and at the time of obstacle obstacle on the fourth downhill, 20 prisms are inserted in the opposite direction to the loading direction on the uphill road. Carry out your strength training. As described above, the present invention applies 10 prisms for runaway training on an uphill road, and puts them in a direction opposite to the uphill driving direction on a downhill road and applies them for the training of open power.

Such binocular training can be performed both online and offline, and can be trained in pairs with a trainer alone or with an assistant. When both the long distance course and the short distance course through the avatar as described above, the visual information processing function of the trainer is improved.

Figure 6 is a schematic diagram showing the overall configuration of the adjustment training system according to the present invention, Figure 7 is a flow chart showing the adjustment training procedure according to the present invention.

Accomodation refers to the ability to make an object appear clearly by forming an image on the retina when looking at a nearby object rather than infinity. If this control is reduced, the object looks blurry, causing various problems.

As shown in FIG. 6, the adjustment training system according to the present invention includes an operation unit 202 for the trainee 10 or the training leader 20 to operate, and a processor 210 for executing the adjustment training program according to the present invention. ), A storage device 212 storing training information and various types of trainees, a display device 220 displaying a training image preferred by a trainee according to a training program, and a lens 240 for training adjustment. It is composed of a lens changer 230 to enable the adjustment training by inserting or removing.

Referring to FIG. 7, the training leader 20 assigns an ID to identify the trainee 10 and then inputs the trainee's personal information or the state of the control function, a preference, and the like, and manages the database with the trainee (S201). That is, the eye of the trainee 10 is identified by the optometrist who is the training leader 20, the appropriate lens is selected according to the eye state of the trainee 10, and the corresponding information is recorded in the storage device 212. .

Subsequently, an avatar 10 ′ that is a part of the trainee is set to be similar to the trainee 10 (S202). In the avatar setting process, the characteristics of the trainee are reflected in the avatar 10 'so that the trainee 10 has a sense of identity with the avatar 10'. For example, the avatar may be set to the concept of returning to the earth by a spaceship or landing in specific countries by flying.

After the avatar flight is started and the training time (obstacle input time), the blind eye is blocked by the lens changer 230, the left eye lens 240 is inserted, and the stationary target screen is displayed (S203, S204). On a frozen target screen, numbers, letters, and graphics are displayed in groups of various sizes.

And when the lens is inserted, the target screen is blurred, the trainee 10 is trying to see the object clearly through the left eye adjustment training, if it is clearly visible, after removing the lens 240 by operating the operation unit 202 again after a while Repeat the left eye adjustment training process by inserting the lens (S205 ~ S207). If the time clearly visible after the lens is shortened to a predetermined time or less, it is determined that the training passes and starts the flight again (S208).

When the training time (obstacle input time) is reached, the left eye is blinded again through the lens changer 230, the right eye lens 240 is input, and the stationary target screen is displayed. On a frozen target screen, numbers, letters, and graphics are displayed in groups of various sizes.

And when the lens is inserted, the target screen is blurred, the trainee 10 is trying to see the object clearly through the right eye control training, if it is clearly visible, after removing the lens through the operation unit 202 and then put the lens again. Repeat the right eye control training (S209 ~ S212). If the visible time after the lens is shortened to a certain time or less, it is determined that the training has passed, and the flight starts or ends again.

The present invention has been described above with reference to one embodiment shown in the drawings, but those skilled in the art will understand that various modifications and equivalent other embodiments are possible therefrom.

In addition, the present invention can easily grasp the degree of achievement by establishing and evaluating the training information of the trainees in a database, and can be continuously trained from time to time, and the visual information processing function of the trainees is improved as the function of binocular vision is improved. It is effective in solving concentration deficit, learning disability, reading disability, writing disorder, attention deficit.

Claims

A first step of the computer retrieving the trainee's information from the storage device according to an input of the operation unit;

A second step of the computer setting an avatar to be identified with the trainee;

A third step of setting a training mode in a distant mode or a near mode by moving a display device according to an input of an operation unit;

A fourth step of causing the avatar to run a predetermined training course displayed on the display device by the computer; And

And a fifth step of injecting the prism into the prism changer positioned between the display device and the trainee's eye while the avatar is running when the set obstacle insertion time arrives.

The binocular training method using an avatar characterized in that the trainee to integrate the object image separated by the prism into a single image.
The method of claim 1, wherein the fifth step

A stop step of stopping the progress of the avatar when an obstacle is input;

A prism-injecting step of injecting an approximation prism or a congestion-adaptive prism into the prism changer between the eye of the trainer and the display apparatus when the avatar is stopped;

After the trainee integrates the image separated by the input prism into one, and the trainee manipulates the manipulation unit, the avatar receives a signal from the manipulation unit and proceeds the avatar again. How to train binocular.
The method of claim 2, wherein the obstacle injection timing

Binocular training method using an avatar, characterized in that set within 2 to 15 minutes.
The method of claim 2, wherein the prism is

The binocular training method using the avatar, characterized in that the input so as to be positioned in the range of 0.5 ~ 5cm in the eye of the trainee.
An operation unit for operating by a trainee or a training leader;

A storage device for storing a training program and various information of a trainee;

A display device for displaying a training image selected according to the training program;

A prism changer to insert a prism for training the estimated power and the congestion power to enable binocular training;

A moving mechanism for adjusting a distance between a trainee and the display device according to a training mode; And

Store the information of the trainees input by the training leader through the operation unit in the storage device, and when the training program is executed, receives the trainee's ID to bring the trainee's training records and display them on the display device; Control the movement mechanism according to the input of the operation unit to set the distance training mode or the near-field training mode, display the training course on the display device, and then drive the object and control the prism changer when a preset obstacle injection time arrives. And a processor configured to control the driving of the object again when the prism is input and the image integration success signal is input from the trainee through the operation unit.
The method of claim 5, wherein the training program

The binocular training system, characterized in that the object is represented by the image of riding a bicycle, skiing, board, skating, inline skating, and in the case of riding a bike, the obstacle input time is set up or downhill.
Retrieving, by the computer, information about a trainee from a storage device according to an input of an operation unit;

Setting an avatar to be identified by the computer with the trainee;

Starting the avatar, and when the left eye training time arrives, blocking the right eye with the blind through a lens changer, inserting the left eye lens, and displaying a stopped target screen;

When the lens is inserted, the target screen is blurred. If the target screen is clearly seen, the step of repeating the left eye adjustment training process by removing the lens after receiving a signal through the operation unit and inserting the lens again;

When the right eye training time is reached, blocking the left eye with a blind through a lens changer, inserting a right eye lens, and displaying a stationary target screen;

When the lens is input, the target screen is blurred. If the target screen is clearly seen, the step of receiving a signal from the trainee through the operation unit removes the lens, and then inserts the lens again to repeat the right eye control training process; And

If the apparent time after the lens is shortened to less than a predetermined time is determined that the training passes the control step comprising the step of terminating the training comprising the step of using the avatar.
An operation unit for operating by a trainee or a training leader;

A storage device for storing a training program and various information of a trainee;

A display device for displaying a training image selected according to the training program;

A lens changer for inserting a lens into the left eye and blocking the right eye with a blind or inserting a lens into the right eye and blocking the left eye with a blind to enable monocular adjustment training; And

Store the information of the trainees input by the training leader through the operation unit in the storage device, and when the training program is executed, receives the trainee's ID to bring the trainee's training records and display them on the display device; A processor for controlling the lens changer to input the lens and displaying a target screen when the obstacle input time is set according to the input of the operation unit, and to proceed again when an adjustment success signal is input from the trainee through the operation unit; Adjustable training system comprising a.