KR102041460B1 - Diagnosis apparatus for dizziness using virtual reality with no head movement - Google Patents

Abstract

The present invention relates to a dizziness diagnosis apparatus for using virtual reality without head movement which comprises: a virtual reality display part displaying the image for diagnosing dizziness; an ocular imaging camera photographing the eyeball of a testee; an image control part displaying a virtual reality diagnosis image corresponding to a dizziness type on the virtual reality display part; and a diagnosis part detecting nystagmus from the eyeball image of the testee who moves according to the diagnosis image through the ocular imaging camera and diagnosing the type of dizziness of the testee based on the detected nystagmus.

Description

DIAGNOSTIC DIAGNOSTIC DEVICE DEVICE USING HEALTH REALITY WITHOUT HEAD TO MOVE THE HEADS {DIAGNOSIS APPARATUS FOR DIZZINESS USING VIRTUAL REALITY WITH NO HEAD MOVEMENT}

The present invention relates to an apparatus for diagnosing dizziness using virtual reality that can diagnose dizziness using a diagnostic image of a virtual reality without moving a head of a subject.

Dizziness is a term used to describe all the symptoms that make you feel moving even though you or your surroundings are stationary. These dizziness can be classified into physiological dizziness and pathological dizziness.

Many of the pathologies of dizziness include benign paroxysmal positional dizziness (Benign Paroxysmal Positional Vertigo, hereinafter referred to as BPPV), a disease caused by the deposition of otolith in the semicircular canal of the human body, and inflammation of the vestibular nerve. It is described as vestibular neuritis caused by.

1 is a view for explaining a method used for diagnosing the existing dizziness, conventionally to examine the head of the subject by the hand to diagnose the dizziness, the examiner repeatedly rotates within a predetermined time in the horizontal direction or the vertical direction The test was performed while rotating or rotating above a certain angular velocity.

In this case, the examiner does not rotate the head to a certain position, angle, etc. for accurate examination, so that the accurate examination cannot be performed, and the subject who has difficulty in moving the neck or body due to cervical spine injury cannot move the head. There was a problem that the risk of injury of the subject was high due to the impossible problem, and the head rotation of the subject unreasonably.

The present invention is to provide a device for diagnosing dizziness using virtual reality that can diagnose dizziness without directly rotating the head of the subject by examining the dizziness while rotating the image itself for diagnosis using the virtual reality diagnostic image.

An apparatus for diagnosing dizziness using virtual reality that does not require movement of a head according to an embodiment of the present invention includes a virtual reality display that displays an image for diagnosing dizziness, an ocular camera for photographing an eye image of a subject, and a type of dizziness An nystagmus is detected from an eye image of a subject moving according to the diagnosis image through an image control unit displaying the virtual reality diagnosis image on the virtual reality display unit and the eye imaging camera, and based on the detected nystagmus. It includes a diagnosis section for diagnosing the type of dizziness of the subject.

The dizziness diagnosis device using a virtual reality that does not require the movement of the head further includes a sound output unit for outputting a voice.

In the case of examining the head-shake nystagmus after the crushing, the audio output unit outputs a voice to the subject to stare comfortably without fixing the gaze at a specific position, and the image controller displays the image displayed on the virtual reality display unit. The image is repeatedly rotated in the horizontal direction at a set frequency for a predetermined time, and the diagnostic unit detects nystagmus from the eye image of the subject while the image is repeatedly rotated in the horizontal direction through the eye imaging camera, and detects the detected nystagmus ( nystagmus) to diagnose the type of dizziness of the subject.

When performing a head-impulse test on a horizontal semi-circular canal, the audio output unit outputs a voice to fix the eye to a specific position to the examinee, and the image controller displays the specific position on the image displayed on the virtual reality display unit. Is displayed, the image is rotated in the horizontal direction at the set angular velocity, and the diagnostic unit detects nystagmus from the eye image of the subject during the movement of rotating the image at the angular velocity set in the horizontal direction through the ocular imaging camera, The type of dizziness of the subject is diagnosed based on the detected nystagmus.

When performing a head-impulse test on the right posterior semicircular canal and the left anterior semicircular canal, the audio output unit outputs a voice to the subject to fix the gaze at a specific position, and the image controller is displayed on the virtual reality display unit. The specific position is displayed on the image, and the image is rotated by an angle set to the left, the rotated image is rotated in the vertical direction at the set angular velocity, and the diagnosis unit sets the angular velocity in which the image is set in the vertical direction through the eye imaging camera. The nystagmus is detected from the eye image of the subject during the rotational movement and the type of dizziness of the subject is diagnosed based on the detected nystagmus.

When performing a head-impulse test on the left posterior half and the right front half, the sound output unit outputs a voice to fix the eye at a specific position to the subject, and the image controller is displayed on the virtual reality display unit. The specific position is displayed on the image, and the image is rotated by the set angle to the right, the rotated image is rotated in the vertical direction at the set angular velocity, and the diagnostic unit rotates the image at the angular velocity set in the vertical direction through the eye imaging camera. The nystagmus is detected from the eye image of the subject during the movement, and the type of dizziness of the subject is diagnosed based on the detected nystagmus.

The wearer further includes a wear detection unit configured to detect whether the dizziness diagnosis device is worn on the head, and the image controller detects that the examinee wears the dizziness diagnosis device on the head by the wear detection unit, and then corresponds to the type of dizziness. The reality diagnosis image is displayed on the virtual reality display unit.

According to the disclosed invention, the present invention examines the dizziness while rotating the image itself necessary for diagnosis using the virtual reality diagnostic image, so that the subject feels as if the subject is actually rotating, thereby preventing dizziness without directly rotating the head of the subject. Diagnostics can eliminate the risk of injury to the subject.

In addition, the present invention by using a virtual reality diagnostic image to rotate the image itself for diagnosis to the correct position, angle to examine the dizziness, the inspector rotates the head of the examinee to examine the position, angle, etc. is inaccurate The errors that can occur can be significantly reduced.

1 is a view for explaining a method used for diagnosing existing dizziness.
2 is a view for explaining a dizziness diagnosis apparatus using a virtual reality that does not require the movement of the head according to an embodiment of the present invention.
FIG. 3 is a view for explaining a method of driving a dizziness diagnosis apparatus in the case of examining head-shake nystagmus after a head strike.
4 and 5 are diagrams for explaining a method of driving the dizziness diagnosis apparatus when the head-impulse test to the horizontal semi-circular canal.
6 and 7 are diagrams for explaining a method of driving the dizziness diagnosis apparatus when the head impulse (Head-impulse) for the right rear semi-circular tube and the left front semi-circular tube are examined.
8 and 9 are diagrams for explaining a method of driving the dizziness diagnosis apparatus when the head-impulse test for the left posterior semicircular canal and the right anterior semicircular canal.
10 and 11 are views for explaining a method of driving the dizziness diagnosis apparatus when the examination through 360 rotation in the head horizontal direction.
12 and 13 are views for explaining a method of driving the dizziness diagnosis apparatus when the examination through 360 rotation in the head vertical direction.

Hereinafter, with reference to the accompanying drawings will be described in detail the specific contents for carrying out the invention.

2 is a view for explaining a dizziness diagnosis apparatus using a virtual reality that does not require the movement of the head according to an embodiment of the present invention.

Referring to FIG. 2, the dizziness diagnosis apparatus 100 using the virtual reality that does not require the movement of the head includes a virtual reality display 110, an eye photographing camera 120, a wear detection unit 130, and an image controller 140. , The sound output unit 150 and the diagnostic unit 160.

As shown in FIG. 1, the dizziness diagnosis apparatus 100 using the virtual reality that does not require the movement of the head may be configured to be worn on the head of the subject, but the shape may be variously configured. have.

The virtual reality display 110 may display various types of images. For example, the virtual reality display unit 110 may display various types of images, such as displaying an image for diagnosing dizziness or displaying an image capable of stabilizing a subject before diagnosing dizziness.

The eye photographing camera 120 may photograph an eye image of the subject.

The wear detector 130 may detect whether the examinee wears a dizziness diagnosis device on the head. The wear detector 130 may be implemented as a contact sensor that detects whether or not the skin of the subject touches or a temperature sensor that senses the skin temperature of the subject.

The image controller 140 may display the virtual reality diagnostic image corresponding to the type of dizziness on the virtual reality display 110. For example, after detecting that the subject wears the dizziness diagnosis apparatus 100 on the head by the wearing detector 130, the image controller 140 displays the virtual reality diagnosis image corresponding to the type of dizziness. Displayed in section 110.

The sound output unit 150 may output a voice. For example, the sound output unit 150 may output a specific command to the examinee, or output music.

The diagnosis unit 160 may detect nystagmus from an eye image of a subject moving according to a diagnosis image through the eye imaging camera 120. The diagnosis unit 160 may diagnose the type of dizziness of the subject based on the detected nystagmus.

Specific embodiments thereof will be described in detail with reference to FIGS. 3 to 9 below.

According to the present invention, by using the virtual reality diagnostic image to rotate the image itself for diagnosis ('to move only the screen, not the subject's head') to diagnose dizziness, do not directly rotate the head of the subject Not only can dizziness be diagnosed without the risk of injury to the subject due to rapid head rotation.

In addition, according to the present invention, by examining the dizziness by rotating the image itself necessary for diagnosis using the virtual reality diagnostic image to the correct position, angle, the inspector rotates the head of the examinee to examine the position, angle, etc. Inaccurate errors can be significantly reduced.

FIG. 3 is a view for explaining a method of driving a dizziness diagnosis apparatus when a head-shake nystagmus is examined after a head strike.

Referring to FIGS. 2 and 3, in the case of examining head-shake nystagmus after sounding, the sound output unit 150 may output a voice to comfortably stare at the front face without fixing a gaze at a specific position. have. Therefore, the subject is induced to stare comfortably without fixing the gaze.

The image controller 140 displays the first image 300 on the virtual reality display 100. For example, the first image 300 may include a tree or a human object including the bicycle image 301. However, the first image 300 may include various objects in addition to the objects described above.

Next, the image controller 140 may display the second image 310 by rotating the first image 300 to an angle set to the left (for example, 30 degrees) ('the head of the examinee is actually Same effect as rotating to the right '). For example, the second image 310 may include a tree or a human object including the bicycle image 311 rotated 30 degrees to the left based on the first image 300.

Next, the image controller 140 may display the third image 320 by rotating the second image 310 to the right by 30 degrees with respect to the first image 300 ('the head of the examinee is actually left'). Direction. ”For example, the third image 320 includes a tree, a human object including a bicycle image 321 rotated 30 degrees to the right with respect to the first image 300. It may include.

The image controller 140 rotates the first image 300 to the left and the right by 30 degrees to display the second image 310 and the third image 320 for a predetermined time (for example, 10 seconds to 15 seconds) can be repeated at a set frequency (for example, 2 Hz). Accordingly, the image controller 140 may display an image for repeatedly rotating the first image 300 in the horizontal direction, which may generate an effect that is equivalent to a subject actually shaking his head from side to side. .

The diagnosis unit 160 detects nystagmus from the eye image of the subject while the first image 3001 is repeatedly rotated in the horizontal direction through the ocular imaging camera 120, and based on the detected nystagmus. The type of dizziness of the subject can be diagnosed. For example, a database (DB) for the type of dizziness according to the position of the nystagmus is stored in a storage unit (not shown), and the diagnosis unit 160 compares the detected nystagmus and the contents of the database to determine whether or not dizziness is present. And type can be determined.

The dizziness diagnosis device according to the present invention is a dizziness diagnosis device using a virtual reality that does not require the movement of the head can obtain the same effect as the subject actually shakes the head to the left and right using virtual reality without actually shaking the head of the subject from side to side have.

4 and 5 are diagrams for explaining a method of driving a dizziness diagnosis apparatus when performing a head-impulse test for a horizontal semi-circular canal.

2, 4, and 5, when performing a head-impulse test on a horizontal semi-circular canal, the sound output unit 150 may output a voice to fix a gaze at a specific position to a subject. have. Thus, the subject may be induced to fix the gaze at a specific position in the image.

The image controller 140 may display a first image 400 including a human image 401 and an object 402, a tree, a human object, and the like at a specific position where the examinee may fix a gaze. As a result, the examinee fixes an eye on the object 402 at a specific position.

For example, the image controller 140 may display the second image 410 by rotating the first image 400 to the left at a set angular velocity (for example, 150 degrees / s). For example, all objects included in the first image 400 may be rotated 15 degrees to the left in the second image 410. Referring to FIG. 5, the eyeball of the examinee may be rotated 510 to the left. The eye rotation angle and speed of the subject may vary depending on the subject's condition.

For example, the image controller 140 may display the third image 420 by rotating the first image 400 to the right direction at a set angular velocity (for example, 150 degrees / s). For example, all objects included in the first image 400 may be rotated 15 degrees to the right in the third image 420. Referring to FIG. 5, the eye of the examinee may be rotated 510 to the right. The eye rotation angle and speed of the subject may vary depending on the subject's condition.

The diagnosis unit 160 detects nystagmus from the eye image of the subject while the first image 400 is rotated by the angular velocity set in the horizontal direction through the ocular imaging camera 120, and detected nystagmus. ), The type of dizziness of the subject can be diagnosed.

The dizziness diagnosis apparatus according to the present invention can achieve the same effect as the subject actually shakes the head above a certain angular velocity using virtual reality without actually rotating the subject's head horizontally above a certain angular velocity.

6 and 7 are diagrams for explaining a method of driving the dizziness diagnosis apparatus when performing a head-impulse test for the right posterior semicircular canal and the left anterior semicyclic canal.

Referring to FIGS. 2, 6, and 7, when the head-impulse of the right rear semicircular tube and the left front semicircular tube is examined, the sound output unit 150 may voice the subject to fix the gaze at a specific position. You can output Thus, the subject may be induced to fix the gaze at a specific position in the image.

The image controller 140 may display a human image 601 and a first image 600 including an object 602, a tree, a human object, and the like at a specific position where the examinee can fix the gaze. Thus, the examinee fixes the gaze to the object 602 at a specific position.

Next, the image controller 140 may display the second image 610 by rotating the first image 600 by an angle set to the left (for example, 45 degrees). For example, all objects included in the first image 600 may be rotated 15 degrees to the left in the second image 610.

For example, the image controller 140 may display the third image 620 by rotating the second image 610 upward at a set angular velocity (for example, 150 degrees / s). For example, in the third image 620, all objects included in the second image 610 may be rotated 15 degrees upward. Referring to FIG. 7, the eyeball of the examinee may be rotated 510 upward to the left. The eye rotation angle and speed of the subject may vary depending on the subject's condition.

For example, the image controller 140 may display the fourth image 630 by rotating the third image 620 downward at a set angular velocity (for example, 150 degrees / s). For example, all objects included in the second image 610 may be rotated 15 degrees downward in the fourth image 630. Referring to FIG. 7, the eyeball of the examinee may be rotated 510 to the lower left. The eye rotation angle and speed of the subject may vary depending on the subject's condition.

The dizziness diagnosis apparatus according to the present invention is to rotate the head of the subject at a specific angle and then rotate the head to a specific angle by using a virtual reality without the vertical rotation more than a certain angular velocity and then vertically rotated above a certain angular velocity The same effect as that can be obtained.

8 and 9 are diagrams for explaining a method of driving the dizziness diagnosis apparatus when performing a head-impulse test for the left rear half-ring tube and the right front half-ring tube.

2, 8 and 9, when examining the head impulse (Head-impulse) for the left rear half-ring tube and the right front half-ring tube, the sound output unit 150 voices to fix the gaze at a specific position to the subject You can output Thus, the subject may be induced to fix the gaze at a specific position in the image.

The image controller 140 may display a first image 600 including a human image 801 and an object 802, a tree, a human object, and the like at a specific position where the examinee may fix the gaze. Thus, the examinee is fixed to the object 802 at a specific position.

Next, the image controller 140 may display the second image 810 by rotating the first image 800 by an angle set to the right (for example, 45 degrees). For example, all objects included in the first image 800 may be rotated 15 degrees to the right in the second image 810.

For example, the image controller 140 may display the third image 820 by rotating the second image 810 upward at a set angular velocity (for example, 150 degrees / s) (' Actually has the same effect as rotating the head downwards'). For example, in the third image 820, all objects included in the second image 810 may be rotated 15 degrees upward. Referring to FIG. 9, the eyeball of the examinee may be rotated 510 to the upper right side. The eye rotation angle of the subject may vary depending on the subject's condition.

For example, the image controller 140 may display the fourth image 830 by rotating the third image 820 downward at a set angular velocity (for example, 150 degrees / s). For example, in the fourth image 830, all objects included in the second image 810 may be rotated 15 degrees downwards ('the same effect as actually rotating the subject's head upwards). '). Referring to FIG. 9, the eyeball of the examinee may be rotated 510 to the lower right. The eye rotation angle of the subject may vary depending on the subject's condition.

The dizziness diagnosis apparatus according to the present invention is to rotate the head of the subject at a specific angle and then rotate the head to a specific angle by using a virtual reality without the vertical rotation more than a certain angular velocity and then vertically rotated above a certain angular velocity The same effect as that can be obtained.

10 and 11 are views for explaining a method of driving the dizziness diagnosis apparatus when the examination through 360 rotation in the head horizontal direction.

Referring to FIGS. 2 and 10, when the examination is performed through 360 rotation in the head horizontal direction, the image controller 140 may continuously display the 360 degree image 1000 in one direction ('the examinee actually Same effect as rotating 360 horizontally '). Here, the 360 degree image 1000 may include a first image 1001, a second image 1002, a third image 1003, a fourth image 1004, a fifth image 1005, and a sixth image 1006. ) May be included. For example,

Referring to FIG. 11, the image controller 140 may include a first image 1001, a second image 1002, a third image 1003, a fourth image 1004, a fifth image 1005, and a sixth image. The image 1006 is displayed in order, and the size 1010 of the displayed screen may be a size capable of displaying one image.

The dizziness diagnosis apparatus according to the present invention can replace the existing test method of rotating the entire body of the subject, and obtains the same effect as the subject actually rotates continuously using virtual reality without the actual subject rotating. It is effective to diagnose dizziness.

12 and 13 are views for explaining a method of driving the dizziness diagnosis apparatus when the examination through 360 rotation in the head vertical direction.

Referring to FIGS. 2 and 12, when the examination is performed through 360 rotation in the head vertical direction, the image controller 140 may continuously display the 360 degree image 1100 in one direction ('the subject actually Same effect as rotating 360 vertically '). Here, the 360 degree image 1100 may include a first image 1101, a second image 1102, a third image 1103, a fourth image 1104, a fifth image 1105, and a sixth image 1106. ) May be included.

Referring to FIG. 13, the image controller 140 may include a first image 1101, a second image 1102, a third image 1103, a fourth image 1104, a fifth image 1105, and a sixth image. The image 1106 is displayed in order, and the size 1010 of the displayed screen may be a size capable of displaying one image.

The described embodiments may be configured by selectively combining all or part of the embodiments so that various modifications can be made.

In addition, it should be noted that the embodiments are provided for the purpose of description and not of limitation. In addition, those skilled in the art will understand that various embodiments are possible within the scope of the technical idea of the present invention.

100: dizziness diagnosis device using virtual reality that does not need to move the head
110: virtual reality display unit
120: eye shooting camera
130: wear detection unit
140: image control unit
150: sound output unit
160: diagnostic unit

Claims (7)

A virtual reality display unit displaying an image for diagnosing dizziness;
An ocular imaging camera for photographing an eyeball image of a subject;
An image controller configured to display a virtual reality diagnosis image corresponding to a dizziness type on the virtual reality display unit;
An audio output unit configured to output a voice to stare at the front of the subject comfortably without fixing the gaze at a specific position; And
And a diagnosis unit configured to detect nystagmus from an eyeball image of a subject moving according to the diagnostic image through the eyeball photographing camera, and diagnose a type of dizziness of the subject based on the detected nystagmus.
The video controller,
When examining the head-shake nystagmus, the first image is displayed for the examination of the head-shake nystagmus, and the above-mentioned effect is applied to have the same effect as actually rotating the head of the subject to the right. After rotating the first image at an angle set to the left to display the second image, the second image is rotated at an angle set relative to the first image so that the same effect as the actual rotation of the head of the examinee to the left is achieved. A third image is displayed on the virtual reality display unit, and the second image and the third image are repeatedly rotated in a horizontal direction at a set frequency for a predetermined time and displayed on the virtual reality display unit.
The diagnostic unit,
Nystagmus is detected from an eye image of the subject obtained while the second image and the third image are repeatedly rotated in the horizontal direction through the ocular imaging camera, and the nystagmus is detected based on the detected nystagmus. Dizziness diagnosis device using virtual reality that does not need to move the head to diagnose whether the head-shake nystagmus.
delete delete A virtual reality display unit displaying an image for diagnosing dizziness;
An ocular imaging camera for photographing an eyeball image of a subject;
An image controller configured to display a virtual reality diagnosis image corresponding to a dizziness type on the virtual reality display unit;
An audio output unit configured to output a voice to fix the gaze at a specific position to the examinee; And
And a diagnosis unit configured to detect nystagmus from an eyeball image of a subject moving according to the diagnostic image through the eyeball photographing camera, and diagnose a type of dizziness of the subject based on the detected nystagmus.
The video controller,
When performing a head-impulse test on a horizontal semi-circular cannula, the specific position is displayed on an image displayed on the virtual reality display unit for a head-impulse test on a horizontal semi-circular cannula. After displaying the image and rotating the first image horizontally at an angular velocity set to the left to display the second image, the head of the subject is displayed to have the same effect as actually rotating the subject's head to a right angular velocity. The first image is rotated in the horizontal direction at an angle set to the right so that the third image is displayed on the virtual reality display unit so as to have the same effect as actually rotating at a constant angular velocity in the left direction.
The diagnostic unit,
Detecting nystagmus from the eyeball image of the subject obtained while the second image and the third image are rotated and moved at the angular velocity set in the horizontal direction through the ocular imaging camera, and based on the detected nystagmus Dizziness diagnosis device using a virtual reality that does not need to move the head to diagnose whether the head impulse (Head-impulse) to the horizontal semi-circular canal of the subject.
A virtual reality display unit displaying an image for diagnosing dizziness;
An ocular imaging camera for photographing an eyeball image of a subject;
An image controller configured to display a virtual reality diagnosis image corresponding to a dizziness type on the virtual reality display unit;
An audio output unit configured to output a voice to fix the gaze at a specific position to the examinee; And
And a diagnosis unit configured to detect nystagmus from an eyeball image of a subject moving according to the diagnostic image through the eyeball photographing camera, and diagnose a type of dizziness of the subject based on the detected nystagmus.
The video controller,
When performing a head-impulse test on the right posterior semicircular and left anterior semicircular tubes, the head-impulse test on the right posterior semicircular and left anterior semicircular tubes is displayed on the virtual reality display. The specific position is displayed on the image, the first image is displayed, and the first image is set to the left so that the head of the subject is actually rotated by an angle set in the right direction and rotated at an angular speed set in the lower direction. Display the second image by rotating by an angle, and display the third image by rotating at an angular velocity set in the upward direction, or rotate the third image in the lower direction so as to have the same effect as rotating the head of the subject at an angular velocity set in the upward direction. The fourth image is rotated at an angular velocity set to Display the real display section, and
The diagnostic unit,
Detecting nystagmus from the eyeball image of the subject obtained while the third image and the fourth image are rotated and moved at the angular velocity set in the vertical direction through the ocular imaging camera, and based on the detected nystagmus Diagnosis apparatus using dizziness using virtual reality that does not need to move the head to diagnose whether the head impulse (Head-impulse) for the right posterior semi-ring loop and left anterior semi-ring loop of the subject.
A virtual reality display unit displaying an image for diagnosing dizziness;
An ocular imaging camera for photographing an eyeball image of a subject;
An image controller configured to display a virtual reality diagnosis image corresponding to a dizziness type on the virtual reality display unit;
An audio output unit configured to output a voice to fix the gaze at a specific position to the examinee; And
And a diagnosis unit configured to detect nystagmus from an eyeball image of a subject moving according to the diagnostic image through the eyeball photographing camera, and diagnose a type of dizziness of the subject based on the detected nystagmus.
The video controller,
When performing a head-impulse test on the left posterior semicircle and the right anterior semicircular canal, the head-impulse test on the left posterior semicircle and the right anterior semicircular canal is displayed on the virtual reality display. The specific position is displayed on the image, the first image is displayed, and the first image is set to the right so that the head of the subject is actually rotated by an angle set in the left direction and rotated at an angular speed set in the lower direction. Display the second image by rotating by an angle, and display the third image by rotating at an angular velocity set in the upward direction, or rotate the third image in the lower direction so as to have the same effect as rotating the head of the subject at an angular velocity set in the upward direction. The fourth image is rotated at an angular velocity set to Display the real display section, and
The diagnostic unit,
Detecting nystagmus from the eyeball image of the subject obtained while the third image and the fourth image are rotated and moved at the angular velocity set in the vertical direction through the ocular imaging camera, and based on the detected nystagmus Diagnosis device using dizziness using virtual reality that does not require the movement of the head to diagnose whether the head impulse (Head-impulse) for the left posterior semi-ring tube and the right front semi-ring tube.
The method of claim 1,
The subject further comprises a wear detection unit for detecting whether the dizziness diagnosis device is worn on the head,
The video controller,
After detecting that the subject wears a dizziness diagnosis apparatus on the head by the wear detection unit, a virtual reality that does not require movement of the head, which displays a virtual reality diagnosis image corresponding to the type of dizziness, on the virtual reality display unit Dizziness diagnostic device.

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