KR20170011752A - Apparatus for imitating visual pathway between retina and cerebrum using lighting equipment - Google Patents

Apparatus for imitating visual pathway between retina and cerebrum using lighting equipment Download PDF

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KR20170011752A
KR20170011752A KR1020150104941A KR20150104941A KR20170011752A KR 20170011752 A KR20170011752 A KR 20170011752A KR 1020150104941 A KR1020150104941 A KR 1020150104941A KR 20150104941 A KR20150104941 A KR 20150104941A KR 20170011752 A KR20170011752 A KR 20170011752A
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visual
simulation unit
path
cerebral
path simulation
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이승훈
이지원
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이승훈
이지원
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Abstract

The present invention relates to a retina and a cerebral visual path modeling device using a lighting device.
According to one aspect of the present invention, a cerebral model replicating a cerebrum; A left eye model mounted on the left side of the cerebrum model and simulating a left eye and including a lighting device; A right eye model mounted on the right side of the cerebral model and simulating the right eye and including a lighting device; A visual path simulation unit that simulates a visual path between the cerebrum model, the left eye model, and the right eye model, and includes a lighting device; And a control unit for selectively lighting the illumination device included in the left eye model, the right eye model, and the visual path simulation unit.

Description

FIELD OF THE INVENTION [0001] The present invention relates to a retina and a cerebral visual pathway modeling device using a lighting device,

The present invention relates to a retina and a cerebral visual path modeling device using a lighting device.

Vision is a sensory action that accepts the stimulation of light through the eyeball. Through the optic nerve connected to the retina of the eye, the visual information is transmitted to the visual cortex of the cerebrum, allowing the person to recognize the object. In this way, a plurality of visual paths are formed between the retina and the cerebrum. However, since the visual path is formed inside the human body and the path is somewhat complicated, There was a difficult problem.

In recent years, interest in and importance of patients' rights has increased as medical technology has developed. These rights include the right of the patient to be informed and engaged in all decisions related to his or her health, and the right to a clear and detailed explanation to ensure that all planned procedures are understood.

However, in the past, despite the intention of the physician to easily explain the patient's illness to the patient, the visual path of the complex structure such as the retina of the eye, the optic nerve, the cerebrum, etc., There was a difficult problem in explaining the state of the patient.

Patent Document: Korean Patent Publication No. 10-1443125

Embodiments of the present invention provide a retina and cerebral visual path modeling device using a lighting device capable of visually showing a flow through which visual information is transmitted through a visual path formed between the retina and the cerebrum.

The present invention also provides a retina and cerebral visual pathway modeling device using a lighting device that can visually display a visual path that is activated or deactivated depending on the lesion location and type of disease.

According to one aspect of the present invention, a cerebral model replicating a cerebrum; A left eye model mounted on the left side of the cerebrum model and simulating a left eye and including a lighting device; A right eye model mounted on the right side of the cerebral model and simulating the right eye and including a lighting device; A visual path simulation unit that simulates a visual path between the cerebrum model, the left eye model, and the right eye model, and includes a lighting device; And a control unit for selectively lighting the illumination device included in the left eye model, the right eye model, and the visual path simulation unit.

The control unit may further include a retina and a cerebral visual path modeling device using a lighting device for selectively lighting the luminaire included in the left eye model, the right eye model, and the visual path simulation unit according to a lesion location or disease Can be provided.

The left eye model and the right eye model include an eye model body hollow inside; And a partition plate for partitioning the eye model body into a plurality of regions, wherein the illumination mechanism is a retina and a cerebral visual path modeling apparatus using a lighting apparatus provided in a plurality of regions partitioned by the partition plate, May be provided.

Also, the partition plate may be provided with a retina and a cerebral visual path modeling device using a lighting device which is made of an opaque material and reduces the transmission of light of the lighting device installed in an area to another area.

The visual path simulation unit may include a plurality of visual path simulation units attached to the cerebral model. The plurality of visual path simulation units may include a first visual path simulation unit for simulating the optic nerve connected to the left eye, A visual path simulation unit; A retina and a cerebral visual path modeling device using a lighting device including a third visual pathway simulator and a fourth visual pathway simulator simulating the optic nerve connected to the right eyeball can be provided.

The visual path simulation unit may further include a fifth visual path simulation unit that is disposed in a direction extending from the first visual path simulation unit and simulates a time axis from which the visual information is transmitted from the optic nerve simulated by the first visual path simulation unit, ; And a sixth visual pathway simulator arranged in a direction extending in the opposite direction from the extending direction of the third visual pathway simulator and simulating a shaker receiving visual information from the optic nerve simulated by the third visual pathway simulator part A retina and a cerebral visual path modeling device using a lighting device can be provided.

The visual path simulation unit may be arranged in a direction extending from the fifth visual path simulation unit, and the ninth visual path simulation, which simulates a visual line to receive visual information from the shader simulating the fifth visual path simulation unit, part; And a tenth time path path simulating unit arranged in a direction extending from the sixth time path simulating unit and simulating a specimen line receiving time information from a shaper to which the sixth time path simulating unit simulates, A retinal and cerebral visual pathway modeling device may be provided.

The visual path simulation unit may be arranged in a direction extending in the opposite direction from the extending direction of the second visual path simulation unit, 7 visual path simulator; And an eighth time path simulation unit arranged in a direction extending from the fourth time path simulation unit and simulating a time axis for receiving time information from the optic nerve simulated by the fourth time path simulation unit, And a cerebral visual path modeling device may be provided.

The visual path simulation unit may further include a seventh visual path simulation unit that is arranged in a direction extending from the seventh visual path simulation unit and simulates a visual line to which visual information is transmitted from the shiso to which the seventh visual path simulation unit simulates, part; And a twelfth visual path simulation unit arranged in a direction extending from the eighth visual path simulation unit and simulating a visual line to receive visual information from a shiso simulating the eighth visual path simulation unit A retinal and cerebral visual pathway modeling device may be provided.

In addition, the visual path simulation unit may include a plurality of visual path simulation units attached to the cerebral model, and the visual path simulation unit may include a visual path simulation unit having a tube shape, A retinal and cerebral visual pathway modeling device may be provided.

Also, a retina and a cerebral visual path modeling apparatus using a lighting apparatus having at least two or more colors of light emitted from a plurality of the lighting apparatuses provided in the plurality of visual path simulation units may be provided.

Also, a plurality of the lighting apparatuses provided in the plurality of visual path simulation units representing one continuous visual path may be provided with a retina and a cerebral visual path modeling apparatus using a lighting apparatus that emits light of the same color.

The control unit may further include a control panel that includes at least one button and is interlocked with the control unit. When the button is selected, the control unit controls the illumination unit of the visual path simulation unit and the illumination unit A retina and a cerebral visual path modeling device using a lighting device that illuminates the brain can be provided.

Embodiments of the present invention can provide a retina and cerebral visual path modeling device using a lighting device capable of visually showing a flow through which visual information is transmitted through a visual path formed between the retina and the cerebrum.

In addition, it is possible to provide a retina and cerebral visual path modeling device using a lighting device that can visually show a visual path that is activated or deactivated depending on the lesion location and type of disease.

FIG. 1 is a conceptual diagram showing a visual path formed between the retina and the cerebrum and an invisible region of the eye due to visual path damage.
2 is a perspective view of a retina and a cerebral visual path modeling device using a lighting device according to an aspect of the present invention.
3 is a detailed view showing the structure of the eyeball of the retina and the cerebral visual pathway modeling apparatus using the illuminator of FIG.
Fig. 4 is a view showing another embodiment of the eye of Fig. 3;
Fig. 5 is a plan view of Fig. 2. Fig.
6 is a detailed view showing the structure of a visual path simulation unit of the retinal and cerebral visual path modeling apparatus using the lighting apparatus of FIG.

Hereinafter, specific embodiments for implementing the present invention will be described in detail with reference to the accompanying drawings. In the following description, well-known functions or constructions are not described in detail since they would obscure the subject matter of the present invention.

The retina and cerebral visual path modeling device using a lighting device according to one aspect of the present invention is a device for displaying a visual path formed between the retina and the cerebrum, and may be an educational equipment used to explain a visual path to a student , Or to explain the cause, symptoms, etc. of the visual illness to a patient having visual illnesses.

FIG. 1 is a conceptual diagram showing a visual path formed between the retina and the cerebrum and an invisible region of the eye due to visual path damage.

First, referring to FIG. 1, the visual path formed between the retina of the eyeball 2 and the cerebrum 1 is as follows. First, the retina is a transparent nerve tissue covering the innermost part of the eyeball 2, Light entering the inside is detected by the optic cell of the retina through the inner layer of the retina. The visual cell converts the light information into electrical information which is transmitted to the visual cortex 1a of the cerebrum 1 via the optic nerve 11,12,13,14, shisak 16,17 and the specimen 18,19, Lt; / RTI >

At this time, the optic axes 11, 12, 13, and 14 having two visual paths are connected to the left eye 2a and the right eye 2b, respectively, so that a total of four visual paths can be formed. The optic nerve (11, 12, 13, 14) has the function of transmitting the visual information received from the retina to the cerebrum and can be composed of about 1.2 million nerve fibers.

The optic nerves 11, 12, 13, and 14 connected to the respective eyes 2a and 2b come out in two directions toward the ear and the nose. Among them, the second optic 12 and the third optic 13, Intersect at the optic nerve crossing (15). The second optic nerve path 12 connected to the left eye 2a is moved to the right side opposite to the fourth optic nerve 14 connected to the right eyeball 2b so that the second optic nerve path 12 is moved to the opposite side . The third optic disk 13 connected to the right eye 2b moves to the opposite side and reaches the opposite outer skirt 20 on the opposite side with the first optic disk 11 connected to the left eye 2a do.

The visual information passed through the optic nerves 11,12,13,14 again indicates the visual path between the optic nerve crossing 15 and the lateral cervical body 20 and between the lateral cervical vertebra 20 and the cerebral cortex 20, The visual cortex 1a can be transmitted to the visual cortex 1a of the cerebral cortex through the visual lines 18 and 19 which are visual paths between the visual cortex 1a of the visual cortex 1a and the visual cortex 1a can process the received visual information.

In the retina and the cerebrum 1 of the eye 2 having the visual path described above, when the damage occurs to the A portion, the flow of the visual path through the third optic disk 13 and the fourth optic disk 14 is completely blocked , No visual information is transmitted to the subsequent visual paths (16, 17) and the specification lines (18, 19), and the entire right eyeball (2a) becomes an invisible region.

In addition, when damage occurs to the portion B which is the optic nerve crossing 15, the time information through the second optic disk 12 and the third optic disk 13 is not transmitted to the chips 16 and 17, 2a and the inner region of the right eye 2a become invisible regions.

In the case where damage occurs to portions C and D, the visual path is blocked and an invisible area is generated as shown in FIG. These contents are well known in the medical field, so that further explanation of various examples is omitted.

As such, the visual information transmitted from the retina can be transmitted to the cerebrum through a very complicated visual path, such as the optic nerve crossing 15, and thus there is a problem that the student learns the visual path or the patient can not understand the disease .

Therefore, when a visual path is described to a student or a patient using the retina and the cerebral visual path model device using the lighting device according to the present embodiment, the student and the patient can understand the visual path more easily.

2 is a perspective view of a retina and a cerebral visual path modeling device using a lighting device according to an aspect of the present invention.

Referring to FIG. 2, an apparatus 10 for modeling a retinal and cerebral visual path using a lighting apparatus according to an embodiment of the present invention includes a cerebral model 100, a cerebral model 100, A pair of eye models 200, a visual path simulation unit 300 for simulating the visual path and a lighting unit 215 and 331 (FIGS. 3 and 6) provided in the eye model 200 and the visual path simulation unit 300, And a control unit 400 for selectively turning on and off the display unit.

The cerebral model 100 according to the present embodiment is a model simulating the cerebral region 100, and may be a model simulating a section of a cerebral cortex in which the upper portion is cut, as shown in the figure. The cerebral model (100) may be a stereoscopic model that realizes the appearance of the cerebrum similar to the real one so that the visual pathway formed in the cerebrum can be easily understood by the students or patients, but it is not limited to the stereoscopic model, May be a printed matter.

The cerebral model 100 may be supported by a support plate 110 that extends upward from the seating plate 120 and the seating plate 120 that are seated on the ground or the like and is connected to the lower side of the cerebral model 100.

The ocular model 200 is a model simulating an eyeball and includes a left eye model 210 connected to the left side of the cerebral model 100 and a right eye model 220 connected to the right side of the cerebral model 100 can do.

The left eye model 210 and the right eye model 220 have the same structure and function except for the installation position. Therefore, the description of the left eye model 210 is described in place of the description of the right eye model 220 would.

FIG. 3 is a detailed view showing the structure of the eyeball of the retina and the cerebral visual pathway modeling apparatus using the illuminator of FIG. 2, and FIG. 4 is a view showing another embodiment of the eyeball of FIG.

3 and 4, the left eye model 210 includes an eye model main body 211 having a spherical shape and hollow inside, a lighting device 215 provided in the hollow interior of the eye model body 211 And the lighting state of the lighting device 215 can be controlled by the control unit 400. [ Inside the ocular model body 211, a partition plate 213 is provided so that the inside of the ocular model body 211 can be partitioned into a plurality of areas, and the illuminated devices 215 can be provided in the divided areas, respectively have. On the surface of the ocular model body 211, a black circle 212 for drawing a pupil can be drawn.

The partition plate 213 may be a plate-like partition plate 213 as shown in FIG. 3 or a partition plate 213 'having a cross shape as shown in FIG. 4, depending on the number of areas to be partitioned. The partition plates 213 and 213 'can be made of an opaque material that can prevent or reduce the light of the lighting device 215 installed in any one area from being transmitted to other areas.

At this time, as the eye model body 211 is partitioned by the partition plate 213 and the illumination device 215 is provided separately therein, the area of the eyeball activated along the visual path can be independently lighted . In this embodiment, the eye model 200 is provided with a plate-like partition plate 213 so that the left eye model 210 has a first left eye region 231 (FIG. 5) and a second left eye region 232 ), And the right eye model 220 is divided into a first right eye region 233 (FIG. 5) and a second right eye region 234 (FIG. 5). However, if the activation state of the eyeball is further subdivided and implemented in the eyeball model 200, the eyeball model 200 can be further divided into regions.

FIG. 5 is a plan view of FIG. 2, and FIG. 6 is a detailed view illustrating the structure of a visual path simulation unit of the retina and cerebral visual path modeling apparatus using the lighting apparatus of FIG.

5, the visual path simulation unit 300 is for simulating a visual path formed between the retina and the visual cortex of the cerebrum. The visual path simulation unit 300 can be attached to the upper surface of the cerebral model 100, And a plurality of visual path simulation units 301 to 312 which emit light.

As shown, a first visual path simulation unit 301 and a second visual path simulation unit 302, which simulate the optic nerve connected to the left eyeball, are connected to the left eye model 210 on the left side of the cerebral model 100 Can be disposed adjacent to each other. A third visual path modeling unit 303 and a fourth visual path modeling unit 304 which are connected to the right eye model 220 and connected to the right eye model 220 are connected to the right side of the cerebral model 100, .

The fifth visual path simulation unit 305 is arranged in a direction extending from the first visual path simulation unit 301 and simulates a light source that receives visual information from the optic nerve simulated by the first visual path simulation unit 301 can do. The sixth visual path simulation unit 306 is arranged in a direction extending from the extending direction of the third visual path simulation unit 303 in the opposite direction (left direction) It is possible to simulate Shisak receiving visual information from the optic nerve.

On the other hand, the seventh visual path simulation unit 307 is arranged in a direction extending from the extension direction of the second visual path simulation unit 302 to the opposite direction (right), and the seventh visual path simulation unit 307 The eighth time path simulator 308 is arranged in a direction extending from the fourth time path simulator 304 and the fourth time path simulator 304 is connected to the fourth time path simulator 304, Can be simulated by receiving the visual information from the optic nerve simulating it.

The ninth visual path simulation unit 309, the tenth visual path simulation unit 310, the eleventh visual path simulation unit 311 and the twelfth visual path simulation unit 312 are connected to the fifth visual path simulation unit 305 The fifth visual path simulation unit 305, the sixth visual path simulation unit 306, the seventh visual path simulation unit 307, and the eighth visual path simulation unit 308, The seventh visual path simulation unit 307, and the eighth visual path simulation unit 308 can simulate the visual line information received from the shadows simulated by the sixth visual path simulation unit 306, the seventh visual path simulation unit 307, and the eighth visual path simulation unit 308.

In the present embodiment, the first visual path simulation unit 301 to the twelfth visual path simulation unit 312 are shown as disconnected from each other, but a plurality of visual path simulation units representing one continuous visual path may be connected to each other Or may be attached to the cerebral model 100. Further, when a more detailed visual path is to be simulated, a larger number of visual path simulation units can be provided.

6, since each of the visual path simulation units has only a difference in the arrangement structure and length attached to the cerebral model 100, the description of the second visual path simulation unit 302 is replaced with the description of the remaining visual path simulation unit would.

The second visual path simulation unit 302 may include a plurality of visual path simulation members 330 having a tube shape and a lighting device 331 installed inside the visual path simulation member 330. In this case, the lighting device 311 provided in the visual path simulation member 330 may be a lighting device that emits various colors, and the lighting device 311 provided in the different visual path simulation unit may use different colors of light It may be a lighting device that emits light.

In addition, in the case where a plurality of visual path simulation units are connected in a single visual path, a lighting apparatus that emits light of the same color can be provided. In other words, for example, the second visual path simulation unit 302, the seventh visual path simulation unit 307, and the eleventh visual path simulation unit 311 having a visual path connected to the one illuminator 331 may be provided.

The illumination device 215 provided in the eye model 200 and the illumination device 331 provided in the visual path simulation member 330 may be supplied with power from a separate power source or a charger, The lighting state can be controlled.

The control unit 400 may be interlocked with a control panel 500 (FIG. 2) including at least one button and may control the lighting state of the lighting devices 215 and 331 based on signals received from the control panel 500 .

At this time, a button indicating a lesion position or a button indicating a disease case is provided on the control panel 500. When a user selects one of the buttons, the control panel 500 displays the position of the lesion or the illumination mechanism 331 and the illumination device 215 of the eye model 200 may be turned on.

Table 1 is a table showing the light emitting states of the visual pathway simulator 300 and the eyeball model 200 according to the sickness position or disease case.

The light emitting states of the visual path modeling unit 300 and the eye model 200 mean that the visual path and the eye region simulated by the visual path modeling unit 300 and the eye model 200 are activated. On the other hand, in the case of not emitting light, it means that the visual path and the eye region are inactivated, that is, the visual path and the eye region are damaged.

The first button The second button Third Button Fourth button Fifth button Lesion location Right eye Left eye Optic nerve
crossing right
Specification line left side
Specification line Disease case Optic neuritis Optic neuritis pituitary
tumor Cerebral infarction Cerebral infarction


Time
Route
Simulating part

301 ON OFF ON ON ON 302 ON OFF ON ON ON 303 OFF ON ON ON ON 304 OFF ON ON ON ON 305 ON OFF ON ON ON 306 OFF ON OFF ON ON 307 ON OFF OFF ON ON 308 OFF ON ON ON ON 309 ON OFF ON ON OFF 310 OFF ON OFF ON OFF 311 ON OFF OFF OFF ON 312 OFF ON ON OFF ON Left eye area 231 ON OFF ON ON OFF 232 ON OFF OFF OFF ON Right eye area 233 OFF ON OFF ON OFF 234 OFF ON ON OFF ON

Hereinafter, the operation and effect of the single-sided path modeling apparatus of the present invention will be described.

Referring to FIG. 5 and Table 1, when the user wishes to explain the inactivation state of the right eye caused by optic neuritis to the student or the patient, the user can select the first button. When the first button is selected, the control unit 400 includes a first time path simulation unit 301, a second time path simulation unit 302, a fifth time path simulation unit 305, a seventh time path simulation unit 307 Only the lighting mechanisms of the ninth visual path simulator 309, the eleventh visual path simulator 311 and the left eyeballs 231 and 232 are illuminated to emit only the visual path and the corresponding eyeball.

Accordingly, when the optic neuritis develops in the right eye, the student or the patient can see the third visual pathway simulation unit 303, the fourth visual pathway simulation unit 304, the sixth visual pathway simulation unit 306, It can be seen that the time information transmission through the visual path of the first time 308, the 10th time path simulation unit 310, and the 12th time path simulation unit 312 is blocked.

Also, when the user wishes to explain to the listener the inactivity state of the eye caused by pituitary tumor occurring at the optic nerve crossing, the user can select the third button. When the third button is selected, the control unit 400 includes a sixth time path simulation unit 306, a seventh time path simulation unit 307, a tenth time path simulation unit 310, an eleventh time path simulation unit 311 Only the lighting mechanisms of the second left eyeball region 232 and the first right eyeball region 233 can be turned off and the remaining lighting devices can be turned on.

Accordingly, the celadon can visualize the second left eyeball region 232 and the first right eyeball region 233 inactivated due to the pituitary tumor occurring at the crossing of the optic disc, so that the visual path can be more easily understood.

In addition, when the second button, the fourth button, and the fifth button are selected, the optic neuritis of the left eye and the inactive state of the visual path and the eye region due to the occurrence of cerebral infarction can be visually confirmed.

Therefore, the retina and cerebral visual path modeling device using the lighting device according to one aspect of the present invention can visually confirm the activation state of each visual path and eye region through the light emission state of the lighting device, The visual path can be more easily understood by the patient having the visual field.

Also, if it is used for learning, the visual path and the eyeball area can be changed in various ways according to the level of the medical knowledge of the student, so the utilization is high.

It is to be understood that the embodiments described above are merely illustrative of some examples of the technical idea and the scope of the technical idea is not limited to the described embodiments, It will be understood that various changes, substitutions, and alterations may be made therein without departing from the spirit and scope of the invention.

10: Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device
100: brain model 200: eye model
210: left eyeball model 211: eyeball model body
213: partition plate 215: lighting fixture
220: right eye model 231: first left eye region
232: second left eyeball region 233: first right eyeball region
234: fourth left eyeball region 300: visual path simulation unit
301 to 312: Visual path simulator 330: Visual path simulator
331: Lighting device 400: Control part
500: Control panel

Claims (13)

Cerebral model simulating the cerebrum;
A left eye model mounted on the left side of the cerebrum model and simulating a left eye and including a lighting device;
A right eye model mounted on the right side of the cerebral model and simulating the right eye and including a lighting device;
A visual path simulation unit that simulates a visual path between the cerebrum model, the left eye model, and the right eye model, and includes a lighting device; And
And a control unit for selectively lighting the illumination device included in the left eye model, the right eye model, and the visual path simulation unit
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device. The method according to claim 1,
Wherein,
The right eye model, and the illumination device included in the visual path simulation unit according to a lesion location or disease,
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device. The method according to claim 1,
The left eye model and the right eye model,
A hollow ocular model body inside; And
Further comprising a partition plate for partitioning the eye model body into a plurality of regions,
Wherein the plurality of illumination devices are provided in a plurality of areas partitioned by the partition plate
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device. The method of claim 3,
The partition plate is made of an opaque material so as to reduce the transmission of light of the lighting apparatus installed in an area to another area
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device. The method according to claim 1,
The visual path simulation unit,
And a plurality of visual path simulation units attached to the cerebral model,
The plurality of visual path simulators may include:
A first visual pathway simulation unit and a second visual pathway simulation unit that simulate an optic nerve connected to the left eyeball;
A third visual pathway simulator for simulating the optic nerve connected to the right eyeball, and a fourth visual path simulator for simulating the optic nerve connected to the right eyeball
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device. 6. The method of claim 5,
The visual path simulation unit,
A fifth visual pathway simulator disposed in a direction extending from the first visual path path simulator and simulating a shaker receiving visual information from the optic nerve simulated by the first visual path path simulator; And
Further comprising a sixth visual path simulation unit arranged in a direction extending in the opposite direction from the extending direction of the third visual path simulation unit and simulating a shiso receiving visual information from the optic nerve simulated by the third visual path simulation unit
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device. The method according to claim 6,
The visual path simulation unit,
A ninth time path simulation unit arranged in a direction extending from the fifth time path simulation unit and simulating a time line to receive time information from the time axis simulating the fifth time path simulation unit; And
Further comprising a tenth time path simulation unit arranged in a direction extending from the sixth time path simulation unit and simulating a time line to which time information is transmitted from the time axis simulating the sixth time path simulation unit
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device. 6. The method of claim 5,
The visual path simulation unit,
A seventh visual path simulator arranged in a direction extending in an opposite direction from the extending direction of the second visual path simulator and simulating a shaker receiving visual information from the optic nerve simulating the second visual path simulator; And
And an eighth time path simulator arranged in a direction extending from the fourth time path simulator and simulating a time axis from time information received from the optic nerve simulated by the fourth time path simulator,
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device. 9. The method of claim 8,
The visual path simulation unit,
An eleventh time path simulation unit arranged in a direction extending from the seventh time path simulation unit and simulating a specimen line receiving time information from a shiso simulating the seventh time path simulation unit; And
Further comprising a twelfth visual path simulation unit arranged in a direction extending from the eighth visual path simulation unit and simulating a visual line to receive visual information from a shiso simulating the eighth visual path simulation unit
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device. The method according to claim 1,
The visual path simulation unit,
And a plurality of visual path simulation units attached to the cerebral model,
The visual path simulator,
The lighting apparatus is installed inside a visual path simulation member having a tube shape
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device. 11. The method of claim 10,
The color of the light emitted by the plurality of illuminators provided in the plurality of visual path simulation units is at least two
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device. 11. The method of claim 10,
The plurality of lighting apparatuses provided in the plurality of visual path simulation units representing one continuous visual pathway emit light of the same color
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device. The method according to claim 1,
Further comprising a control panel including at least one button and interlocking with the control unit,
When the button is selected,
Wherein the control unit controls the illumination device of the visual path simulation unit and the illumination device of the eyeball model to be lighted
Retinal and Cerebral Visual Pathway Modeling Device Using a Lighting Device.
KR1020150104941A 2015-07-24 2015-07-24 Apparatus for imitating visual pathway between retina and cerebrum using lighting equipment KR101768971B1 (en)

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