KR101386495B1 - Shutter module for shutter glasses for stereoscopic image - Google Patents

Abstract

A shutter module for shutter glasses for a stereoscopic image is disclosed. The disclosed shutter module comprises; a first transparent substrate; a second transparent substrate located on the top of the first transparent substrate; and a plurality of reflection members which is arranged to be able to locate along a plurality of rotary shafts which is in parallel with a flat surface in which the first transparent substrate is arranged at a space between the first and second transparent substrates. The reflection members become a state which rotates to a second position by rotating in a predetermined direction according to external force at a state of a first position which is in parallel to the flat surface. The reflection members reflect the light which is inserted into the first transparent substrate at the state of the second position to pass through the second transparent substrate. According to the present invention, the shutter module has a fast driving speed and a high transmission ratio and has an advantage capable of achieving a high on/off ratio. Also, according to the present invention, the shutter module can be manufactured in a thin film process for manufacturing an existing display device and can save costs. Also, according to the present invention, the weight of the shutter glasses is reduced and the convenience of a user who wears the shutter glasses is improved.

Description

Shutter module for shutter glasses for stereoscopic images {SHUTTER MODULE FOR SHUTTER GLASSES FOR STEREOSCOPIC IMAGE}

Embodiments of the present invention relate to a shutter module for a three-dimensional image shutter glasses, more specifically for a three-dimensional image shutter glasses that can achieve a high on / off ratio while having a high driving speed and high transmittance. It relates to a shutter module.

 The stereoscopic image display device may be classified into an SG method using active shutter glasses and a FPR method using passive polarized glasses according to an implementation method of a stereoscopic image.

First, in the case of the shutter glasses method, the manufacturing process of the display panel is similar to that of a conventional liquid crystal display (LCD) panel, and thus the manufacturing cost is low. Has the advantage of not occurring.

However, since the shutter glasses need to be shuttered in synchronization with the stereoscopic image display device, the shutter glasses need a structure and a driving circuit, and a battery to cover a relatively large amount of power consumption. This has the disadvantage of increasing cost and weight.

In addition, in order to solve the problem of reduced transmittance caused by the shuttering process, as the brightness of the stereoscopic image display device is increased, the power efficiency of the stereoscopic image display device is lowered, and flicker occurs at a slow driving speed. ) Has a problem that can cause dizziness and headache of the user. Three main methods of the shutter glasses will be described with reference to the accompanying drawings.

Next, in the case of the FPR method using the polarizing glasses, since the polarizing film for implementing the stereoscopic image to be attached to the display panel, there is a problem that the manufacturing process of the panel is somewhat complicated.

In addition, unlike the shutter glasses method, since the stereoscopic image is realized by splitting the screen, there is a problem that the upper and lower viewing angles are narrow due to the degradation of the resolution and the polarizing film.

Despite these drawbacks, the polarizing glasses method has been in the spotlight in the stereoscopic image display device market due to the advantages that the polarizing glasses method can be manufactured using only a polarizing film, thereby simplifying the process and reducing the cost and lightening the weight of the product.

However, the FPR type stereoscopic image display device has a problem in that it is difficult to apply to a transparent flexible display due to its thickness because the polarizing film should be attached to the display panel as described above due to the property of using the polarizing film.

Much research has been conducted on the technology related to shutter glasses, among which i) electro-optical shutter glasses using Kerr effect or Pockels effect, 2) PLZT ( Shutter glasses using Plomb Lanthanum Zirconate Titanate), and 3) LC (Liquid Crystal) shutter glasses using liquid crystal.

First, the shutter using the Kerr effect or the Pockels effect is a shutter using a material that causes birefringent characteristics by an external electric field, such as KDP (Potassium Dihydrogen Phosphate). The shuttering is performed by rotating.

1A is a diagram illustrating a schematic structure of a shutter using a Kerr effect or a Pockels effect.

Referring to FIG. 1A, the light incident on the first polarizing film is polarized in one direction, and when no voltage is applied to the Pockels cell, the light reaches the second polarizing film without changing the polarization plane. do. In this case, since the light is incident on the polarization plane perpendicular to the second polarizing film, light does not pass (off state).

On the other hand, when a voltage is applied to the Pockels cell, the polarization plane of the light passing through the first polarization film is rotated by the Pockels cell, and is incident on the same polarization plane as the polarization plane is changed to the same polarization plane as the second polarization film. Light passes through (on).

The shutter using the Kerr effect or the Pockels effect has the advantage of having a fast driving speed and high stability because it uses the optical properties of the material by an external electric field, but a very high driving voltage (hundreds to thousands of volts) should be applied. Therefore, there is a limitation in applying to shutter glasses for stereoscopic images.

Next, the shutter using the PLZT is a shutter using the electro-optics properties of the PLZT material, and FIG. 1B shows a schematic structure of the shutter using the PLZT.

Referring to FIG. 1B, the light applied to the shutter glasses is polarized through the first polarizing film and passes through the second polarizing film through the PLZT layer. At this time, the polarization planes of the two polarizing films are configured to be perpendicular to each other.

When a voltage is applied to the PLZT, the polarization plane of the light is rotated by the electro-optical characteristics of the PLZT. At this time, the incident light is turned on to pass through the second polarizing film by maintaining the rotation angle of 90 degrees. do.

When no voltage is applied to the PLZT, the polarized light and the second polarizing film are vertically maintained so that the light cannot pass through, thus shuttering is performed in an off state.

The shutter using the PLZT has a high dynamic range and a lower driving voltage than the shutter using the Kerr effect or the Pockels effect, but still has a high driving voltage of several hundred volts. There is also a problem with low transmittance (5-15%) and low drive speed.

Finally, FIG. 1C is a diagram showing a schematic structure of a shutter using liquid crystal.

In general, a shutter using a liquid crystal is used in the shutter glasses method, and the shutter using the liquid crystal has a structure in which two polarizing films and a liquid crystal are injected therebetween, as shown in FIG. 1C.

Since the liquid crystal has a characteristic of twisting in a specific direction by an applied electric field, when no voltage is applied to the liquid crystal, the light incident on the first polarizing film reaches the second polarizing film without changing the polarization plane. Accordingly, the polarization plane of the light and the polarization plane of the polarizing film is vertically disposed so that the light does not pass through.

When a voltage is applied to the liquid crystal, the polarization plane of the incident light is rotated according to the twisted direction of the liquid crystal, and the shuttering is performed in such a manner that the light passes through the same polarization plane as the second polarization film.

Since the shutter using liquid crystal can be manufactured by the process used in the existing LCD, there is less burden on facility investment, so the manufacturing cost is low, and there is an advantage that rapid commercialization is possible. However, in order to control light using liquid crystal Two glass substrates, two polarizing films, and a liquid crystal are required, and thus there is a problem of decreasing brightness.

In general, the light transmittance of the liquid crystal is known as several tens of percent, which causes high power consumption because the brightness of the backlight of the image display device needs to be increased.

In addition, when a voltage is applied to the liquid crystal, the time (reaction speed) consumed for rearranging the liquid crystal is tens of milliseconds, and thus there is a limit to setting a high driving frequency for fast operation and smooth expression. flicker) to reduce the user's 3D acquisition rate and dizziness.

All three methods are different in the method of changing the polarizing film and the polarizing plane, and all of them are the same in terms of controlling the light by polarizing shuttering, and thus, the loss of light by the polarizing film is inevitable.

In order to solve the problems of the prior art as described above, the present invention is to propose a shutter module for a three-dimensional image shutter glasses that can achieve a high on / off ratio while having a high driving speed and high transmittance.

Other objects of the invention will be apparent to those skilled in the art from the following examples.

According to a preferred embodiment of the present invention to achieve the above object, a first transparent substrate; A second transparent substrate positioned on the first transparent substrate; And a plurality of reflecting members rotatably disposed along a plurality of rotation axes disposed parallel to the plane on which the first transparent substrate is placed between the first transparent substrate and the second transparent substrate. The plurality of reflecting members are rotated in a predetermined direction according to an external force in a state of a first position parallel to the plane to a state of being rotated to a second position, and incident on the first transparent substrate in the state of the second position. A shutter module for stereoscopic shutter glasses for reflecting light to pass through the second transparent substrate is provided.

The plurality of reflecting members may include: a first reflecting member rotating along a first rotation axis; And a second reflecting member closest to the first reflecting member among one or more reflecting members rotating along a second rotating shaft closest to the first rotating shaft, wherein the first reflecting member is in the second position. One surface of the light reflects the light incident on the first transparent substrate to the other surface of the second reflecting member, and the other surface of the second reflecting member reflects the light reflected by the first reflective member to the second transparent substrate. Can reflect.

In the state of the first position, one surface of the first reflecting member and one surface of the second reflecting member may reflect light incident on the first transparent substrate in a direction opposite to the incident direction.

The second position may be a position rotated by 45 ° based on the first position.

Stacked on the first transparent substrate and positioned below the plurality of reflective members, and formed at a position corresponding to a distance between the first reflective member and the second reflective member to block light incident at the interval. It may further comprise a black matrix.

And a first gate electrode stacked on the first transparent substrate and positioned below the first reflective member, wherein an external force applied to the first reflective member is applied to the first gate electrode and the first reflective member. It may be an electrostatic force generated by the voltage applied to the member.

The first gate electrode may be formed only at a position corresponding to one region when the region where the first reflective member is placed is divided into two regions by the first rotation axis.

And a second gate electrode stacked on the first transparent substrate and positioned below the second reflecting member, wherein an external force applied to the second reflecting member is applied to the second gate electrode and the second reflecting member. It may be an electrostatic force generated by the voltage applied to the member.

The second gate electrode is formed only at a position corresponding to any one region when the region in which the second reflective member is placed is divided into two regions by the second rotation axis, and the first gate electrode is formed in any of the second gate electrodes. One of the regions in which one region and the second gate electrode are formed may be the same region.

According to the present invention, there is an advantage that can achieve a high on / off ratio at the same time having a high driving speed and high transmittance.

In addition, according to the present invention, it is possible to manufacture in a thin film process for manufacturing a conventional display device has the advantage that the cost can be reduced.

In addition, according to the present invention, there is an advantage that can reduce the weight of the shutter glasses to facilitate the user wearing it.

1A is a diagram illustrating a schematic structure of a shutter using a Kerr effect or a Pockels effect.
1B is a diagram showing a schematic structure of a shutter using PLZT.
1C is a diagram showing a schematic structure of a shutter using liquid crystal.
2A is a diagram schematically illustrating a structure of a shutter module for stereoscopic shutter glasses according to an embodiment of the present invention, and FIG. 2B is a shutter module for stereoscopic shutter glasses according to an embodiment of the present invention. It is a figure which shows sectional drawing of.
3 is a diagram schematically illustrating an on / off operation of a shutter module for a stereoscopic image shutter glasses according to an embodiment of the present invention.
4 is a view for schematically explaining an external force acting on a plurality of reflective members according to an embodiment of the present invention.
5 is a diagram illustrating a perspective view of a plurality of reflective members according to an embodiment of the present invention.
6A illustrates a case in which no voltage is applied to the reflective member and the gate electrode according to an exemplary embodiment of the present invention, wherein the plurality of reflective members are parallel to a first position in which the basic position is located, that is, a plane in which the first transparent substrate is placed. It is a figure which shows the situation which reflects the light which injects into a 1st transparent substrate in the opposite direction to the incident direction in the positioned state.
FIG. 6B illustrates a case where a voltage is applied to another gate electrode and a reflecting member according to an embodiment of the present invention, in a state where a plurality of reflecting members are rotated counterclockwise from a first position which is a basic position. 1 is a diagram illustrating a situation in which light incident on a transparent substrate is reflected to pass through a second transparent substrate.
FIG. 7 is a diagram illustrating an operation of performing shuttering synchronized with a scanning rate of a stereoscopic image display apparatus using shutter glasses equipped with a shutter module, according to an exemplary embodiment.
8 is a diagram illustrating an embodiment in which a plurality of reflective members are applied to a light shielding layer of a transparent display device according to another embodiment of the present invention.

While the invention is susceptible to various modifications and alternative forms, specific embodiments thereof are shown by way of example in the drawings and will herein be described in detail. It should be understood, however, that the invention is not intended to be limited to the particular embodiments, but includes all modifications, equivalents, and alternatives falling within the spirit and scope of the invention. Like reference numerals are used for like elements in describing each drawing.

Hereinafter, embodiments according to the present invention will be described in detail with reference to the accompanying drawings.

2A is a diagram schematically illustrating a structure of a shutter module 100 for three-dimensional image shutter glasses according to an embodiment of the present invention, and FIG. 2B illustrates a three-dimensional image shutter glasses according to one embodiment of the present invention. It is a figure which shows sectional drawing of the shutter module 100 for.

3 schematically illustrates an on / off operation of the shutter module 100 for the shutter glasses for stereoscopic images according to an embodiment of the present invention.

4 is a view for schematically explaining an external force acting on the plurality of reflective members 140 according to an embodiment of the present invention.

As shown in FIGS. 2 to 4, the shutter module 100 (hereinafter, referred to as a “shutter module” for convenience of description) for the three-dimensional shutter glasses for the first transparent substrate 110 and the second transparent The substrate 120 includes a black matrix 130, a plurality of reflective members 140, and a gate electrode 150.

In the present invention, it will be described on the assumption that each of these components are sequentially stacked in the order of the first transparent substrate 110, the black matrix 130, the plurality of reflective members 140, the second transparent substrate 120. (At this time, the gate electrode 150 may be stacked on the same plane as the black matrix 130), such a laminated structure can be manufactured in the same thin film process as the manufacturing process of a conventional display device, It has the advantage of reducing the cost. However, the present invention is not limited thereto.

The first transparent substrate 110 and the second transparent substrate 120 are elements constituting the outer surface of the shutter module 100. For example, the first transparent substrate 110 and the second transparent substrate 120 may be transparent substrates made of glass or plastic. At this time, it is preferable that both materials are the same.

Between the first transparent substrate 110 and the second transparent substrate 120, a plurality of reflective members 140 for reflecting the light incident on the first transparent substrate to pass through the second transparent substrate is located.

In this case, the plurality of reflecting members 140 may be formed of a material having a high reflectance capable of completely reflecting the incident light, and the light incident on the first transparent substrate must pass through the second transparent substrate to reach the eyes of the user. It is preferable that the shutter module 100 is formed in the form of double-sided reflection.

For example, the reflective member 140 may be made of a single high reflectance metal material, or may have a structure in which a high reflectance metal is coated on the body of the metal or the dielectric material. In addition, a material having a high reflectance, a body portion, and a material having a high reflectance may be sequentially stacked.

The plurality of reflecting members 140 may be rotatable along a rotation axis that is parallel to the plane on which the first transparent substrate 110 is placed between the first transparent substrate 110 and the second transparent substrate 120. Is placed.

In addition, the plurality of reflective members 140 basically exist in a first position parallel to the plane on which the first transparent substrate 110 is placed, and rotate in a predetermined direction according to an external force acting on the first transparent substrate 110. The light is rotated to the second position, and the light incident on the first transparent substrate in the state of the second position is reflected to pass through the second transparent substrate.

In this case, as shown in FIG. 4, the external force may be an electrostatic force generated by a voltage applied to the reflective member 140 and the gate electrode 150. In the present invention, for convenience of description, it will be described on the assumption that the external force for rotating the plurality of reflective members from the first position to the second position is the electrostatic force, but is not limited thereto, and another embodiment of the present invention. According to, may be an electromagnetic force generated by the current and the magnetic field.

The predetermined direction may be a clockwise or counterclockwise direction with respect to the rotation axis, and each of the plurality of reflecting members 140 rotates in the same direction and enters the second transparent substrate in a state of the second position. It is preferred for the passage of light to the second transparent substrate.

The black matrix 130 according to an embodiment of the present invention is formed at a position corresponding to the interval between the plurality of reflective members 140 to block light incident at the interval. To this end, the black matrix 130 may be stacked on the first transparent substrate 110, which will be described in more detail with reference to FIG. 6.

As described above, the gate electrode 150 is a target to which a voltage is applied together with the plurality of reflective members 140 to generate an external force acting on the plurality of reflective members 140, and the first transparent substrate 110. Stacked on top of the) is positioned below the plurality of reflective members 140.

In this case, the gate electrode 150 may be formed only at a position corresponding to any one region in a case where the region where the reflective member 140 is placed is divided into two regions by the rotation axis, which is the reflective member 140. ) Facilitates rotation to a second position.

In addition, as described above, the plurality of gate electrodes 150 positioned at each lower portion of the plurality of reflecting members 140 may be divided by the rotation axis such that each of the plurality of reflecting members 140 may rotate in the same direction. It is preferable to be located in the same area | region of two areas.

Meanwhile, in the present invention, for convenience of description, it is assumed that there are a plurality of reflecting members rotating along each rotating shaft, but the present invention is not limited thereto, and one reflecting member may exist on one rotating shaft.

In addition, the size of the voltage applied to the gate electrode 150 and the reflecting member 140 to rotate the reflecting member 140 is limited in terms of power consumption and portability, so that the reflecting member 140 has a small voltage. In order to be easily rotated from the first position to the second position, the reflective member 140 is preferably formed in a suitable size that can rotate even with a small voltage.

In addition, since light emitted from the stereoscopic image display device must reach the eye of the user after passing through the shutter module 100, the gate electrode 150 as well as the first transparent substrate 110 and the second transparent substrate 120 are transparent. It is preferably made of a material. For example, the gate electrode 150 may be a transparent electrode. For example, the gate electrode 150 may be indium tin oxide (ITO) or carbon nanotube (CNT).

Hereinafter, referring to FIGS. 5 and 6, the operation of the plurality of reflecting members 140 before and after the external force acts on the plurality of reflecting members 140 (that is, the shutter module 100 according to an embodiment of the present invention). Will be described in more detail.

5 is a diagram illustrating a perspective view of a plurality of reflective members 140 according to an embodiment of the present invention.

6 is a diagram schematically illustrating a process in which light incident from the stereoscopic image display device and incident to the shutter module 100 is reflected by the plurality of reflecting members 140, according to an exemplary embodiment.

In more detail, FIG. 6A illustrates a case in which no voltage is applied to the reflective member 140 and the gate electrode 150 according to an embodiment of the present invention. That is, the situation in which light incident on the first transparent substrate 110 is reflected in the direction opposite to the incident direction in a state where the first transparent substrate 110 is disposed in parallel with the plane on which the first transparent substrate 110 is placed (shutter off) condition).

6B illustrates a case in which a voltage is applied to the gate electrode 150 and the reflective member 140 according to an exemplary embodiment of the present invention, and the plurality of reflective members 140 are counterclockwise from the first position where the reflective member 140 is a basic position. In the state of the second position rotated by, the light incident on the first transparent substrate 110 is reflected to pass through the second transparent substrate 120 (shown on state).

First, as shown in FIG. 5, the plurality of reflecting members 140 according to the exemplary embodiment of the present invention may include a first reflecting member 140a rotating along the first rotating shaft 142, and a first rotating shaft 142. It may include a second reflecting member 140b closest to the first reflecting member (140a) of one or more reflecting members that rotate along the second rotation axis 144 closest to the).

In this case, as described above, the first rotation shaft 142 and the second rotation shaft 144 are planes on which the first transparent substrate 110 is placed between the first transparent substrate 110 and the second transparent substrate 120. Parallel to each other.

Next, as shown in FIG. 6A, as no voltage is applied to the reflective member 140 and the gate electrode 150 (that is, no external force acts on the reflective member 140), the reflective member In the state of the first position, one surface of the first reflecting member 140a and one surface of the second reflecting member 140b reflect light incident on the shutter module 100 in the opposite direction to the incident direction.

And, as shown in Figure 6b, when the external force is applied to the reflective member 140, in the state in which the reflective member is rotated to the second position, one surface of the first reflective member 140a to the shutter module 100 The incident light is reflected to the other surface of the second reflecting member 140b, and the other surface of the second reflecting member 140b reflects the light reflected by the first reflecting member back onto the second transparent substrate 120.

In general specular reflection, since the incident angle and the reflection angle are the same, the second position according to an embodiment of the present invention may be a position rotated by 45 ° based on the first position.

In the same manner, the light reflected by the other surface of the first reflective member 140a and one surface of another reflective member (not shown) located just to the left of the second reflective substrate 120 is reflected back to the second transparent substrate 120. One surface of the second reflective member 140b also reflects light incident on the first transparent substrate 110 to the other surface of the other reflective member 140c positioned immediately to its right.

Through the above process, as a result, light incident on the first transparent substrate 110 passes through the second transparent substrate 120.

Meanwhile, as shown in FIG. 6, the black matrix is deposited on the first transparent substrate 110 and positioned below the plurality of reflective members 140, and is formed at a position corresponding to the distance between the reflective members. 130 blocks light incident at the interval.

To this end, the black matrix 130 is preferably formed to a width that can sufficiently block the light incident at the interval when the reflective member 140 is in the first position.

According to an embodiment of the present invention, the gate electrode 150 described above may serve to block light incident at intervals between the reflective members in place of the black matrix 130. In this case, the shutter module There is an advantage that can simplify the structure of (100) more.

In the above description, it is assumed that the shutter is turned off in the state of the first position and the shutter is turned on in the state of the second position. However, the present invention is not limited thereto, and the basic state before the external force is applied is the first. The transparent substrate 110 may be inclined with respect to the plane on which the transparent substrate 110 is placed (that is, a state in which the incident light is reflected and re-reflected to pass through the shutter module 100) and set to be in the shutter-on state. The rotated state may be set to be in a shutter-off state as a state parallel to the plane on which the first transparent substrate 110 is placed (that is, a state in which incident light is reflected in the opposite direction to the incident direction).

FIG. 7 is a view illustrating an operation of performing shuttering synchronized with a scanning rate of a stereoscopic image display apparatus using shutter glasses equipped with a shutter module 100 according to an embodiment of the present invention.

As shown in FIG. 7, first, the stereoscopic image display apparatus displays a right image, at which time the left shutter is turned off and the right shutter is turned on (operation 1).

The stereoscopic image display device displays an image for screen division, wherein the left shutter is switched from the off state to the on state, and the right shutter is switched from the on state to the off state (operation 2).

Next, the stereoscopic image display device displays the left image, wherein the left shutter is on and the right shutter is off (operation 3). Similarly, when the image for screen division is displayed on the stereoscopic image display device, The left shutter is switched from the on state to the off state, and the right shutter is switched from the off state to the on state (operation 4).

As such, the shutter module 100 according to the exemplary embodiment reflects incident light in a direction opposite to the incident direction by using the plurality of rotatable reflective members 140 having double-sided reflection, or the shutter module 100. The shuttering is performed by reflecting twice to pass through.

In other words, the shutter module 100 performs shuttering by changing the traveling direction of light incident to the shutter module using micro electro mechanical systems (MEMS) technology.

Thus, the shutter module 100 according to an embodiment of the present invention has an advantage of achieving a high on / off ratio at the same time as having a high driving speed and a high transmittance.

In addition, the shutter module 100 according to an embodiment of the present invention, as described above, can be manufactured in a thin film process for manufacturing a conventional display device, it is possible to reduce the cost, and to reduce the weight of the shutter glasses The convenience of the user wearing it can be aimed at.

FIG. 8 is a diagram illustrating an embodiment in which a plurality of reflective members 140 are applied to a light shutter layer of a transparent display device according to another embodiment of the present invention.

In the case of the transparent display device, an object existing behind the display device together with the image displayed on the display device also forms a user's field of view, and in order to improve the recognition rate of the image, a light shielding layer is applied.

As shown in FIG. 8A, by using the plurality of reflecting members 140, light reflected from an object present behind the display device and incident on the display device is reflected in a direction opposite to the incidence direction so that the blocking state is maintained. can do.

And, as shown in Figure 8b, by using a plurality of reflecting members 140, by reflecting the light reflected from an object existing behind the display device to the display device twice to pass through the display, the transmission state is Can be maintained.

As described above, the plurality of reflective members 140 according to the exemplary embodiment of the present invention may be applied to the light shielding layer to solve the problem of reducing the contrast ratio of the transparent display device and to improve the recognition rate of the image.

As described above, the present invention has been described with reference to particular embodiments, such as specific elements, and specific embodiments and drawings. However, it should be understood that the present invention is not limited to the above- And various modifications and changes may be made thereto by those skilled in the art to which the present invention pertains. Accordingly, the spirit of the present invention should not be construed as being limited to the embodiments described, and all of the equivalents or equivalents of the claims, as well as the following claims, belong to the scope of the present invention .

Reference numeral 100 is a shutter module for stereoscopic shutter glasses 110: a first transparent substrate
120: second transparent substrate 130: black matrix
140: a plurality of reflecting members 142, 144: rotation axis
150: gate electrode

Claims (9)

A first transparent substrate;
A second transparent substrate positioned on the first transparent substrate;
A state of the first position parallel to the plane between the first transparent substrate and the second transparent substrate is disposed rotatably along a plurality of rotational axis is placed in parallel with the plane on which the first transparent substrate is placed A plurality of reflecting members which rotate in a predetermined direction according to an external force, thereby rotating to a second position; And
And a gate electrode stacked on an upper portion of the first transparent substrate and positioned below the reflective member.
The plurality of reflecting members may include a first reflecting member that rotates along a first axis of rotation and a second reflecting member that is closest to the first reflecting member among one or more reflecting members that rotate along a second axis of rotation that is closest to the first axis of rotation. The gate electrode includes a first gate electrode positioned below the first reflective member.
In the state of the second position, one surface of the first reflecting member reflects light incident on the first transparent substrate to the other surface of the second reflecting member, and the other surface of the second reflecting member is the first reflecting member. Reflects the light reflected by the second transparent substrate back to the second transparent substrate,
The external force applied to the first reflecting member is an electrostatic force generated by the first gate electrode and the voltage applied to the first reflecting member, and the first gate electrode is a region in which the first reflecting member is placed. Shutter module for three-dimensional image shutter glasses, characterized in that formed only at a position corresponding to any one area when divided into two areas by a rotation axis. delete The method of claim 1,
In the state of the first position, one surface of the first reflecting member and one surface of the second reflecting member respectively reflect the light incident on the first transparent substrate in the opposite direction of the incident direction Shutter module for shutter glasses. Claim 4 has been abandoned due to the setting registration fee. The method of claim 3,
The second position is a shutter module for the three-dimensional image shutter glasses, characterized in that the position rotated by 45 ° relative to the first position. The method of claim 1,
Stacked on the first transparent substrate and positioned below the plurality of reflective members, and formed at a position corresponding to a distance between the first reflective member and the second reflective member to block light incident at the interval. Shutter module for three-dimensional image shutter glasses characterized in that it further comprises a black matrix. delete delete The method of claim 1,
A second gate electrode stacked on an upper portion of the first transparent substrate and positioned below the second reflective member;
The external force applied to the second reflective member is a shutter module for three-dimensional image shutter glasses, characterized in that the electrostatic force generated by the voltage applied to the second gate electrode and the second reflective member. Claim 9 has been abandoned due to the setting registration fee. 9. The method of claim 8,
The second gate electrode is formed only at a position corresponding to any one region when the region in which the second reflective member is placed is divided into two regions by the second rotation axis.
The shutter module for stereoscopic shutter glasses according to claim 1, wherein the one region where the first gate electrode is formed and the one region where the second gate electrode is formed are the same region.

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