KR20060076986A - Autostereoscopic 3d display device - Google Patents

Abstract

The present invention relates to a three-dimensional image display device that can simultaneously implement a planar image (2D) and a stereoscopic image (3D) in the same frame, the display panel for displaying an image; And a switching panel attached to the display panel and selectively implementing a stereoscopic image and a planar image on the same frame according to whether an electric signal is applied thereto.

2D, 3D, stereoscopic display, parallax barriers,

Description

Stereoscopic Image Display {AUTOSTEREOSCOPIC 3D DISPLAY DEVICE}

1 is a view schematically showing a configuration of a stereoscopic image display device.

Figure 2 is a view showing in detail a conventional switching panel.

3 is a view schematically showing the configuration of a stereoscopic image display device according to the present invention.

4 and 5 are views showing an embodiment according to the present invention, Figure 4a is a plan view, Figure 4 is a cross-sectional view of II 'of FIG.

6A and 6B illustrate driving of a switching panel according to whether a signal is applied.

7 and 8 are views showing another embodiment according to the present invention, Figure 7 is a plan view, Figure 8 is a cross-sectional view of II-II 'of FIG.

9A and 9B illustrate driving of a switching panel according to whether a signal is applied.

*** Explanation of symbols for main parts of drawing ***

101, 201: gate line 103, 203: data line

107 and 207: first transparent electrode 109 and 209: switching element

110, 210; First transparent substrates 120 and 220; Switching panel

130, 230; Display panels 140 and 240: liquid crystal layer

145: organic patterns 150, 250: second transparent substrate                 

157 and 257: second transparent electrode

BACKGROUND OF THE INVENTION 1. Field of the Invention The present invention relates to a display device, and more particularly, to a stereoscopic image display device capable of simultaneously implementing a planar image (2D) and a stereoscopic image (3D) in one frame (FRAME).

There are physiological and psychological factors in which a person feels a three-dimensional effect. In stereoscopic image display technology, a three-dimensional effect of an object is generated by using a binocular parallax, which is the biggest factor that generates a three-dimensional effect at a short distance. .

As a display method of a stereoscopic image, there are largely a method of wearing glasses and a method of not wearing glasses.

The way of wearing the glasses is the anaglyph method, which uses blue and red sunglasses, and the polarization method, which uses glasses with different polarizations, and the time-divided polarization, which is repeated periodically and synchronized with this cycle. There is a time division method using glasses with polarized shutters. However, the method of wearing glasses has problems such as inconvenience of wearing glasses and difficulty in observing an object other than an image.

Therefore, recently, studies on the method of not wearing glasses have been actively conducted. As a representative example of the method of not wearing glasses, a lenticular lens plate having vertically arranged cylindrical lenses is provided in front of the display panel. There are a lenticular method and a parallax barrier method installed in the.

In addition, with the development of the liquid crystal display device technology, the mechanical shutter is replaced by the liquid crystal shutter, and thus it is possible to selectively switch between the stereoscopic image and the planar image.

1 schematically illustrates a configuration of a stereoscopic image display apparatus using a parallax barrier method, and more particularly, to a stereoscopic image display apparatus capable of selectively switching a stereoscopic image and a planar image.

As shown in the figure, the stereoscopic image display device 1 is composed of a backlight light source 40, the display panel 30 and the switching panel 20. The switching panel 20 includes an opaque slit portion and a transparent transparent slit portion that become opaque with a predetermined width when an electric signal is applied, and the opaque slit portions and the transparent slit portions are alternately arranged.

The observer 10 sees the display panel 30 through the transparent slit portion of the switching panel 20, where the left eye L of the observer 10 passes through the transparent slit portion of the switching panel 20. The right eye R of the observer 10 sees the right eye area Rp of the display panel 30 through the transparent slit of the switching panel 20.

As described above, the left eye L and the right eye R of the observer 10 respectively look at different areas of the display panel 30. In this case, the display panel 30 corresponds to the left eye and the right eye of the observer 10. FIG. Images are displayed in the left eye area Lp and the right eye area Rp, respectively. As a result, the observer feels a three-dimensional effect due to binocular parallax.

The structure of the switching panel 20 of the conventional stereoscopic image display device as described above will be described in more detail with reference to FIG. 2.

As shown in the figure, the switching panel 20 of the conventional stereoscopic image display device is a transparent first substrate 21 and the second substrate 26, and the first substrate 21 and the second substrate 26. It consists of the liquid crystal layer 25 formed in between. Polarizing plates 22 and 27 are attached to the outer side of the first substrate 21 and the second substrate 26, respectively, and are made of a transparent material such as indium tin oxide (ITO) of the first substrate 21. The first electrode 23 is patterned, and a second electrode 28 made of the same material as the first electrode 23 is formed on the inner front surface of the second substrate 26.

When an electrical signal is applied to the first electrode 23 and the second electrode 28, the liquid crystal formed between the first electrode and the second electrode 28 is driven to form an opaque slit portion.

As a result, the stereoscopic image mode and the planar image mode may be selectively switched depending on whether the electrical signal is applied to the first electrode and the second electrode 28. That is, when a signal is applied to the first electrode 23 and the second electrode 28, an opaque slit portion is formed in a region where the first electrode 23 is formed to implement a stereoscopic image mode, and the first electrode When signals are applied to the 23 and second electrodes 28, the first electrode 23 region becomes transparent, thereby implementing a planar image mode.

However, the stereoscopic image display device as described above has a problem in that the sharpness is lower than that of a conventional flat display device in displaying a straight line or text. That is, while the 3D image display device has an advantage of viewing an image in three dimensions, in particular, a straight line or a letter cannot be clearly expressed.

Accordingly, an object of the present invention is to provide a stereoscopic image display device capable of simultaneously implementing a stereoscopic image and a planar image in the same frame.

Other objects and features of the present invention will be described in detail in the configuration and claims of the following invention.

In order to achieve the above object, the stereoscopic image display apparatus of the present invention includes a display panel for displaying an image; And a switching panel attached to the display panel to selectively implement a stereoscopic image and a planar image on the same frame according to whether an electric signal is applied.

The display device of claim 1, wherein the switching panel comprises: first and second transparent substrates; A plurality of gate lines arranged in a first direction on the first transparent substrate; A plurality of data lines arranged perpendicular to the gate line to define a plurality of pixels; A switching element formed at an intersection of the gate line and the data line, and configured to switch each pixel; A first transparent electrode for dividing at least one transmissive region and a non-transmissive region in the pixel region; A second transparent electrode formed on the second transparent substrate; And a liquid crystal layer formed between the first and second transparent substrates and generating a non-transmissive region by the first and second transparent electrodes.

The organic light emitting diode may further include a transparent organic pattern formed in the light transmissive region, such as photo acryl, which maintains a gap between the first and second transparent substrates.

A gate driver circuit for applying a gate signal is formed at one end of the gate line, and a data driver circuit for applying a data signal is formed at one end of the data line.

The switching element is a thin film transistor, and includes a gate electrode formed on the first transparent substrate, a gate insulating film formed on the gate electrode, a semiconductor layer formed on the gate insulating film, and a source and drain electrode formed on the semiconductor layer. The drain electrode is electrically connected to the first transparent electrode.

The switching panel of claim 1, wherein the switching panel comprises: transparent first and second substrates; A plurality of gate lines arranged in a first direction on the first substrate; A plurality of data lines disposed perpendicular to the gate line to define a plurality of pixel regions; A switching element disposed at an intersection of the gate line and the data line and switching each pixel; A first transparent electrode defining at least one transmissive region in the pixel region; A non-transmissive region defined between the first transparent electrodes of the pixel region; A second transparent electrode formed on the second transparent substrate and formed in a region corresponding to the first transparent electrode; And a liquid crystal layer formed between the first and second transparent substrates and generating a non-transmissive region by the first and second transparent electrodes.

In addition, the display panel may be a liquid crystal display (LCD) panel, or may be one of a plasma display panel (PDP) panel, a field emission display (FED) panel, an electric luminescence (EL) panel, and a vacuum fluorescent display (VFD) panel. All.

Hereinafter, a stereoscopic image display device and a manufacturing method thereof according to the present invention will be described in detail with reference to the accompanying drawings.

3 schematically illustrates a stereoscopic image display device according to the present invention.

As shown in the figure, in the stereoscopic image display apparatus 100 of the present invention, a switching panel 120 in which the light transmitting area T and the non-light emitting area B are repeatedly arranged is disposed in front of the display panel 130. . Alternatively, the switching panel 120 may be disposed behind the display panel 130.

The display panel 130 may be selected from one of a liquid crystal display (LCD) panel, a plasma display panel (PDP) panel, a field emission display (FED) panel, an electric luminescence (EL) panel, and a vacuum fluorescent display (VFD) panel. In addition, all flat panel display panels can be applied. In addition, when a non-light emitting panel is used as the display panel 130, such as an LCD (Liquid Crystal Display) panel, a backlight for generating light on the display panel 130 should be separately configured.

The switching panel 120 forms a light transmitting area T and a non-light emitting area B according to driving of the liquid crystal, and the display panel 130 is a 3D image or a 3D image formed by the switching panel 120. The planar image 2D is selectively displayed.

In addition, the switching panel 120 partially generates the non-transmissive area B so that the display panel 130 can selectively display a stereoscopic image and a planar image on the same frame.                     

Here, the non-transmissive area B refers to an area that is blocked from viewing by the observer of the image displayed on the display panel 130, and the light-transmitting area T allows the image displayed on the display panel 130 to be viewed as it is. It means an area made transparent.

That is, when the non-transmissive area is not formed in the switching panel 120, the observer 110 sees the image appearing on the display panel 130 as it is through the switching panel 120, and at this time, the observer 110 Will see the plane image. However, when the non-transmissive area is partially formed in the switching panel 130, since the non-transmissive area B is formed regularly at a certain distance, the observer 110 displays a stereoscopic image. See

In more detail, the observer 110 sees an image displayed on the display panel 130 through the light transmitting area T of the switching panel 120, and the left eye and the left eye of the observer 110. The right eye sees different areas of the display panel 130, even though the same light transmitting area T is used. That is, the left eye sees the left eye correspondence pixel on the display panel 130, and the right eye sees the right eye correspondence pixel of the display panel 130, respectively. Accordingly, images corresponding to the left and right eyes are displayed on the corresponding pixels of the display panel 130 by the image processor (not shown), so that the observer 110 feels a three-dimensional effect.

In this case, the switching panel 120 is configured to form a non-transmissive region or a transmissive region only partially in the selected region. As such, when the switching panel 120 does not form a repetitive opaque region over the entire surface, and forms an opaque region only in a specific region, the observer simultaneously displays a stereoscopic image and a planar image through the display panel 130. Can be observed. That is, stereoscopic images are observed in regions where opaque regions are repeatedly formed, and planar images are observed in regions where only transmissive regions are formed.

Accordingly, when displaying straight lines or texts having poor clarity in the stereoscopic image mode, the switching panel is partially made into a light-transmissive area, thereby allowing the observer to observe clear text.

As described above, in order to enable the display panel to simultaneously implement a stereoscopic image and a planar image on the same frame, the switching panel is divided into a plurality of pixel regions, and a switching device is configured to switch each pixel independently. .

In other words, at least one transmissive region and a non-transmissive region can be formed in the pixel region by driving the switching element, and the pixels are individually switched to realize a stereoscopic image and a planar image.

4 and 5 illustrate a switching panel according to the present invention. FIG. 4 is a plan view schematically illustrating the switching panel, and FIG. 5 is a cross-sectional view taken along line II ′ of FIG. 4.

As shown in the figure, the switching panel 120 of the present invention includes a liquid crystal layer formed between the first transparent substrate 110 and the second transparent substrate 150 and the first and second transparent substrates 110 and 150. 140). For convenience of description, the second transparent substrate is omitted from the plan view shown in FIG. 4.

The first transparent substrate 110 includes a plurality of gate lines 101 arranged in a first direction on the first transparent substrate 110 and a plurality of data lines 103 arranged perpendicularly to the gate lines 101. Define the pixel area of.                     

In this case, a switching element 109 for switching each pixel is formed in an area where the gate line 101 and the data line 103 cross each other, and the switching element 109 is a thin film transistor, and the gate electrode 101a. ) And a semiconductor layer 105 formed on the gate electrode 101a and source / drain electrodes 102a and 102b formed on the semiconductor layer 105. In this case, the gate electrode 101a and the semiconductor layer 105 are insulated by the gate insulating film 108, and the gate insulating film 108 is formed over the entire surface of the first transparent substrate 110. In addition, a protective film 111 is formed on an entire surface of the first transparent substrate 110 including the switching element 109, and a first transparent electrode electrically connected to the source electrode 102b on the protective film 111. 107 is formed.

In addition, a transparent organic pattern 145 is formed in the pixel region to form a light transmitting region T, and the organic pattern 145 is formed between the first transparent substrate 110 and the second transparent substrate 150. A gap is formed, and the liquid crystal layer 140 is formed between the first and second transparent substrates 110 and 150 formed by the organic pattern 145. In this case, the organic pattern 145 may use photo acryl and the like, and any material may be used as long as it is a transparent organic material such as benzocyclobutene (BCB).

In addition, a second transparent electrode 157 is formed on the second transparent substrate 150 to drive the liquid crystal 140 together with the first transparent electrode 107. As a signal is applied to the two transparent electrodes 107 and 157, a non-transmissive area B is formed to block light. In this case, the first and second transparent electrodes 107 and 157 may be formed of a transparent conductive material such as indium tin oxide (ITO) or indium tin oxide (IZO).                     

Although not shown in the drawings, first and second polarizing plates are disposed on the rear surfaces of the first and second transparent substrates 110 and 150, respectively, and the initial directions of the liquid crystals are formed on the first and second transparent electrodes 107 and 157. The first and second alignment films to be determined are formed.

In this case, the rubbing directions of the first and second alignment layers are opposite to each other, and the polarization directions of the first and second polarizing plates coincide with the rubbing directions. That is, the polarization direction of the first polarizing plate is the same as the rubbing direction of the first transparent substrate 110, the polarization direction of the second polarizing plate is the same as the rubbing direction of the second transparent substrate, and the living direction is diagonal to the substrate. Has a direction.

The switching panel 120 configured as described above switches the stereoscopic image mode and the planar image mode according to whether signals are applied to the first and second transparent electrodes 107 and 157. That is, when signals are applied to the first and second transparent electrodes 107 and 157, liquid crystals are driven along the electric field directions of the first and second transparent electrodes 107 and 157 to form the non-transmissive region B. Therefore, the parallax barrier type stereoscopic image display device in which the light transmitting area T in which the organic pattern 145 is formed and the non-light emitting area B formed by driving the liquid crystal are alternately arranged is realized.

On the other hand, when no signal is applied to the first and second transparent electrodes 107 and 157, the liquid crystal 140 transmits light as it is, thereby implementing a planar image.

6A and 6B illustrate driving of liquid crystals according to whether signals are applied to the first and second transparent electrodes, respectively.

First, as shown in FIG. 6A, when voltage is applied to the first and second transparent electrodes 107 and 157, an electric field is formed between the first transparent electrode 107 and the second transparent electrode 157, and the liquid crystal ( 140 is driven along the electric field direction. In this case, the liquid crystal adjusts the amount of light transmitted according to the intensity of the voltage. When the liquid crystal is arranged in the vertical direction (electric field direction), the liquid crystal displays a black screen. That is, the non-transmissive area B is formed.

On the other hand, as shown in FIG. 6B, when no voltage is applied to the first and second transparent electrodes 107 and 157, the liquid crystal 140 is arranged along the rubbing directions of the first and second substrates 110 and 150. The upper liquid crystal and the lower liquid crystal are arranged in opposite directions to each other so that the upper and lower liquid crystals are twisted. Therefore, the light incident from the backlight is transmitted through the second polarizing plate, the liquid crystal layer, and the first polarizing plate as it is, and displays white on the screen. That is, the light transmitting region T is formed.

At this time, since each pixel is driven independently by the switching element, the non-transmissive area T can be formed independently. For example, when an image and text are simultaneously displayed, an area where the image is displayed is implemented in a stereoscopic image mode, and an area where the text is displayed is implemented in a planar image mode, so that a stereoscopic image and a planar image are displayed on the same frame. Can be implemented at the same time.

In more detail, the parallax barrier in which the light transmitting area T and the non-light emitting area B are alternately arranged is driven by driving a pixel (liquid crystal) of a switching panel corresponding to an area where an image of the display panel is displayed. By forming a three-dimensional image, and by not driving the pixels of the switching panel corresponding to the area in which the text of the display panel is displayed, by forming a light-transmitting region (T), and implements a planar image, The planar image may be displayed on the same frame.                     

Therefore, a gate driver circuit and a data driver circuit for applying the gate signal and the data signal to the gate line and the data line, respectively, must be configured at one side of the gate line and the data line formed in the switching panel 120. Since the driving circuits have to select a stereoscopic image mode and a planar image mode for each pixel according to an image of the display panel, that is, an image or text (straight line, text, etc.), the driving circuit of the display panel and Should also be connected.

On the other hand, instead of the organic pattern which always forms the light-transmitting region T, by partially forming in the pixels of the first and second transparent electrodes, the light-transmitting region and the non-light-transmitting region can be selectively implemented in the pixel. That is, the parallax barrier may be implemented by partially forming the first and second transparent electrodes without forming the transparent electrode in the region corresponding to the organic pattern.

7 and 8 illustrate another embodiment of the present invention in which no organic pattern is formed. FIG. 7 is a plan view schematically illustrating a unit pixel, and FIG. 8 is a cross-sectional view taken along line II-II ′ of FIG. 7.

As shown in the figure, the switching panel 220 according to the present embodiment includes a liquid crystal formed between the first transparent substrate 210 and the second transparent substrate 250 and the first and second transparent substrates 210 and 250. Consists of layer 240. Only unit pixels are shown for convenience of description.

The first transparent substrate 210 has a plurality of gate lines 201 arranged in a first direction on the first transparent substrate 210 and a plurality of data lines 203 arranged vertically with the gate lines 201. Define the pixel area of.                     

In this case, a switching element 209 for switching each pixel is formed in an area where the gate line 201 and the data line 203 cross each other, and the switching element 209 is a thin film transistor, which is a gate electrode 201a. ) And a semiconductor layer 205 formed on the gate electrode 21a and source / drain electrodes 202a and 202b formed on the semiconductor layer 205. The gate electrode 201a and the semiconductor layer 205 are insulated by the gate insulating film 208, and the gate insulating film 208 is formed over the entire surface of the first transparent substrate 210. In addition, a protective film 211 is formed on an entire surface of the first transparent substrate 210 including the switching element 209, and a first transparent electrode electrically connected to the source electrode 202b on the protective film 211. The field 207 is formed. In this case, the first transparent electrodes 207 are formed to be spaced apart from each other by a predetermined interval, and they are electrically connected to each other.

In addition, a second transparent electrode 257 for driving the liquid crystal 240 together with the first transparent electrode 207 is formed on the second transparent substrate 250. As a signal is applied to the two transparent electrodes 207 and 257, a non-transmissive area B for blocking light is formed. That is, when an electric field is applied to a region where the first and second transparent electrodes 207 and 257 are formed, the region is changed to a non-transmissive region B, and the region where the transparent electrode is not formed is light-transmitted because no electric field is generated. The area T is maintained as it is. In this case, the first and second transparent electrodes 207 and 257 may be formed of a transparent conductive material such as indium tin oxide (ITO) or indium tin oxide (IZO).

Although not shown in the drawings, first and second polarizing plates are disposed on the rear surfaces of the first and second transparent substrates 210 and 250, respectively, and the initial direction of the liquid crystal is disposed on the first and second transparent electrodes 207 and 257. The first and second alignment films to be determined are formed.

In this case, the rubbing directions of the first and second alignment layers are opposite to each other, and the polarization directions of the first and second polarizing plates coincide with the rubbing directions. That is, the polarization direction of the first polarizing plate is the same as the rubbing direction of the first transparent substrate 210, the polarization direction of the second polarizing plate is the same as the rubbing direction of the second transparent substrate, and the living direction is diagonal to the substrate. Has a direction.

The switching panel 220 configured as described above switches the stereoscopic image mode and the planar image mode according to whether signals are applied to the first and second transparent electrodes 207 and 257. That is, since the liquid crystal is driven to form the non-transmissive region B in the pixel to which the signal is applied to the first and second transparent electrodes 207 and 257, the light-transmitting region T in which the electrode is not formed and the liquid crystal are driven. A parallax barrier type stereoscopic image display device in which the non-transmissive areas B formed by the alternating positions are alternately arranged is implemented.

On the other hand, the pixel to which no signal is applied to the first and second transparent electrodes 207 and 257 realizes a planar image.

9A and 9B illustrate driving of liquid crystals according to whether signals of the first and second transparent electrodes are applied, and the driving thereof is the same as in the previous embodiment.

First, as shown in FIG. 9A, when voltage is applied to the first and second transparent electrodes 207 and 257, an electric field is formed between the first transparent electrode 207 and the second transparent electrode 257, and the liquid crystal ( 240 is driven along the electric field direction. At this time, the liquid crystal adjusts the amount of light transmitted according to the intensity of the voltage, when the liquid crystal is arranged in the vertical direction (electric field direction), it displays a black screen. That is, the non-transmissive region B is formed, and the transmissive region T is formed in the region where the electrodes are spaced apart from each other. The second transparent electrode 257 may be formed on the entire surface of the second substrate 250.

On the other hand, as shown in FIG. 9B, when no voltage is applied to the first and second transparent electrodes 207 and 257, the liquid crystal 240 is arranged along the rubbing directions of the first and second substrates 210 and 250. The upper liquid crystal and the lower liquid crystal are arranged in opposite directions to each other so that the upper and lower liquid crystals are twisted. Therefore, the light incident from the backlight is transmitted through the second polarizing plate, the liquid crystal layer, and the first polarizing plate as it is, so that the entire switching panel becomes the light transmitting area T.

As described above, the present invention relates to a stereoscopic image display device that can selectively use a stereoscopic image mode and a planar image mode. In particular, the switching panel is composed of a plurality of pixels arranged in a matrix, and each pixel By configuring a switching device for switching individually, the stereoscopic image 3D and the planar image 2D can be switched for each pixel. That is, the basic concept of the present invention is to configure a pixel that can be driven individually as a switching panel. In the stereoscopic image mode, only an image (straight line, text, etc.) region having low clarity is realized as a planar image, so that a stereoscopic image display device of high definition can be obtained. to provide.

As described above, according to the present invention, by allowing the stereoscopic image and the planar image to be partially implemented on the same frame, the observer can observe a clearer image. That is, by partially embodying a planar image for an image having low sharpness due to the stereoscopic image, the resolution in the stereoscopic image mode may be further improved.

Claims (11)

A display panel displaying an image; And a switching panel attached to the display panel to selectively implement a stereoscopic image and a planar image on the same frame according to whether an electric signal is applied. The method of claim 1, wherein the switching panel, First and second transparent substrates; A plurality of gate lines arranged in a first direction on the first transparent substrate; A plurality of data lines arranged perpendicular to the gate line to define a plurality of pixels; A switching element formed at an intersection of the gate line and the data line, and configured to switch each pixel; A first transparent electrode for dividing at least one transmissive region and a non-transmissive region in the pixel region; A second transparent electrode formed on the second transparent substrate; And And a liquid crystal layer formed between the first and second transparent substrates and generating a non-transmissive region by the first and second transparent electrodes. The stereoscopic image display device of claim 2, further comprising a transparent organic pattern formed in the light-transmitting region and maintaining a gap between the first and second transparent substrates. The stereoscopic image display device of claim 3, wherein the organic pattern is made of photo acryl. The stereoscopic image display device of claim 2, further comprising a gate driving circuit formed at one end of the gate line to apply a gate signal. The stereoscopic image display device of claim 2, further comprising a data driving circuit formed at one end of the data line to apply a data signal. The method of claim 2, wherein the switching device, A gate electrode formed on the first transparent substrate; A gate insulating film formed on an entire surface of the first transparent substrate including the gate electrode; A semiconductor layer formed on the gate insulating film; And And a source and drain electrode formed on the semiconductor layer. The stereoscopic image display device of claim 7, wherein the first transparent electrode is electrically connected to the drain electrode. The method of claim 1, wherein the switching panel, Transparent first and second substrates; A plurality of gate lines arranged in a first direction on the first substrate; A plurality of data lines disposed perpendicular to the gate line to define a plurality of pixel regions; A switching element disposed at an intersection of the gate line and the data line and switching each pixel; A first transparent electrode defining at least one transmissive region in the pixel region; A non-transmissive region defined between the first transparent electrodes of the pixel region; A second transparent electrode formed on the second transparent substrate and formed in a region corresponding to the first transparent electrode; And And a liquid crystal layer formed between the first and second transparent substrates and generating a non-transmissive region by the first and second transparent electrodes. The stereoscopic image display device of claim 1, wherein the display panel is a liquid crystal display (LCD) panel. The display panel of claim 1, wherein the display panel comprises: 3. A stereoscopic image display device comprising one of a plasma display panel (PDP) panel, a field emission display (FED) panel, an electric luminescence (EL) panel, and a vacuum fluorescence display (VFD) panel.

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