WO2014169493A1 - Liquid crystal display panel and device thereof - Google Patents

Abstract

A liquid crystal display panel and a device thereof. The liquid crystal display panel comprises a first pixel unit (301) used for displaying a left-eye image and a second pixel unit (302) used for displaying a right-eye image that are adjacently arranged, where at least one of the pixel units comprises at least two liquid crystal areas (3011 and 3012), and, in the at least two liquid crystal display areas of the pixel unit, the liquid crystal area (3012) that is adjacent to the other pixel unit allows the brightness of a light that is emitted at an inclination to the other pixel unit and that is emitted from the liquid crystal display panel corresponding to the other pixel unit to be lower than the brightness of other lights. This scheme allows for effectively reduced crosstalk of signals for the two eyes.

Description

 Liquid crystal display panel and device thereof

[Technical Field]

The present invention relates to the field of liquid crystal display technology, and in particular, to a liquid crystal display panel and an apparatus therefor.

 【Background technique】

With the continuous development of 3D display technology, 3D new products and new technologies are emerging one after another, especially 3D TVs are favored by consumers. In the era when HDTV has become the mainstream product in the market, loading 3D display mode is one of the essential functions of large-size TV. However, simply stressing that the product has a 3D display effect can no longer meet the market demand, and consumers have higher requirements for image quality. Therefore, how to improve the picture quality has become one of the development directions of 3D display technology.

Pattern Retarder Compared with the shutter type 3D system, the 3D (polarized 3D) system has a 3D picture that is not flashed, has better stability, and the glasses to be worn are lighter, so it is not easy for people to watch for a long time. The eye causes too much fatigue. As shown in Figure 1, Pattern The Retarder 3D system includes a display 1, a polarizing plate 2, and a polarizing plate 3. Usually, the screen of the display 1 corresponding to the odd-line pixels is set to the left (or The right eye screen, and the screen of the display 1 corresponding to the even-line pixels is set to the other eye screen. The polarizing plate 2 and the polarizing plate 3 whose polarization states are perpendicular to each other are staggered on the corresponding left and right eye images, the polarizing plate 2 is used for the light passing through the left eye picture, and the polarizing plate 3 is used for the light passing through the right eye picture, thereby The eye picture signal is separated, so that the viewer's left eye receives the left eye picture light, and the right eye receives the right eye picture light, thereby viewing the 3D picture.

However, with the above configuration, when the viewer views from a larger angle of view, as shown in FIG. 2, the light originally set as the left-eye picture is easily received by the right eye of the viewer through the erroneous polarizing plate 3, and The light set to the right eye screen is easily received by the viewer's left eye through the erroneous polarizer 2, causing left and right eye signal crosstalk, so that the viewer sees the overlapping image.

 [Summary of the Invention]

The technical problem to be solved by the present invention is to provide a liquid crystal display panel and a device thereof, which can effectively reduce crosstalk of both eyes and improve display effect.

In order to solve the above technical problem, the present invention adopts a technical solution to provide a liquid crystal display panel including a plurality of first pixel units for displaying a left eye image and a plurality of second pixel units for displaying a right eye image. Wherein at least a portion of the first pixel unit and at least a portion of the second pixel unit are disposed adjacent to each other; at least one of the first pixel unit and the second pixel unit disposed adjacent to each other is included in the liquid crystal display panel At least two partial liquid crystal regions arranged in a plane, the components of the liquid crystal molecules in at least two of the regions are opposite in composition on the liquid crystal display panel, and the liquid crystal region of the at least two liquid crystal regions adjacent to the other pixel unit enables The brightness of the light emitted to the other pixel unit at an oblique angle and emitted from the liquid crystal display panel corresponding to the other pixel unit is lower than the brightness of the remaining light, and the brightness of the light is directed toward the other The exit angle of the pixel unit increases and gradually decreases.

The first pixel unit and the second pixel unit are alternately disposed adjacent to each other on a plane of the liquid crystal display panel, and both of the two pixel units are arranged in a plane of the liquid crystal display panel, and the two parts of the liquid crystal regions are arranged. The direction coincides with the alternate arrangement direction of the first pixel unit and the second pixel unit.

The first pixel unit and the second pixel unit are alternately disposed adjacent to each other on a plane of the liquid crystal display panel, and both of the liquid crystal regions are arranged in a plane of the liquid crystal display panel and are located in the middle of the two liquid crystal regions. In the central region, the arrangement direction of the two partial liquid crystal regions coincides with the alternate arrangement direction of the first pixel unit and the second pixel unit.

In order to solve the above technical problem, another technical solution adopted by the present invention is to provide a liquid crystal display panel including: a plurality of first pixel units for displaying a left eye image; and a plurality of second for displaying a right eye image a pixel unit; wherein at least a portion of the first pixel unit and at least a portion of the second pixel unit are disposed adjacent to each other; of the first pixel unit and the second pixel unit disposed adjacent to each other, at least one of the pixel units is included in the liquid crystal Displaying at least two partial liquid crystal regions arranged in a plane of the panel, and a liquid crystal region of the at least two partial liquid crystal regions adjacent to the other pixel unit, which is emitted at an oblique angle to another pixel unit and from the other pixel The brightness of the light emitted by the liquid crystal display panel corresponding to the unit is lower than the brightness of the remaining light.

The first pixel unit and the second pixel unit are alternately disposed adjacent to each other on a plane of the liquid crystal display panel, and both of the two pixel units are arranged in a plane of the liquid crystal display panel, and the two parts of the liquid crystal regions are arranged. The direction coincides with the alternate arrangement direction of the first pixel unit and the second pixel unit.

The first pixel unit and the second pixel unit are alternately disposed adjacent to each other on a plane of the liquid crystal display panel, and both of the liquid crystal regions are arranged in a plane of the liquid crystal display panel and are located in the middle of the two liquid crystal regions. In the central region, the arrangement direction of the two partial liquid crystal regions coincides with the alternate arrangement direction of the first pixel unit and the second pixel unit.

Wherein, the director of the liquid crystal molecules in the two partial liquid crystal regions has opposite components on the plane of the liquid crystal display panel.

Wherein the liquid crystal region adjacent to the other pixel unit in the two-part liquid crystal region causes the brightness of the light to gradually decrease as the exit angle toward the other pixel unit increases.

In order to solve the above technical problem, another technical solution adopted by the present invention is to provide a liquid crystal display device, including a liquid crystal display panel, the liquid crystal display panel includes: a plurality of first pixel units for displaying an image of a left eye; a second pixel unit that displays an image of the right eye; wherein at least a portion of the first pixel unit and at least a portion of the second pixel unit are disposed adjacent to each other; at least the first pixel unit and the second pixel unit disposed adjacent to each other, at least One of the pixel units includes at least two partial liquid crystal regions arranged in a plane of the liquid crystal display panel, and a liquid crystal region of the at least two liquid crystal regions adjacent to the other pixel unit, which is emitted at an oblique angle to another pixel unit And the brightness of the light emitted from the liquid crystal display panel corresponding to the other pixel unit is lower than the brightness of the remaining light.

The first pixel unit and the second pixel unit are alternately disposed adjacent to each other on a plane of the liquid crystal display panel, and both of the two pixel units are arranged in a plane of the liquid crystal display panel, and the two parts of the liquid crystal regions are arranged. The direction coincides with the alternate arrangement direction of the first pixel unit and the second pixel unit.

The first pixel unit and the second pixel unit are alternately disposed adjacent to each other on a plane of the liquid crystal display panel, and both of the liquid crystal regions are arranged in a plane of the liquid crystal display panel and are located in the middle of the two liquid crystal regions. In the central region, the arrangement direction of the two partial liquid crystal regions coincides with the alternate arrangement direction of the first pixel unit and the second pixel unit.

Wherein, the director of the liquid crystal molecules in the two partial liquid crystal regions has opposite components on the plane of the liquid crystal display panel.

Wherein the liquid crystal region adjacent to the other pixel unit in the two-part liquid crystal region causes the brightness of the light to gradually decrease as the exit angle toward the other pixel unit increases. .

The invention has the beneficial effects that, in the liquid crystal display panel of the present invention, the first pixel unit for displaying the left eye image and the second pixel unit for displaying the right eye image are at least partially adjacent to each other. Providing a liquid crystal region adjacent to another pixel unit in at least two portions of the liquid crystal display region of one of the pixel units, the liquid crystal region being emitted to the other pixel unit at an oblique angle and corresponding to the liquid crystal display corresponding to the other pixel unit The brightness of the light emitted by the panel is lower than the brightness of the remaining light, thereby making the intensity of the light incident on the liquid crystal region and obliquely from the liquid crystal display panel corresponding to the other pixel unit weaker, that is, from another The error light emitted by the liquid crystal display panel corresponding to the pixel unit is weak, which effectively reduces the crosstalk of the binocular signals.

 [Description of the Drawings]

1 is a schematic structural diagram of a Pattern Retarder 3D system in the prior art;

2 is a schematic diagram of an optical path of signal crosstalk occurring in the Pattern Retarder 3D system of FIG. 1;

3 is a side view showing a structure of an embodiment of a liquid crystal display panel of the present invention;

4 is a schematic view showing a director of liquid crystal molecules in the liquid crystal display panel of FIG. 3;

5 is a side view showing a structure of another embodiment of a liquid crystal display panel of the present invention;

Fig. 6 is a side elevational view showing still another embodiment of the liquid crystal display panel of the present invention.

 【detailed description】

The invention will now be described in detail in conjunction with the drawings and embodiments.

Referring to FIG. 3, in an embodiment of the liquid crystal display panel of the present invention, the liquid crystal display panel includes an array substrate 31, a color filter substrate 32, and a liquid crystal layer 33 between the array substrate 31 and the color filter substrate 32, and further includes a lower polarized light. Sheet 34 and upper polarizer 35. The liquid crystal display panel mainly realizes a light and dark display by the cooperation of the liquid crystal layer 33 and the upper and lower polarizers 35 and 34. The liquid crystal layer 33 functions mainly by rotating the polarization direction of the light by the arrangement of the liquid crystal molecules to control whether or not the light passes through the upper polarizing plate 35. When the polarization direction of the light passing through the liquid crystal layer 33 does not rotate and does not coincide with the polarization direction of the upper polarizer 35, the light cannot pass through the upper polarizer 35, so that the liquid crystal display panel displays a dark state, and the polarization of the light passing through the liquid crystal layer 33 When the direction is twisted by the liquid crystal molecules to coincide with the polarization direction of the upper polarizer 35, the light can pass through the upper polarizer 35, so that the liquid crystal display panel displays a clear state. When the light passes through the upper polarizer 35, the angle between the polarization direction and the polarization direction of the upper polarizer 35 determines the intensity of the light output from the liquid crystal display panel. The larger the angle is, the weaker the light output from the liquid crystal display panel is, and the smaller the angle is, the stronger the light output from the liquid crystal display panel is. Therefore, by controlling the liquid crystal layer 33, the alignment direction of the liquid crystal molecules can be controlled, so that the liquid crystal display panel reaches a display of different gray scales.

In order to realize 3D stereoscopic display, the liquid crystal display panel includes a plurality of first pixel units 301 for displaying left eye images and a plurality of second pixel units 302 for displaying right eye images. Correspondingly, the array substrate 31 includes a plurality of L sub-pixels for displaying a left-eye image and a plurality of R sub-pixels for displaying a right-eye image. The first pixel unit 301 corresponds to the L sub-pixels of the array substrate 31 , and the second pixel unit 302 corresponds to the R sub-pixels of the array substrate 31 . The first pixel unit 301 and the second pixel unit 302 are disposed adjacent to each other. In this embodiment, the first pixel unit 301 includes two liquid crystal regions arranged in a plane on the liquid crystal display panel, that is, the liquid crystal layer 33 of the first pixel unit 301 is divided into two liquid crystal regions, which are respectively a first liquid crystal region 3011 and a second Liquid crystal region 3012. The second liquid crystal region 3012 is adjacent to the second pixel unit 302, and passes through the second liquid crystal region 3012 to emit light at an oblique angle to the second pixel unit 302 and emitted from the display panel corresponding to the second pixel unit (as shown in FIG. 3). The brightness of the illustrated light a) is lower than the brightness of the remaining light (light b as shown in Figure 3).

Specifically, the L sub-pixels corresponding to the first pixel unit 301 are also divided into two sub-pixel regions, which are respectively an L1 sub-pixel region and an L2 sub-pixel region. The L1 sub-pixel region corresponds to the first liquid crystal region 3011 of the first pixel unit 301, and the L2 sub-pixel region corresponds to the second liquid crystal region 3012. When the liquid crystal layer 33 is formed, the alignment directions of the liquid crystal molecules 3013 in the first liquid crystal region 3011 and the liquid crystal molecules 3014 in the second liquid crystal region 3012 are made different, and the liquid crystal molecules 3013, 3014 in the two partial liquid crystal regions 3011, 3012 are made. The director has the opposite component on the plane of the liquid crystal display panel (i.e., the plane on which the x-axis is located, that is, the plane on which the array substrate 31 is located). Further, in conjunction with FIG. 4, the y-axis direction is referred to as the reference direction, and the liquid crystal molecules 3013 in the first liquid crystal region 3011 are arranged obliquely upward and leftward, that is, the direction of the director E of the liquid crystal molecules 3013 is tilted upward and leftward, and the second The liquid crystal molecules 3014 in the liquid crystal region 3012 are arranged obliquely upward and rightward, that is, the direction of the director F of the liquid crystal molecules 3013 is inclined upward and rightward. The direction of the component Ex of the director E of the liquid crystal molecules 3013 on the x-axis is opposite to the direction of the component Fx of the director F of the liquid crystal molecules 3014 on the x-axis.

Therefore, the liquid crystal molecules 3013 and 3014 of the two-part liquid crystal regions 3011 and 3012 are respectively arranged obliquely upward to the left and obliquely to the right, and the two liquid crystal molecules 3013 and 3014 are arranged obliquely. It is known from the optical characteristics of the liquid crystal that the alignment direction of the liquid crystal molecules determines the ability to rotate the polarized light. For the second liquid crystal region 3012 adjacent to the second pixel unit 302 in the first pixel unit 301, the liquid crystal molecules 3014 are arranged obliquely upward and rightward, and enter the second liquid crystal region 3012 of the first pixel unit 301 and obliquely incident to the second. The backlight direction of the liquid crystal layer 33 in the pixel unit 302 is uniform or close, and the liquid crystal molecules 3014 have no ability to rotate the polarization direction for the obliquely propagating light, or the ability to rotate the polarization direction is lower than the rest of the light, such as lower than entering the first The second liquid crystal region 3012 of the pixel unit 301 and the backlight that is vertically emitted from the liquid crystal display panel.

During the operation of the liquid crystal display panel, after the backlight 36 enters the lower polarizer 34 from below the lower polarizer 34 to become polarized light, the partially polarized light enters the second liquid crystal region 3012 in the first pixel unit 301. When the angle of inclination of the polarized light passing through the second liquid crystal region 3012 coincides with the tilt angle of the liquid crystal molecules 3014, since the liquid crystal molecules 3014 do not change the polarization direction of the polarized light or change less, the partially polarized light passes directly through the second The liquid crystal region 3012 is incident on the liquid crystal layer 33 in the second pixel unit 302, and then exits to the upper polarizer 35, and is finally blocked or partially blocked by the upper polarizer 35. The smaller the angle between the oblique direction of the light and the oblique direction of the liquid crystal molecules 3014, the smaller the angle of the polarization direction of the liquid crystal molecules 3014, that is, the polarization between the polarization direction of the light and the polarization direction of the upper polarizer 35. The angle tends to be 90 degrees, so that the light that the upper polarizer 35 can pass is less, and the brightness of the liquid crystal display panel is weaker. Therefore, the angle between the oblique direction of the light ray a which is emitted to the second pixel unit 302 at an oblique angle and the oblique direction of the liquid crystal molecules 3014 is compared with the angle between the oblique direction of the other light ray b and the oblique direction of the liquid crystal molecules 3014. The angle between the liquid crystal molecules 3014 and the polarization direction of the upper polarizer 35 is relatively large, so that only a small amount of light a can pass through the upper polarizer 35. That is, only the component of the light ray a having the same polarization direction as that of the upper polarizer 35 can pass through the upper polarizer 35, so that the first pixel unit 301 reaches the second pixel unit 302 and the second pixel unit 302 corresponds to The brightness of the light a emitted from the liquid crystal display panel is weak. The light incident on the first pixel unit 301 is used to display the left eye image, and the light incident on the second pixel unit 302 is used to display the right eye image, and thus the light a is the light for displaying the left eye image, which should be from the first The liquid crystal display panel corresponding to the pixel unit 301 is emitted. For the second pixel unit 302, the light a is a crosstalk signal, but by the action of the liquid crystal molecules 3014, the light brightness is reduced when the light a is emitted from the liquid crystal display panel, thereby reducing the viewer. The received error signal effectively reduces the crosstalk of both eyes. Further, in a threshold range in which the inclination angle of the liquid crystal molecules 3014 is the maximum inclination angle (for example, in the range of 60 degrees), as the viewing angle of the rightward direction is larger, the angle of view to the second pixel unit 302 is emitted at an oblique angle. The larger the inclination angle of the light, and the more inclined it is to coincide with the inclination angle of the liquid crystal molecules 3014, the larger the angle between the polarization direction and the polarization direction of the upper polarizer 35 after being emitted through the liquid crystal molecules 3014, so that the upper polarizer is passed. The less the light of 35, the lower the brightness of the light emitted from the liquid crystal display panel, so that the less the crosstalk signal is seen when viewed from a large viewing angle, the crosstalk of the two eyes is effectively reduced, and the viewing angle of the liquid crystal display panel is improved.

Further, with respect to the first liquid crystal region 3011, the liquid crystal molecules 3013 are obliquely arranged to the left and leftward, and are also capable of being emitted at an oblique angle to another pixel unit (not shown) adjacent thereto and from the liquid crystal corresponding to the other pixel unit. The brightness of the light emitted from the display panel is lower than the brightness of the remaining light, and as the viewing angle of the leftward direction increases, the twist angle of the liquid crystal molecules 3013 to the light that is emitted to the other pixel unit at an oblique angle is smaller, thereby The weaker the brightness of the erroneous light emitted from the liquid crystal display panel, the more the viewing angle of the liquid crystal display panel is improved.

It should be noted that when the display of the liquid crystal display panel is driven, the voltage applied to the array substrate 31 and the color filter substrate 32 changes, so that the alignment directions of the liquid crystal molecules 3013 and 3014 also change. However, the alignment direction of the portion of the liquid crystal molecules 3013, 3014 adjacent to the array substrate 31 and the color filter substrate 32 does not change with the electric field change, thereby ensuring that the liquid crystal molecules 3013, 3014 of this portion achieve the effect of reducing the crosstalk signal. The liquid crystal molecules 3013 and 3014 located at the intermediate position may change in the arrangement direction when the electric field changes, but the arrangement direction still maintains the previous alignment tendency, that is, there is still an angle tendency, and thus it may be to some extent. The improvement of the binocular signal crosstalk is improved, and the improvement range varies with different electric fields. As a whole, the liquid crystal molecules 3013, 3014 at the intermediate position when the electric field changes have the effect of reducing the crosstalk of the binocular signals. Therefore, in the case where the liquid crystal display panel operates normally, when the voltage applied to the array substrate 31 and the color filter substrate 32 changes, the liquid crystal molecules 3013, 3014 of the present embodiment can still achieve the effect of reducing the crosstalk of the binocular signals.

In the liquid crystal display panel of the present embodiment, the first pixel unit 301 includes a first liquid crystal region 3011 and a second liquid crystal region 3012, and for one of the liquid crystal regions, such as the second liquid crystal region 3012, the liquid crystal molecules thereof 3014 is arranged obliquely upward and right, so that the brightness of the light emitted to the adjacent second pixel unit 302 at an oblique angle and emitted from the liquid crystal display panel corresponding to the second pixel unit 302 is low, that is, from the second pixel unit 302. The corresponding liquid crystal display panel emits less erroneous light, which effectively reduces crosstalk of both eyes.

In the above embodiment, the first pixel unit 3011 for displaying the left eye image includes two partial liquid crystal regions 3011, 3012, which are tilted by tilting the liquid crystal molecules 3013, 304 in the two partial liquid crystal regions 3011, 3012, respectively. The brightness of the erroneous light emitted from the first pixel unit 301 to the second pixel unit 302 and emitted from the liquid crystal display panel corresponding to the second pixel unit 302 is weakened, thereby reducing the binocular signal crosstalk. In another embodiment, as shown in FIG. 5, the first pixel unit 501 for displaying the left eye image and the second pixel unit 502 for the image like the right eye are alternately disposed adjacent to each other on the liquid crystal display panel, and The first pixel unit 501 and the second pixel unit 502 each include a two-part liquid crystal region. The first pixel unit includes a first liquid crystal region 5011 and a second liquid crystal region 5012, and the second pixel unit 502 includes a third liquid crystal region 5021 and a fourth liquid crystal region 5022. The liquid crystal molecules in the first liquid crystal region 5011 and the third liquid crystal region 5021 are arranged in the same direction, and are arranged obliquely upward and leftward. The alignment directions of the liquid crystal molecules in the second liquid crystal region 5012 and the fourth liquid crystal region 5022 are the same. Tilt up and to the right. The arrangement direction of the two-part liquid crystal regions coincides with the alternate arrangement direction of the first pixel unit 501 and the second pixel unit 502. According to the liquid crystal display panel of the present embodiment, the brightness of the erroneous light emitted from the first pixel unit 501 to the second pixel unit 502 at an oblique angle and emitted from the liquid crystal display panel corresponding to the second pixel unit 502 can be weakened to be inclined. The brightness of the erroneous light emitted from the second pixel unit 502 to the first pixel unit 501 and the liquid crystal display panel corresponding to the first pixel unit 501 is weakened, so that the crosstalk of the two-eye signal can be further reduced, and the specific implementation process can be referred to. The above embodiments are performed, and are not described herein.

The present invention further provides a further embodiment of the liquid crystal display panel. Referring to FIG. 6, in the embodiment, the first pixel unit 601 is configured to display a left eye image, and the second pixel unit 602 is configured to display a right eye image. The first pixel unit 601 and the second pixel unit 602 of the liquid crystal display panel are alternately disposed adjacent to each other on the liquid crystal display panel plane, and the first pixel unit 601 and the second pixel unit 602 each include a three-part area. The first pixel unit 601 includes first and second liquid crystal regions 6011 and 6012, and a first central region 6013 located between the first and second liquid crystal regions 6011 and 6012. The second pixel unit 602 includes third and fourth pixels. The liquid crystal regions 6021, 6022, and the second central region 6023 located between the third and fourth liquid crystal regions 6021, 6022. The liquid crystal molecules in the first liquid crystal region 6011 and the third liquid crystal region 6021 are arranged in the same direction, and are arranged obliquely upward and leftward. The liquid crystal molecules in the second liquid crystal region 6012 and the fourth liquid crystal region 6022 are arranged in the same direction, and are upwardly biased. Tilt to the right. The arrangement direction of the first and second liquid crystal regions 6011, 6012 and the third and fourth liquid crystal regions 6021, 6022 coincides with the alternate arrangement direction of the first pixel unit 601 and the second pixel unit 602.

The present invention also provides an embodiment of a liquid crystal display device including the liquid crystal display panel of each of the above embodiments.

The above is only the embodiment of the present invention, and is not intended to limit the scope of the invention, and the equivalent structure or equivalent process transformations made by the description of the invention and the drawings are directly or indirectly applied to other related technologies. The fields are all included in the scope of patent protection of the present invention.

Claims (13)

1. A liquid crystal display panel, comprising:

   a plurality of first pixel units for displaying a left eye image;

   a plurality of second pixel units for displaying a right eye image;

   among them,

   At least a portion of the first pixel unit and at least a portion of the second pixel unit are disposed adjacent to each other;

   At least one of the first pixel unit and the second pixel unit disposed adjacent to each other includes at least two partial liquid crystal regions arranged in a plane of the liquid crystal display panel, and directors of liquid crystal molecules in the at least two partial regions The components on the liquid crystal display panel are opposite, and the liquid crystal region of the at least two partial liquid crystal regions adjacent to the other pixel unit is emitted to the other pixel unit at an oblique angle and from the other pixel unit The brightness of the light emitted by the corresponding liquid crystal display panel is lower than the brightness of the remaining light, and the brightness of the light is gradually decreased as the exit angle toward the other pixel unit increases.
2. The liquid crystal display panel according to claim 1, wherein

   The first pixel unit and the second pixel unit are alternately disposed adjacent to each other on a plane of the liquid crystal display panel, and both of the two pixel units are arranged in a plane of the liquid crystal display panel, and the arrangement direction of the two liquid crystal regions is The alternate arrangement directions of the first pixel unit and the second pixel unit are the same.
3. The liquid crystal display panel according to claim 1, wherein

   The first pixel unit and the second pixel unit are alternately disposed adjacent to each other on a plane of the liquid crystal display panel, both of which include the two-part liquid crystal region arranged in a plane of the liquid crystal display panel and a center located in the middle of the two liquid crystal regions The area, the arrangement direction of the two partial liquid crystal regions is consistent with the alternate arrangement direction of the first pixel unit and the second pixel unit.
4. A liquid crystal display panel, comprising:

   a plurality of first pixel units for displaying a left eye image;

   a plurality of second pixel units for displaying a right eye image;

   among them,

   At least a portion of the first pixel unit and at least a portion of the second pixel unit are disposed adjacent to each other;

   And at least one of the first pixel unit and the second pixel unit disposed adjacent to each other includes at least two partial liquid crystal regions arranged in a plane of the liquid crystal display panel, and adjacent to the other one of the at least two partial liquid crystal regions A liquid crystal region of the pixel unit that emits light at an oblique angle to another pixel unit and emits light from a liquid crystal display panel corresponding to the other pixel unit at a lower luminance than that of the remaining light.
5. The liquid crystal display panel according to claim 4, wherein

   The first pixel unit and the second pixel unit are alternately disposed adjacent to each other on a plane of the liquid crystal display panel, and both of the two pixel units are arranged in a plane of the liquid crystal display panel, and the arrangement direction of the two liquid crystal regions is The alternate arrangement directions of the first pixel unit and the second pixel unit are the same.
6. The liquid crystal display panel according to claim 4, wherein

   The first pixel unit and the second pixel unit are alternately disposed adjacent to each other on a plane of the liquid crystal display panel, both of which include the two-part liquid crystal region arranged in a plane of the liquid crystal display panel and a center located in the middle of the two liquid crystal regions The area, the arrangement direction of the two partial liquid crystal regions is consistent with the alternate arrangement direction of the first pixel unit and the second pixel unit.
7. The liquid crystal display panel according to claim 4, wherein

   The director of the liquid crystal molecules in the two-part liquid crystal region has opposite components on the plane of the liquid crystal display panel.
8. The liquid crystal display panel according to claim 4, wherein

   A liquid crystal region adjacent to another pixel unit in the two-part liquid crystal region causes the brightness of the light to gradually decrease as the exit angle toward the other pixel unit increases.
9. A liquid crystal display device includes a liquid crystal display panel, and the liquid crystal display panel includes:

   a plurality of first pixel units for displaying a left eye image;

   a plurality of second pixel units for displaying a right eye image;

   among them,

   At least a portion of the first pixel unit and at least a portion of the second pixel unit are disposed adjacent to each other;

   And at least one of the first pixel unit and the second pixel unit disposed adjacent to each other includes at least two partial liquid crystal regions arranged in a plane of the liquid crystal display panel, and adjacent to the other one of the at least two partial liquid crystal regions A liquid crystal region of the pixel unit that emits light at an oblique angle to another pixel unit and emits light from a liquid crystal display panel corresponding to the other pixel unit at a lower luminance than that of the remaining light.
10. The apparatus according to claim 9, wherein

    The first pixel unit and the second pixel unit are alternately disposed adjacent to each other on a plane of the liquid crystal display panel, and both of the two pixel units are arranged in a plane of the liquid crystal display panel, and the arrangement direction of the two liquid crystal regions is The alternate arrangement directions of the first pixel unit and the second pixel unit are the same.
11. The apparatus according to claim 9, wherein

    The first pixel unit and the second pixel unit are alternately disposed adjacent to each other on a plane of the liquid crystal display panel, both of which include the two-part liquid crystal region arranged in a plane of the liquid crystal display panel and a center located in the middle of the two liquid crystal regions The area, the arrangement direction of the two partial liquid crystal regions is consistent with the alternate arrangement direction of the first pixel unit and the second pixel unit.
12. The apparatus according to claim 9, wherein

    The director of the liquid crystal molecules in the two-part liquid crystal region has opposite components on the plane of the liquid crystal display panel.
13. The apparatus according to claim 9, wherein

    A liquid crystal region adjacent to another pixel unit in the two-part liquid crystal region causes the brightness of the light to gradually decrease as the exit angle toward the other pixel unit increases.

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