TW201433853A - Stereoscopic display having a 3D image display function and method of manufacturing the same - Google Patents

Abstract

A stereoscopic display having a 3D image display function includes a backlight module, a LCD panel and a stereoscopic film. The LCD panel is disposed on the backlight module. The LCD panel has a plurality of pixels arranged as a matrix, each pixel is composed of at least three color dots, and the at least three color dots are a red dot, a green dot and a blue dot, respectively. The stereoscopic film is disposed on the LCD panel. The stereoscopic film has a plurality of line pattern barriers, and three of the line pattern barriers are respectively defined as a first, a second and a third alignment lines. One of the color dot of one of the pixels adjacent to the left upper corner of the LCD panel is defined as a first alignment point, one of the color dot of one of the pixels adjacent to the left lower corner of the LCD panel is defined as a second alignment point, and one of the color dot of one of the pixels adjacent to the right upper corner of the LCD panel is defined as a third alignment point. When the stereoscopic film is attached to the LCD panel, the first, the second and the third alignment points are respectively corresponding and aligning the first, the second and the third alignment lines.

Description

Stereoscopic display with stereoscopic image display function and manufacturing method thereof

The present invention relates to a stereoscopic display and a method of fabricating the same, and more particularly to a stereoscopic display having a stereoscopic image display function and a method of fabricating the same.

With the evolution of optoelectronics and semiconductor technology, the development of flat panel displays has been promoted. Among many flat panel displays, liquid crystal displays (LCDs) have superior characteristics such as high space utilization efficiency, low power consumption, no radiation, and low electromagnetic interference. It immediately became the mainstream product of the market. It is well known that a liquid crystal display includes a liquid crystal display panel and a backlight module. Since the liquid crystal display panel itself does not have self-luminous characteristics, the backlight module must be disposed under the liquid crystal display panel to provide liquid crystal. The surface light source required for the display panel. In this way, the liquid crystal display can display the image image for the user to watch.

With the advancement of liquid crystal displays, the display technology of three-dimensional (3D) stereoscopic images has developed rapidly and has gradually penetrated into consumer life. In general, stereoscopic image display technology is implemented through the eyes of the user and in accordance with the principles of stereoscopic vision. Conventionally, a 3D stereoscopic image display device is designed based on the basis of binocular parallax, so that the user's left eye only views the image for the left eye and the right eye only sees the image for the right eye. Since the human eyes are about 5 to 7 cm apart from each other, there is binocular parallax, that is, the images seen by the two eyes are different images with slight differences due to the difference in position between the left and right eyes. This eye position difference caused by the left and right eyes The difference between the images is called binocular parallax. The use of binocular parallax to create a three-dimensional display is often achieved by wearing special instruments. Common methods include using polarized glasses, red and blue (green) glasses, shutter glasses, and helmet-type displays.

However, the display method described above requires the user to wear a special device to view a stereoscopic image regardless of the cost, and thus it is inconvenient for the user. In order to increase the diversification of applications and obtain more natural 3D stereoscopic images, in recent years, emphasis has been placed on developing a naked-eye 3D stereoscopic display device that can view stereoscopic images without wearing any special instruments. The optical technologies used in the naked-eye type 3D stereoscopic display device mainly include "column lens" and "parallax barrier" or "parallax barrier". The basic principle of the "lenticular lens" technology is mainly to use the principle of convex lens refraction, while splitting the image to the left and right eyes to achieve a three-dimensional effect. The "parallax barrier" uses the nature of the linear propagation of light to transmit a multi-view image through a parallax barrier consisting of a series of fine slits, which are then incident on both eyes to produce stereoscopic vision.

However, the liquid crystal display panel of the conventional naked-eye 3D stereoscopic display device and the stereoscopic film also need to be aligned by an additional alignment structure, so that the accuracy of the alignment alignment cannot be effectively improved (yield). With speed (yield).

Embodiments of the present invention provide a stereoscopic display having a stereoscopic image display function and a method of fabricating the same.

A stereoscopic display with a stereoscopic image display function includes a backlight module, a liquid crystal display panel and a stereoscopic film. The liquid crystal display panel is disposed on the backlight module, wherein the liquid crystal display panel has a plurality of pixels arranged in a matrix, each of the pixels being composed of at least three dots (dot), and At least three of the color points are a red dot, a green dot, and a blue dot. The three-dimensional film is disposed on the liquid crystal display panel, wherein the three-dimensional film has a plurality of line pattern barrier layers, and three of the plurality of linear pattern barrier layers are respectively defined A first bonding alignment line, a second bonding alignment line, and a third bonding alignment line. Wherein, close to the liquid One of the pixels in the upper left corner of the crystal display panel is defined as a first bonding pair site, adjacent to one of the lower left corners of the liquid crystal display panel One of the color points in the pixel is defined as a second bonding pair, and one of the pixels near the upper right corner of the liquid crystal display panel is defined as one The third bonding pair is located, and the first bonding pair, the second bonding pair, and the third bonding pair respectively correspond to and are aligned with the first bonding The alignment line, the second bonding alignment line, and the third bonding alignment line.

A method for fabricating a stereoscopic display having a stereoscopic image display function according to another embodiment of the present invention includes the following steps: first, the liquid crystal display panel is pre-assembled on the backlight module; and then, the a backlight module for providing a predetermined backlight source to the liquid crystal display panel; and then capturing the first bonding pair site, the second bonding pair site, and the first portion of the liquid crystal display panel Thirdly aligning the pair of points, and extracting the first bonding alignment line, the second bonding alignment line, and the third bonding alignment line of the three-dimensional film; The first bonding pair, the second bonding pair, and the third bonding pair respectively correspond to and aligned with the first bonding alignment line and the second bonding Aligning the alignment line and the third bonding alignment line to attach and press the three-dimensional film on the liquid crystal display panel; and then, through an image capturing module, to verify The backlight module, the liquid crystal display panel and the three-dimensional film are combined with each other Body image; Finally, irradiation by UV light to cure the film is a perspective view of the liquid crystal display panel.

According to still another embodiment of the present invention, a method for fabricating a stereoscopic display having a stereoscopic image display function includes the following steps: first, providing a predetermined backlight source to the liquid crystal display panel; and then capturing the liquid crystal display The first bonding pair site, the second bonding pair site, and the third bonding pair site of the panel, and extracting the first bonding alignment line of the three-dimensional film, The second bonding alignment line and the third bonding alignment line; and then, through the first bonding pair, The second bonding pair site and the third bonding pair site respectively correspond to and are aligned with the first bonding alignment bit line, the second bonding alignment bit line, and the third sticker Aligning the aligned lines to attach and press the three-dimensional film on the liquid crystal display panel; next, through an image capturing module, to verify the predetermined backlight source, the liquid crystal a stereoscopic image generated by the display panel and the three-dimensional film cooperating; then, the ultraviolet film is irradiated to cure the three-dimensional film on the liquid crystal display panel; finally, the three-dimensional film is attached The liquid crystal display panel is assembled on the backlight module.

The present invention provides a stereoscopic display and a method for fabricating the same according to the embodiments of the present invention, which are permeable to the first bonding pair, the second bonding pair, and the third Aligning the corresponding points and aligning with the first bonding pair line, the second bonding pair line, and the third bonding pair line" and "passing the first bonding" Corresponding to the first bonding pair bit line, the second bonding pair bit line and the corresponding point, the second bonding pair site and the third bonding pair site respectively a third alignment of the alignment of the alignment lines to attach and press the three-dimensional film on the liquid crystal display panel to enhance the attachment of the three-dimensional film to the liquid crystal display panel Accuracy (yield) and speed (yield).

For a better understanding of the features and technical aspects of the present invention, reference should be made to the accompanying drawings.

Z‧‧‧ stereo display

1‧‧‧Backlight module

L‧‧‧Prepared backlight source

2‧‧‧LCD panel

20‧‧ ‧ pixels

200‧‧‧ color point

2001‧‧‧First Fit Matching Site

2002‧‧‧Second fit point

2003‧‧‧ Third fit point

2004 ‧ ‧ fourth fit point

2005‧‧‧Fifth fit point

20010‧‧‧First long side

20020‧‧‧Second long side

20030‧‧‧ third long side

20040‧‧‧4th long side

20050‧‧‧5th long side

R‧‧‧Red dot

G‧‧‧Green Point

B‧‧‧Blue Point

C1‧‧‧ upper left corner

C2‧‧‧ bottom left corner

C3‧‧‧ at the top right corner

C4‧‧‧ at the bottom right corner

C5‧‧‧Central Office

3‧‧‧Three-dimensional film

30‧‧‧Linear pattern barrier

301‧‧‧First fitted alignment line

302‧‧‧Second-fitted alignment line

303‧‧‧ third matching alignment line

304‧‧‧4th matching alignment line

305‧‧‧Fifth fit alignment line

3010‧‧‧First long side

3020‧‧‧Second long side

3030‧‧‧3rd long side

3040‧‧‧4th long side

3050‧‧‧5th long side

4‧‧‧Touch panel

M‧‧‧Image Capture Module

S‧‧‧Light source module

1 is a side view of a stereoscopic display having a stereoscopic image display function according to the present invention.

2 is a top plan view of a liquid crystal display panel of a stereoscopic display having a stereoscopic image display function according to the present invention.

3 is a top plan view of a three-dimensional film of a stereoscopic display having a stereoscopic image display function according to the present invention.

Fig. 4 is a top plan view showing the three-dimensional film of the present invention attached to a liquid crystal display panel.

Fig. 5A is an enlarged schematic view showing a portion A1 of Fig. 4.

Fig. 5B is an enlarged schematic view showing a portion A2 of Fig. 4.

Fig. 5C is an enlarged schematic view of a portion A3 of Fig. 4.

Fig. 5D is an enlarged schematic view of a portion A4 of Fig. 4.

Fig. 5E is an enlarged schematic view of a portion A5 of Fig. 4.

FIG. 6 is a flow chart of a method for manufacturing a stereoscopic display having a stereoscopic image display function according to the present invention.

FIG. 7 is a side view showing a step S108 of one of the manufacturing methods of the stereoscopic display having the stereoscopic image display function according to the present invention.

FIG. 8 is a flow chart of another method for fabricating a stereoscopic display having a stereoscopic image display function according to the present invention.

FIG. 9 is a side view showing a step S206 of another method for fabricating a stereoscopic display having a stereoscopic image display function according to the present invention.

[First Embodiment]

Please refer to FIG. 1 to FIG. 4 , FIG. 1 is a side view combination diagram, FIG. 2 is a top view of the liquid crystal display panel, FIG. 3 is a top view of the three-dimensional film, and FIG. 4 is a three-dimensional film attached to the liquid crystal display panel. A schematic view of the upper view. As shown in the above figure, the first embodiment of the present invention provides a stereoscopic display Z having a stereoscopic image display function, including: a backlight module 1, a liquid crystal display panel 2, and a stereoscopic film 3 (ie, 3D pattern or 3D). a film and a touch panel 4 (for example, a touch ITO transparent conductive film), and the backlight module 1, the liquid crystal display panel 2, the stereo film 3, and the touch panel 4 are sequentially stacked from bottom to top, wherein the three-dimensional film 3 can be The stereoscopic display Z has a stereoscopic image display function, and the touch panel 4 allows the stereoscopic display Z to have a touch function.

Furthermore, as shown in FIG. 1 and FIG. 2, the liquid crystal display panel 2 is disposed on the backlight module 1. The liquid crystal display panel 2 has a plurality of pixels 20 arranged in a matrix, each of the pixels 20 may be composed of at least three color dots 200 (dot), and at least three color dots 200 may be respectively a red dot R. , a green dot G and a blue Point B. In addition, as shown in FIG. 1 and FIG. 3, the three-dimensional film 3 is disposed on the liquid crystal display panel 2, wherein the three-dimensional film 3 is provided with a plurality of linear pattern barrier layers 30 by the technology of a micro parallax barrier array (Micro Parallax Barrier Array) ( Line pattern barrier), and three of the plurality of linear pattern barrier layers 30 may be defined as a first bonding alignment bit line 301, a second bonding alignment bit line 302, and a third bonding pair, respectively. Bit line 303, in which only a portion of the linear pattern barrier layer 30 is depicted.

In addition, as shown in FIG. 2 to FIG. 4, one of the color points 200 (for example, the blue point B) in one of the pixels 20 near the upper left corner C1 of the liquid crystal display panel 2 may be defined as a first bonding pair. Site 2001. One of the color points 200 (for example, the red dot R) of one of the pixels 20 near the lower left corner C2 of the liquid crystal display panel 2 may be defined as a second bonding pair position 2002. One of the color points 200 (for example, the red dot R) in one of the pixels 20 near the upper right corner C3 of the liquid crystal display panel 2 may be defined as a third bonding pair position 2003. As shown in FIG. 1 and FIG. 4, when the three-dimensional film 3 is attached to the liquid crystal display panel 2, the first bonding pair site 2001, the second bonding pair site 2002, and the third bonding pair site 2003 Corresponding to and aligned with the first bonding alignment bit line 301, the second bonding alignment bit line 302, and the third bonding alignment bit line 303, respectively, so that the stereoscopic film 3 and the liquid crystal display panel 2 can pass through three points. The way of alignment produces the correct fit alignment.

Furthermore, with reference to FIG. 4, FIG. 5A, FIG. 5B and FIG. 5C, FIG. 5A is an enlarged schematic view of a portion A1 of FIG. 4, FIG. 5B is an enlarged schematic view of a portion A2 of FIG. 4, and FIG. 5C is an enlarged view of FIG. A magnified view of the A3 part. In the present invention, when the alignment of the three-dimensional film 3 and the liquid crystal display panel 2 is performed, the first long side 3010 of the first bonding alignment line 301 may be aligned in parallel to the first bonding pair 2001 (for example, The first long side 20010 of the blue point B) (as shown in FIG. 5A), the second long side 3020 of the second conforming alignment line 302 is aligned in parallel to the second bonding pair 2002 (eg, The second long side 20020 of the red point R) (as shown in FIG. 5B), and the third long side 3030 of the third conforming alignment line 303 is positioned in parallel to the third conforming pair 2003 (eg, The third long side 20030 of the red point R) (as shown in Figure 5C). Therefore, the first The first long side 3010 of the alignment alignment line 301, the second long side 3020 of the second bonding alignment line 302, and the third long side 3030 of the third bonding alignment line 303 can be respectively parallel For the first long side 20010 of the first bonding pair 2001, the second long side 20020 of the second bonding pair 2002, and the third long side 20030 of the third bonding pair 2003, The correct bonding alignment relationship is generated in such a manner that the three-dimensional film 3 and the liquid crystal display panel 2 can be aligned by three points. In addition, each of the bonded alignment lines (301, 302, 303) covers approximately 1/3 of the area of the bonding pair (2001, 2002, 20003).

As shown in FIG. 1 , FIG. 4 , FIG. 6 and FIG. 7 , one of the manufacturing methods of the stereoscopic display Z of the present invention includes at least the following steps: First, the liquid crystal display panel 2 is pre-assembled in the backlight module 1 . Up (S100); then, the backlight module 1 is activated to provide a predetermined backlight source L to the liquid crystal display panel 2 (S102); then, the first bonding pair position 2001 and the second sticker of the liquid crystal display panel 2 are captured. The alignment point 2002 and the third bonding alignment point 2003, and the first bonding alignment line 301, the second bonding alignment line 302, and the third bonding alignment line 303 of the stereoscopic film 3 are captured (S104 Then, as shown in FIG. 4, the first bonding pair site 2001, the second bonding pair site 2002, and the third bonding pair site 2003 respectively correspond to and are aligned with the first bonding alignment. The alignment of the line 301, the second bonding alignment line 302, and the third bonding alignment line 303 to attach and press the three-dimensional film 3 on the liquid crystal display panel 2 (S106); 7, through an image capture module M, to verify the stereoscopic image generated by the backlight module 1, the liquid crystal display panel 2 and the three-dimensional film 3 cooperate with each other (S108); After irradiation by UV light (not shown) to cure the film 3 is a perspective view of the liquid crystal display panel, then the touch panel 4 is provided on the cured film is a perspective view 3 (S110).

Referring to FIG. 1 , FIG. 4 , FIG. 8 and FIG. 9 , another method for fabricating the stereoscopic display Z of the present invention includes at least the following steps: First, a light source module S is used to provide a predetermined backlight source. L is given to the liquid crystal display panel 2 (S200); then, the first bonding pair position 2001, the second bonding pair position 2002, and the third bonding pair position 2003 of the liquid crystal display panel 2 are captured, and the stereoscopic image is captured. First bonding pair of film 3 The bit line 301, the second bonding alignment bit line 302, and the third bonding alignment bit line 303 (S202); then, as shown in FIG. 4, the first bonding pair position 2001, the second bonding pair position point 2002 and the third bonding alignment point 2003 respectively correspond to the alignment manner of the first bonding alignment bit line 301, the second bonding alignment bit line 302, and the third bonding alignment bit line 303, so as to The film 3 is attached and pressed onto the liquid crystal display panel 2 (S204); next, as shown in FIG. 9, an image capturing module M is passed through to inspect the predetermined backlight source L, the liquid crystal display panel 2, and the solid film 3 a stereoscopic image generated by mutual cooperation (S206); next, ultraviolet light irradiation (not shown) is performed to cure the stereoscopic film 3 on the liquid crystal display panel 2 (S208); finally, the stereoscopic film 3 is attached. The liquid crystal display panel 2 is assembled on the backlight module 1, and then the touch panel 4 is placed on the solidified solid film 3 (S210).

[Second embodiment]

Please refer to FIG. 4 and FIG. 5D , wherein FIG. 5D is an enlarged schematic view of the portion A4 of FIG. 4 . The greatest difference between the second embodiment of the present invention and the first embodiment is that the three-dimensional film 3 of the second embodiment and the liquid crystal display panel 2 are aligned by four color points 200. The other one of the plurality of linear pattern barrier layers 30 is defined as a fourth bonded alignment line 304, adjacent to one of the pixels 20 in one of the pixels C5 at the center of the liquid crystal display panel 2 (for example The blue point B) is defined as a fourth fit pair position 2004, and the fourth fit pair position 2004 can correspond to and be aligned to the fourth fit pair bit line 304.

Furthermore, as shown in FIG. 4 and FIG. 5A to FIG. 5D, the first long side 3010 of the first bonding alignment line 301 and the second long side 3020 of the second bonding alignment line 302, The third long side 3030 of the third bonding alignment line 303 and the fourth long side 3040 of the fourth bonding alignment line 304 may be respectively disposed in parallel on the first long side of the first bonding pair 2001. The edge 20010, the second long side 20020 of the second bonding pair 2002, the third long side 20030 of the third bonding pair 2003, and the fourth long side 20040 of the fourth bonding pair 2004 . Therefore, as shown in FIG. 1 and FIG. 4, when the three-dimensional film 3 is attached to the liquid crystal display panel 2, the first bonding pair position 2001, The second bonding pair site 2002, the third bonding pair site 2003, and the fourth bonding pair site 2004 can respectively correspond to and are aligned with the first bonding pair bit line 301 and the second bonding pair bit line 302. The third bonding alignment line 303 and the fourth bonding alignment line 304 are such that the correct bonding alignment relationship can be generated by the 4-point alignment between the three-dimensional film 3 and the liquid crystal display panel 2.

Furthermore, in the second embodiment, the above-described step of attaching and pressing the three-dimensional film 3 onto the liquid crystal display panel 2 (that is, step S106 of FIG. 6 of the first embodiment and step S204 of FIG. 8), The method further includes: a matching manner of the fourth bonding pair position 2004 and alignment with the fourth bonding pair bit line 304, so that the stereo film 3 and the liquid crystal display panel 2 can pass the 4-point alignment. The way to produce the correct fit alignment.

[Third embodiment]

Please refer to FIG. 4 and FIG. 5E, wherein FIG. 5E is an enlarged schematic view of a portion A5 of FIG. The greatest difference between the third embodiment of the present invention and the second embodiment is that the three-dimensional film 3 of the third embodiment and the liquid crystal display panel 2 are aligned by five color points 200. The other one of the plurality of linear pattern barrier layers 30 is defined as a fifth bonding alignment line 305, which is adjacent to one of the pixels 20 of one of the pixels C4 at the lower right corner of the liquid crystal display panel 2. (eg, blue point B) is defined as a fifth fit pair of points 2005, and a fifth fit pair of points 2005 corresponds to and aligned with the fifth fit pair of bit lines 305.

Furthermore, as shown in FIG. 4 and FIG. 5A to FIG. 5E , the first long side 3010 of the first bonding alignment line 301 and the second long side 3020 of the second bonding alignment line 302 , The third long side 3030 of the third bonding alignment line 303, the fourth long side 3040 of the fourth bonding alignment line 304, and the fifth long side 3050 of the fifth bonding alignment line 305 may be parallel respectively. The first long side 20010 located at the first bonding pair 2001, the second long side 20020 of the second bonding pair 2002, and the third long side 20033 of the third bonding pair 2003 The fourth long side 20040 of the fourth matching pair 2004 and the fifth long side 200550 of the fifth matching pair 2005. Therefore, cooperation As shown in FIG. 1 and FIG. 4, when the three-dimensional film 3 is attached to the liquid crystal display panel 2, the first bonding pair position 2001, the second bonding pair position 2002, the third bonding pair position 2003, The fourth bonding pair site 2004 and the fifth bonding pair site 2005 can respectively correspond to and are aligned with the first bonding alignment bit line 301, the second bonding alignment bit line 302, and the third bonding alignment bit line 303. The fourth bonding alignment line 304 and the fifth bonding alignment line 305 are such that the correct bonding alignment relationship can be generated by the five-point alignment between the three-dimensional film 3 and the liquid crystal display panel 2.

Furthermore, in the third embodiment, the above-described step of attaching and pressing the three-dimensional film 3 onto the liquid crystal display panel 2 (that is, step S106 of FIG. 6 of the first embodiment and step S204 of FIG. 8) The method further includes: a positioning manner corresponding to the fifth alignment pair of the dots 2005 and aligned with the fifth bonding alignment bit line 305, so that the three-dimensional film 3 and the liquid crystal display panel 2 can pass the 5-point pair Bitwise way to produce the correct fit alignment.

[Possible effects of the examples]

In summary, the stereoscopic display Z and the manufacturing method thereof are provided by the embodiment of the present invention, which can pass the “first bonding pair position 2001, the second bonding pair point 2002, and the third bonding point position 2003. Corresponding to and aligned with the first bonding alignment bit line 301, the second bonding alignment bit line 302, and the third bonding alignment bit line 303" and "passing the first bonding alignment point 2001, the second bonding pair The alignment of the first bonding pair bit line 301, the second bonding pair bit line 302, and the third bonding pair bit line 303 respectively corresponding to the position 2002 and the third bonding pair position 2003 are performed. The design of attaching and pressing the three-dimensional film 3 to the liquid crystal display panel 2 is to improve the accuracy (yield) and speed (yield) of the three-dimensional film 3 attached to the liquid crystal display panel 2.

The above description is only a preferred embodiment of the present invention, and is not intended to limit the scope of the invention, and the equivalents of the present invention are intended to be included within the scope of the present invention.

2‧‧‧LCD panel

20‧‧ ‧ pixels

200‧‧‧ color point

2001‧‧‧First Fit Matching Site

2002‧‧‧Second fit point

2003‧‧‧ Third fit point

2004 ‧ ‧ fourth fit point

2005‧‧‧Fifth fit point

C1‧‧‧ upper left corner

C2‧‧‧ bottom left corner

C3‧‧‧ at the top right corner

C4‧‧‧ at the bottom right corner

C5‧‧‧Central Office

3‧‧‧Three-dimensional film

30‧‧‧Linear pattern barrier

301‧‧‧First fitted alignment line

302‧‧‧Second-fitted alignment line

303‧‧‧ third matching alignment line

304‧‧‧4th matching alignment line

305‧‧‧Fifth fit alignment line

Claims (10)

A stereoscopic display having a stereoscopic image display function includes: a backlight module; a liquid crystal display panel disposed on the backlight module, wherein the liquid crystal display panel has a plurality of pixels arranged in a matrix Each of the pixels is composed of at least three dots, and at least three of the dots are a red dot, a green dot, and a blue dot, respectively; and a three-dimensional film disposed at the pixel The liquid crystal display panel, wherein the three-dimensional film has a plurality of line pattern barrier layers, and three of the plurality of linear pattern barrier layers are respectively defined as a first bonding pair a bit line, a second bonding alignment line, and a third bonding alignment line; wherein one of the pixels in the upper left corner of the liquid crystal display panel is defined For a first bonding pair, one of the pixels in the lower left corner of the liquid crystal display panel is defined as a second bonding pair, near the The upper right corner of the liquid crystal display panel One of the color points in the pixel is defined as a third bonding pair site, and the first bonding pair site, the second bonding pair site, and the third The bonding pair points respectively correspond to and are aligned with the first bonding pair bit line, the second bonding pair bit line, and the third bonding pair bit line. The stereoscopic display having the stereoscopic image display function of claim 1, wherein one of the long side of the first bonding alignment line and one of the long side of the second bonding alignment line One of the long sides of the edge and the third bonding alignment line are respectively parallel to one of the long sides of the first bonding pair and the second bonding pair The long side and one of the long sides of the third conforming pair. Stereoscopic display with stereoscopic image display function as described in item 1 of the patent application scope The display device, wherein the other one of the plurality of linear pattern shielding layers is defined as a fourth bonding alignment line, and one of the pixels near the center of the liquid crystal display panel The color point is defined as a fourth sticking pair, and the fourth sticking pair corresponds to and is aligned with the fourth sticking bit line. The stereoscopic display having a stereoscopic image display function according to claim 3, wherein one of the long sides of the first bonding alignment line and one of the long sides of the second bonding alignment line One of the long sides of the third bonding alignment line and one of the long sides of the fourth bonding alignment line are respectively located in parallel to one of the first bonding pair points. a long side, one of the long sides of the second bonding pair, one of the long sides of the third bonding pair, and one of the long sides of the fourth bonding pair side. A stereoscopic display having a stereoscopic image display function according to claim 3, wherein another one of the plurality of linear pattern barrier layers is defined as a fifth bonding alignment line, adjacent to the liquid crystal One of the pixels in one of the pixels at the lower right corner of the display panel is defined as a fifth bonding pair, and the fifth bonding pair corresponds to and is aligned with the The fifth fits the alignment line. A stereoscopic display having a stereoscopic image display function according to claim 5, wherein one of the long side of the first bonding alignment line and one of the long side of the second bonding alignment line One of the long sides of the third bonding alignment line, one of the long sides of the fourth bonding alignment line, and one of the long sides of the fifth bonding alignment line respectively Parallelly facing one of the long sides of the first bonding pair, one of the long sides of the second bonding pair, and one of the long sides of the third bonding pair One of the long sides of the fourth bonding pair and one of the long sides of the fifth bonding pair. The method for manufacturing a stereoscopic display having a stereoscopic image display function as described in claim 1, comprising the steps of: pre-assembling the liquid crystal display panel on the backlight module; The backlight module is activated to provide a predetermined backlight source to the liquid crystal display panel; the first bonding pair site, the second bonding pair site, and the Thirdly aligning the pair of points, and extracting the first bonding alignment line, the second bonding alignment line, and the third bonding alignment line of the three-dimensional film; a matching alignment site, the second bonding alignment site, and the third bonding pair site respectively corresponding to the first bonding alignment bit line and the second bonding alignment position Aligning the line and the third bonding alignment line to attach and press the three-dimensional film on the liquid crystal display panel; and verifying the backlight module through an image capturing module And a stereoscopic image generated by the liquid crystal display panel and the three-dimensional film being combined with each other; and irradiating with ultraviolet light to cure the three-dimensional film on the liquid crystal display panel. The method for fabricating a stereoscopic display having a stereoscopic image display function according to claim 7, wherein the other one of the plurality of linear pattern barrier layers is defined as a fourth bonding alignment line, close to One of the pixels in one of the pixels at the center of the liquid crystal display panel is defined as a fourth bonding pair, and the fourth bonding pair corresponds to and is aligned with the The fourth bonding alignment line, wherein the step of attaching and pressing the three-dimensional film on the liquid crystal display panel further comprises: matching and aligning by the fourth bonding pair The alignment manner of the fourth bonding pair bit line. The method for fabricating a stereoscopic display having a stereoscopic image display function according to claim 1, comprising the steps of: providing a predetermined backlight source to the liquid crystal display panel; and extracting the a pair of matching sites, the second bonding pair sites, and the third bonding pair sites, and extracting the first bonding alignment line and the second sticker of the three-dimensional film Alignment bit line and said third fit alignment a line; respectively, by the first bonding pair, the second bonding pair, and the third bonding pair, and aligned with the first bonding pair line, Positioning the second alignment alignment line and the third bonding alignment line to attach and press the three-dimensional film on the liquid crystal display panel; through an image capturing module, Detecting a stereoscopic image generated by the predetermined backlight source, the liquid crystal display panel, and the stereoscopic film being combined with each other; curing the stereoscopic film on the liquid crystal display panel by ultraviolet light irradiation; and attaching The liquid crystal display panel having the three-dimensional film is assembled on the backlight module. The method for fabricating a stereoscopic display having a stereoscopic image display function according to claim 9, wherein the other one of the plurality of linear pattern barrier layers is defined as a fourth bonding alignment line, close to One of the pixels in one of the pixels at the center of the liquid crystal display panel is defined as a fourth bonding pair, and the fourth bonding pair corresponds to and is aligned with the The fourth bonding alignment line, wherein the step of attaching and pressing the three-dimensional film on the liquid crystal display panel further comprises: matching and aligning by the fourth bonding pair The alignment manner of the fourth bonding pair bit line.