3D LED preparation system and preparation method

Abstract

A 3D LED preparation system and preparation method belong to the technical field of three-dimensional display, and are used to solve the problems of complex preparation process, low preparation efficiency and low preparation yield of the existing 3D LED. According to the process steps, the glue spraying equipment, the pre-solidification equipment, the image acquisition unit and the solidification equipment are sequentially and suspendedly arranged along the line of the flow line transmission unit, the positioning bolt is arranged on the inner side of the flow line transmission unit below the image acquisition unit, the turnover and lamination mechanism is arranged on the outer side of the flow line transmission unit, the plurality of LED modules are respectively embedded on the tooling jig, the tooling jig is circulated according to the glue spraying, pre-solidification, alignment and lamination and secondary solidification process steps, when the tooling jig is circulated to the alignment and lamination process position, the turnover and lamination mechanism laminates the polarized 3D film to the plurality of LED modules of the tooling jig, and the 3D LED module is prepared through secondary solidification.

Description

TECHNICAL FIELD

[0001] The application belongs to the technical field of stereoscopic display. BACKGROUND

[0002] The polarization type 3D LED has the advantages of high brightness, unlimited splicing, large viewing angle and high comfort, and is the most portable and comfortable stereoscopic display technology in virtual reality display technology, and is one of the mainstreams in the current market. In the preparation process of the 3D LED, the general process flow is: pouring glue on a single LED → deaeration → curing → cutting → attaching a 3D film → alignment → curing, the whole preparation process is complex, the preparation efficiency and yield are low, and it is not suitable for mass production. SUMMARY

[0003] In view of the problems of complex preparation process, low preparation efficiency and yield of the existing 3D LED, the application provides a 3D LED preparation system and a preparation method.

[0004] The 3D LED preparation system provided by the application comprises a flow line transmission unit, a tool jig 207, a glue spraying device 203, a pre-curing device 204, a curing device 213, a positioning pin 209, an image acquisition unit and a turnover attachment mechanism 211.

[0005] The glue spraying device 203, the pre-curing device 204, the image acquisition unit and the curing device 213 are sequentially and suspendedly arranged along the line on the flow line transmission unit according to the process steps, and the positioning pin 209 is arranged on the inner side of the flow line transmission unit below the image acquisition unit; the turnover attachment mechanism 211 is arranged on the outer side of the flow line transmission unit.

[0006] The flow line transmission unit is used for transmitting the tool jig 207 along the process steps in sequence; the tool jig 207 is provided with a jig positioning soft pad 208, and a plurality of parallel and equidistant workpiece areas are enclosed by the jig positioning soft pad 208, and a plurality of LED modules 300 are respectively embedded into each workpiece area.

[0007] The glue spraying device 203 is used for spraying glue on the LED module 300 on the tool jig 207 transmitted to the process position.

[0008] The pre-curing device 204 is used for pre-curing the LED module 300 after the glue spraying.

[0009] The positioning pin 209 is used for fixing the tool jig 207 at the process position, releasing the tool jig 207 after attaching the polarization 3D film 100, and continuing to transmit the tool jig 207 to the next process position.

[0010] The turnover and attaching mechanism 211 is used to suck the polarized 3D film 100 and turn over to attach the polarized 3D film 100 to the plurality of LED modules 300 on the tooling fixture 207, and after alignment, the turnover and attaching mechanism 211 releases the polarized 3D film 100 and turns over to reset;

[0011] The image acquisition unit is used to acquire the image of the LED module 300 fixed at the process position by the positioning peg 209, and is also used to acquire the image of the polarized 3D film 100 attached on the LED module 300 through the turnover and attaching mechanism 211, and thus realizes the alignment operation of the LED module 300 and the polarized 3D film 100, and after alignment, the 3D LED module 210 is constructed;

[0012] The curing device 213 is used to cure the 3D LED module 210.

[0013] Preferably, the pipeline transmission unit comprises a speed chain support 201 and a speed chain transmission chain 202, two speed chain transmission chains 202 are arranged side by side on the speed chain support 201, and the two speed chain transmission chains 202 are used to transmit the tooling fixture 207.

[0014] Preferably, the positioning peg 209 comprises a frame, a hydraulic lifting unit, a gear unit and a positioning detection unit, the frame is arranged below the speed chain support 201, the hydraulic lifting unit, the gear unit and the positioning detection unit are arranged on the frame, the positioning detection unit is used to detect whether the tooling fixture 207 is transmitted to the current process position, when it is detected, the hydraulic lifting unit drives the gear unit to rise and block the tooling fixture 207, so that it is fixed at the current process position, after alignment is completed, the hydraulic lifting unit drives the gear unit to descend, and releases the tooling fixture 207 so that it continues to be transmitted on the chain.

[0015] Preferably, the positioning peg 209 further comprises a first light supplementing unit 212, the first light supplementing unit 212 is arranged on the frame and is used for image acquisition compensation.

[0016] Preferably, the image acquisition unit comprises a CCD moving support 205 and a CCD unit group 206, the CCD moving support 205 is fixed above the speed chain support 201, the CCD unit group 206 is arranged on the CCD moving support 205, and the CCD unit group 206 is used to acquire the image of the LED module 300 and the polarized 3D film 100.

[0017] Preferably, the turnover and attaching mechanism 211 comprises a low-density transparent net box adsorption platform 101, an attaching roller 103, a vacuum cavity 104 and a circularly polarized layer 105.

[0018] The vacuum cavity 104 is internally provided with a fitting roller 103 fixed to the left and right side walls through two sliding blocks 102, the sliding blocks 102 are embedded with slide rails, and the fitting roller 103 moves up and down along the slide rails to change the position; the fitting roller 103 has two transparent sections 107, and the size of the transparent sections 107 is greater than the pitch width of a single row or single column of the polarized 3D film 100;

[0019] The bottom plate of the vacuum cavity 104 is a soft low-density transparent net box adsorption platform 101, and the polarized 3D film 100 is adsorbed on the low-density transparent net box adsorption platform 101 by vacuumizing the inside of the vacuum cavity 104;

[0020] A circular polarization layer 105 is arranged above the top plate of the vacuum cavity 104.

[0021] Preferably, the turnover fitting mechanism 211 further comprises a second light supplementing unit 106, and the second light supplementing unit 106 is arranged above the circular polarization layer 105 and used for image acquisition compensation.

[0022] Preferably, the turnover fitting mechanism 211 further comprises a turnover mechanism and a torsion mechanism, the turnover mechanism is used for turnover buckling of the multiple-speed chain support 201 to the tool jig 207, and the torsion mechanism is used for plane torsion to adjust the angle of the polarized 3D film 100 to be aligned with the LED module 300.

[0023] Preferably, the transparent section 107 is made of acrylic or PC material.

[0024] The application also provides another technical solution: a 3D LED preparation method, which is realized based on a 3D LED preparation system, and the method comprises the following steps:

[0025] S1, a plurality of LED modules 300 are fixed on the tool jig 207 at equal intervals by adjusting the jig positioning soft pad 208;

[0026] S2, the tool jig 207 is transmitted to below the glue spraying equipment 203 by the multiple-speed chain transmission chain 202 to complete a flexible glue spraying process step;

[0027] S3, after the spraying is completed, the tool jig 207 is transferred to below the pre-curing equipment 204 for pre-curing;

[0028] S4, after the tool jig 207 is transferred by the positioning detection unit in the positioning pin 209, the hydraulic lifting unit drives the gear unit to rise and block the tool jig 207;

[0029] S5, the CCD unit group 206 collects the image of the LED module 300 on the tool jig 207;

[0030] S6, the adsorbed polarized 3D film 100 and the flip-up bonding mechanism 211 facing up start to work, first flip from the outside of the speed chain support 201 to the inside through the flip mechanism, so that the polarized 3D film 100 is placed on the plurality of LED modules 300 with the bonding surface facing down; then, the CCD unit group 206 collects a single row or single column image of the polarized 3D film 100; finally, through the collection of LED module 300 and polarized 3D film 100 images, the alignment of the two is realized by using the torsion mechanism;

[0031] S7, after matching alignment, the bonding roller 103 moves along the sliding block and presses the polarized 3D film 100 on the LED module 300, the vacuum cavity 104 loses the vacuum state and releases the polarized 3D film 100, the flip-up bonding mechanism 211 flips back to the outside of the speed chain support 201, and a new polarized 3D film 100 is adsorbed for standby;

[0032] S8, after alignment, the tool jig 207 continues to flow to the lower part of the curing device 213 for secondary curing;

[0033] S9, the prepared 3D LED module 210 is taken out.

[0034] The beneficial effects of the present application are:

[0035] The production mode of the flow line can complete the glue filling and bonding at one time, the overall preparation efficiency and preparation yield are high; the width of the flow line body can be designed according to the module and the matching jig, so that multiple modules can be prepared at the same time, and the preparation efficiency is higher; through the glue spraying and pre-curing mode, the flexible glue forms a protective layer on the surface of the LED, which can avoid the direct external force acting on the surface of the LED lamp bead during bonding, and avoid the situation that the LED lamp bead is not flat and causes the LED lamp to be dead. BRIEF DESCRIPTION OF DRAWINGS

[0036] Fig. 1 is a structural schematic diagram of a 3D LED preparation system according to the present application;

[0037] Fig. 2 is a structural schematic diagram of a tool jig;

[0038] Fig. 3 is a structural schematic diagram of a flip-up bonding mechanism. DETAILED DESCRIPTION

[0039] The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application. Obviously, the described embodiments are only part of the embodiments of the present application, not all. Based on the embodiments in the present application, all other embodiments obtained by those skilled in the art without creative labor belong to the scope of protection of the present application.

[0040] It should be noted that the embodiments in the present application and the features in the embodiments can be combined with each other without conflict.

[0041] The present application will be further described below in conjunction with the drawings and specific embodiments, but not as a limitation of the present application.

[0042] Specific implementation method one: the following will be described in conjunction with Figs. 1 to 3 In this embodiment, the 3D LED preparation system comprises a flow line transmission unit, a tool jig 207, a glue spraying device 203, a pre-curing device 204, a curing device 213, a positioning peg 209, an image acquisition unit, and a flip bonding mechanism 211.

[0043] The glue spraying device 203, the pre-curing device 204, the image acquisition unit, and the curing device 213 are sequentially and suspendedly arranged along the line on the flow line transmission unit according to the process steps, and the positioning peg 209 is arranged on the inner side of the flow line transmission unit below the image acquisition unit; the flip bonding mechanism 211 is arranged on the outer side of the flow line transmission unit;

[0044] The flow line transmission unit is used to transmit the tool jig 207 along the process steps in sequence; the tool jig 207 is provided with a jig positioning soft pad 208, and a plurality of parallel and equidistant workpiece areas are enclosed by the jig positioning soft pad 208, and a plurality of LED modules 300 are respectively embedded into each workpiece area;

[0045] The glue spraying device 203 is used to spray glue on the LED modules 300 on the tool jig 207 transmitted to this process position;

[0046] The pre-curing device 204 is used to pre-cure the LED modules 300 after spraying glue;

[0047] The positioning peg 209 is used to fix the tool jig 207 at this process position, and the tool jig 207 is released after bonding the polarized 3D film 100, and the tool jig 207 continues to be transmitted to the next process position;

[0048] The flip bonding mechanism 211 is used to attract the polarized 3D film 100 and flip to bond the polarized 3D film 100 to the plurality of LED modules 300 on the tool jig 207, and the flip bonding mechanism 211 releases the polarized 3D film 100 and flips back after alignment;

[0049] The image acquisition unit is used to acquire the image of the LED modules 300 fixed at the process position by the positioning peg 209, and is also used to acquire the image of the polarized 3D film 100 bonded on the LED modules 300 through the flip bonding mechanism 211, and to realize the alignment operation of the LED modules 300 and the polarized 3D film 100 accordingly, and to construct the 3D LED module 210 after alignment;

[0050] The curing device 213 is used for curing the 3D LED module 210.

[0051] The embodiment gives a pipeline processing system of the 3D LED module.

[0052] In the pipeline of the embodiment, the pipeline transmission unit includes the speed chain support 201 and the speed chain transmission chain 202, two speed chain transmission chains 202 are arranged side by side on the speed chain support 201, and the two speed chain transmission chains 202 are used for transmitting the tooling fixture 207. The speed chain transmission chain transmits the tooling fixture 207, but does not adopt a fixed mode, and the two are in sliding friction. When flowing to the positioning peg 209 for the bonding process, the tooling fixture 207 can be easily stopped at the process position and kept in sliding friction with the speed chain transmission chain 202, and can continue to flow after the bonding is completed.

[0053] The positioning peg 209 includes a frame, a hydraulic lifting unit, a gear unit, and a positioning detection unit. The frame is arranged below the speed chain support 201, and the hydraulic lifting unit, the gear unit, and the positioning detection unit are arranged on the frame. The positioning detection unit is used for detecting whether the tooling fixture 207 is transmitted to the current process position. When detection is detected, the hydraulic lifting unit drives the gear unit to rise and block the tooling fixture 207, so that the tooling fixture 207 is fixed at the current process position. After the alignment is completed, the hydraulic lifting unit drives the gear unit to descend, and releases the tooling fixture 207 to continue transmission on the chain. The positioning detection unit can be realized by using a conventional infrared detection. When the tooling fixture 207 is detected to pass above, the gear unit blocks the tooling fixture 207 to make it stay at the process position and wait for bonding. The gear unit can adopt a roller, which can limit the position of the tooling fixture 207 and will not produce discordant jamming, and is convenient for releasing the tooling fixture 207 to continue to flow. The gear unit is lifted and descended by the hydraulic lifting unit according to the instruction. The tooling fixture 207 is detected to rise, and the bonding process is ended to descend. The bonding process time can be predicted, and the tooling fixture 207 can be released in a timing manner. In the embodiment, the lifting and descending of the gear unit can also be driven by using a pneumatic lifting mode.

[0054] Further, the positioning peg 209 further includes a first light supplement unit 212 arranged on the frame and used for image acquisition compensation. When image acquisition is performed, the positioning peg 209 frame below the tooling fixture 207 is supplemented with light, and the effect is better.

[0055] The image acquisition unit comprises a CCD mobile support 205 and a CCD unit group 206. The CCD mobile support 205 is fixed above the speed chain support 201, and the CCD unit group 206 is arranged on the CCD mobile support 205. The CCD unit group 206 is used to acquire images of the LED module 300 and the polarized 3D film 100. The CCD mobile support 205 is a shelf arranged above the speed chain support 201. The shelf is suspended above the flow line. The purpose is to acquire images of the multiple LED modules 300 on the tooling fixture 207 blocked at the process position and to provide a basis for alignment with the polarized 3D film 100. The second acquisition target is to acquire images of the polarized 3D film 100 after lamination. According to the two images, the alignment preparation can be completed.

[0056] The flip lamination mechanism 211 comprises a low-density transparent net box adsorption platform 101, a lamination roller 103, a vacuum cavity 104, and a circular polarization layer 105. The low-density transparent net box adsorption platform 101, the lamination roller 103, the vacuum cavity 104, and the circular polarization layer 105 are fixed as an integral structure.

[0057] The lamination roller 103 is arranged inside the vacuum cavity 104. The lamination roller 103 is fixed on the left and right side walls through two sliding blocks 102. The sliding blocks 102 are embedded with sliding rails. The lamination roller 103 moves up and down along the sliding rails to change positions. The lamination roller 103 has two transparent sections 107. The size of the transparent sections 107 is greater than the pitch width of a single row or single column of the polarized 3D film 100.

[0058] The bottom plate of the vacuum cavity 104 is a soft low-density transparent net box adsorption platform 101. The polarized 3D film 100 is adsorbed on the low-density transparent net box adsorption platform 101 through vacuumization inside the vacuum cavity 104.

[0059] The circular polarization layer 105 is arranged above the top plate of the vacuum cavity 104.

[0060] The flip lamination mechanism 211 further comprises a flip mechanism and a torsion mechanism. The flip mechanism is used to flip and buckle on the tooling fixture 207 along the speed chain support 201. The torsion mechanism is used for plane torsion to adjust the angle of the polarized 3D film 100 to align with the LED module 300.

[0061] In this embodiment, the turnover bonding mechanism 211 is arranged outside the speed chain support 201, and in the daily state, one polarized 3D film 100 is adsorbed, the film faces upward, after the tooling fixture 207 flows over and is blocked by the positioning pin 209, the turnover bonding mechanism 211 is turned over to the inside of the speed chain support 201 on the tooling fixture 207, so that the polarized 3D film 100 is buckled on the plurality of LED modules 300 arranged on the tooling fixture 207, at this time, the image acquisition unit is used to acquire the image of the polarized 3D film 100, and whether the polarized 3D film 100 is aligned with the image of the LED module 300 is judged, if there is deviation, the polarized 3D film 100 is translated or twisted in the plane by using the twisting mechanism of the turnover bonding mechanism 211, so as to achieve the purpose of alignment of the two, and the twisting mechanism of the turnover bonding mechanism 211 can make the low-density transparent net box adsorption platform 101, the bonding roller 103, the vacuum cavity 104 and the circularly polarized layer 105 move as a whole, instead of twisting the polarized 3D film 100 alone.

[0062] The vacuum cavity 104 has only one side as a soft side wall, which is a low-density transparent net box adsorption platform 101, such as a mesh plate with a mesh size greater than 400, and the process of adsorbing the polarized 3D film 100 is as follows: the low-density transparent net box adsorption platform 101 of the vacuum cavity 104 is attached to the polarized 3D film 100, and then the vacuum cavity 104 is vacuumized, so that the polarized 3D film 100 is adsorbed by the low-density transparent net box adsorption platform 101 of the vacuum cavity 104. When the turnover bonding mechanism 211 is turned over to the tooling fixture 207, the polarized 3D film 100 is buckled on the LED module 300, at this time, the image acquisition unit is used to acquire two single-row or single-column polarized 3D film 100 images through the transparent section 107, and then the twisting unit is used for alignment, and then the roller 103 inside the vacuum cavity 104 is started to move along the slide to the polarized 3D film 100, as shown in Fig. 3 , the roller 103 moves down to the polarized 3D film 100 and then rolls horizontally to press the polarized 3D film 100 on the LED module 300, in the process of pressing, the vacuum state of the vacuum cavity 104 is destroyed, the adsorption force of the low-density transparent net box adsorption platform 101 to the polarized 3D film 100 disappears, so that the polarized 3D film 100 is pressed and stays on the LED module 300, and the 3D LED module 210 is constructed.

[0063] The process of the image acquisition unit acquiring two single row or single column polarized 3D film 100 images through the transparent section 107: the laminating roller 103 has two transparent sections 107, the size of the transparent section 107 is greater than the pitch width of the single row or single column of the polarized 3D film 100; and the transparent section 107 is made of acrylic or PC material, which is a material without phase difference, and the phase image of the polarized 3D film 100 can be presented through the circularly polarized layer 105. The image of the polarized 3D film 100 cannot be completely acquired, but the pitch image of the two single rows or single columns can be acquired through the two transparent sections 107, which is sufficient to match the image of the LED module 300. The flip lamination mechanism 211 also includes a second light supplement unit 106, which is arranged above the circularly polarized layer 105 and is used for image acquisition compensation.

[0064] After lamination is completed, secondary curing is performed; after the above steps are completed, the 3D LED module is taken out, and the above steps are completed synchronously.

[0065] Specific implementation method two: the following will be described in combination with Figs. 1 to 3 The present embodiment describes a 3D LED preparation method, which is realized based on the 3D LED preparation system described in embodiment one. The method includes the following steps:

[0066] S1, fix several groups of LED modules 300 at equal intervals on the tooling jig 207 by adjusting the jig positioning soft pad 208;

[0067] S2, the tooling jig 207 is transmitted to below the glue spraying device 203 by the speed-up transmission chain 202 to complete the flexible glue spraying process step;

[0068] S3, after spraying is completed, flow to below the pre-curing device 204 to perform pre-curing;

[0069] S4, after the tooling jig 207 flows over, the positioning detection unit in the positioning pin 209 detects, the hydraulic lifting unit drives the gear unit to rise and block the tooling jig 207;

[0070] S5, the CCD unit group 206 acquires the image of the LED module 300 on the tooling jig 207;

[0071] S6, the flip lamination mechanism 211 with the adsorbed polarized 3D film 100 and the lamination surface facing upward starts to work, first flips from the outside to the inside of the speed-up chain support 201 through the flip mechanism, so that the polarized 3D film 100 is placed on the multiple LED modules 300 with the lamination surface facing downward; then, the CCD unit group 206 acquires the single row or single column image of the polarized 3D film 100; finally, through the acquired images of the LED module 300 and the polarized 3D film 100, the twist mechanism is used to realize the alignment of the two;

[0072] S7, after matching, the fitting roller 103 moves along the slider and presses the polarized 3D film 100 on the LED module 300, the vacuum cavity 104 loses the vacuum state to release the polarized 3D film 100, the flip fitting mechanism 211 flips and resets to the outside of the speed chain support 201, and a new polarized 3D film 100 is re-adsorbed for standby;

[0073] S8, after alignment, the tool fixture 207 continues to flow to the bottom of the curing device 213 for secondary curing;

[0074] S9, take out the prepared 3D LED module 210.

[0075] Although the present application is described herein with reference to particular embodiments, it is to be understood that these examples are merely illustrative of principles and applications of the present application. It should therefore be understood that numerous modifications can be made to the illustrative embodiments and that other arrangements can be devised without departing from the spirit and scope of the present application as defined by the appended claims. It should be understood that the features described in connection with one embodiment can be used in conjunction with other embodiments described herein. It should also be understood that features described in connection with separate embodiments can be used in combination with each other.

Claims

1. A 3D LED fabrication system, characterized by, The pipeline transmission unit, the tooling jig (207), the glue spraying device (203), the pre-curing device (204), the curing device (213), the positioning peg (209), the image acquisition unit and the turnover bonding mechanism (211) are sequentially and suspendedly arranged along the line according to the process steps; The glue spraying device (203), the pre-curing device (204), the image acquisition unit and the curing device (213) are sequentially and suspendedly arranged along the line according to the process steps on the outside of the pipeline transmission unit; the turnover bonding mechanism (211) is arranged on the outside of the pipeline transmission unit; The pipeline transmission unit is used for sequentially transmitting the tooling jig (207) along the process steps; the jig positioning soft pad (208) is arranged on the tooling jig (207); a plurality of parallel and equidistant workpiece areas are enclosed by the jig positioning soft pad (208); and a plurality of LED modules (300) are respectively embedded in each workpiece area; The glue spraying device (203) is used for spraying glue on the LED module (300) on the tooling jig (207) transmitted to the process position; The pre-curing device (204) is used for pre-curing the LED module (300) after being sprayed with glue; The positioning peg (209) is used for fixing the tooling jig (207) at the process position; the tooling jig (207) is released after the polarized 3D film (100) is bonded; and the tooling jig (207) continues to be transmitted to the next process position; The turnover bonding mechanism (211) is used for attracting the polarized 3D film (100) and turning over to bond the polarized 3D film (100) to the plurality of LED modules (300) of the tooling jig (207); the polarized 3D film (100) is released by the turnover bonding mechanism (211) after alignment and turned over to reset; The image acquisition unit is used for acquiring the image of the LED module (300) fixed at the process position by the positioning peg (209); the image acquisition unit is also used for acquiring the image of the polarized 3D film (100) bonded on the LED module (300) through the turnover bonding mechanism (211); and the alignment operation of the LED module (300) and the polarized 3D film (100) is realized accordingly; and the 3D LED module (210) is constructed after alignment; The curing device (213) is used for curing the 3D LED module (210), the pipeline transmission unit includes a speed chain support (201) and a speed chain transmission chain (202), two speed chain transmission chains (202) are arranged side by side on the speed chain support (201), and the two speed chain transmission chains (202) are used for transmitting a tool jig (207); the positioning bolt (209) includes a frame, a hydraulic lifting unit, a gear unit and a positioning detection unit, the frame is arranged below the speed chain support (201), the hydraulic lifting unit, the gear unit and the positioning detection unit are arranged on the frame, the positioning detection unit is used for detecting whether the tool jig (207) is transmitted to a current process position, when detection is performed, the hydraulic lifting unit drives the gear unit to rise and block the tool jig (207), so that the tool jig (207) is fixed at the current process position, after alignment is completed, the hydraulic lifting unit drives the gear unit to descend, and the tool jig (207) is released to continue transmission on the chain.

2. The 3D LED preparation system according to claim 1, wherein, The positioning bolt (209) further includes a first light supplementing unit (212), and the first light supplementing unit (212) is arranged on the frame and is used for image acquisition compensation.

3. The system for manufacturing 3D LED according to any one of claims 1 or 2, wherein, The image acquisition unit includes a CCD mobile support (205) and a CCD unit group (206), the CCD mobile support (205) is fixed above the speed chain support (201), the CCD unit group (206) is arranged on the CCD mobile support (205), and the CCD unit group (206) is used for acquiring images of the LED module (300) and the polarized 3D film (100).

4. The 3D LED preparation system of claim 3, wherein, The turnover and bonding mechanism (211) includes a low-density transparent net box adsorption platform (101), a bonding roller (103), a vacuum cavity (104) and a circular polarization layer (105). The bonding roller (103) is arranged in the vacuum cavity (104), the bonding roller (103) is fixed to left and right side walls through two sliding blocks (102), the sliding blocks (102) are embedded in sliding rails, and the bonding roller (103) moves up and down along the sliding rails to change positions; the bonding roller (103) has two transparent sections (107), and the size of the transparent sections (107) is greater than the pitch width of a single row or a single column of the polarized 3D film (100); The bottom plate of the vacuum cavity (104) is a soft low-density transparent net box adsorption platform (101), and the polarized 3D film (100) is adsorbed on the low-density transparent net box adsorption platform (101) side through vacuumization in the vacuum cavity (104); A circular polarization layer (105) is arranged above the top plate of the vacuum cavity (104).

5. The 3D LED preparation system of claim 4, wherein, The turnover and bonding mechanism (211) further includes a second light supplementing unit (106), and the second light supplementing unit (106) is arranged above the circular polarization layer (105) and is used for image acquisition compensation.

6. The 3D LED preparation system according to claim 5, wherein, The turnover and bonding mechanism (211) further includes a turnover mechanism and a torsion mechanism, the turnover mechanism is used for turnover and buckling to the tool jig (207) along the speed chain support (201), and the torsion mechanism is used for plane torsion to adjust the angle of the polarized 3D film (100) so that the polarized 3D film (100) is aligned with the LED module (300). 7.The 3D LED preparation system of claim 4, wherein, The transparent sections (107) are made of acrylic or PC material.

8. A method for manufacturing a 3D LED, which is implemented based on the 3D LED manufacturing system according to claim 7, characterized in that, The method comprises the following steps: S1, fix several groups of LED modules (300) on the tooling fixture (207) at equal intervals by adjusting the fixture to position the soft pad (208); S2, the tooling fixture (207) is transmitted to the bottom of the glue spraying equipment (203) by the speed-up chain transmission chain (202), and the flexible glue spraying process step is completed; S3, after the spraying is completed, it is transferred to the bottom of the pre-curing equipment (204) for pre-curing; S4, after the positioning detection unit in the positioning bolt (209) detects that the tooling fixture (207) is transferred, the hydraulic lifting unit drives the gear unit to rise and block the tooling fixture (207); S5, the CCD unit group (206) collects the image of the LED module (300) on the tooling fixture (207); S6, the flip bonding mechanism (211) with adsorbed polarized 3D film (100) and upward-facing bonding surface starts to work, first flips from the outside to the inside of the speed-up chain support (201) through the flip mechanism, so that the polarized 3D film (100) is placed on the multiple LED modules (300) with the bonding surface facing down; then, the CCD unit group (206) collects the single row or single column image of the polarized 3D film (100); finally, through the collection of the LED module (300) and the polarized 3D film (100) image, the twist mechanism is used to realize the alignment of the two; S7, after matching and aligning, the bonding roller (103) moves along the sliding block and presses the polarized 3D film (100) on the LED module (300), the vacuum cavity (104) loses the vacuum state to release the polarized 3D film (100), the flip bonding mechanism (211) flips and resets to the outside of the speed-up chain support (201), and a new polarized 3D film (100) is adsorbed for standby; S8, after the alignment is completed, the tooling fixture (207) continues to flow to the bottom of the curing equipment (213) for secondary curing; S9, take out the prepared 3D LED module (210).

Images