KR20130021756A - Apparatus for assembly film and glass - Google Patents

Abstract

PURPOSE: An assembly device of a film and glass is provided to improve the efficiency of a deposition process by simply combining the film with the glass. CONSTITUTION: A glass stage(110) supports glass for manufacturing a flat display device. A film stage(120) supports a film combined with the glass and includes a central stage(130) for supporting the film and a side stage(140) for supporting the film. The side stage for supporting the film is arranged in the outside of the central stage for supporting the film and supports the side region of the film. A bottom body(150) supports the glass stage and the side stage for supporting the film. A top body(160) supports the central stage for supporting the film. [Reference numerals] (AA) Film

Description

Apparatus for assembly film and glass

The present invention relates to an assembly apparatus for film and glass, and more particularly, it is possible to assemble the film (glass) with a simple and efficient structure to improve the overall deposition process efficiency The assembly apparatus of the film and glass which can be.

With the rapid development of information and communication technology and the expansion of the market, flat panel displays have been in the spotlight as display devices.

Such flat panel display devices include liquid crystal displays, plasma display panels, and organic light emitting diodes.

Among them, organic light emitting diodes, i.e., OLEDs, have very good advantages such as faster response speed, lower power consumption than conventional LCDs, light weight, ultra-thin, because they do not require a separate back light device, and high brightness. As a result, it is attracting attention as a next generation display device.

In the organic light emitting device, an anode film, an organic thin film, and a cathode film are sequentially coated on a substrate, and a suitable energy difference is formed in the organic film by emitting a voltage between the anode and the cathode, thereby emitting light by itself.

In other words, the injected electrons and holes are recombined, and the remaining excitation energy is generated as light. At this time, since the wavelength of the light generated according to the amount of the dopant of the organic material can be adjusted, it is possible to realize full color.

1 is a structural diagram of an OLED.

As shown in this figure, the OLED is formed on the substrate by an anode, a hole injection layer, a hole transfer layer, an emitting layer, a hole blocking layer, Films such as an electron transfer layer, an electron injection layer, a cathode, and the like are stacked in this order.

In this structure, indium tin oxide (ITO) having a small surface resistance and good permeability is mainly used as the anode. The organic thin film is composed of a multilayer of a hole injecting layer, a hole transporting layer, a light emitting layer, a hole blocking layer, an electron transporting layer, and an electron injecting layer in order to increase the luminous efficiency. Organic materials used as the light emitting layer include Alq3, TPD, PBD, m-MTDATA, and TCTA. As the cathode, a LiF-Al metal film is used. And since the organic thin film is very weak to moisture and oxygen in the air, a sealing film for sealing is formed at the top to increase the lifetime of the device.

Among the various layers described above, the light emitting layer is very important for device characteristics. Previously, low molecular weight organic materials and high molecular weight organic materials have been used for the light emitting layer.

However, since the low molecular weight organic material requires a thin iron mask (Mask) in the deposition process, it is known that the OLED is difficult to enlarge due to the warpage of the mask and the complexity of the equipment.

In the case of the polymer organic material, the pixel pattern is formed by the inkjet printing method, which is advantageous for the enlargement but has a short lifespan.

Accordingly, in recent years, as a deposition process for depositing each layer such as a light emitting layer, a hole injection layer, a hole transport layer, a hole blocking layer, an electron transport layer, an electron injection layer, laser thermoelectric, which is a process using laser thermal transfer. LITI (Laser Induced Thermal Image) is being applied or expected.

On the other hand, such a deposition process is a film (particularly, the lower film and glass (glass) to make a form of an assembly to meet and then transfer to a later process). This may be one step of a process called a donor process.

Since the film is relatively thin compared to the glass, the film must be assembled in surface contact with each other in the entire area of the glass so as to be completed in the post process. Therefore, there is a strong demand for a facility or an apparatus for assembling a film and glass, but until now, an apparatus for assembly of a film and glass for assembling the film and glass has not been developed.

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Therefore, the technical problem to be achieved by the present invention is to assemble the film (glass) and glass (glass) through a simple and efficient structure (assembly) to improve the overall deposition process efficiency of the film and glass assembly apparatus To provide.

According to an aspect of the invention, the glass stage for supporting a glass (glass) for the manufacture of a flat panel display (flat panel display); And a film stage disposed adjacent to the glass stage and supporting a film that is in surface contact with one surface of the glass and is assembled with the glass, wherein the film stage includes the film. A center stage for supporting a film, the center stage supporting a central region of the film; And a film support side stage disposed at an outer side of the film support center stage to support a side region of the film.

A bottom body supporting the glass stage and the film support side stage; And a top body disposed in an upper region of the bottom body and supporting a center stage for supporting the film.

The top body may further include a first access path through which the glass stage partially passes and a second access path through which the side stage for supporting the film partially passes.

The film support center stage may be a plurality of film support center stage blocks disposed to be spaced apart from each other so that a plurality of fork arms provided in the glass and the handling robot for handling the film may be disposed therebetween.

The plurality of film support center stage blocks may be disposed in a central area of the top body.

At least one of the plurality of film support center stage blocks may be connected to a position adjusting unit for adjusting the position of the film support center stage block.

The position adjusting unit, a position adjusting slot provided in the top body; And a connecting member connecting the position adjusting slot and the film support central stage block.

The film support side stage may include a pair of rod-type film support side stage blocks provided in a rod shape and spaced apart from each other; And a pair of concave-convex film support side stage blocks provided in a concave-convex shape and spaced apart from each other in a direction crossing the pair of bar-shaped film support side stage blocks.

The rod-side film supporting side stage blocks and the concave-convex film support side stage blocks are separately connected to the rod-shaped film support side stage blocks and the concave-convex film support side stage blocks. The block may further include an up / down driving unit for up / down driving through the access road.

The block up / down driving unit includes: a first cylinder body coupled to the bottom body; A first cylinder rod extending or contracting with respect to the first cylinder body; And a first support plate coupled to an end of the first cylinder rod to support the rod-type film support side stage blocks and the uneven film support side stage blocks from the bottom.

The up / down driving unit for the block further includes a plurality of first guides connected to the first cylinder body and the first support plate around the first cylinder rod to guide the up / down movement of the first support plate. can do.

The apparatus may further include an up / down driving unit for a top body disposed between the bottom body and the top body to drive the top body up / down with respect to the bottom body.

The top body up / down driving unit, the second cylinder body coupled to the bottom body; A second cylinder rod extending or contracting in length with respect to the second cylinder body; And a second support plate coupled to an end of the second cylinder rod to support the top body from below.

The second body may further include a plurality of second guides disposed between the bottom body and the top body to guide an up / down movement of the top body when the up / down driving unit for the top body is operated.

A stage shaft which is detachably connected to the glass stage, and which enters and exits through the first access path in a direction in which the top body is driven; And a shaft rotation actuator coupled to the bottom body in a state connected with the stage shaft to rotate the stage shaft.

In the bottom body, a plurality of support shafts supporting the bottom body may be disposed in a corner area, and the flat panel display device may be an organic light emitting diode (OLED).

According to the present invention, the film and glass can be assembled through a simple and efficient structure, thereby improving the efficiency of the overall deposition process.

1 is a structural diagram of an OLED.
2 is a perspective view of an assembly apparatus of a film and glass according to an embodiment of the present invention.
FIG. 3 is an exploded perspective view of FIG. 2. FIG.
4 is a side view of FIG. 2.
5 to 18 are diagrams illustrating the process of assembling the film and the glass, all of which are partially removed for convenience, partially overlapped in the drawing of FIG. 4.

In order to fully understand the present invention, operational advantages of the present invention, and objects achieved by the practice of the present invention, reference should be made to the accompanying drawings and the accompanying drawings which illustrate preferred embodiments of the present invention.

DETAILED DESCRIPTION OF THE PREFERRED EMBODIMENTS Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings. Like reference symbols in the drawings denote like elements.

Figure 2 is a perspective view of the assembly apparatus of the film and glass according to an embodiment of the present invention, Figure 3 is an exploded perspective view of Figure 2, Figure 4 is a side view of Figure 2, Figures 5 to 18 are all Figure 4 Some overlapping portions in the drawings are shown for convenience in order to illustrate the step of assembling the film and the glass.

Referring to these drawings, but mainly referring to FIGS. 2 to 4, the assembly apparatus of the film and the glass of the present embodiment may face each other with a glass and a film for manufacturing a flat panel display. An apparatus for fabricating an assembly includes a glass stage 110 for supporting glass and a film stage 120 for supporting a film.

The flat panel display device may be a liquid crystal display device, a plasma display panel, an organic light emitting diode device, or the like as described above. Is applied as an OLED, but the scope of the present invention is not limited thereto.

The glass stage 110 is a portion that supports the glass from the bottom, and as shown in FIG. 3, a plurality of glass stages 110 (in this embodiment, eight) may be provided along a circumference. In other words, the glass transported by the fork arm 2 of the handling robot 1 is seated on the surface of the plurality of glass stages 110.

As will be described in detail later, the glass stage 110 may be rotated when the glass is input, and may be reversely rotated when the glass is assembled with the film. The structure connected to the glass stage 110 and its operation will be described later.

The film stage 120 is disposed adjacent to the glass stage 110 and is a portion that supports the film assembled with the glass on one surface of the glass, in particular, the lower surface.

Unlike the glass stage 110, the film stage 120 may be divided into two parts that are driven independently. That is, in the present embodiment, the film stage 120 is a film support center stage 130 for supporting the center region of the film and a film disposed on the outside of the film support center stage 130 to support the side region of the film. It may include a supporting side stage 140.

In order to support the glass stage 110 and the film stage 120 as described above, the assembly apparatus of the present embodiment includes a bottom body 150 supporting the glass stage 110 and the film support side stage 140. And a top body 160 disposed in the upper region of the bottom body 150 and supporting the central stage 130 for supporting the film.

The bottom body 150 is a structure that is fixedly disposed in the place where the assembly device of the present embodiment is installed. In the bottom body 150, a plurality of support shafts 151 supporting the bottom body 150 are disposed one by one in a corner area.

While the bottom body 150 is a fixed structure, the top body 160 is disposed in the upper region of the bottom body 150 to be driven up / down with respect to the bottom body 150, so that the glass and the film are Contribute to being assembled.

A top body up / down driving unit 170 is provided between the bottom body 150 and the top body 160 so that the top body 160 can be driven up / down with respect to the bottom body 150.

In the present exemplary embodiment, the top body up / down driving unit 170 is provided in pairs at positions spaced apart from each other on the bottom body 150, but the scope of the present invention is not limited to the numerical values thereof.

The top body up / down driving unit 170 includes a second cylinder body 171 coupled to the bottom body 150, and a second cylinder rod 172 extending or contracting with respect to the second cylinder body 171. And a second support plate 173 coupled to an end of the second cylinder rod 172 to support the top body 160 from below, and disposed between the bottom body 150 and the top body 160 to form a second cylinder. A plurality of second guides 174 may be included to guide the up / down movement of the top body 160 when the rod 172 operates.

In the second cylinder body 171, hydraulic, pneumatic or oil pressure may be used as the hydraulic fluid. The second support plate 173 coupled to the end of the second cylinder rod 172 is a medium whose upper surface is fixed to the lower surface of the top body 160.

In addition, the plurality of second guides 174 may support the load of the top body 160 together with the second cylinder rod 172 and serve to assist the top body 160 to be stably up / down driven. The second guides 174 may be provided one by one at a corner area between the bottom body 150 and the top body 160.

Thus, when the hydraulic oil is supplied to the second cylinder body 171 and the length of the second cylinder rod 172 is extended, the top body 160 may be up. On the contrary, the hydraulic oil is supplied to the second cylinder body 171. When the gas is discharged and the length of the second cylinder rod 172 is reduced, the top body 160 may be down.

The first body passage 161 through which the glass stage 110 partially passes is formed in the top body 160. In the present embodiment, since eight glass stages 110 are applied, eight first entrances and exits 161 may also be formed at corresponding positions of the glass stages 110. Second access paths 162a and 162b are formed around the first access paths 161. The second access paths 162a and 162b form a place where the film support side stage 140 passes.

Meanwhile, hereinafter, the detailed structure, connection structure, and operation of the glass stage 110 and the film stage 120 will be described in detail.

First, the glass stage 110 is a portion on which the glass is seated, and the stage shaft 111 is connected to the glass stage 110. The stage shaft 111, which is disposed in the rod shape and extends in the vertical direction, enters and exits through the first access path 161 formed in the top body 160 in the direction in which the top body 160 is driven, that is, in the vertical direction. .

The glass stage 110 may be detachably connected to the upper end of the stage shaft 111 to form a body with the stage shaft 111. Since the glass stage 110 is detached from the upper end of the stage shaft 111, there is an advantage that a different type of glass stage (not shown) may be used according to the size or weight of the glass.

Since the glass stage 110 is a structure that directly contacts the lower surface of the glass to support the glass, a material that does not cause damage such as scratches on the glass, such as rubber, silicone, or urethane, may be further coupled to the surface. .

The lower end of the stage shaft 111 is connected to the shaft rotation actuator 112 coupled to the bottom body 150. For example, the shaft rotation actuator 112, which may be applied to a motor or the like, supports the stage shaft 111 in a state in which it is coupled to the bottom body 150, so that the glass stage 110 is connected to the glass stage 110 through the stage shaft 111. Allow it to rotate like an enlarged part.

In other words, the glass stage 110 is arranged like a solid line in the enlarged part of FIG. 2 by the operation of the shaft rotating actuator 112 before the glass is introduced into the apparatus or in the state where the glass is inserted and assembled with the film. In the state where the glass is inserted into the device, the glass stage 110 is rotated as a dotted line in the enlarged part of FIG. 2 by the operation of the shaft rotating actuator 112.

Next, the film stage 120 is a portion for supporting the film, and is disposed outside the film support center stage 130 and the film support center stage 130 as described above. And a film support side stage 140 for supporting the side regions of the film.

In the present embodiment, the film support center stage 130 includes a plurality of fork arms 2 provided on the handling robot 1 that handles the glass and the film so as to be spaced apart from each other so as to be disposed therebetween. It is provided with the center stage block 131 for film support. Although the shapes of the center stage blocks 131 for supporting the film are not all the same, the center stage blocks 131 for supporting the film are given the same reference numerals for convenience.

After the handling robot 1 shown in FIG. 2 supports the film and transfers it to the center stage 130 for supporting the film, a plurality of fork arms 2 are placed to lay down the film on the surface of the center stage 130 for supporting the film. ) Must be freed to free space to be taken out. Therefore, when the film support center stage 130 is provided as a plurality of film support center stage blocks 131 spaced apart from each other, instead of an integrated block structure, the film support center stage block 131 is provided. There is no problem at all in conveying the film because there is a space in which the fork arms 2 of the handling robot 1 can be disposed between them.

The film support center stage blocks 131 are disposed in the central area of the top body 150 and are linked together in an up / down operation of the top body 150 to be operated up / down together.

In this case, a structure in which all of the center stage blocks 131 for supporting the film are fixed to the center area of the top body 150 may be considered, but considering the size of the film, among the center stage blocks 131 for supporting the film It may be convenient if some or all of them are positioned on the top body 150.

To this end, the position adjusting unit 180 is further connected to at least one of the film support center stage blocks 131 as a means for adjusting the position of the film support center stage blocks 131.

The position adjusting unit 180 includes a position adjusting slot 181 provided on the top body 160, and a connecting member 182 connecting the position adjusting slot 181 and the film support center stage block 131. can do. Therefore, when the connecting member 182 is moved along the longitudinal direction of the position adjusting slot 181, the film support central stage block 131 connected with the connecting member 182 may be moved together with the connecting member 182. Position adjustment of the center stage block 131 for supporting the film can be freely performed.

The film support side stage 140 is provided in a bar shape, and is provided in a pair of bar-type film support side stage blocks 141 which are arranged to face each other so as to be spaced apart from each other, and is provided in an uneven shape, and a pair of bar film And a pair of uneven film supporting side stage blocks 142 disposed to face each other in a direction crossing the supporting side stage blocks 141.

Since the fork arm 2 of the handling robot 1 should be disposed toward the side stage blocks 142 for the uneven film support, the side stage blocks 142 for the unsupported film support are described above. Like 131, the fork arm 2 of the handling robot 1 provides a space in which it can be moved.

The side-stage block 141 for supporting the bar film and the side stage block 142 for the uneven film support are both provided on the bottom body 150 side, and upwards before the assembly process between the glass and the film is completed and taken out. Up. That is, the rod-type film supporting side stage blocks 141 and the uneven film supporting side stage blocks 142 may be operated up / down through the second entrances 162a and 162b of the top body 160, respectively. have.

As described above, the rod-type film supporting side stage blocks 141 and the uneven film supporting side stage blocks 142 may be driven up / down through the second entrances 162a and 162b of the top body 160, respectively. The up / down driving unit 190 for the block is separately provided in the side film blocks 141 for supporting the bar type film and the side stage blocks 142 for supporting the uneven film.

That is, in the present embodiment, since the bar-type film supporting side stage blocks 141 and the uneven film supporting side stage blocks 142 are provided in total of two, four block up / down driving units 190 are also provided. . Of course, the scope of the present invention is not limited to these numerical values. Accordingly, the rod-type film supporting side stage blocks 141 and the uneven film supporting side stage blocks 142 may be implemented to be integrally up / down driven by one up / down driving unit (not shown). Matters should also fall within the scope of the present invention.

The block up / down driving unit 190 may include a first cylinder body 191 coupled to the bottom body 150, and a first cylinder rod 192 extending or contracting with respect to the first cylinder body 191. A first supporting plate 193 coupled to an end of the first cylinder rod 192 to support the side stage blocks 141 for supporting the bar-type film and the side stage blocks 142 for supporting the uneven film support; A plurality of first guides 194 connected to the first cylinder body 191 and the first support plate 193 around the first cylinder rod 192 to guide the up / down movement of the first support plate 193 are provided. It may include.

Hydraulic, pneumatic or hydraulic pneumatic pressure may be used as the hydraulic fluid in the first cylinder body 191. The first support plate 193 coupled to the end of the first cylinder rod 192 has an upper surface fixed to the lower surface of the rod-shaped film supporting side stage blocks 141 and the uneven film supporting side stage blocks 142. It is a medium.

The plurality of first guides 194 together with the first cylinder rod 192 support the loads of the rod-shaped film supporting side stage blocks 141 and the uneven film supporting side stage blocks 142. The side stage blocks 141 for supporting the film and the side stage blocks 142 for supporting the concave-convex film play an auxiliary role so as to be stably up / down driven. The first guide 194 may be disposed one by one on both sides of the first cylinder rod 192.

Accordingly, when the hydraulic oil is supplied to the first cylinder body 191 and the length of the first cylinder rod 192 is extended, the side stage blocks 141 for supporting the bar-type film and the side stage blocks 142 for supporting the uneven film support are provided. They may be up (up) through the second access passages (162a, 162b) corresponding thereto, and if the hydraulic oil is discharged to the first cylinder body 191 to reduce the length of the first cylinder rod 192, the rod type The side stage blocks 141 for supporting the film and the side stage blocks 142 for supporting the concave-convex film may be down.

A process of assembling the film and the glass by the assembly apparatus of the film and the glass of the present embodiment having such a configuration will be described below with reference to FIGS. 5 to 18.

For reference, an accurate side view of the assembly apparatus of this embodiment is FIG. 4, and FIGS. 5 to 18 are not exact side views or side cross-sectional views of the assembly apparatus of this embodiment. In other words, FIGS. 5 to 18 are partial side cross-sectional views partially showing overlapping portions in the drawing of FIG. 4 to show a stepwise operation taken out after the film and glass are put into the apparatus and assembled. The operation will be described.

5 is an initial stage in which the second cylinder rod 172 of the top body up / down driving unit 170 is extended so that the top body 160 is up. In this case, the upper surface of the glass stage 110 is disposed at a position lower than the upper surfaces of the center stage blocks 131 for supporting the film, and the block up / down driving unit 190 is not operated yet.

In this state, the fork arm 2 is disposed in the upper region of the top body 160 as shown in FIG. 6 with the film placed on the upper surface of the fork arm 2 of the handling robot 1. Then, the fork arm 2 is down as shown in FIG.

At this time, the fork arm 2 is disposed between the center stage blocks 131 for supporting the film, so that the film is placed on the center stage blocks 131 and the side stage 140 for supporting the film. Thereafter, the fork arm 2 of the handling robot 1 is taken out as shown in FIG. 8.

Next, as shown in FIG. 9, the second cylinder rod 172 of the top body up / down driving unit 170 is reduced in length so that the top body 160 is down. Then, the glass stage 110 is disposed at a position higher than the upper surfaces of the center stage blocks 131 and the side stage 140 for supporting the film.

In this state, the fork arm 2 is disposed in the upper region of the glass stage 110 as shown in FIG. 10 with the glass on the upper surface of the fork arm 2a of the handling robot 1a. At this time, the glass stage 110 is rotated based on the operation of the shaft rotation actuator 112.

Then, the fork arm 2 is down as shown in FIG. 11 and then taken out as shown in FIG. The glass is then loaded into the glass stage 110. For reference, in the present embodiment, the handling robot 1 carrying the film and the handling robot 1a carrying the glass are shown differently, but they may be the same robot.

After the handling robot 1a is taken out, as shown in FIG. 13, the second cylinder rod 172 of the top body up / down driving unit 170 is extended so that the top body 160 is operated up.

As the top body 160 is operated up, the central stage block 131 for supporting the film, which was supporting the central area of the film, is operated up with the film. It is assembled in the central area and up with the glass.

As such, when the top body 160 is operated up, the film is supported only by the center stage blocks 131 for supporting the film, and the top body 160 is operated up to contact the glass thereon. As a result, the side region of the film sags downward as in the enlarged picture of FIG. 14. In this state, when the top body 160 is further operated up, the glass is spaced upward from the glass stage 110. In this state, the glass stage 110 is rotated to its original position as shown in FIG.

After the glass stage 110 is rotated back to its original position, the block up / down driving unit 190 is operated as illustrated in FIG. 15 to support the side stage blocks 141 for supporting the bar-type film and the side stage blocks for supporting the uneven film. 142 are up, whereby the glass and film are assembled in the side region.

After the glass and the film are assembled as shown in FIG. 15, the handling robot 1 is inserted as shown in FIG. 16 so that the fork arm 2 is disposed between the center stage blocks 131 for supporting the film, and then the up (as shown in FIG. 17). up) is operated and is taken out as shown in FIG.

According to the assembly apparatus of the film and glass according to the present embodiment having such a structure and operation, it is possible to assemble the film and glass through a simple and efficient structure (assembly) it is possible to improve the efficiency of the overall deposition process. a

It will be apparent to those skilled in the art that various modifications and variations can be made in the present invention without departing from the spirit or scope of the invention. Accordingly, such modifications or variations are intended to fall within the scope of the appended claims.

110: glass stage 111: stage shaft
112: actuator for shaft rotation 120: film stage
130: center stage for film support 131: center stage block for film support
140: side stage for film support
141: side stage block for supporting the stick film
142: side stage block for the uneven film support
150: bottom body 151: support shaft
160: top body 161: first entrance
162a, 162b: the second access path 170: up / down drive unit for the top body
171: second cylinder body 172: second cylinder rod
173: second support plate 174: second guide
180: position adjusting unit 181: position adjusting slot
182: connecting member 190: block up / down drive
191: first cylinder body 192: first cylinder rod
193: first support plate 194: first guide

Claims (16)

A glass stage for supporting glass for manufacturing a flat panel display; And
A film stage disposed adjacent to the glass stage and supporting a film that is in surface contact with one surface of the glass and is assembled with the glass,
The film stage,
A center stage for supporting a film, the center stage supporting a central region of the film; And
And a film support side stage disposed outside the center stage for supporting the film to support the side region of the film. The method of claim 1,
A bottom body supporting the glass stage and the film support side stage; And
And a top body disposed in an upper region of the bottom body and supporting a central stage for supporting the film. The method of claim 2,
The top body further comprises a first passageway through which the glass stage is partially passed, and a second passageway through which the film support side stage is partially passed. The method of claim 2,
The film support center stage is a plurality of film support center stage blocks arranged to be spaced apart from each other so that a plurality of fork arms provided in the glass and the handling robot for handling the film can be disposed between. Assembly device of film and glass. 5. The method of claim 4,
The plurality of film support center stage block is disposed in the central region of the top body assembly apparatus of the film and glass. 5. The method of claim 4,
At least one of the plurality of film support center stage block assembly apparatus for the film and glass, characterized in that the position adjusting unit for position adjustment of the corresponding film support center stage block is connected. The method according to claim 6,
The position adjusting unit,
Positioning slot provided in the top body; And
And a connecting member connecting the position adjusting slot and the film support center stage block. The method of claim 3,
The side stage for film support,
A side stage block provided in a rod shape and disposed to face each other to be spaced apart from each other; And
Film and glass provided in a concave-convex shape, and comprising a pair of concave-convex film support side stage blocks spaced apart from each other in a direction crossing the pair of bar-shaped film support side stage blocks. Assembly device. The method of claim 7, wherein
The rod-side film supporting side stage blocks and the concave-convex film support side stage blocks are separately connected to the rod-shaped film support side stage blocks and the concave-convex film support side stage blocks. 2. The assembly apparatus of the film and glass, further comprising an up / down driving unit for up / down driving through the access path. 10. The method of claim 9,
The block up / down drive unit,
A first cylinder body coupled to the bottom body;
A first cylinder rod extending or contracting with respect to the first cylinder body; And
And a first support plate coupled to an end of the first cylinder rod to support the rod-shaped film supporting side stage blocks and the uneven film supporting side stage blocks from below. Device. The method of claim 10,
The up / down driving unit for the block further includes a plurality of first guides connected to the first cylinder body and the first support plate around the first cylinder rod to guide the up / down movement of the first support plate. Assembly apparatus of the film and glass, characterized in that. The method of claim 2,
The assembly of the film and glass, characterized in that it further comprises an up / down drive for the top body disposed between the bottom body and the top body to drive the top body up / down (up / down) with respect to the bottom body Device. The method of claim 12,
The up / down drive unit for the top body,
A second cylinder body coupled to the bottom body;
A second cylinder rod extending or contracting in length with respect to the second cylinder body; And
And a second support plate coupled to an end of the second cylinder rod to support the top body from below. The method of claim 12,
It is disposed between the bottom body and the top body, the film and glass further comprises a plurality of second guides for guiding the up / down movement of the top body during the operation of the up / down drive unit for the top body Assembly device. The method of claim 3,
A stage shaft which is detachably connected to the glass stage, and which enters and exits through the first access path in a direction in which the top body is driven; And
And a shaft rotating actuator coupled to the bottom body in a state of being connected with the stage shaft to rotate the stage shaft. The method of claim 2,
The bottom body has a plurality of support shafts for supporting the bottom body is disposed in the corner (corner) area,
And the flat panel display device is an organic light emitting diode (OLED).

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