KR20110089593A - Turn over device for solar battery module manufacturing apparatus - Google Patents

Abstract

PURPOSE: A turn over apparatus for photovoltaic module production equipment is provided to turn over a photovoltaic module assembled with a frame during an inline process, thereby enabling to safely and automatically turn over compared than before. CONSTITUTION: A turn over apparatus for photovoltaic module production equipment is comprised of a first and second transport module and a turn over module. The first and second transport modules transfer the photovoltaic module(1). The turn over module is installed between the first transport module(200) and second transport module(300). The turn over module receives the photovoltaic module and transfers the photovoltaic module to the second transport module after turning over upside down.

Description

TURN OVER DEVICE FOR SOLAR BATTERY MODULE MANUFACTURING APPARATUS}

The present invention relates to a turn-over device for a solar module production facility, and more particularly, for a solar module production facility that can automatically flip the solar module assembled with a frame in an inline process upside down more safely than conventionally. Relates to a turnover device.

Due to the depletion of chemical energy such as coal and petroleum and environmental pollution due to the use of chemical energy, efforts are being made to develop alternative energy. One of them is photovoltaic power generation using solar energy. Photovoltaic power generation is a series of technologies that convert solar energy (solar heat or sunlight) into electrical energy.

Briefly, the basic principle is that when solar light is irradiated to a solar cell composed of a pn junction semiconductor, electron and hole pairs are generated by light energy, and electrons and holes move across the n and p layers. The electromotive force is generated by the photovoltaic effect through which the current flows, and the result of the current flowing to the externally connected load is used.

As described above, in order to convert the solar energy in the indefinite and pollution-free into electric energy, the development of a technology for a solar battery module for condensing sunlight is required.

Although not identical, a single solar module, like an LCD process or a semiconductor process, must go through multiple devices or systems.

Briefly, the production process of the solar module. First, when a plurality of cells (approximately square or rectangular) are supplied, a plurality of cells are arranged in a row. Next, a plurality of cells arranged in a row are connected together with a plurality of (usually three) central ribbons in consideration of the positive electrode (+) and the negative electrode (-) to form a string of one unit of bundle. After arranging a plurality of strings in the plane direction, all the cells are energized by connecting the central ribbons exposed to one side of the strings with a plurality of side ribbons.

Then, by applying a material called E.V.A on both sides of the surface of the entire string, a solar cell panel is fabricated through a laminating process in which a waterproof film is placed, a glass plate is placed on one side, and a back sheet is placed on the other side. Thereafter, during the laminating process, a trimming process is performed to trim a portion that is unnecessarily extended to the outer portion of the solar panel, and then a solar module is completed by assembling the frame at the outer end through the junk box assembly process. .

Although briefly described, a single solar module needs to go through a number of processes, that is, a plurality of devices or systems for performing the process. It is difficult to easily access or invest in the PV industry as it is regarded as important as the next generation industry because PV modules can be produced only with such diverse and complex devices or systems and the facilities encompassing them.

On the other hand, in the above-described laminating process, trimming process, junk box assembly process and frame assembly process, the operation is performed in a state in which the glass plate described above faces downward in order to increase the work efficiency in the process.

In order to check whether the glass plate of the photovoltaic module manufactured through the above processes is defective or damaged, a process of inverting the photovoltaic module is required. In the related art, an in-line that is continuously connected to the above-described frame assembly process is conventionally required. In the process, the solar module could not be flipped and the solar module in the stationary state was turned upside down to check for defects and breakage of the glass plate, and there was a risk of falling of the solar module in the process of flipping the manufactured solar module.

Therefore, the development of a turnover device for a solar module production equipment that does not block the continuous flow of the work process when flipping the solar module, and also can be safely turned over so that the solar module does not fall in the process of flipping the solar module. This is necessary.

SUMMARY OF THE INVENTION An object of the present invention is to provide a turnover device for a solar module production facility that can automatically flip the solar module assembled with a frame upside down in an inline process more safely than conventionally.

The object is, according to the present invention, the first and second transfer module for transferring the solar module; And installed between the first transfer module and the second transfer module to receive the solar module from the first transfer module and turn the solar module upside down so that the top and bottom of the solar module are reversed. It is achieved by a turn-over device for a solar module production facility, characterized in that it comprises a turn-over module for transmitting.

The turn-over module may include a rotating arm part partially contacted with the solar module and provided with a module support part supporting the solar module; And it may include a rotary drive unit for rotationally driving the rotary arm portion so that the rotary arm portion is disposed between the first and second transfer module.

The rotating arm part may be provided in a plurality of radially with respect to the rotation center of the rotation driving part.

The rotating arm unit may include a pair of first and second rotating bars forming a spaced space such that the solar module is disposed therebetween.

The module support may be installed such that one end thereof is accessible and spaced apart from one of the first and second rotation bars toward the other.

The module support unit may include: an adsorption pad installed at the first rotation bar to adsorb the solar module so that one end thereof is accessible and spaced toward the solar module disposed in the separation space; And a cylinder to allow one end of the suction pad to approach and be spaced apart from the solar module.

A buffer member may be attached to one side of the second rotation bar facing the solar module to prevent the solar module from directly contacting the second rotation bar.

The rotary drive unit, the rotary arm portion is coupled, the rotating shaft portion disposed between the first transfer module and the second transfer module; Bearings supporting both ends of the rotating shaft; And it may include a servo motor for rotating the rotary shaft portion.

The first transfer module may include an up-down loader for moving down the photovoltaic module on the first transfer module and moving to the turn-over module side.

The up-down loader may include a plurality of belt conveyors spaced apart from each other on a support frame on which the first transfer module is installed; And a cylinder installed on the support frame to up-down the plurality of belt conveyors.

The up-down loader may further include a power base connected to the cylinder to up-down the plurality of belt conveyors equally in conjunction with the operation of the cylinder.

The first and second transfer module, respectively, a plurality of rotating rollers are spaced apart from each other to provide a space between each other; Sprocket wheels respectively installed at the ends of the plurality of rotary rollers; A chain coupled to the sprocket wheel; And a motor for rotating the chain to rotate the plurality of rotating rollers synchronously, wherein the rotating arm part is provided in a plurality spaced apart from each other along the width direction of the first and second conveying modules. It may be disposed in the space so as not to interfere with.

The photovoltaic module has a state in which a glass plate is attached to one surface thereof, and the first transfer module transfers the photovoltaic module so that the glass plate has a state facing downward, and the second transfer module includes the glass plate. The solar module may be transferred to have an upward direction, and the first and second transfer modules may form a work line inlined with the turn over module.

According to the present invention, the solar module assembled with the frame can be automatically reversed more safely than the conventional one so as to be vertically reversed in an inline process.

1 is a perspective view showing a step-by-step manufacturing process of the photovoltaic module manufactured by a photovoltaic module production facility to which the turn-over device for a photovoltaic module production facility according to an embodiment of the present invention is applied.
2 is a plan view of FIG. 1.
3 is a front view showing a turn-over device for a solar module production facility according to an embodiment of the present invention.
4 is a side view of FIG. 3.
5 is a plan view of FIG. 3.
FIG. 6 is an enlarged view illustrating a state before the solar module is absorbed by the module supporter in FIG. 3.
FIG. 7 is an enlarged view illustrating a state after the solar module is absorbed by the module supporter in FIG. 3.
FIG. 8 is a side view illustrating a state in which the solar module is lifted by the belt conveyor in FIG. 3.

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

Hereinafter, exemplary embodiments of the present invention will be described in detail with reference to the accompanying drawings. Like reference numerals in the drawings denote like elements.

FIG. 1 is a perspective view illustrating a manufacturing process of a solar module manufactured by a solar module production facility to which a turn-over device for a solar module production facility according to an embodiment of the present invention is applied, and FIG. 2 is FIG. 1. Top view of the.

The production process of the solar module 1 shown in Figs. 1 and 2 will be briefly described with reference to Fig. 1 mainly.

First, as shown in (a) of FIG. 1, substantially square or rectangular cells (2, cells) are arranged in a row as in FIG. 1 (b), and the cells 2 arranged in a row are positively positive (+). And considering the negative electrode (-), the adjacent ones are connected by a plurality of central ribbons 3 to form a string 4 of one bundled unit.

Then, after arranging six strings 4 in the plate direction as shown in FIG. 1C, the central ribbons 3 exposed to one side of the strings 4 are connected by a plurality of side ribbons 5. The string assembly 6 is made so that 60 cells 2 are energized with each other.

Then, a material called EVA is applied to both sides of the string assembly 6, a glass plate is disposed on one side, and a back sheet is placed on the other side, and finally, the frame 7 is surrounded on the outer side as shown in FIG. By assembling the solar module 1 is produced.

In the present embodiment, a total of 60 cells 2 are used in one solar module 1, and the center ribbon 3 is three rows in manufacturing one string 4 as shown in FIG. 1c is used, and in the manufacture of the string assembly 6, the side ribbons 5 are used in total as six different lengths.

Of course, this is only made in one embodiment and the scope of the present invention need not be limited to the shape of the solar module 1 shown. That is, the number and size of the cells 2, the number and size of the center ribbon 3 and the side ribbon 5 may be changed as many as the situation demands.

Figure 3 is a front view showing a turn-over device for a solar module production facility according to an embodiment of the present invention, Figure 4 is a side view of Figure 3, Figure 5 is a plan view of Figure 3, Figure 6 is a sun in Figure 3 It is an enlarged view which shows the state before an optical module is adsorbed by a module support part, FIG. 7 is an enlarged view which shows the state after a solar module is adsorbed by the module support part in FIG. 3, FIG. 8 is a solar module in FIG. It is a side view which shows the state raised by this belt conveyor.

As shown in these drawings, the turn-over device for a solar module production facility according to an embodiment of the present invention, the first transfer module 200 to the solar module 1 of the frame 7 is assembled state After receiving the transfer through the turn over module 400 and upside down so that the inverted and then through the second transfer module 300 such a series of operations such as transferring to the working space where the work such as loading and packaging is performed inline ( IN-LINE).

Such a turnover device for a solar module production facility includes a first and a second transfer module 200 and 300 for transferring the solar module 1 and between the first transfer module 200 and the second transfer module 300. It is installed to turn over the solar module 1 on the first transfer module 200 upside down to include a turn-over module 400 to transfer to the second transfer module 300.

As shown in FIG. 3, the solar module 1 has a glass plate 8 attached to one surface and a back sheet attached to the other surface thereof, and a solar module transferred on the first transfer module 200. (1) has a state in which the glass plate 8 is directed downward, such a solar module 1 is reversed up and down through the turn-over module 400 so that the glass plate 8 is upward on the second transfer module 300 It is conveyed in the state facing.

That is, the photovoltaic module 1 inverted up and down by the turnover module 400 of the turnover device for a photovoltaic module production facility according to an embodiment of the present invention has an upward direction in which the glass plate 8 is exposed to the outside. It is transferred to the work line and the space where the loading and packaging is made through the second transfer module 300 in the facing state.

As shown in Figure 3 to 5, the first and second transfer module (200,300) of the present embodiment, a plurality of rotary rollers (210, 310) and a plurality of spaced apart from each other so as to provide a space between each other, Sprocket wheels 220 and 320 installed at the ends of the rotary rollers 210 and 310, chains 230 and 330 coupled to the sprocket wheels 220 and 320, and the chains 230 and 330 to rotate the plurality of rotary rollers 210 and 310, respectively. It includes a motor (240, 340) to rotate synchronously.

In addition, the first transfer module 200, the photovoltaic module 1 on the first transfer module 200, specifically, the sunlight transferred to a predetermined position on the rotary roller 210 of the first transfer module 200 It includes an up-down loader 250 for accessing the turn over module 400 side as well as up-down the module 1.

The up-down loader 250, by adjusting the position of the photovoltaic module 1 before the photovoltaic module 1 on the first transfer module 200 is reversed up and down through the turn-over module 400 to turn over module 400, the solar module 1 rotates more stably by increasing the mutual contact area between the first and second rotation bars 412 and the solar module 1 of the turn-over module 400, which will be described later. Be sure to

3 to 5, the up-down loader 250 is spaced apart from each other on a support frame on which the first transfer module 200 is installed to approach the solar module 1 toward the turn-over module 400. It includes a plurality of belt conveyor 251, and a cylinder 252 is provided on the support frame for up and down the plurality of belt conveyor 251. The cylinder 252 is connected to a separate frame that supports the belt conveyor 251. In this embodiment, the belt conveyor 251 is provided in two, but may be provided in more than that number.

In the present embodiment, the up-down loader 250 is a cylinder (such that the two belt conveyor 251 is raised and lowered equally so that the photovoltaic module 1 on the belt conveyor 251 is up and down with the horizontal state at the bottom). And a power base 253 coupled to 252.

Referring to FIG. 4, two cylinders 252 are each connected to separate frames supporting the belt conveyor 251, and these frames are integrally connected to each other by a connecting bar 254, and a power base at the bottom of the frame. 253 is provided. Accordingly, the frames on both sides connected integrally by the connecting bar 254 are raised and lowered in the same manner when the cylinder 252 is operated.

On the other hand, since the rotating roller 210 of the first transfer module 200 is a part in contact with the glass plate 8 of the photovoltaic module 1, a scratch or the like is applied to the glass plate 8 during the transfer of the photovoltaic module 1. The surface of the rotating roller 210 is preferably made of a rubber material to minimize the occurrence.

As shown in FIGS. 3 and 5, the turn-over module 400 is installed between the first and second transfer modules 200 and 300, and partially contacts the photovoltaic module 1 to provide a photovoltaic module 1. Rotating arm portion 410 is provided with a module support portion 420 for supporting the rotation arm portion 410, the rotary arm portion 410 is disposed between the first and second transfer module (200,300) It includes a rotation driving unit 430 to.

Briefly, the rotation driving unit 430 is located on the first transfer module 200 and rotates the rotary arm unit 410 on which the solar module 1 is supported and adsorbed and fixed to the second transfer module 300. Delivered to the award. Therefore, the first and second transfer module (200,300) is installed to have a sufficient separation distance from each other, the separation distance is preferably within the rotation radius of the rotary arm portion 410.

As shown in FIGS. 3 to 5, the rotation driving unit 430 is coupled to the rotation arm unit 410 and the rotation shaft unit 431 disposed between the first transfer module 200 and the second transfer module 300. ), A bearing 432 supporting both ends of the rotating shaft part 431, and a servomotor 433 for rotating the rotating shaft part 431. The servo motor 433 is adopted to more easily control the relative position of the rotary arm unit 410 with respect to the first and second transfer modules 300 and the rotary shaft unit by an angle set according to an operation signal of a control unit (not shown). 431 may be rotated.

A gear box (not shown) may be further installed between the servo motor 433 and the rotating shaft part 431 to increase a rotation torque and to reduce a rotational angular velocity. Of course.

As shown in FIG. 3, the rotation arm part 410 is provided in plural radially around the rotation center of the rotation driving part 430, that is, the rotation shaft part 431. Specifically, in the present embodiment, four rotary arm parts 410 are provided radially so as to have equal intervals based on the rotation center of the rotary driving part 430, but the present invention is not necessarily limited thereto. It may be provided in any suitable number.

Accordingly, the plurality of photovoltaic modules 1 continuously transferred along the first transfer module 200 may be quickly turned over through the turn-over module 400 and then transferred to the second transfer module 300. As a result, the turnover time can be shortened in the in-line operation, thereby reducing manufacturing costs and improving manufacturing efficiency and productivity.

The rotary arm unit 410 is for rotating the up and down on the first and second transfer module (200,300) after supporting the solar module 1, in the embodiment of the present invention having a thickness less than In addition, while rotating the photovoltaic module 1 having a predetermined width or more in a more stable and balanced state, a concentrated load is applied to a local part of the photovoltaic module 1 when the photovoltaic module 1 is rotated. There is a need for a countermeasure to prevent breakage.

To this end, as shown in Figures 4 and 5, the rotary arm portion 410 is the longitudinal direction of the rotary shaft portion 431, that is, the width direction of the first and second transfer module (200,300) (Figs. 4 and 5). Along the X direction).

Meanwhile, as described above, since the separation distance between the first and second transfer modules 200 and 300 is within the rotation radius of the rotation arm 410, the rotation arm 410 is rotated when the rotation arm 410 is rotated. In order to prevent interference with the rotary rollers 210 and 310 of the first and second transfer modules 200 and 300, the plurality of rotary arm parts 410 may be disposed in a spaced space between the rotary rollers 210 and 310 during rotation. It is preferable to be coupled to the rotating shaft 431.

In this embodiment, as shown in Figure 3, the rotary arm portion 410 is a pair of first and second rotating bars (411, 412) forming a spaced space so that the solar module 1 is disposed therebetween It includes.

For example, as shown in Figures 3 to 5, the rotary arm portion 410 is provided with two spaced apart along the longitudinal direction of the rotary shaft portion 431, and also based on the center of rotation of the rotary drive unit 430 When provided with four spaced apart from each other, eight first and second rotating bars 411 and 412 are provided.

Meanwhile, when the solar module 1 is rotated by operating the rotation driving unit 430 while the solar module 1 is disposed between the first and second rotation bars 411 and 412, the solar module 1 is rotated. The module support part 420 is provided in the rotating arm part 410 so as to prevent the fall and rotate in a more stable state.

The module support part 420 is to support the solar module 1 more firmly and stably, and installed at one end of the first and second rotation bars 411 and 412 so as to be accessible and spaced apart from one another toward the other. do.

In more detail, as shown in FIGS. 3 to 5, the module support 420 has one end approached toward the solar module 1 disposed in the space between the first and second rotation bars 411 and 412. And a suction pad 422 installed at the first rotation bar 411 to be spaced apart from each other, and having one end of the suction pad 422 approaching and spaced apart from the solar module 1. Cylinder 421.

As shown in FIG. 3, the first rotation bar 411 positioned adjacent to the first transfer module 200 is configured to be positioned above the solar module 1.

Therefore, as shown in FIGS. 6 and 7, the control unit (not shown) operates the cylinder 421 to move the suction pad 422 downward so as to contact the photovoltaic module 1. When sufficient contact is made between the 422 and the photovoltaic module 1, a vacuum is generated in the adsorption pad 422 to adsorb the photovoltaic module 1 to be firmly supported. Here, the module support 420 is the length of the first rotation bar 411 so as to increase the area of the portion adsorbed on the surface of the solar module 1 to be rotatable in a state in which the solar module 1 is firmly supported. It is preferably provided in plurality spaced apart along the direction.

The adsorption pad 422 is connected through a hose and a separate vacuum generator (not shown) for generating a predetermined or more vacuum pressure.

On the other hand, the second rotating bar 412 disposed at a position adjacent to the first transfer module 200 supports the lower surface of the solar module 1, and has a suitable separation distance between the first rotating bar 411 and the first rotating bar 411. It is formed to assist the above-described vacuum adsorption. In addition, the second rotation bar 412 maintains a constant distance between the adsorption pad 422 and the photovoltaic module 1, so that the second rotation bar 412 is maintained between the first and second rotation bars 411 and 412 even with a lower vacuum adsorption pressure. The solar module 1 can be rotated in a stably supported state.

Meanwhile, as shown in FIG. 3, the solar module 1 directly contacts the second rotation bar 412 on one side of the second rotation bar 412 facing the solar module 1. A shock absorbing member 423 is attached to prevent it. The buffer member 423 is provided in the whole or part of the longitudinal direction of the second rotation bar 412 to be in direct contact with a portion of the solar module (1).

Specifically, the photovoltaic module 1 located on the first transfer module 200 is disposed so that the glass plate 8 faces downward as described above, and thus the buffer member 423 may be formed of the photovoltaic module 1. It comes in contact with the glass plate 8, the buffer member 423 of the photovoltaic module 1 corresponding to the second rotation bar 412 at the initial rotation of the rotary arm portion 410 through the rotary drive portion 430 Partial pressure is applied to a portion to prevent cracking or breaking of the glass plate 8.

The buffer member 423 may be made of rubber or urethane.

Hereinafter, the operation relationship of the turn-over device for a solar module production facility according to an embodiment of the present invention will be described.

First, as shown in FIG. 5, the photovoltaic module 1 is moved along the plurality of rotating rollers 210 of the first transfer module 200 in the X-axis direction in the drawing and reaches a preset position. The stop operation is performed for the turn over operation through the over module 400, and the stopping operation is performed by transmitting an OFF signal from the control unit (not shown) to the motor 240.

During this process, the upper surface height of the belt conveyor 251 of the up-down loader 250, the solar module 1 is transported on the plurality of rotary rollers 210 of the first transfer module 200 to the belt conveyor 251 It is formed to be lower than the top height of the rotary roller 210 so as to prevent the interference is blocked.

Next, as shown in FIG. 8, the control unit (not shown) operates the up-down loader 250 to approach the solar module 1 on the first transfer module 200 toward the turn-over module 400. . Specifically, the control unit (not shown) operates the cylinder 252 to raise the belt conveyor 251 to a certain height so that the solar module 1 is spaced apart from the rotating roller 210, and then the belt conveyor 251 Operate to approach the solar module 1 toward the turn-over module 400.

Subsequently, the control unit (not shown) lowers the belt conveyor 251 by operating the cylinder 252 when the solar module 1 approaches the distance set by the turn over module 400.

At this time, the bottom surface of the solar module 1 is in contact with the rotating roller 210, a part of which is the first and second rotation of any one of a plurality of pairs of the first and second rotation bar (411,412) It is in the state arrange | positioned between the bars 411 and 412.

To this end, the control unit (not shown) rotates the rotating shaft unit 431 in advance so that the solar module 1 may be disposed between the first and second rotating bars 411 and 412, and the first and second rotating bars. 411, 412 is in a substantially straight state with the rotary roller 210 of the first transfer module 200.

Next, the control unit (not shown) operates the cylinder 421 of the module support unit 420 and operates a vacuum generator (not shown) so that the adsorption pad 422 absorbs the solar module 1. The rotation driving unit 430 of the turn-over module 400 is operated so that the solar module 1 is firmly supported by the suction pad 422 and the buffer member 423 between the first and second rotation bars 411 and 412. To be rotated. The control unit (not shown) stops rotation of the first and second rotation bars 411 and 412 when they are rotated approximately 90 degrees.

On the other hand, when the four arm arm 410 is provided, since the photovoltaic module 1 is periodically transported with a predetermined time difference on the first transfer module 200, the four pairs of first and second rotation bars (411,412) The solar module 1 is disposed between the first and second rotation bars 411 and 412 except for a pair.

Next, the control unit (not shown) allows the first and second rotating bars 411 and 412 in the vicinity of the first transfer module 200 to support and adsorb the solar module 1, and in the vicinity of the second transfer module 300. The first and second rotating bars 411 and 412 allow the solar module 1 to be seated on the rotating roller 310 of the second transfer module 300. Each of the foregoing is made possible by creating or removing a vacuum in the adsorption pad 422.

Finally, the photovoltaic module 1 rotated by the turn-over module 400 is transferred to a post-processing line in which loading and packaging work are performed along the second transfer module 300.

On the other hand, in this embodiment, the first transfer module 200 is composed of a configuration including a rotary roller 210, up-down loader 250, etc., but is not limited to this, the first transfer module 200 is a conventional belt It can also be applied as a conveyor. At this time, the photovoltaic module 1 may be moved along the Z-axis direction of FIG. 5 and then rotated by the turn over module 400 to be moved onto the second transfer module 300.

As described above, the present invention is not limited to the described embodiments, and various modifications and changes can be made without departing from the spirit and scope of the present invention, which will be apparent to those skilled in the art. Accordingly, such modifications or variations are intended to fall within the scope of the appended claims.

1: solar module 200: first transfer module
210: rotating roller 220: sprocket wheel
230: chain 240: motor
250: up-down loader 251: belt conveyor
252: cylinder 253: power base
254: connection bar 300: second transfer module
310: rotating roller 320: sprocket wheel
330: chain 340: motor
400: turn over module 410: rotating arm
411: first rotating bar 412: second rotating bar
420: module support 421: cylinder
422: adsorption pad 423: buffer member
430: rotary drive unit 431: rotary shaft
432: bearing 433: servomotor

Claims (13)

First and second transfer modules for transferring the solar modules; And
Is installed between the first transfer module and the second transfer module and receives the photovoltaic module from the first transfer module to turn the photovoltaic module upside down so that the up and down of the photovoltaic module is transferred to the second transfer module. Turn over device for a solar module production equipment comprising a turn over module. The method of claim 1,
The turn over module,
A rotating arm part partially contacted with the solar module and having a module support part supporting the solar module; And
Turnover device for a solar module production facility, characterized in that it comprises a rotary drive unit for rotating the rotary arm portion so that the rotary arm portion is disposed between the first and second transfer module. The method of claim 2,
Turn arm device for the solar module production equipment, characterized in that provided with a plurality of radially on the basis of the rotation center of the rotary drive unit. The method of claim 2,
The rotary arm unit, a turn-over device for a solar module production facility, characterized in that it comprises a pair of first and second rotating bar forming a spaced space so that the solar module is disposed therebetween. The method of claim 4, wherein
The module support unit is a turn-over device for a solar module production facility, characterized in that one end of the first and the second rotation bar is installed so as to be accessible and spaced apart toward the other one. The method of claim 5,
The module support portion,
An adsorption pad installed at the first rotation bar so that one end thereof is accessible and spaced toward the solar module disposed in the separation space and adsorbs the solar module; And
Turnover device for a solar module production facility, characterized in that it comprises a cylinder so that one end of the adsorption pad is approached and spaced apart from the solar module. The method of claim 6,
One side of the second rotation bar facing the photovoltaic module turnover for a photovoltaic module production equipment, characterized in that the shock absorbing member is attached to prevent the solar module is in direct contact with the second rotation bar. Device. The method of claim 2,
The rotary drive unit,
A rotary shaft unit coupled to the rotary arm unit and disposed between the first transfer module and the second transfer module;
Bearings supporting both ends of the rotating shaft; And
Turnover device for a solar module production facility comprising a servo motor for rotating the rotating shaft portion. The method of claim 1,
The first transfer module is a turn-over device for a photovoltaic module production facility, characterized in that it comprises an up-down loader for moving down the photovoltaic module on the first transfer module to the turn-over module side. 10. The method of claim 9,
The up-down loader,
A plurality of belt conveyors spaced apart from each other on a support frame on which the first transfer module is installed; And
Turnover device for a solar module production equipment, characterized in that it comprises a cylinder which is installed on the support frame for up and down the plurality of belt conveyor. The method of claim 10,
The up-down loader further comprises a power base connected to the cylinder to up-down the plurality of belt conveyors equally in conjunction with the operation of the cylinder. The method of claim 2,
The first and second transfer module, respectively,
A plurality of rotating rollers disposed to be spaced apart from each other so as to provide a space apart from each other;
Sprocket wheels respectively installed at the ends of the plurality of rotary rollers;
A chain coupled to the sprocket wheel; And
A motor for rotating the chain to rotate the plurality of rotating rollers synchronously,
The rotary arm part is provided with a plurality of spaced apart from each other along the width direction of the first and second transfer module, it is disposed in the separation space so as not to interfere with the rotary roller turnover for solar module production equipment Device. The method of claim 1,
The solar module has a glass plate attached to one side thereof,
The first transfer module transfers the solar module so that the glass plate has a state facing downward,
The second transfer module transfers the solar module so that the glass plate has a state facing upward,
The first and second transfer module is a turn-over device for a solar module production facility, characterized in that forming the work line inline with the turn over module.

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