KR101074082B1 - Apparatus of providing junction box, system of manufacturing solar cell module, and method of manufacturing solar cell module using the same - Google Patents

Abstract

According to the present invention, a solar cell module manufacturing system includes a work table, a box supply unit in which empty boxes are loaded, a transfer unit for transferring the empty box to the working table side, and a first spraying unit for providing an adhesive to the empty box side. The transfer unit picks up the empty box loaded in the box supply unit, and the first injection unit applies the adhesive to the empty box picked up by the transfer unit, and then the first injection unit places the empty box coated with the adhesive on the work table. Attach to the solar panel. The solar cell module having the junction box is completed by providing electrical terminals to the empty box side attached to the solar panel.

Description

Junction box supply system, solar cell module manufacturing system and solar cell module manufacturing method using the same {APPARATUS OF PROVIDING JUNCTION BOX, SYSTEM OF MANUFACTURING SOLAR CELL MODULE, AND METHOD OF MANUFACTURING SOLAR CELL MODULE USING THE SAME}

The present invention relates to a junction box supply apparatus, a solar cell module manufacturing system having the same, and a method for manufacturing a solar cell module using the solar cell module manufacturing system, and more particularly, to manufacturing a junction box of a solar cell module. The present invention relates to an automated junction box supply device, a solar cell module manufacturing system, and a method of manufacturing a solar cell module using the same.

Recently, research is being conducted on equipment that generates alternative energy that replaces fossil fuels and does not cause environmental pollution. For example, research is being conducted to generate alternative energy using solar light, wind power, and tidal power, and among them, research is being actively conducted to generate electrical energy using sunlight.

In recent years, not only the construction of facilities for generating electrical energy using solar energy has increased, but the scale of construction has also increased. Therefore, manufacturing processes of solar cell modules are being developed that can produce large quantities of solar cell modules and reduce manufacturing costs and manufacturing time.

One object of the present invention to provide a solar cell module manufacturing system for improving the productivity of the solar cell module.

Another object of the present invention is to provide a junction box supply device for supplying a junction box to the solar cell module manufacturing system.

Still another object of the present invention is to provide a method of manufacturing a solar cell module using the solar cell module manufacturing system.

In the solar cell module manufacturing system for manufacturing a solar cell module having a junction box, the solar cell module manufacturing system according to the present invention for achieving the above object is a work table, box supply unit, transfer unit, and the first injection unit It includes.

Empty boxes are loaded in the box supply unit, and the transfer unit transfers the empty boxes loaded in the box supply unit to the work table side, and the first injection unit is installed on the work table and glued to the empty box. To provide.

In the junction box supply apparatus of a system for manufacturing a solar cell module, the junction box supply apparatus according to the present invention for achieving the above another object is a cartridge in which the junction boxes are loaded, coupled with the cartridge to support the cartridge A member and an elevating member for elevating the junction boxes so that the empty box accommodated on the top layer of the junction boxes are carried out.

The junction box supply apparatus according to the embodiment of the present invention may supply the junction boxes to the solar cell module manufacturing system side in association with the solar cell module manufacturing system. In addition, the junction box supply apparatus according to an embodiment of the present invention may provide a junction box having electrical terminals to the solar cell module manufacturing system side, and the empty box before the electrical terminals are provided to the solar cell module manufacturing system side. You can also provide

In the manufacturing method of the solar cell module for manufacturing a solar cell module having a junction box, the manufacturing method of the solar cell module according to the present invention for achieving the above another object is as follows. The empty box is supplied through the box supply unit, picks up the empty box loaded on the box supply unit using a transfer unit, provides an adhesive to the empty box side picked up by the transfer unit, and the empty box coated with the adhesive. Is bonded to the solar panel, and the electrical terminals are provided in the empty box attached to the solar panel.

According to the present invention, it is possible to reduce the time required for the process of manufacturing the solar cell module by attaching the junction box to the solar panel. Therefore, it is possible to produce a large number of solar cell modules, it is possible to reduce the cost required for manufacturing a solar cell module.

Hereinafter, embodiments of the present invention will be described in detail with reference to the accompanying drawings. The objects, features and effects of the present invention described above will be readily understood through embodiments related to the accompanying drawings. However, the present invention is not limited to the embodiments described herein and may be applied and modified in various forms. Rather, the following embodiments are provided to clarify the technical spirit disclosed by the present invention, and furthermore, to fully convey the technical spirit of the present invention to those skilled in the art having an average knowledge in the field to which the present invention belongs. Therefore, the scope of the present invention should not be construed as limited by the embodiments described below. On the other hand, the drawings presented in conjunction with the following examples are somewhat simplified or exaggerated for clarity, the same reference numerals in the drawings represent the same components.

1 is a perspective view of a solar cell module manufacturing apparatus according to an embodiment of the present invention, Figure 2 is a side view of a solar cell module manufacturing apparatus according to an embodiment of the present invention, Figure 3 is a solar cell according to an embodiment of the present invention It is a top view of a module manufacturing apparatus.

1, 2 and 3, the solar cell module manufacturing system 1000 is a system for automating the manufacturing of the solar cell module 12. In more detail, the solar cell module manufacturing system 1000 attaches the junction box 15 to a solar panel 11 having solar cells (not shown) to manufacture the solar cell module 12. to be.

In the solar cell module 12, the junction box 15 is a component that electrically connects a plurality of solar cell modules to each other, the junction box 15 is the empty box 14 and the empty box 14 It may include electrical terminals (not shown) provided therein. The electrical terminals may be electrically connected in one-to-one correspondence with lead wires electrically connected to the cathode and anode electrodes of the solar cells.

The solar cell module manufacturing system 1000 includes a work table 30, box supply units 100, a transfer unit 200, a first injection unit 300, a second injection unit 400, and an adhesive storage unit 500. ), And an insulation reservoir 510.

In the solar cell module manufacturing system 1000, the work table 30 provides a work space for manufacturing the solar cell module 12. The work table 30 is installed spaced apart from the floor by a plurality of supports (18). The work table 30 has the work table 30 having a first work area W1 and a second work area W2.

In the first working area W1, a process of applying an adhesive to the empty box 14 and a process of attaching the empty box 14 coated with the adhesive to the solar panel 11 may be performed. In addition, in the second working area W2, a process of providing electrical terminals in the empty box 14 attached to the solar panel 11, and filling the insulation inside the empty box having the electrical terminals, the junction box A process of manufacturing 15 and a process of covering an open portion of the junction box 15 may be performed.

Meanwhile, first and second rollers 60 and 65 are installed on the work table 30. The first rollers 60 are installed on the work table 30 corresponding to the first work area W1, and the second rollers 65 correspond to the second work area W2. Is installed on the work table (30).

In the embodiment of the present invention, the first rollers 60 and the second rollers 65 may be driven by different driving units (not shown). As a result, the first rollers 60 may rotate in one direction, and the second rollers 65 may rotate in both directions. Accordingly, the solar panel 11 placed on the work table 30 corresponding to the first work area W1 may move in the first direction D1 by the first rollers 60. The solar panel 11 placed on the work table 30 corresponding to the second work area W2 is formed by the second rollers 65 in the first direction D1 and the first direction D1. It may move in the fourth direction D4 that is the reverse direction of.

The box supply parts 100 are coupled to the side of the work table 30 in the first work area W1. The box supply units 100 provide the empty box 140 to the solar cell module manufacturing system 1000. The box supply units 100 include a first box supply unit 100A and a second box supply unit 100B having the same structure as each other, and a plurality of empty boxes 140 are stacked in the box supply units 100. Can be. The empty box 140 loaded in the box supply units 100 is picked up by the transfer unit 200 and introduced into the solar cell module manufacturing system 1000. The structure and function of the components of the box supply units 100 will be described in more detail with reference to FIGS. 4A and 4B.

The transfer unit 200 is installed above the work table 30 in the first work area W1. The transfer unit 200 picks up the empty box 14 loaded on the box supply units 100 and attaches the empty box 14 to the solar panel 11 placed on the first rollers 60. The transfer unit 200 moves along the first to third transfer guides 221, 222, and 223, and the transfer unit 200 rotates the grip part 210 (FIG. 5) and the grip part that hold the ball box 14. Drive 215 (FIG. 5). As a result, the empty box supported by the grip portion can be rotated such that its bottom faces upward or downward. The structure and function of the components of the transfer unit 200 will be described in more detail with reference to FIG. 5.

Meanwhile, in the exemplary embodiment of the present invention, the first housing 40 and the second housing 50 may be installed on the work table 30. The first housing 40 has a rectangular box shape to partially cover the first workspace W1, and the second housing 50 has a rectangular box shape to provide the second workspace W2. Cover partially.

The first injection unit 300 is installed in the first housing 40. The first injection unit 300 receives the adhesive from the adhesive reservoir 500 and sprays the adhesive. In the embodiment of the present invention, the first injection unit 300 may be fixed inside the first housing 40 by a bracket 310 coupled to the inner wall of the first housing 40.

On the other hand, since the adhesive is used to attach the empty box 14 on the solar panel 11, the first spraying unit 300 sprays the adhesive to the bottom surface side of the empty box 14. Therefore, when the first spraying unit 300 sprays the adhesive toward the bottom surface of the empty box 14, the empty box 14 is moved by the transfer unit 200 to the first spraying unit 300. Is transferred to the lower side. The process of providing the adhesive to the bottom surface side of the empty box 14 by the first injection unit 300 will be described in more detail with reference to FIGS. 6A, 6B, and 6C.

The second injection unit 400 is installed in the second housing 50. The second spray unit 400 may be fixedly installed on an inner wall of the second housing 50, and the second spray unit 400 may be provided with insulation from the insulation storage 510. The agent is injected into the empty box 14.

The insulation may include silicon, and the insulation covers electrical terminals provided in the empty box 14. Since the solar cell module 12 is installed to be directly exposed to an external environment in order to receive sunlight, the insulation filling the empty box 14 is electrically connected to the electrical terminals and the electrical terminals. The electrode wires of the solar cell module 12 are prevented from being corroded by moisture or short-circuited with each other.

On the other hand, as described above, the solar cell module manufacturing system 1000 according to an embodiment of the present invention is a process for forming a junction box 15 on a solar panel 11 having solar cells (not shown) To perform. Therefore, the solar cell module manufacturing system 1000 may be connected to other systems for manufacturing the solar cell module. For example, since the solar panel 11 having the solar cell is inserted into the solar cell module manufacturing system 1000, the second working area W2 is disposed to face the first working area W1. In the region, a manufacturing system for manufacturing the solar panel 11 may be located. In addition, since the solar cell module 12 having the solar panel 11 and the junction box 15 provided on the solar panel 11 is completed through the solar cell module manufacturing system 1000, the second operation An inspection apparatus for inspecting the function of the solar cell module 12 may be located in the working area facing the first working area W1 with the area W2 therebetween.

4A and 4B are perspective views of the first box supply unit shown in FIG. 1. More specifically, FIG. 4A is a perspective view of the first box supply unit 100A when the cartridge 112 is separated from the first box supply unit 100A, and FIG. 4B is a first box supply unit having the cartridge 112. It is a perspective view of 100a.

Meanwhile, the solar cell module manufacturing system 1000 of FIG. 1 has a first box supply unit 100A and a second box supply unit 100B of FIG. 1, but the first box supply unit and the first The two box supply unit has components having the same structure. Therefore, in FIG. 4A and FIG. 4B, the said 1st box supply part 100A is shown, and the detailed description about the said 2nd box supply part is abbreviate | omitted.

4A and 4B, the first box supply unit 100A includes a cartridge 112, a lifting member 120, and a supporting member 117.

The cartridge 112 accommodates an empty box 14 whose bottom surface 16 faces upward. A plurality of empty boxes 14 may be stacked and accommodated in the cartridge 112. The cartridge 112 may be located on the support member 117 and coupled with the support member 117 or may be separated from the support member 117. The cartridge 112 is coupled to the cartridge handle 111, so that an operator can easily carry the cartridge 112 using the cartridge handle 111.

In addition, an outlet 121 is formed at an upper portion of the cartridge 112 so that the empty box 15 picked up by the transfer unit 200 may be carried out to the outside. In addition, an opening 122 is formed at a side of the cartridge 112 along a movement path of the flow support 115.

The support member 117 is coupled to the cartridge 112 at the bottom of the cartridge 112. The support member 117 is provided with a coupling groove 119 for accommodating the bottom portion 114 of the cartridge 112. Therefore, when the cartridge 112 is coupled to the support member 117, the bottom portion 114 is accommodated in the coupling groove 119 so that the cartridge 112 is coupled to the support member 117. do.

The elevating member 120 elevates the empty box 14 loaded in the cartridge 112. The elevating member 120 includes a driving motor 113, a ball screw 123, rails 116, and a flow support 115.

The flow support 115 is provided below the empty box 14 to support the empty box 14. The rails 116 extend from both ends of one side edge of the support member 117, and the rails 116 extend in the same third direction D3 as the lengthwise direction of the cartridge 112. The rails 116 are coupled to the flow support 115 to guide the movement of the flow support 115.

The driving motor 113 and the ball screw 123 raise and lower the flow support 115 coupled with the ball screw 123. In the embodiment of the present invention, the linear drive device for elevating the flow support 115 uses the drive motor 113 and the ball screw 123, but unlike the embodiment of the present invention, the flow support 115 ) May be lifted by a linear drive using a cylinder, a linear motor, or a belt.

The elevating member 120 having the above structure elevates the empty box 14 in the cartridge 112. When a plurality of empty boxes are accommodated in the cartridge 112, the flow support 115 is located at the lower part of the empty box located on the lowest layer of the empty boxes, and as a result, the elevating member 120 is Lifting the empty boxes as a whole, the empty box located on the top floor of the empty boxes may be carried out by the transfer unit 200 through the outlet 121.

On the other hand, when all the empty boxes accommodated in the cartridge 112 is introduced into the solar cell module manufacturing system (1000 of FIG. 1) side, the operator separates the cartridge 112 from the support member 117, After refilling the empty boxes inside the cartridge 112, the cartridge 112 is coupled to the support member 117. When the cartridge 112 is coupled with the support member 117, the flow support 115 is lowered to be adjacent to the support member 117, and the flow support 115 is inside the cartridge 112. Located in the lower portion of the entire empty boxes received can lift the entire empty boxes.

The cartridge 112 may further include an alignment unit 110 coupled with the upper end of the cartridge 112. When the transfer unit 200 catches the ball box 14 located on the uppermost floor among the empty boxes stored in the cartridge 112, the alignment unit 110 moves the side surface of the empty box in the first direction D1. ) To the side. Since the empty box 14 is supported by the transfer unit 200, the alignment unit 110 pushes the empty box 14, and thus the empty box 14 is gripped by the transfer unit 200. It is aligned to be supported at the correct position of 210.

In addition, the cartridge 112 may further include sensors 125a and 125b provided at an upper end of the cartridge 112. The sensors 125A and 125B are located at the same height as each other and communicate with each other to sense the empty boxes 14 stored in the cartridge 112. For example, the sensors 125A and 125B may detect a junction box located on a top layer of the junction boxes accommodated in the cartridge 112. As a result, the presence or absence of the junction boxes 14 in the cartridge 112 can be detected using the sensors 125A and 125B.

The sensors 125A and 125B may be connected to an alarm device (not shown). Therefore, when it is detected that there is no junction box inside the cartridge 112 by the sensors 125A and 125B, the alarm device is driven using a signal generated from the sensors 125A and 125B. The worker can easily recognize that there is no junction box inside the cartridge 112.

5 is a perspective view of the transfer unit and the transfer guide shown in FIG.

Referring to FIG. 5, the transfer unit 200 is coupled to the transfer guides 220 and moves along the transfer guides 220. The transfer guides 220 may include a first transfer guide 221, a second transfer guide 222, and a third transfer guide 223. The first conveyance guide 221 extends in a first direction D1, the second conveyance guide 222 extends in a third direction D3, and the third conveyance guide 223 is in a second direction. Extends to (D3). That is, the first to third transfer guides 221, 222, and 223 extend in three axes perpendicular to each other.

The transfer unit 200 is coupled to the first transfer guide 222, the first transfer guide 221 is coupled to the second transfer guide 222, the second transfer guide 222 is the It is coupled with the third transfer guide 223. In addition, each of the first to third transfer guides 221, 222, and 223 is coupled to linear driving devices (not shown), and the transfer unit 200 is connected to the first to third transfer guides 221, 222, and 223. As a result, the transfer unit 200 is driven by the linear driving devices in the first to third directions D1, D2, and D3 along the first to third transfer guides 221, 222, and 223. I can move it.

The transfer unit 200 includes a coupling part 213, a driving part 215, and a grip part 210. The coupling part 213 is coupled to the second transfer guide 222 and moves along the second transfer guide 222 by the second driving unit 232. The grip portion 210 has a tong shape for holding a ball box (14 in Fig. 4B). Although not shown in detail in FIG. 5, the grip part 210 is coupled to a driving part (not shown) that can adjust the gap 218 of the grip part 210 to grasp the empty box.

The driving part 215 is coupled to the grip part 210 to rotate the grip part 210. The rotation radius of the grip unit 210 by the driving unit 215 is preferably at least 180 degrees or more. When defining a virtual driving shaft (not shown) parallel to the first direction D1, the direction in which the grip unit 210 rotates by the driving unit 215 is the same as the rotation direction about the driving shaft. Therefore, the transfer unit 200 may hold the empty box using the grip unit 210 and then rotate the empty box supported by the grip unit 210 using the driving unit 215. For example, the transfer unit 200 uses the grip part 210 using a ball box (14 of FIG. 4B) in which a bottom surface (16 of FIG. 4B) is loaded upward in a cartridge (112 of FIG. 4). After holding, the ball box may be rotated 180 degrees by using the driving unit 215 so that the bottom surface of the ball box faces downward.

6A through 6E are views illustrating a method of manufacturing a solar cell module using the solar cell module manufacturing system shown in FIG. 1. Meanwhile, in FIGS. 6A-6E, the illustration of the first housing 40 (FIG. 1) and the second housing (50 of FIG. 1) is omitted for clarity of the components.

6A and 6B, according to the first to third process steps S1, S2, and S3, an empty box 14 having a bottom surface 16 facing upwards is formed inside the second box supply unit 100B. The empty box 14 accommodated in the second box supply unit 100B is introduced into the solar cell module manufacturing system 1000 by the transfer unit 200.

The transfer unit 200 holds both sides of the empty box 14 by using the grip unit 210, the transfer unit 200 is sequentially in the reverse direction of the second direction (D2) and the first direction (D1). The empty box 14 fixed to the transfer unit 200 is located below the first injection unit 300.

When the empty box 14 fixed to the transfer unit 200 is positioned below the first injection unit 300, the first injection unit 300 is the bottom surface 16 of the empty box 14. Spray the adhesive 315 on the. As described with reference to FIGS. 1 and 5, the first injection unit 300 is fixed to the side wall of the first housing (40 in FIG. 1) by the bracket 310, and the transfer unit 200 is first In the first to third directions D1, D2, and D3 along the third to third transfer guides 221, 222, and 223, the adhesive 315 is formed on the bottom surface 16. It depends on the position of the box 14.

Thus, in order for the adhesive 315 to be formed on the bottom surface 16 over the entire bottom surface 16, while the first spraying unit 300 is spraying the adhesive 315, the planar surface of the adhesive 315 may be formed on a flat surface. It is preferable that the transfer unit 300 moves the empty box 14 within the range in which the empty box 14 overlaps with the first injection unit 300.

6C and 6D, according to the fourth process step S4, after forming the adhesive (315 of FIG. 6B) on the bottom surface 16, the transfer unit 200 moves in the first direction D1. The ball box 14 is rotated 180 degrees about the axis of rotation parallel to the. As a result, the bottom surface 16 faces downward, and the open surface of the empty box 14 faces upward.

According to the fifth process step S5, after the transfer unit 200 rotates the empty box 14, the transfer unit 200 moves the empty box 14 in the reverse direction of the third direction D3. By moving, the empty box 14 is attached to the solar panel 11. After the empty box 14 is attached to the solar panel 11, the solar panel 11 is moved from the first working area (W1 in FIG. 1) to the second working area by the first rollers 60. Is transferred to (W2).

On the other hand, although not shown in the figure, after the solar panel 11 is transferred from the first working area to the second working area, the process of providing electrical terminals (not shown) into the empty box 14 Can proceed. In an embodiment of the present invention, the process of providing the electrical terminals in the empty box 14 may be performed by an operator.

Referring to FIG. 6E, after the electrical terminals (not shown) are provided inside the empty box (14 of FIG. 6D) attached to the solar panel 11, the electrical terminals are provided using the second injection unit 400. The junction box 15 is manufactured by filling the insulation 410 in the empty box. The insulation 410 covers the electrical terminals including silicon.

After the insulation 410 is filled in the junction box 15, the solar panel 11 is moved in the reverse direction of the first direction D1 by using the second rollers 65 and the junction box 15. Cover the open side of (15). As a result, the solar cell module having the junction box 15 and the solar panel 11 is completed.

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 as defined in the appended claims. You will understand.

1 is a perspective view of a solar cell module manufacturing apparatus according to an embodiment of the present invention.

2 is a side view of a solar cell module manufacturing apparatus according to an embodiment of the present invention.

3 is a plan view of a solar cell module manufacturing apparatus according to an embodiment of the present invention.

4A and 4B are perspective views of the first box supply unit shown in FIG. 1.

5 is a perspective view of the transfer unit shown in FIG.

6A to 6E are views illustrating a method of manufacturing a solar cell module using the solar cell module manufacturing apparatus shown in FIG. 1.

* Description of the symbols for the main parts of the drawings *

11-Solar Panel 12-Solar Module

14-Empty Box 30-Worktable

40-first housing 50-second housing

100A-first box supply 100B-second box supply

120-lifting member 200-transfer unit

220-Feed guides 300-First injection unit

400-2nd injection unit 500-Adhesive reservoir

510-Insulation Storage 1000-Solar Module Manufacturing Equipment

Claims (18)

delete In the solar cell module manufacturing system for manufacturing a solar cell module having a junction box, Working table; A box supply unit in which empty boxes are stacked; A transfer unit for transferring the empty box loaded in the box supply unit to the work table; A first injection unit installed on the worktable and providing an adhesive to the empty box; Installed in the upper part of the work table and extending in a first direction parallel to a longitudinal direction of the work table, a second direction parallel to a width direction of the work table, and a third direction perpendicular to the work table, Transfer guides that guide the movement path; And And a roller which is provided on the work table to move the solar panel placed on the work table. The method of claim 2, The transfer unit, A grip part for holding the empty box loaded in the box supply part; And And a driving unit coupled to the grip unit to rotate the grip unit. In the solar cell module manufacturing system for manufacturing a solar cell module having a junction box, Working table; A box supply unit in which empty boxes are stacked; A transfer unit for transferring the empty box loaded in the box supply unit to the work table; A first injection unit installed on the worktable and providing an adhesive to the empty box; And The solar cell module manufacturing system is installed on the work table, and comprising a second injection unit for providing insulation to the empty boxes. The method of claim 4, wherein A first housing installed above the work table to cover the transfer unit and the first injection unit; And And a second housing installed on the work table to cover the second injection unit. In the solar cell module manufacturing system for manufacturing a solar cell module having a junction box, Working table; A box supply unit in which empty boxes are stacked; A transfer unit for transferring the empty box loaded in the box supply unit to the work table; A first injection unit installed above the worktable and providing an adhesive to the empty box; The box supply unit, A cartridge into which the empty boxes are stacked; A support member coupled to the bottom of the cartridge to support the cartridge; And And an elevating member for elevating the empty boxes such that the uppermost empty box accommodated in the uppermost layer of the empty boxes is carried out by the transfer unit. The solar cell module manufacturing system of claim 6, wherein a groove is formed in the support member to accommodate the bottom of the cartridge, and the support member is coupled to the cartridge. 8. The solar cell module manufacturing system of claim 7, wherein the cartridge is separated from the support member. The method of claim 6, wherein the upper portion of the cartridge is characterized in that the outlet port for carrying out the uppermost empty box by the transfer unit is formed, the side of the cartridge is characterized in that the opening is formed along the movement path of the lifting member. Battery module manufacturing system. The method of claim 6, And a sensor provided in the cartridge to sense the empty boxes housed inside the cartridge. The method of claim 6, The solar cell module manufacturing system of claim 1, further comprising an alignment unit provided at an upper end of the cartridge to move and align the empty boxes located in the uppermost layer among the empty boxes loaded in the cartridge in one direction. delete In the junction box supply apparatus of a system for manufacturing a solar cell module, A cartridge into which junction boxes are loaded; A support member coupled to the cartridge to support the cartridge; And It includes a lifting member for elevating the junction boxes so that the junction box accommodated in the top layer of the junction boxes are carried out to the outside; A junction box supply apparatus is formed at an upper portion of the cartridge, and an outlet for carrying out the junction box located at the top of the junction boxes to the outside, and an opening is formed at the side of the cartridge along a moving path of the elevating member. . In the solar cell module manufacturing method for manufacturing a solar cell module having a junction box, Supplying an empty box through a box supply unit; Picking up a blank box loaded in the box supply unit using a transfer unit; Providing an adhesive to the empty box side picked up by the transfer unit; Bonding the empty box to which the adhesive is applied to a solar panel; And And providing electrical terminals in the empty box attached to the solar panel. The solar cell according to claim 14, wherein the providing of the adhesive comprises providing the adhesive to the bottom surface in a state where the bottom surface of the empty box is picked up by the transfer unit to face upward. Module manufacturing method. The method of claim 15, Between the step of providing the adhesive and the step of adhering the empty box to the solar panel, the solar cell module further comprises the step of inverting the empty box by the transfer unit so that the bottom face downwards Manufacturing method. The method of claim 15, After the step of providing the electrical terminal in the empty box, the manufacturing method of a solar cell module, characterized in that it further comprises the step of filling the insulation into the empty box. The method of claim 17, After filling the insulation in the empty box, the manufacturing method of the solar cell module, characterized in that it further comprises the step of manufacturing a junction box covering the open portion of the empty box.

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