WO2020159293A1

WO2020159293A1 - Electrode stacking loader apparatus and electrode stacking system including same

Info

Publication number: WO2020159293A1
Application number: PCT/KR2020/001503
Authority: WO
Inventors: 이강석; 석쌍열; 윤재호
Original assignee: (주)호명이엔지; 이강석
Priority date: 2019-02-01
Filing date: 2020-01-31
Publication date: 2020-08-06
Also published as: KR102044363B1

Abstract

An electrode stacking loader apparatus disclosed in the present invention is characterized by comprising: an electrode stacking loader unit which stacks a first electrode and a second electrode having a different polarity from the first electrode by means of a reciprocating rotational motion, and also stacks consecutively supplied separators onto the upper surfaces of the first electrode and the second electrode that have been stacked in advance; a horizontal driving unit for horizontally reciprocating the electrode stacking loader unit; and a conversion driving unit which has one side connected to the electrode stacking loader unit and the other side connected to the horizontal driving unit, vertically reciprocates in conjunction with the horizontal reciprocation of the horizontal driving unit, and converts the motion of the electrode stacking loader unit to a reciprocating rotational motion.

Description

Electrode stacking loader device and electrode stacking system having the same

The present invention relates to an electrode stacking loader device and an electrode stacking system having the same. More specifically, according to the present invention, by sequentially stacking the first electrode and the second electrode on the separator using one electrode stacking loader device, the size of the conventional electrode stacking device can be reduced as much as possible, and the overall process time is maximized. It relates to an electrode stacking loader device that can be reduced and an electrode stacking system having the same.

In recent years, power sources such as portable telephones, television cameras, notebook computers, and batteries for electric vehicles (for example, hybrid vehicles) have been required to be compact, lightweight, large-capacity, and high voltage. As such a power source, for example, a secondary battery such as a lithium ion polymer battery or a lithium battery is used.

In order to manufacture a secondary battery, a plurality of cathode electrodes coated with a negative electrode active material and cathode electrodes coated with a positive electrode active material are usually manufactured. Thereafter, an electrode assembly (hereinafter referred to as an “electrode body”) in which the plurality of anode electrodes and the plurality of cathode electrodes are laminated through a thin film called a separator is manufactured. Thereafter, the electrode body is embedded in an aluminum pouch and sealed, and then the aluminum pouch having the electrode body is embedded in a case or the like, and the electrolyte is injected and finally sealed to complete production of the secondary battery.

1A is a view schematically illustrating a method of manufacturing an electrode body according to the prior art, and FIG. 1B is a cross-sectional view schematically showing an electrode body manufactured according to the method of manufacturing the electrode body according to the prior art.

1A and 1B, a method of manufacturing the electrode body 101 according to the prior art first prepares a plurality of cathode electrodes 110 and a plurality of anode electrodes 120. Thereafter, one end of the separator 130 wound on the rotation roll 160 is mounted to be fixed to the clamp 140. Then, for example, by using a finger (finger) 150 to move in the right direction (X direction) along the surface of the separator 130a to form the first space 112a, and then the first cathode electrode 110a ) Is placed in the first space 112a. Thereafter, the finger 150 is moved in the forward or reverse direction (Y direction) to be spaced apart from the separator 130a in a non-contact state, then raised in the vertical direction (Z direction), and left along the surface of the separator 130b. After moving in the direction (X direction) to form the second space 122a, the first anode electrode 120a is positioned in the second space 122a. In this way, a plurality of cathode electrodes 110 and a plurality of anode electrodes 120 are stacked on the separator 130 in a sequential and alternating manner in the

first space

112a, 112b and the second space 122a, 122b, respectively. Thus, the electrode body 101 as shown in FIG. 1B is completed.

It should be noted that in FIG. 1B, for convenience of description, only reference numerals for the two first and

second spaces

112a, 112b; 122a, and 122b are displayed.

1B, the electrode body 101 in which the electrodes are stacked is embedded in a storage member (not shown), such as a case, and sealed by a separate transfer device (not shown), and then injected with an electrolyte solution to inject a secondary battery. The manufacturing is completed.

In order to manufacture the electrode body according to the prior art described above, for example, a plurality of anode electrodes and cathode electrodes must be supplied onto the separator 130. To this end, in the prior art, an electrode supply member for supplying electrodes in a mechanical manner is used.

More specifically, FIG. 2 is a view schematically showing an apparatus for manufacturing an electrode assembly having an electrode supply member providing an electrode for manufacturing an electrode assembly according to the prior art. The manufacturing apparatus of the electrode assembly having the electrode supply member of the prior art is, for example, by Kim Min-ho on the 8th of May, 2009 under the name of the invention of “the manufacturing apparatus and method of manufacturing the electrode assembly for the secondary battery” in Korea Patent application No. 10-2009-0040495, and is described in detail in Korean Patent No. 10-1023700 (hereinafter referred to as "700 patent") registered on March 14, 2011. The disclosure of these 700 patents It is incorporated herein by reference and forms part of the present invention.

Referring back to Figure 2, the manufacturing apparatus 200 of the electrode assembly having the electrode supply member of the prior art is a separator 230 is wound, a rotating roll 260 for continuously supplying the separator 230; A clamp 240 provided at a lower portion in the vertical direction from the rotating roll 260, and fixedly mounting one end of the separator 230; Between the rotation roll 260 and the clamp 240 is provided on one side (left along the X-axis direction) relative to the separator 230, a plurality of agents for detachably supporting the separator 230 One manifolder (270a, 270b, 270c); Alternatively with the plurality of

first manifolds

270a, 270b, 270c on the other side (right along the X-axis direction) with respect to the separator 230 between the rotating roll 260 and the clamp 240 ), a plurality of

second manifolds

272a, 272b, and 272c for detachably supporting the separator 230; A vacuum pumping device (not shown) connected to the plurality of

first manifolds

270a, 270b, 270c and the plurality of

second manifolds

272a, 272b, 272c to provide a vacuum state; A control device (not shown) for controlling the vacuum state and the vacuum release state of the plurality of

first manifolds

270a, 270b, 270c and the plurality of

second manifolds

272a, 272b, 272c; The plurality of

second manifolds

272a, 272b, 272c and the plurality of separators while forming the plurality of

first spaces

212a, 212b, 212c and the plurality of

second spaces

222a, 222b, 222c A plurality of fingers 150 moving to approach the

first manifolds

270a, 270b, and 270c, respectively (see FIG. 1A); A plurality of

cathode electrodes

210a, 210b, and 210c are supplied into the plurality of

first spaces

212a, 212b, 212c, and a plurality of anode electrodes 220a in the plurality of

second spaces

222a, 222b, 222c, A pair of first and second

electrode supply members

214 and 224 for supplying 220b and 220c); And a stage 202 in which the completed electrode assembly (not shown) is located.

In addition, the first electrode supply member 214 includes a plurality of

first support plates

216a, 216b, 216c for supporting the plurality of

cathode electrodes

210a, 210b, 210c, and a second electrode supply member 224 ) Includes a plurality of second supporting

plates

226a, 226b, 226c for supporting the plurality of

anode electrodes

220a, 220b, 220c.

When using the manufacturing apparatus 200 of the electrode assembly having the electrode supply member of the prior art described above, since the plurality of cathode electrodes 210 and the plurality of anode electrodes 220 are simultaneously supplied, the manufacturing time of the electrode assembly is considerably It is reduced, and the productivity of the secondary battery is increased, so that mass production is possible.

However, in the case of the manufacturing apparatus 200 of the electrode assembly having the electrode supply member of the prior art, the following problems occur.

1. A plurality of first and second manifolds (270a, 270b, 270c; 272a, 272b, 272c), a vacuum pumping device, a plurality of first and second for detachably supporting the separator 230 to supply electrodes Since the use of a number of components such as a control device for controlling the vacuum state/vacuum release state of the

second manifolds

270a, 270b, 270c; 272a, 272b, 272c is required, the electrode assembly manufacturing apparatus 200 The structure is quite complex and the manufacturing cost increases due to the increase in the number of component parts.

2. The plurality of cathode and

anode electrodes

210a, 210b, 210c; 220a, 220b, and 220c are supplied onto a pair of first and second

electrode supply members

214 and 224 by separate transfer devices (not shown) , Then supplied onto the separator 230 in a plurality of first and

second spaces

212a, 212b, 212c; 222a, 222b, 222c again by a pair of first and second electrode supply members 214,224 do.

Therefore, since the electrode supply is not directly supplied on the separator 230, the total process time increases.

3. A plurality of cathode and

anode electrodes

210a, 210b, 210c; 220a, 220b, 220c are provided on the separator 230 in a plurality of first and

second spaces

212a, 212b, 212c; 222a, 222b, 222c. After being supplied to, it must be aligned separately by a mechanical device, for example, a centering unit (not shown). Therefore, the total process time according to the separate alignment operation is additionally increased.

In addition, for a separate alignment operation, the centering unit must physically contact the plurality of cathode and

anode electrodes

210a, 210b, 210c; 220a, 220b, 220c. Such physical contact may cause damage to the electrode, and thus, defective electrode assembly may occur.

4. A separate transfer device (not shown) is required for the transfer of the plurality of cathode and

anode electrodes

210a, 210b, 210c; 220a, 220b, 220c, and a pair of first and second electrode supply members (214,224) should be provided on both sides of the separator 230. Therefore, a large space is required to install the manufacturing apparatus 200 of the electrode assembly, which ultimately increases the manufacturing cost of the electrode assembly.

Therefore, a new method for solving the above-described problems of the prior art is required.

The present invention has been devised to solve the conventional problems as described above, and the object of the present invention is to sequentially stack the first electrode and the second electrode on the separator using one electrode stacking loader device, thereby providing It is intended to provide an electrode stacking loader device capable of reducing the size as much as possible and reducing the overall process time as much as possible, and an electrode stacking system having the same.

In order to achieve the above object, the electrode stack loader device according to an embodiment of the present invention while continuously supplying the separator by the rotational reciprocating movement, the first electrode and the second electrode having a different polarity from the first electrode are A stacked loader unit stacked on a separator; A horizontal drive unit for horizontally moving the stacked loader unit; And one side is connected to the stacked loader unit, and the other side is connected to the horizontal drive unit, while vertically moving on the stacked loader unit in association with the horizontal reciprocating motion of the horizontal drive unit, the stacked loader unit is rotated and reciprocated. It includes a conversion drive unit for converting.

In addition, the electrode stacking system according to an embodiment of the present invention is a body frame; An electrode stacking stage device disposed in an inner space of the main frame and provided to sequentially stack a first electrode and a second electrode of a different polarity from the first electrode on a separator that is continuously supplied; An electrode supply device disposed on both sides of the electrode stacking stage device and supplying the first electrode and the second electrode; An electrode delivery device that delivers the first electrode and the second electrode supplied from the electrode supply device; An electrode alignment device for aligning the first electrode and the second electrode transferred from the electrode delivery device; A separator unwinding device that supplies the separator to the electrode stacking stage device; And an electrode stack loader device which picks up the first electrode and the second electrode aligned by the electrode alignment device and supplies them on the electrode stacking stage device.

When using the electrode stacking loader device according to the present invention and the electrode stacking system having the same, the following effects are achieved.

1. By sequentially stacking the separator between the first electrode and the second electrode, and the first electrode and the second electrode through one electrode stacking loader device, the size of the entire device can be reduced as much as possible, and the total It has the effect of reducing the process time as much as possible.

2. As the first electrode and the second electrode are continuously supplied through the plurality of magazine units, each electrode supply time and the overall process time accordingly may be minimized.

3. While the electrode alignment device is rotated to alternately move the positive electrode and the negative electrode, the overall process time can be further minimized as each electrode is aligned.

4. As the round portion is formed on each loader plate, damage to the separator can be prevented as much as possible.

5. As the gripper receiving groove is formed in each loader plate, interference between each gripper and each loader plate can be prevented as much as possible.

1A is a view schematically illustrating a method of manufacturing an electrode body according to the prior art.

1B is a cross-sectional view schematically showing an electrode body manufactured according to a method of manufacturing an electrode body according to the prior art.

2 is a view schematically showing an apparatus for manufacturing an electrode assembly having an electrode supply member providing an electrode for manufacturing an electrode assembly according to the prior art.

3 is a perspective view showing the structure of an electrode stack loader device according to an embodiment of the present invention.

4A is a diagram schematically showing a process in which a first electrode and a separator are stacked by an electrode stack loader device according to an embodiment of the present invention.

4B is a diagram schematically showing a process in which a second electrode and a separator are stacked by an electrode stack loader device according to an embodiment of the present invention.

5 is a perspective view showing the structure of an electrode stacking system according to an embodiment of the present invention.

6 is a view for explaining the configuration of an electrode stacking system according to an embodiment of the present invention.

7 is a perspective view schematically showing the structure of an electrode stacking stage device in an electrode stacking system according to an embodiment of the present invention.

8 is a perspective view schematically showing a structure of an electrode supply device in an electrode stacking system according to an embodiment of the present invention.

9 is a perspective view schematically showing the structure of an electrode delivery device in an electrode stacking system according to an embodiment of the present invention.

10 is a diagram schematically showing the structure of an electrode alignment device in an electrode stacking system according to an embodiment of the present invention.

11 is a perspective view schematically showing a structure of an electrode stacking system according to another embodiment of the present invention.

12 is a view for explaining the configuration of an electrode stacking system according to another embodiment of the present invention.

Hereinafter, preferred embodiments of the present invention will be described in detail with reference to the accompanying drawings. In this case, it should be noted that the same components are denoted by the same reference numerals in the accompanying drawings. And detailed description of known functions and configurations that may obscure the subject matter of the present invention will be omitted.

Hereinafter, various embodiments of the present invention will be described with reference to FIGS. 3 to 12.

3 is a perspective view showing the structure of an electrode stacked loader device according to an embodiment of the present invention, and FIG. 4A schematically illustrates a process in which a first electrode and a separator are stacked by an electrode stacked loader device according to an embodiment of the present invention. 4B is a diagram schematically showing a process in which a second electrode and a separator are stacked by an electrode stack loader device according to an embodiment of the present invention.

3 and 4, the electrode stack loader apparatus 100 according to an embodiment of the present invention includes a separator guide unit 110; Electrode stack loader unit 120; It includes a horizontal drive unit 150, and a conversion drive unit 160.

The separator guide unit 110 guides the separator S supplied from the separator unwinding device 700 (refer to FIG. 5), which will be described later, to be rotatably supplied while maintaining tension. The separator guide unit 110 may have a predetermined length, and may include a guide portion 111 composed of a first guide shaft 111a and a second guide shaft 111b spaced apart from each other and arranged in a horizontal direction. . Accordingly, the separator S may be guided and supplied so as to be rotatable after passing between the first guide shaft 111a and the second guide shaft 111b in a state in which tension is maintained. The separator S guided and rotated by the guide unit 111 may be supplied to the electrode stacking stage device 300.

At this time, the separator guide unit 110 may further include a guide unit fixing member 112 for pivotally fixing the guide unit 111 to the body frame 200 shown in FIGS. 5 and 6 to be described later. .

In addition, the electrode stack loader unit 120 according to an embodiment of the present invention is provided to be spaced apart from each other on the lower side of the side frame 121, and the side frame 121, to which the separator guide unit 110 is fixedly mounted. It includes a pair of first and second

stacked loader units

130 and 140. Specifically, the guide portion 111 and the guide portion fixing member 112 constituting the separator guide unit 110 are fixedly coupled to the upper inner and outer sides of the side frame 121, respectively, and the lower portion of the side frame 121. The first and second

stacked loader units

130 and 140 are mounted on each. Accordingly, the separator guide unit 110 of the electrode stacked loader unit 120 according to an embodiment of the present invention rotates while supplying the separator S onto the electrode stacked stage device 300, and at the same time, a pair of agents While the first and second

stacked loader units

130 and 140 are rotated, the first electrode E1 and the second electrode E2 are alternately picked up and stacked on the upper surface of the separator S supplied on the electrode stacking stage device 300. .

The side frame 121 is provided opposite to the first side frame 121a and the first side frame 121a where the upper inner side is fixedly coupled to one side of the guide portion 111, and the upper inner side of the guide portion 111 is provided. And a second side frame 121b fixedly coupled to the other side, and a connection frame 121c for connecting the first side frame 121a and the second side frame 121b.

In an embodiment of the present invention, although the first side frame 121a and the second side frame 121b are illustrated in a trapezoidal shape, the shapes of the first side frame 121a and the second side frame 121b are It should be noted that it may be formed in various shapes.

The first stacked loader unit 130 is disposed under the side frame 121 and is rotated from the first position P1 to the second position P2 together with the side frame 121 to turn the first electrode E1. After picking up, it is rotated to the first position P1 again and is stacked on the upper surface of the separator S supplied on the electrode stacking stage device 300.

The second stacked loader unit 140 is disposed at a predetermined interval from the first stacked loader unit 130 under the side frame 121, and the second position in the first position P1 together with the side frame 121. After the second electrode E2 is picked up by being rotated to a third position P3 opposite to (P2), it is rotated back to the first position P1 and supplied to the separator stacked stage device 300 ( It is laminated on the top surface of S).

Here, the first position P1 is a position where the first and second electrodes E1 and E2 are sequentially stacked on the separator S, and the second position P2 is the first stacked loader unit 130. A position where the first electrode E1 is picked up, and the third position P3 may be defined as a position where the second stacked loader unit 140 picks up the second electrode E2.

The first stacked loader unit 130 has a constant angle with respect to the ground when the side frame 121 is positioned above the electrode stacked stage device 300 (ie, when the rotation angle of the side frame 121 is 0 degrees). It is preferably arranged obliquely. This is to allow the first electrode E1 transferred from the first electrode alignment device 610 to be easily picked up and rotated.

In addition, the second stacked loader unit 140 is provided with respect to the ground when the side frame 121 is positioned above the electrode stacked stage device 300 (ie, when the rotation angle of the side frame 121 is 0 degrees). 1 It is preferable to be disposed to be inclined at a certain angle in a position facing the stacked loader unit 130. This is to allow the second electrode E2 transferred from the second electrode alignment device 620 to be described later to be easily picked up and rotated.

Referring to FIGS. 4A and 4B, the first stacked loader unit 130 is rotated from the first position P1 to the second position P2 (in the first direction) by rotation of the side frame 121 to be rotated. While picking up the first electrode E1 from the one electrode alignment device 610, the second stacked loader unit 140 is guided by the separator guide unit 110 and supplied to the second surface of the separator S (others) The side is pushed in the direction of the second position P2, folded, and then released from the pickup state of the second electrode E2 picked up by the second stacked loader unit 140, so that the product provided in advance to the electrode stacked stage device 300 is released. While the first electrode E1 is wrapped in the first surface (inner surface) of the separator S, the second electrode E2 is stacked in the second surface (outer surface) of the separator S (see FIG. 4A ). . Thereafter, the second stacked loader unit 140 rotates from the first position P1 to the third position P3 (in the second direction opposite to the first direction) by the rotation of the side frame 121. While picking up the second electrode E2 from the second electrode alignment device 620, which will be described later, the first stacked loader unit 130 is guided by the separator guide unit 110 and supplied to the separator S. The electrode stacking stage device 300 is released by pushing the first surface (inner surface) in the third position P3 to fold and then releasing the pickup state of the first electrode E1 picked up by the first stacked loader unit 120. As described above, the stacked second electrode E2 is enclosed in the second surface (outer surface) of the separator S and at the same time, the first electrode E1 in the first surface (inner surface) of the separator S. Are stacked (see FIG. 4B). In this way, the first and second electrodes E1 and E2 are sequentially stacked on the first side (inner side) and the second side (outer side) of the separator S on the electrode stacking stage device 300. .

Referring to FIG. 3 again, the first stacked loader unit 130 according to an embodiment of the present invention picks up the first electrode E1. For such a pickup operation, the first stacked loader unit 130 includes, for example, a first loader plate 131 and a first loader plate 131 in which a plurality of vacuum ports P for suction by vacuum are installed. ) May be included in the first support frame 132 for fixing the side frame 121, but it is not limited thereto.

Meanwhile, one side of the first loader plate 131 in contact with the first surface (inner side) of the separator S may be formed to have a round portion R. For example, when the first loader plate 131 contacts the separator S supplied in a guided state in the absence of the round part R to rotate the first surface (inner surface), the separator S Can be damaged. Therefore, there is an advantage that damage to the separator S can be prevented as much as possible by the round portion R formed on one side of the first loader plate 131 described above.

In addition, a first gripper accommodating groove 131a accommodating the first gripper 320 (refer to FIG. 7) provided in the electrode stacking stage device 300 may be formed at a lower side of the first loader plate 131. Specifically, in the process of stacking each of the first electrodes E1, the first gripper 320 is inserted into the first gripper accommodation groove 131a in the state where each electrode E1 is stacked, and is stacked. The upper side of the electrode E1 is gripped. Accordingly, the first gripper 320 can grip the top of the stacked first electrode E1 without interference with the first loader plate 131.

Meanwhile, the first stacked loader unit 130 is disposed on the upper side of the first loader plate 131, and moves the first loader plate 131 up and down to adjust the position of the first loader plate 131. 1 may further include a position adjusting means (133).

For example, a plurality of first electrodes E1 provided on the first electrode alignment device 610 illustrated in FIG. 4A is picked up by the first stacking loader unit 130 and supplied to the electrode stacking stage device 300. As it is stacked, the height of the first electrode E1 remaining on the first electrode alignment device 610 is changed. Accordingly, when the first stacked loader unit 130 is moved to the second position P2 in order to pick up the first electrode E1, the lower surface of the first loader plate 131 is the first electrode alignment device 610. ) Needs to be positioned close to the uppermost first electrode E1. At this time, the first loader plate 131 is moved downward so that the lower surface of the first loader plate 131 approaches the first electrode E1 using the first position adjusting means 133 to adjust the position. .

It should be noted that the first position adjusting means 133 may be implemented in a cylinder manner, but is not limited thereto. For example, the first position adjusting means 133 includes a first cylinder portion 133a and a first support frame for moving the first support frame 132 supporting the first loader plate 131 in the vertical direction. 132) and the side frame 121, and may include a first guide portion 133b for guiding the vertical movement of the first support frame 132.

The second stacked loader unit 140 according to an embodiment of the present invention may include a second loader plate 141, a second support frame 142, and a second position adjusting means 143.

Since the second stacked loader unit 140 according to an embodiment of the present invention has substantially the same configuration and operation of the first stacked loader unit 130 described above, a detailed description of the structure is performed except for the following different configurations and operations. Omitted.

Referring to FIG. 4B and FIG. 7 to be described later, the second gripper receiving groove portion 141a formed in the second loader plate 141 is provided in the electrode stacking stage device 300 to provide the first gripper 320 and the second electrode ( A second gripper 330 (see FIG. 7) for gripping E2) is accommodated.

On the other hand, the horizontal drive unit 150 according to an embodiment of the present invention shown in Figure 3 is a configuration for horizontally moving the stacked loader unit 120, the horizontal drive unit 150 is stacked loader unit 120 ) May include a horizontal driving unit 151 disposed on at least one of both sides. In one embodiment of the present invention, for stable rotation of the stacked loader unit 120, it is shown that the horizontal drive unit 151 is disposed on both sides of the stacked loader unit 120. At this time, the horizontal driving unit 151 may be applied to a linear module method or a linear motion guide (LM Guide) method, it should be noted that it is not limited thereto.

As an example, the horizontal driving unit 151 may include a horizontal moving member 151a for horizontally reciprocating the stacked loader unit 120; A guide block 151b coupled to the horizontal moving member 151a to guide the movement of the horizontal moving member 151a; And a driving motor 151c disposed on one side of the guide block 151b and driving the horizontal moving member 151a.

In addition, the conversion drive unit 160 according to an embodiment of the present invention has one side connected to the stacked loader unit 120 and the other side connected to the horizontal drive unit 150. Accordingly, the conversion drive unit 160 may be converted to move the stacked loader unit 120 in a reciprocating rotation by vertically moving on the stacked loader unit 120 in conjunction with the horizontal reciprocating motion of the horizontal drive unit 150. . The conversion driving unit 160 may be disposed on at least one of both sides of the stacked loader unit 120, and may include a conversion driving unit 161. In an embodiment of the present invention, for stable rotation of the stacked loader unit 120, it is shown that the conversion drive unit 161 is disposed on both sides of the stacked loader unit 120 in the same manner as the horizontal drive unit 151.

For example, the conversion driving unit 161 is formed on one side of the side frame 121, the guide rail 161a formed along the height direction of the side frame 121, and one side is coupled to the guide rail 161a and other The side may include a vertical moving member 161b coupled with the horizontal moving member 151a. In this case, the vertical moving member 161b moves vertically and reciprocally along the guide rail 161a by the horizontal reciprocating movement of the horizontal moving member 151a to move the side frame 121 in a reciprocating rotation.

That is, according to one embodiment of the present invention, the electrode stack loader device 100 is moved by rotating and rotating the stack loader unit 120 by the interlocking operation between the horizontal driving unit 151 and the conversion driving unit 161 having a relatively simple structure. It has the advantage of reducing the overall size and weight of the product as much as possible.

As described above, in one embodiment of the present invention, the first electrode E1 and the second electrode (at the same time as the separator S is guided and supplied in a rotational manner using one electrode stacked loader device 100) Since E2) can be stacked on the stacked stage device 300, there is an advantage of simplifying the size and structure of the entire device and reducing the processing time as much as possible.

Hereinafter, an electrode stacking system according to an embodiment of the present invention will be described.

5 is a perspective view showing the structure of an electrode stacking system according to an embodiment of the present invention, and FIG. 6 is a view for explaining the configuration of an electrode stacking system according to an embodiment of the present invention.

5 and 6, the electrode stacking system 1000 according to an embodiment of the present invention includes a body frame 200; Electrode stacking stage device 300; An electrode supply device 400; An electrode delivery device 500; Electrode alignment device 600; Separator unwinding device 700; And an electrode stack loader device 100.

As shown in FIG. 5, the body frame 200 is disposed at a predetermined interval from the first body frame 201 and the first body frame 201 which are installed on the upper surface of the bottom frame 210 where height adjustment is possible. , A second body frame 202 installed on the bottom frame 210.

A separator unwinding device 700, which will be described later, may be disposed on an upper side of the body frame 200, and an electrode stacking stage device 300 may be disposed in a space between the body frame 200 and the separator unwinding device 700. , An electrode delivery device 500, an electrode alignment device 600, and an electrode stack loader device 100 may be disposed, and an electrode supply device 400 may be disposed on the front side.

5 to 7, the electrode stack stay apparatus 300 according to an embodiment of the present invention is disposed in the inner space of the main frame 200, as described above, and the electrode stack loader apparatus 100 By the separator (S) is supplied while being guided in a rotating manner on the electrode stacked stay device 300, the first electrode (E1) and the second electrode (E2) are sequentially stacked on the separator (S).

Meanwhile, a stacking stage 310 may be provided on the electrode stacking stage device 300, and a first gripper 320 and a second gripper 330 may be movable on both sides of the stacking stage 310. .

More specifically, as described above, the first electrode E1 and the second electrode E2 are sequentially on the first surface and the second surface of the separator S supplied on the stacking stage 310, respectively. Stacked. At this time, the first gripper 320 grips the stacked first electrode E1 so as not to move on the stacking stage 310, and the second gripper 330 grips the stacked second electrode E2 to stack. Do not move on the stage 310. In this case, the stacked first and second electrodes E1 and 2 while moving along the supply directions of the first and second electrodes E1 and E2 using only one of the first and

second grippers

320 and 330 are used. It is also possible to alternately hold the electrode E2.

Meanwhile, the stacked stage device 300 may further include a height adjustment unit 340 for adjusting the height of the stacked stage 310 (see FIG. 6 ).

6 and 7, the height adjustment unit 340 is connected to the height adjustment shaft member 341 that can adjust the height of the stacking stage 310 up and down, and the height adjustment shaft member 341. A height adjustment shaft member driving unit 342 for driving the height adjustment shaft member 341 may be included.

As a specific example, when any one of the first electrode E1 and the second electrode E2 is stacked on the stacking stage 310, the next electrode to be stacked is stacked to avoid interference with the pre-stacked electrode. It is preferable to move the stacking stage 310 in the downward direction as much as the thickness of the electrode.

That is, by adjusting the height of the stacking stage 310 by the height adjustment unit 340 at the same time that one electrode is stacked on the stacking stage 310, the interference between the next stacked electrode and the pre-stacked electrode is avoided. It becomes possible.

5 and 8, the electrode supply device 400 according to an embodiment of the present invention is disposed on both front sides of the main frame 200, respectively, the first electrode (E1) and the second electrode (E2) Is supplied to the electrode stacking stage device 300. At this time, the electrode supply device 400 is disposed at a predetermined interval from the first electrode supply device 410 and the first electrode supply device 410 for supplying the first electrode E1, and the second electrode E2 It includes a second electrode supply device 420 for supplying.

The first electrode supply devices 410 are provided spaced apart from each other, and the first and

second magazine units

411 and 412 for the first electrode E1 respectively receiving the first electrode E1 and the first electrode transfer unit 413 ), and the first electrode pickup unit 414.

The first electrode transfer unit 413 is disposed between the first magazine unit 411 for the first electrode E1 and the second magazine unit 412 for the first electrode E1, for the first electrode E1 The first electrode E1 supplied from the first magazine unit 411 or the second magazine unit 412 for the first electrode E1 is moved to the first electrode delivery device 510 to be described later. The first electrode transfer unit 413 is equipped with a first transfer plate 413a to which the first electrode E1 is seated and transferred, and the first transfer plate 413a, and the first transfer plate 413a. It may include a first transfer rail module (413b) for transferring.

In addition, the first electrode pickup unit 414 includes the first electrode E1 accommodated in the first magazine unit 411 for the first electrode E1 and the second magazine unit 412 for the first electrode E1, respectively. Picked up alternately and transferred to the first electrode transfer unit 413.

The first electrode pickup unit 414 includes a first pickup plate 414a, a second pickup plate 414b, a pickup plate first transfer unit 414c, a first connecting member 414d, and a pickup plate second transfer unit 414e.

The first pickup plate 414a picks up the first electrode E1 accommodated in the first magazine unit 411 for the first electrode E1 by vacuum adsorption, and the second pickup plate 414b is the first electrode E1 ) The first electrode E1 accommodated in the second magazine unit 412 for vacuum adsorption. In the embodiment of the present invention, the first and second pick-up

plates

414a and 414b are described as picking up by vacuum adsorption, respectively, but other pick-up methods are available to those skilled in the art (for example, pick-up using a robot arm). It will be fully understood that this can be used.

The pickup plate first transfer part 414c moves the first pickup plate 414a and the second pickup plate 414b in the vertical direction (vertical direction). At this time, the first pickup plate 414a and the second pickup plate 414b are connected to the first transfer part 414c by the first connecting member 414d.

In addition, the pickup plate second transfer portion 414e is connected to the pickup plate first transfer portion 414c to move the first pickup plate 414a and the second pickup plate 414b in the left-right direction (horizontal direction).

It should be noted that the above-described pick-up plate first transfer unit 414c and the pick-up plate second transfer unit 414e may have a linear module method or a linear motion guide method, but are not limited thereto.

In the first electrode supply device 410 according to an embodiment of the present invention, in the state shown in FIG. 8, the second pickup plate 414b is the first electrode in the second magazine unit 412 for the first electrode E1. While picking up (E1), the first pickup plate 414a is configured to supply the first electrode E1 picked up from the first magazine unit 411 for the first electrode E1 to the first electrode transfer plate 413a. do. Thereafter, the first pickup plate 414a and the second pickup plate 414b are moved upward by the pickup plate first transfer portion 414c and the pickup plate second transfer portion 414e of the first electrode pickup unit 414, When moving in the left direction (direction from the second magazine unit 412 for the first electrode E1 to the first magazine unit 411 for the first electrode E1 in FIG. 8 ), and when it moves downward, the first electrode is supplied. While the device 410 picks up the first electrode E1 from the first magazine unit 411 for the first electrode E1, the second pickup plate 414b has a first electrode ( The first electrode E1 picked up from the second magazine unit 412 for E1) is supplied to the first electrode transfer plate 413a. Thereafter, the first pickup plate 414a and the second pickup plate 414b are moved upward by the pickup plate first transfer portion 414c and the pickup plate second transfer portion 414e of the first electrode pickup unit 414, When moving in the right direction (direction from the first magazine unit 411 for the first electrode E1 to the second magazine unit 412 for the first electrode E1 in FIG. 8) and descending, the first electrode is supplied. While the device 410 picks up the first electrode E1 from the second magazine unit 412 for the first electrode E1, the first pickup plate 414a is the first electrode ( The first electrode E1 picked up from the first magazine unit 411 for E1) is supplied to the first electrode transfer plate 413a.

Therefore, the first electrode from the first magazine unit 411 for the first electrode E1 and the second magazine unit 412 for the first electrode E1 by the first electrode pickup unit 414 in the manner described above. As E1) is alternately supplied, there is an advantage that the process time for supplying the first electrode E1 can be reduced as much as possible.

The second electrode supply device 420 according to an embodiment of the present invention has the same configuration and operation as the first electrode supply device 410 described above, and thus a detailed description thereof will be omitted.

5 to 9, the electrode delivery device 500 according to an embodiment of the present invention is an electrode alignment device for the first electrode E1 and the second electrode E2 supplied from the electrode supply device 400. It is transferred to the electrode stacked stage device 300 through (600). At this time, the electrode delivery device 500 is the second electrode E2 from the first electrode delivery device 510 and the second electrode supply device 420 receiving the first electrode E1 from the first electrode supply device 410. It includes a second electrode delivery device 520 is supplied.

The first electrode delivery device 510 includes a first side frame 511, a first electrode adsorption unit 512, a first side frame support unit 513, a pair of horizontal drive units 514, and It includes a pair of conversion drive unit 515.

The first side frame 511 may include a pair of

side frames

511a and 511b and a connection bar 511c connecting the pair of

side frames

511a and 511b.

The first electrode adsorption unit 512 is disposed between the pair of

side frames

511a and 511b on the lower side of the first side frame 511, and the first electrode supplied from the first electrode supply device 410 ( After E1) is adsorbed (for example, by vacuum), it is transferred to the first electrode alignment device 610, which will be described later, by rotational reciprocation.

More specifically, the first electrode adsorption unit 512 may be provided with a vacuum port P for adsorbing the first electrode E1, and the first electrode transferred by the first electrode transfer plate 413a ( E1) is vacuum adsorbed, and then rotated to the first electrode alignment device 610 constituting the electrode alignment device 600 and transferred to the first electrode alignment device 610.

The first electrode adsorption unit 512 according to an embodiment of the present invention is substantially the same in configuration and operation as the first stacked loader unit 130 described above with reference to FIG. 3, and thus detailed description thereof will be omitted.

The first side frame support unit 513 is installed on the main frame 200 to support the first electrode adsorption unit 512 so as to be rotatable. At this time, the first side frame support unit 513 is a first rotation support member 513a installed on the first body frame 201 shown in FIG. 5, and a second rotation installed on the second body frame 202 It may include a support member (513b).

At this time, the upper ends of each of the pair of

side frames

511a and 511b are rotatably installed on the first and

second support members

513a and 513b.

In addition, the pair of horizontal driving units 514 horizontally move the first electrode adsorption unit 512.

Each of the pair of conversion driving units 515 is connected to the first electrode adsorption unit 512 and the other side is connected to the pair of horizontal driving units 514. Accordingly, the pair of conversion driving units 515 converts the first electrode adsorption unit 512 to rotate and reciprocate while vertically moving in association with the horizontal reciprocating movement of the pair of horizontal driving units 514.

The pair of horizontal drive units 514 and the pair of conversion drive units 515 according to an embodiment of the present invention are the horizontal drive unit 150 and the conversion drive unit 160 described above with reference to FIG. Since the configuration and operation are substantially the same, detailed description is omitted.

The first electrode delivery device 510 according to an embodiment of the present invention is disposed on the upper side of the first electrode adsorption unit 512, and moves the first electrode adsorption unit 512 in the vertical direction to form the first adsorption unit ( 512) may further include a third position adjusting means 516 for adjusting the position.

The third position adjusting means 516 according to an embodiment of the present invention has substantially the same configuration and operation as the first position adjusting means 133 described above with reference to FIG. 3, and detailed description thereof will be omitted.

In addition, since the configuration and operation of the second electrode delivery device 520 and the first electrode delivery device 510 described above are substantially the same, a detailed description thereof will be omitted.

6 and 10, the electrode alignment device 600 according to an embodiment of the present invention aligns the first electrode E1 and the second electrode E2 delivered from the electrode delivery device 500. In this case, the electrode alignment device 600 is delivered from the first electrode alignment device 610 and the second electrode transmission device 520 to align the first electrode E1 delivered from the first electrode transmission device 510. And a second electrode alignment device 620 that aligns the second electrode E2.

The first electrode alignment device 610 includes a first electrode alignment device main body 611, a first rotary drive unit 612, a first electrode alignment stage 613, a first electrode alignment camera 614, and a first electrode alignment device 610. It includes a one-electrode three-axis driving unit 615.

The first electrode alignment device main body 611 may be disposed in a state supported by the inner space of the main frame 200 by the first rotary driving unit 612.

The first rotation driving unit 612 is installed on both sides of the first electrode alignment device main body 611 to rotate the first electrode alignment device main body 611 in the forward and reverse directions.

The first electrode alignment stage 613 is disposed above the first electrode alignment device main body 611 and may be rotated together with the first electrode alignment device main body 611. Accordingly, the first electrode E1 may be supplied from the first electrode delivery device 510 on the first electrode alignment stage 613. Although not shown in detail, a vacuum port (not shown) for adsorbing the first electrode E1 by vacuum may be provided below the first electrode alignment stage 613.

The first electrode alignment camera 614 is disposed on the upper side of the first electrode alignment stage 613 to photograph an edge of the first electrode E1 to confirm the alignment state of the first electrode E1. Of course, the first electrode alignment camera 614 is installed below the first electrode alignment stage 613, and may be installed on the first electrode alignment body 611. At this time, a plurality of first electrode alignment cameras 614 may be installed according to the size and shape of the first electrode E1.

The first electrode three-axis direction driving unit 615 is disposed below the first electrode alignment stage 613, and the first electrode alignment stage 613 is aligned in the three-axis direction (before and after, to align the first electrode E1). Left and right and up and down).

The first electrode alignment device 610 according to an embodiment of the present invention receives the first electrode E1 from the first electrode delivery device 510 and the first stacked loader unit of the electrode stacked loader device 100 described above. The first electrode E1 is aligned while being rotated for delivery to 130.

That is, while the process of transferring the first electrode E1 from the first electrode alignment device 610 to the first stacked loader unit 130 is in progress, the first electrode E1 in the first electrode alignment device 610 is processed. This alignment has the advantage of further reducing the overall process time for stacking the electrodes.

The second electrode alignment device 620 according to an embodiment of the present invention has the same configuration and operation as the first electrode alignment device 610 described above, and thus detailed description thereof will be omitted.

As described above, the separator unwinding apparatus 700 according to an embodiment of the present invention is disposed on the upper side of the main body frame 200 to transfer the separator S to the lamination stage 310 of the electrode lamination stage apparatus 300. to provide.

The electrode stack loader device 100 according to an embodiment of the present invention includes the first electrodes E1 and the second electrodes aligned in the first electrode alignment device 610 and the second electrode alignment device 620 as described above. The electrode E2 and the separator S provided from the separator unwinding device 700 are sequentially stacked on the electrode stacking stage device 300.

Hereinafter, an operation process of the electrode stacking system 1000 according to an embodiment of the present invention as described above will be briefly described with reference to FIGS. 3 to 10 again.

First, the first and second

electrode supply devices

410 and 420 are sequentially operated to sequentially supply the first electrode E1 and the second electrode E2 to the electrode stacking stage 310.

More specifically, the first pickup plate 414a of the first electrode pickup unit 414 of the first electrode supply device 410 is the first electrode accommodated in the first magazine unit 411 for the first electrode E1. While picking up (E1), the second pickup plate 414b transfers the first electrode E1 previously picked up from the second magazine unit 412 for the first electrode E1 to the first electrode transfer plate 413a. Order. At the same time, on the opposite side, the pickup and transfer process of the second electrode E2 is performed in the same manner as the operation of the first electrode supply device 410 through the second electrode supply device 420.

Thereafter, the first electrode E1 transferred to the first electrode transfer plate 413a is moved to the side of the first electrode transfer device 510, and then the first electrode adsorption unit of the first electrode transfer device 510 ( 512).

The first electrode E1 adsorbed to the first electrode adsorption unit 512 is rotated toward the first electrode alignment device 610 by a pair of horizontal driving units 514 and a pair of conversion driving units 515. It is transferred to the first electrode alignment stage 613.

At the same time, on the opposite side, the second electrode E2 is the second electrode alignment device 620 (specifically, the second electrode) in the same manner as the operation of the first electrode delivery device 510 through the second electrode delivery device 520. Alignment stage (not shown).

The first electrode E1 continuously transferred to the first electrode alignment stage 613 includes the first electrode alignment camera 614 while the first electrode alignment device body 611 rotates to the electrode stack loader device 100. The first electrode is aligned through the 3-axis driving unit 615. At the same time, the second electrode E2 transferred to the second electrode alignment device 620 is aligned with the second electrode E2 by the same operation as the first electrode alignment device 610.

Thereafter, the first electrode alignment device 610 is rotated toward the first stacked loader unit 130, and the first electrode E1 aligned in the first electrode alignment device 610 has a first loader plate 131. It is rotated from the first position (P1) to the second position (P2) and is vacuum adsorbed by the first loader plate (131). Thereafter, after the first loader plate 131 is rotated from the second position P2 to the first position P1, the vacuum is released so that the first electrode E1 is stacked stage 310 of the stacked stage device 300 ) Are stacked on the first side (inner side) of the separator S previously supplied. At the same time, one side of the second loader plate 141 is rotated from the third position (P3) to the first position (P1), so that the separator (S) is pushed and folded to wrap the first electrode (E1) so that the first electrode (E1) is wrapped. ) Is stacked on the first side (inner side) of the separator S, and at the same time, the vacuum of the second loader plate 141 is released so that the second electrode E2 is the second side (outer side) of the separator S. ).

When the above-described process is repeated, the first electrode E1 and the second electrode E2 on the electrode stacking stage 310 are on the first side (inner side) and second side (outer side) of the separator S. Stacked sequentially.

Hereinafter, an electrode stacking system according to another embodiment of the present invention will be described.

11 is a perspective view schematically showing a structure of an electrode stacking system according to another embodiment of the present invention, and FIG. 12 is a view for explaining the configuration of an electrode stacking system according to another embodiment of the present invention.

11 and 12, the electrode stacking system 2000 according to another embodiment of the present invention includes a body frame (not shown), an electrode stacking stage device 300, an electrode supply device 800, and an electrode. It includes a transfer device 900, an electrode alignment device 600, a separator unwinding device 700, and an electrode stack loader device 100.

The main body frame (not shown), the electrode stacking stage device 300, the separator unwinding device 700, and the electrode stacking loader device 100 of the electrode stacking system 2000 according to another embodiment of the present invention are illustrated. The main frame 200 of the electrode stacking system 1000, the electrode stacking stage device 300, the separator unwinding device 700 and the electrode stacking of the electrode stacking system 1000 according to the embodiment of the present invention described above with reference to FIGS. 3 to 10 Since the loader device 100 and its configuration and operation are substantially the same, detailed description is omitted.

11 and 12 again, the electrode supply device 800 according to another embodiment of the present invention is disposed on both sides of the main frame (not shown), and the first electrode E1 and the second electrode E2 Is supplied to the electrode stacking stage device 300. At this time, the electrode supply device 800 is disposed at a predetermined interval from the first electrode supply device 810, and the first electrode supply device 810 for supplying the first electrode (E1), the second electrode (E2) It includes a second electrode supply device 820 for supplying.

The first electrode supply device 810 includes a first magazine unit 811 for the first electrode E1, a second magazine unit 812 for the first electrode E1, and a first electrode for the first electrode E1. It includes a magazine transfer unit 813 for transferring the magazine unit 811 and the second magazine unit 812 for the first electrode (E1).

A plurality of first electrodes E1 are accommodated in the first magazine unit 811 for the first electrode E1 and supplied to the electrode stacking stage device 300 by the magazine transfer unit 813.

In addition, a plurality of first electrodes E1 are accommodated in the second magazine unit 812 for the first electrode E1, and supplied to the electrode stacking stage device 300 by the magazine transfer unit 813, It is installed on the opposite side of the first magazine unit 811 for the electrode E1. Accordingly, the magazine transfer unit 813 is a first electrode loading device (alternatively described below) that alternately describes the first magazine unit 811 for the first electrode E1 and the second magazine unit 812 for the first electrode E1. 910).

That is, the first electrode supply device 410 according to an embodiment of the present invention supplies the first electrode E1 to the lower portion of the first electrode delivery device 510 through the first electrode transfer plate 413a. While the first electrode E1 is structured to be directly picked up by the first electrode delivery device 510, the first electrode supply device 810 according to another embodiment of the present invention carries magazines as described below. The first magazine unit 811 for the first electrode E1 and the second magazine unit 812 for the first electrode E1 are sequentially transferred to the side surface of the first electrode delivery device 910 through the unit 813. And the first magazine unit 811 for the first electrode E1 and the second magazine unit 812 for the first electrode E1 in which the first electrode delivery device 910 is horizontally reciprocated and sequentially transferred. A structure for picking up one electrode E1 is presented.

The second electrode supply device 820 according to another embodiment of the present invention has the same configuration and operation as the first electrode supply device 810 described above, and thus detailed description thereof will be omitted.

Referring back to FIGS. 11 and 12, the electrode delivery device 900 according to another embodiment of the present invention stacks the first electrode E1 and the second electrode E2 supplied from the electrode supply device 800 as an electrode stack. Transfer to the stage device 300. At this time, the electrode delivery device 900 is the first electrode delivery device 910 receiving the first electrode E1 from the first electrode supply device 810, and the second electrode from the second electrode supply device 820 ( E2) is supplied to the second electrode delivery device 920.

The first electrode transfer device 910 includes a first electrode transfer plate 911, a first electrode buffer portion 912, and a first driver 913 for driving the first electrode transfer plate 911 to move in the vertical direction. ), and a second driving unit 914 for driving the first electrode transfer plate 911 to move in the horizontal direction.

In the first electrode delivery plate 911, the first magazine unit 811 for the first electrode E1 or the second magazine unit 812 for the first electrode E1 is sequentially the first electrode delivery device 910. A first electrode alignment device that moves to the first magazine unit 811 for the first electrode E1 or the second magazine unit 812 for the first electrode E1 to be described later. 610). As for the pickup of the first electrode E1, a vacuum adsorption method may be used.

The first electrode transfer plate 911 includes a first pickup portion 911a and a second pickup portion 911b.

Although not shown in detail, the first pickup unit 911a may be provided with a plurality of vacuum ports for vacuum adsorbing the first electrode E1, and adsorbs the first electrode E1 by vacuum to be described later. 1 It moves to the electrode buffer part 912.

The second pickup unit 911b may be provided with a plurality of vacuum ports for vacuum adsorbing the first electrode E1, and the first electrode E1 positioned in the first electrode buffer unit 912 by vacuum. It adsorbs and moves to the first electrode alignment device 610 side.

The first electrode buffer unit 912 waits before the first electrode E1 supplied by the first pickup unit 911a is delivered to the first electrode alignment device 610 by the second pickup unit 911b. Make it possible.

In addition, the first driving unit 913 is disposed on the first electrode transfer plate 911, and the first pickup unit 911a of the first electrode transfer plate 911 is the first magazine for the first electrode E1. The first electrode transfer plate 911 is moved up and down to pick up the first electrode E1 on the unit 811 or the second magazine unit 812 for the first electrode E1. The first driving unit 913 suggests that the cylinder method is applied, but is not limited thereto.

Although not shown in detail, the second driving unit 914 moves the first electrode transfer plate 911 in the left-right direction, thereby moving the first electrode E1 to the first magazine unit 811 for the first electrode E1 or The second magazine unit 812 for the first electrode E1 can be transferred to the first electrode alignment device 610 via the first electrode buffer unit 912. The second driver 914 may be a linear module method, but is not limited thereto.

That is, in the first electrode delivery device 910 according to another embodiment of the present invention, the first electrode E1 picked up by the first pick-up unit 911a is moved to the first electrode buffer unit 912 to stand by. Thereafter, when the first electrode E1 previously transferred to the first electrode alignment device 610 is stacked on the stacking stage device 300 by the electrode stack loader device 100, the first electrode E1 is transferred to the first electrode buffer unit 912. The waiting first electrode E1 is picked up by the second pickup unit 911b and transferred to the first electrode alignment device 610. As a result, since the first electrode E1 can be continuously supplied through the first electrode buffer unit 912, there is an advantage of shortening the supply time of the first electrode E1.

The second electrode delivery device 920 according to another embodiment of the present invention has the same configuration and operation as the first electrode delivery device 910 described above, and thus detailed description thereof will be omitted.

Since various modifications can be made to the configurations and methods described and exemplified herein without departing from the scope of the invention, all matters included in the above detailed description or shown in the accompanying drawings are exemplary and are intended to limit the invention. It is not. Therefore, the scope of the present invention is not limited by the above-described exemplary embodiment, and should be determined only according to the following claims and equivalents thereof.

Claims

In the electrode stacked loader device,

A stacked loader unit stacking a first electrode and a second electrode of a different polarity from the first electrode on the separator while continuously supplying the separator by rotational reciprocating movement;

A horizontal drive unit for horizontally moving the stacked loader unit; And

One side is connected to the stacked loader unit, and the other side is connected to the horizontal drive unit, in association with the horizontal reciprocating movement of the horizontal drive unit, the vertical reciprocating movement on the stacked loader unit, so that the stacked loader unit rotates Conversion drive unit to convert

Electrode stacking loader device comprising a.
According to claim 1,

And a separator guide unit for guiding the separator to be continuously supplied so as to be rotatable while maintaining tension.
According to claim 2,

The separator guide unit

It includes a guide portion having a predetermined length, spaced apart from each other, and composed of a first guide shaft and a second guide shaft arranged side by side in a horizontal direction,

The separator is rotatably supplied after passing between the first guide shaft and the second guide shaft.

Electrode stacked loader device.
According to claim 3,

The stacked loader unit,

A side frame to which the separator guide unit is fixedly mounted; And

A pair of first and second stacked loader units spaced apart from each other under the side frame

Electrode stacking loader device comprising a.
According to claim 4,

The first stacked loader unit picks up the first electrode according to the rotational reciprocation movement of the stacked loader unit and stacks it on the separator,

The second stacked loader unit picks up the second electrode according to the rotational reciprocation movement of the stacked loader unit and stacks it on the separator

Electrode stacked loader device.
According to claim 4,

The side frame

A first side frame having an upper inner side fixedly coupled to one side of the guide portion;

A second side frame provided opposite to the first side frame, the upper inner side being fixedly coupled to the other side of the guide portion; And

Connection frame for connecting the first side frame and the second side frame

Electrode stacking loader device comprising a.
According to claim 4,

The first stacked loader unit rotates the second stacked loader unit in the first direction to pick up the second electrode, so that one surface of the separator is pushed in the first direction to be folded, so that the first electrode is connected to the separator. Laminated on one side,

The second stacked loader unit is rotated in a second direction opposite to the first direction to pick up the second electrode while the first stacked loader unit is pushed to fold the other surface of the separator in a second direction to be folded. Stacking a second electrode on the other surface of the separator

Electrode stacked loader device.
According to claim 4,

The first stacked loader unit

A first loader plate is installed a plurality of vacuum ports for adsorbing the first electrode by vacuum; And a first support frame for fixing the first loader plate to the side frame,

The second stacked loader portion includes a second loader plate in which a plurality of vacuum ports for adsorbing the second electrode by vacuum is installed; And a second support frame for fixing the second loader plate to the side frame.

Electrode stacked loader device.
The method of claim 8,

A first round portion is formed on one side of the first loader plate contacting one surface of the separator, and a first gripper receiving groove portion for receiving a first gripper is formed on a lower side of the first loader plate,

A second round portion is formed at one side of the second loader plate that is in contact with the other surface of the separator, and a second gripper receiving groove portion for receiving a second gripper is formed at a lower side of the second loader plate.

Electrode stacked loader device.
The method of claim 8,

The first stacked loader section and the second stacked loader section respectively

It is disposed on the upper side of the first loader plate and the second loader plate, for moving the first loader plate and the second loader plate up and down to adjust the positions of the first loader plate and the second loader plate Further comprising a first position adjusting means and the second position adjusting means

Electrode stacked loader device.
According to claim 1,

The horizontal drive unit

And a horizontal driving part disposed on at least one of both sides of the stacked loader unit,

The horizontal driving unit

A horizontal moving member for horizontally reciprocating the stacked loader unit;

A guide block coupled to the horizontal moving member to guide the movement of the horizontal moving member; And

A driving motor disposed on one side of the guide block and driving the horizontal moving member

Electrode stacking loader device comprising a.
According to claim 1,

The conversion driving unit includes a conversion driving unit disposed on at least one of both sides of the stacked loader unit,

The conversion driver

A guide rail formed on one side of the side frame and formed along a height direction of the side frame; And

One side is a vertical moving member coupled to the guide rail and the other side is coupled to the horizontal moving member

Including,

The vertical moving member moves the vertical frame along the guide rail by the horizontal reciprocating movement of the horizontal moving member to move the side frame in a reciprocating rotation.

Electrode stacked loader device.
In the electrode stacking system,

Body frame;

An electrode stacking stage device disposed in an inner space of the main frame and provided to sequentially stack a first electrode and a second electrode of a different polarity from the first electrode on a separator that is continuously supplied;

An electrode supply device disposed on both sides of the electrode stacking stage device and supplying the first electrode and the second electrode;

An electrode delivery device that delivers the first electrode and the second electrode supplied from the electrode supply device;

An electrode alignment device for aligning the first electrode and the second electrode transferred from the electrode delivery device;

A separator unwinding device that supplies the separator to the electrode stacking stage device; And

The electrode stack loader device according to any one of claims 1 to 13, wherein the first electrode and the second electrode aligned by the electrode alignment device are picked up and supplied onto the electrode stacking stage device.

Electrode stacking system comprising a.