Lamination equipment

Abstract

The utility model discloses a lamination mechanism which comprises a first outer suction cup mechanical arm, a second outer suction cup mechanical arm, a first inner suction cup mechanical arm, a second inner suction cup mechanical arm, a first deviation rectifying mechanism, a second deviation rectifying mechanism, a lamination mechanism body, a diaphragm unwinding mechanism and a diaphragm deflection mechanism. The lamination mechanism is located between the first deviation rectifying mechanism and the second deviation rectifying mechanism, and the first inner suction cup mechanical arm and the second inner suction cup mechanical arm are sequentially located between the first outer suction cup mechanical arm and the second outer suction cup mechanical arm. The first outer suction cup manipulator, the second outer suction cup manipulator, the first inner suction cup manipulator and the second inner suction cup manipulator are all located above the first deviation rectifying mechanism, the lamination mechanism and the second deviation rectifying mechanism. The device further comprises a multi-rotor linear motor, a deflection linear module, a first deviation rectification linear module and a second deviation rectification linear module. According to the utility model, the lamination time is shortened, the lamination efficiency is improved, and the cost is reduced.

Description

Technical Field

[0001] The utility model relates to the technical field of battery production, in particular to a lamination device. Background Art

[0002] Existing stacking equipment for stacking positive electrode sheets, negative electrode sheets, and diaphragms in a Z-shaped stack generally includes a first outer suction cup manipulator, a second outer suction cup manipulator, a first inner suction cup manipulator, a second inner suction cup manipulator, a first correcting mechanism, a second correcting mechanism, a stacking mechanism, a diaphragm unwinding mechanism, and a diaphragm deflection mechanism. The stacking mechanism is located between the first correcting mechanism and the second correcting mechanism. The first inner suction cup manipulator and the second inner suction cup manipulator are located between the first outer suction cup manipulator and the second outer suction cup manipulator, respectively. The first outer suction cup manipulator, the second outer suction cup manipulator, the first inner suction cup manipulator, and the second inner suction cup manipulator are all located above the first correcting mechanism, the stacking mechanism, and the second correcting mechanism. The diaphragm deflection mechanism is located above the stacking mechanism and between the first inner suction cup manipulator and the second inner suction cup manipulator. The diaphragm unwinding mechanism is located to the right of the second outer suction cup manipulator. The first outer suction cup manipulator is connected to the first outer suction cup linear module, the second outer suction cup manipulator is connected to the second outer suction cup linear module, the first inner suction cup manipulator is connected to the first inner suction cup linear module, the second inner suction cup manipulator is connected to the second inner suction cup linear module, and the diaphragm deflection mechanism is respectively connected to the first deflection linear module and the second deflection linear module.

[0003] In the above structure, the first correcting mechanism and the second correcting mechanism are usually fixed and cannot move. In this way, when the first outer suction cup linear module drives the first outer suction cup manipulator to move to the first correcting mechanism to place the sucked negative electrode sheet on the first correcting mechanism, the first outer suction cup manipulator and the first correcting mechanism cannot move toward each other. When the first inner suction cup linear module drives the first inner suction cup manipulator to move to the first correcting mechanism to suck the negative electrode sheet on the first correcting mechanism, the first inner suction cup manipulator and the first correcting mechanism cannot move toward each other. When the second outer suction cup linear module drives the second inner suction cup manipulator to move to the first correcting mechanism to suck the negative electrode sheet on the first correcting mechanism, the first inner suction cup manipulator and the first correcting mechanism cannot move toward each other. During the process of the outer suction cup manipulator moving to the second deflection correction mechanism to place the sucked positive electrode sheet on the second deflection correction mechanism, the second outer suction cup manipulator and the second deflection correction mechanism cannot move toward each other. During the process of the second inner suction cup manipulator being driven by the second inner suction cup linear module to move to the second deflection correction mechanism to suck the positive electrode sheet on the second deflection correction mechanism, the second inner suction cup manipulator and the second deflection correction mechanism cannot move toward each other. This results in the first outer suction cup manipulator, the second outer suction cup manipulator, the first inner suction cup manipulator, and the second inner suction cup manipulator having a relatively long movement stroke, thereby increasing the stacking time and reducing the stacking efficiency. In addition, the first outer suction cup manipulator, the second outer suction cup manipulator, the first inner suction cup manipulator, the second inner suction cup manipulator, and the diaphragm deflection mechanism are respectively driven by different linear modules, which is relatively costly. Utility Model Content

[0004] In order to overcome the deficiencies of the prior art, the utility model provides a lamination device, which reduces lamination time, improves lamination efficiency and reduces costs.

[0005] The technical solution adopted by the utility model to solve its technical problems is:

[0006] A laminating device comprises a first outer suction cup manipulator, a second outer suction cup manipulator, a first inner suction cup manipulator, a second inner suction cup manipulator, a first deviation correcting mechanism, a second deviation correcting mechanism, a laminating mechanism, a diaphragm unwinding mechanism and a diaphragm deflection mechanism, wherein the laminating mechanism is located between the first deviation correcting mechanism and the second deviation correcting mechanism, the first inner suction cup manipulator and the second inner suction cup manipulator are located between the first outer suction cup manipulator and the second outer suction cup manipulator in sequence, the first outer suction cup manipulator, the second outer suction cup manipulator, the first inner suction cup manipulator and the second inner suction cup manipulator are located between the first outer suction cup manipulator and the second outer suction cup manipulator ... The manipulators are all located above the first deflection correcting mechanism, the lamination mechanism and the second deflection correcting mechanism, the diaphragm deflection mechanism is located above the lamination mechanism and between the first inner suction cup manipulator and the second inner suction cup manipulator, and the diaphragm unwinding mechanism is located to the right of the second outer suction cup manipulator; it also includes a multi-motor linear motor, a deflection linear module, a first deflection correcting linear module and a second deflection correcting linear module, the multi-motor linear motor and the deflection linear module are arranged relative to each other in the front and back, the first outer suction cup manipulator, the second outer suction cup manipulator, the first inner suction cup manipulator The hand, the second inner suction cup manipulator and the diaphragm deflection mechanism are all located between the multi-motor linear motor and the deflection linear module. The first outer suction cup manipulator, the second outer suction cup manipulator, the first inner suction cup manipulator and the second inner suction cup manipulator are all connected to the multi-motor linear motor. The multi-motor linear motor is used to drive the first outer suction cup manipulator to move left and right, to drive the second outer suction cup manipulator to move left and right, to drive the first inner suction cup manipulator to move left and right, and to drive the second inner suction cup manipulator to move left and right. The diaphragm deflection mechanism is respectively connected to the multi-motor linear motor and the deflection linear module. The multi-motor linear motor and the deflection linear module are used to drive the diaphragm deflection mechanism to move left and right; the stacking mechanism is located between the first correction linear module and the second correction linear module. The first correction mechanism is arranged on the first correction linear module, and the second correction mechanism is arranged on the second correction linear module. The first correction linear module is used to drive the first correction mechanism to move left and right, and the second correction linear module is used to drive the second correction mechanism to move left and right.

[0007] The beneficial effect of the present invention is as follows: the present invention arranges the first correcting mechanism on the first correcting linear module and the second correcting mechanism on the second correcting linear module, so that in the process of placing the sucked negative electrode sheet on the first correcting mechanism by the first outer suction cup manipulator, the first outer suction cup manipulator and the first correcting mechanism can move toward each other, in the process of placing the sucked positive electrode sheet on the second correcting mechanism by the second outer suction cup manipulator, the second outer suction cup manipulator and the second correcting mechanism can move toward each other, in the process of sucking the negative electrode sheet on the first correcting mechanism by the first inner suction cup manipulator, the first inner suction cup manipulator and the first correcting mechanism can move toward each other, in the process of sucking the positive electrode sheet on the second correcting mechanism by the second inner suction cup manipulator, the second inner suction cup manipulator and the second correcting mechanism can move toward each other, thus shortening the moving strokes of the first outer suction cup manipulator, the second outer suction cup manipulator, the first inner suction cup manipulator and the second inner suction cup manipulator, reducing the stacking time and improving the stacking efficiency. Moreover, the first outer suction cup manipulator, the second outer suction cup manipulator, the first inner suction cup manipulator, the second inner suction cup manipulator and the diaphragm deflection mechanism are all driven by a multi-motor linear motor, which is easy to install and reduces costs. BRIEF DESCRIPTION OF THE DRAWINGS

[0008] The present invention will be further described below with reference to the accompanying drawings and embodiments.

[0009] Figure 1 This is a structural diagram of a lamination device provided by one embodiment of the present utility model;

[0010] Figure 2 yes Figure 1 The schematic diagram of the main view of the lamination device shown is after removing the first frame, the second frame, the multi-motor linear motor and the yaw linear module;

[0011] Figure 3 yes Figure 1 A schematic structural diagram of the first outer suction cup manipulator of the lamination equipment shown;

[0012] Figure 4 yes Figure 1 A schematic structural diagram of the first inner suction cup manipulator of the lamination equipment shown;

[0013] Figure 5 yes Figure 1 A schematic structural diagram of the first deviation-correcting mechanism and the first deviation-correcting linear module of the lamination device shown;

[0014] Figure 6 yes Figure 5 The schematic diagram of the structure of the first correcting mechanism after removing the correcting platform is shown;

[0015] Figure 7 yes Figure 1A schematic structural diagram of the lamination mechanism, first pressing plate mechanism, second pressing plate mechanism and diaphragm reversing mechanism of the lamination device shown;

[0016] Figure 8 yes Figure 7 An exploded schematic diagram of the lamination mechanism, the first pressure plate mechanism, the second pressure plate mechanism and the diaphragm reversing mechanism is shown;

[0017] Figure 9 yes Figure 7 The structure diagram of the stacking mechanism shown is after the stacking platform is removed;

[0018] Figure 10 yes Figure 7 An exploded schematic diagram of the first pressing plate mechanism shown, with the pressing plate lifting assembly and two pressing plates removed;

[0019] Figure 11 yes Figure 7 An exploded schematic diagram of the diaphragm reversing mechanism shown;

[0020] Figure 12 yes Figure 1 The schematic diagram of the structure of the diaphragm unwinding mechanism, diaphragm deviation correction mechanism and diaphragm deflection mechanism of the lamination equipment shown;

[0021] Figure 13 yes Figure 12 The schematic diagram of the structure of the diaphragm unwinding mechanism, diaphragm deviation correction mechanism of the lamination equipment shown in the figure after removing the protective cover plate, and diaphragm deflection mechanism;

[0022] Figure 14 yes Figure 1 The schematic diagram of the structure of the diaphragm deflection mechanism and the multi-motor linear motor of the lamination device shown;

[0023] Figure 15 yes Figure 14 The structural diagram of the diaphragm deflection mechanism is shown;

[0024] Figure 16 yes Figure 14 Exploded diagram of the diaphragm deflection mechanism shown. DETAILED DESCRIPTION

[0025] The following will clearly and completely describe the concept, specific structure and technical effects of the present invention in combination with the embodiments and drawings, so as to fully understand the purpose, characteristics and effects of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of them. Based on the embodiments of the present invention, other embodiments obtained by technical personnel in this field without creative work are within the scope of protection of the present invention. In addition, all the connection / connection relationships involved in the patent do not refer to the direct connection of components, but refer to the fact that a better connection structure can be formed by adding or reducing connection accessories according to the specific implementation situation. The various technical features in the creation of the present invention can be combined interactively without conflicting with each other.

[0026] Please refer to Figure 1 and Figure 2 An embodiment of the present invention provides a lamination device, including a first frame 1, a second frame 2, a multi-motor linear motor 3a, a deflection linear module 3b, a first correction linear module 4a, a second correction linear module 4b, a first outer suction cup manipulator 10a, a second outer suction cup manipulator 10b, a first inner suction cup manipulator 20a, a second inner suction cup manipulator 20b, a first correction mechanism 30a, a second correction mechanism 30b, a lamination mechanism 40, a first pressure plate mechanism 50a, a second pressure plate mechanism 50b, a diaphragm reversing mechanism 60, a diaphragm unwinding mechanism 70, a diaphragm correction mechanism 80 and a diaphragm deflection mechanism 90.

[0027] The first frame 1 and the second frame 2 are arranged relative to each other in the front and back direction. The first frame 1 and the second frame 2 are used to be arranged at the top of the stacking base. The multi-motor linear motor 3a is arranged on the side of the second frame 2 close to the first frame 1, and the yaw linear module 3b is arranged on the side of the first frame 1 close to the second frame 2. The first outer suction cup manipulator 10a and the second outer suction cup manipulator 10b are arranged symmetrically on the left and right and are located between the multi-motor linear motor 3a and the yaw linear module 3b. The first outer suction cup manipulator 10a and the second outer suction cup manipulator 10b are respectively connected to the multi-motor linear motor 3a. The first inner suction cup manipulator 20a and the second inner suction cup manipulator 20b are arranged symmetrically on the left and right and are sequentially located between the first outer suction cup manipulator 10a and the second outer suction cup manipulator 10b. The first inner suction cup manipulator 20a and the second inner suction cup manipulator 20b are respectively connected to the multi-motor linear motor 3a. The stacking mechanism 40 is located between the first correcting mechanism 30a and the second correcting mechanism 30b. The first correcting mechanism 30a, the stacking mechanism 40, and the second correcting mechanism 30b are arranged in sequence from left to right between the first frame 1 and the second frame 2. The first correcting mechanism 30a and the second correcting mechanism 30b are arranged symmetrically. The stacking mechanism 40 is used to be arranged at the top of the stacking base. The first outer suction cup manipulator 10a, the second outer suction cup manipulator 10b, the first inner suction cup manipulator 20a, and the second inner suction cup manipulator 20b are all located above the first correcting mechanism 30a, the stacking mechanism 40, and the second correcting mechanism 30b. The first correcting linear module 4a and the second correcting linear module 4b are arranged symmetrically. The stacking mechanism 40 is located between the first correcting linear module 4a and the second correcting linear module 4b. The first deflection-correcting mechanism 30a is arranged on the first deflection-correcting linear module 4a, and the second deflection-correcting mechanism 30b is arranged on the second deflection-correcting linear module 4b. The first deflection-correcting linear module 4a and the second deflection-correcting linear module 4b are used to be arranged at the top of the lamination base. The first pressure plate mechanism 50a and the second pressure plate mechanism 50b are respectively arranged on the lamination mechanism 40 and are arranged symmetrically on the left and right. The diaphragm reversing mechanism 60 is arranged on the lamination mechanism 40. The diaphragm unwinding mechanism 70 is located to the right of the second outer suction cup manipulator 10b, specifically to the right of the first frame 1 and the second frame 2. The diaphragm unwinding mechanism 70 is used to be arranged at the top of the lamination base. The diaphragm deflection-correcting mechanism 80 is arranged at the top of the first frame 1 and the second frame 2 and is located above the lamination mechanism 40, the second deflection-correcting mechanism 30b, the second inner suction cup manipulator 20b, and the second outer suction cup manipulator 10b. The diaphragm deflection mechanism 90 is located above the stacking mechanism 40 and below the diaphragm correction mechanism 80, and is located between the first inner suction cup manipulator 20a and the second inner suction cup manipulator 20b. The diaphragm deflection mechanism 90 is respectively connected to the multi-motor linear motor 3a and the deflection linear module 3b, and the diaphragm deflection mechanism 90 is slidingly connected to the correction plate 82 of the diaphragm correction mechanism 80.The multi-motor linear motor 3a is used to drive the first outer suction cup manipulator 10a, the second outer suction cup manipulator 10b, the first inner suction cup manipulator 20a, and the second inner suction cup manipulator 20b. The multi-motor linear motor 3a and the yaw linear module 3b are used to drive the diaphragm yaw mechanism 90. The first correcting linear module 4a is used to drive the first correcting mechanism 30a, and the second correcting linear module 4b is used to drive the second correcting mechanism 30b.

[0028] In this embodiment, the multi-motor linear motor 3a is a five-motor linear motor, with its five movers arranged sequentially from left to right. The first outer suction cup manipulator 10a and the second outer suction cup manipulator 10b are connected to the first and last movers of the multi-motor linear motor 3a, respectively. The first inner suction cup manipulator 20a and the second inner suction cup manipulator 20b are connected to the second and fourth movers of the multi-motor linear motor 3a, respectively. The diaphragm deflection mechanism 90 is connected to the third mover of the multi-motor linear motor 3a.

[0029] Combine Figure 3As shown, the first external suction cup manipulator 10a is used to suck the negative electrode sheet on the negative electrode sheet transmission line and place the sucked negative electrode sheet on the first correcting mechanism 30a. The second external suction cup manipulator 10b is used to suck the positive electrode sheet on the positive electrode sheet transmission line and place the sucked positive electrode sheet on the second correcting mechanism 30b. The first external suction cup manipulator 10a and the second external suction cup manipulator 10b both include an external suction cup lifting linear module 12, an external suction cup mounting seat 13, an external suction cup rotating assembly 14, an external suction cup connecting seat 15 and an external suction cup assembly 16. The external suction cup lifting linear module 12 of the first external suction cup manipulator 10a is connected to the first mover of the multi-motor linear motor 3a, and the external suction cup lifting linear module 12 of the second external suction cup manipulator 10b is connected to the last mover of the multi-motor linear motor 3a. The multi-motor linear motor 3a is used to drive the external suction cup lifting linear module 12 to move left and right. One end of the outer suction cup mounting seat 13 is arranged on the outer suction cup lifting linear module 12, which is used to drive the outer suction cup mounting seat 13 to move up and down. The left and right movement of the outer suction cup lifting linear module 12 can drive the outer suction cup mounting seat 13 to move left and right. The outer suction cup rotation assembly 14 is arranged at the other end of the outer suction cup mounting seat 13. The outer suction cup assembly 16 is located in front of the outer suction cup mounting seat 13 and below the outer suction cup mounting seat 13. The outer suction cup assembly 16 and the outer suction cup mounting seat 13 are arranged vertically. The angle between the center line of the length direction of the outer suction cup connecting seat 15 and the center line of the length direction of the outer suction cup mounting seat 13 is an obtuse angle. One end of the outer suction cup connecting seat 15 is connected to the outer suction cup rotation assembly 14, and the other end of the outer suction cup connecting seat 15 is connected to the outer suction cup assembly 16. The center of the outer suction cup assembly 16 is located on the side of the rotation center of the outer suction cup connecting seat 15 away from the stacking mechanism 40, that is, it is eccentrically arranged relative to the rotation center of the outer suction cup connecting seat 15. The external suction cup rotating assembly 14 is used to drive the external suction cup connecting seat 15 to rotate, thereby driving the external suction cup assembly 16 to rotate. The left and right movement of the external suction cup mounting seat 13 drives the external suction cup rotating assembly 14, the external suction cup connecting seat 15, and the external suction cup assembly 16 to move left and right. The up and down movement of the external suction cup mounting seat 13 drives the external suction cup rotating assembly 14, the external suction cup connecting seat 15, and the external suction cup assembly 16 to move up and down. The external suction cup assembly 16 of the first external suction cup manipulator 10a is used to suck in or release the negative electrode sheet, while the external suction cup assembly 16 of the second external suction cup manipulator 10b is used to suck in or release the positive electrode sheet.Since the outer suction cup assembly 16 is eccentrically arranged relative to the rotation center of the outer suction cup connecting seat 15, after the outer suction cup rotating assembly 14 of the first outer suction cup manipulator 10a drives the outer suction cup connecting seat 15 and the outer suction cup assembly 16 to rotate 90 degrees counterclockwise, the outer suction cup assembly 16 of the first outer suction cup manipulator 10a is located between the outer suction cup mounting seat 13 of the first outer suction cup manipulator 10a and the first correcting mechanism 30a. This is equivalent to offsetting the outer suction cup assembly 16 of the first outer suction cup manipulator 10a in the direction of the first correcting mechanism 30a. When the first outer suction cup manipulator 10a is driven to move to the right, that is, toward the direction close to the first correcting mechanism 30a, by the multi-motor linear motor 3a, the movement time of the first outer suction cup manipulator 10a can be shortened. The moving stroke of the second outer suction cup manipulator 10a is shortened, thereby improving the stacking efficiency. After the outer suction cup rotating component 14 of the second outer suction cup manipulator 10b drives the outer suction cup connecting seat 15 and the outer suction cup component 16 to rotate 90 degrees in the clockwise direction, the outer suction cup component 16 of the second outer suction cup manipulator 10b is located between the outer suction cup mounting seat 13 of the second outer suction cup manipulator 10b and the second correcting mechanism 30b. This is equivalent to offsetting the outer suction cup component 16 of the second outer suction cup manipulator 10a in the direction of the second correcting mechanism 30b. When the second outer suction cup manipulator 10a is driven to move to the left, that is, toward the direction close to the second correcting mechanism 30b, by the multi-motor linear motor 3a, the moving stroke of the second outer suction cup manipulator 10b can be shortened, thereby improving the stacking efficiency.

[0030] The external suction cup rotation assembly 14 includes an external suction cup motor 141 and an external suction cup reducer 142. The external suction cup reducer 142 is arranged at the top of the other end of the external suction cup mounting seat 13, and the external suction cup motor 141 is arranged on the external suction cup reducer 142. The output end of the external suction cup motor 141 is connected to the input end of the external suction cup reducer 142. The output end of the external suction cup reducer 142 passes through the through hole at the other end of the external suction cup mounting seat 13 and is connected to one end of the external suction cup connecting seat 15. The external suction cup assembly 16 includes a first external suction cup plate 161, a second external suction cup plate 162 located below the first external suction cup plate 161, and a plurality of external suction cups 163. The other end of the external suction cup connecting seat 15 is connected to the top center of the first external suction cup plate 161, and the bottom end of the first external suction cup plate 161 is connected to the second external suction cup plate 162 through a support column 1611. The number of support columns 1611 can be set according to actual conditions. The first outer suction cup plate 161 is provided with outer suction cup mounting holes corresponding to the plurality of outer suction cups 163, and the second outer suction cup plate 162 is provided with outer suction cup through-holes 1621 corresponding to the plurality of outer suction cups 163. The outer suction cups 163 are located between the first outer suction cup plate 161 and the second outer suction cup plate 162. The tail ends of the outer suction cups 163 pass through the corresponding outer suction cup mounting holes and are located above the first outer suction cup plate 161. The tail ends of the outer suction cups 163 of the first outer suction cup manipulator 10a are used to connect to the first vacuum pumping device, while the tail ends of the outer suction cups 163 of the second outer suction cup manipulator 10b are used to connect to the second vacuum pumping device. The heads of the outer suction cups 163 pass through the corresponding outer suction cup through-holes 1621 and are located below the second outer suction cup plate 162. The outer suction cup mounting holes are screw holes, and the outer suction cups 163 are threadedly connected to the corresponding outer suction cup mounting holes. The first vacuuming device is used to evacuate or stop evacuating the interior of the several external suction cups 163 of the first external suction cup manipulator 10a, so that the heads of the several external suction cups 163 of the first external suction cup manipulator 10a can adsorb or release the negative electrode sheet. The second vacuuming device is used to evacuate or stop evacuating the interior of the several external suction cups 163 of the second external suction cup manipulator 10b, so that the heads of the several external suction cups 163 of the second external suction cup manipulator 10b can adsorb or release the positive electrode sheet. The several external suction cups 163 are evenly distributed. It can be understood that the number and position of the external suction cups 163 can be set according to actual conditions. The external suction cup motor 141 is used to drive the first external suction cup plate 161 to rotate through the external suction cup reducer 142 and the external suction cup connecting seat 15, so that the second external suction cup plate 162 and the several external suction cups 163 can be driven to rotate through the support column 1611. The first outer suction cup manipulator 10a and the second outer suction cup manipulator 10b use suction cups to suck the negative electrode sheet and the positive electrode sheet respectively, without damaging the negative electrode sheet and the positive electrode sheet.

[0031] Combine Figure 4As shown, the first inner suction cup manipulator 20a is used to suck the negative electrode sheet on the first correcting mechanism 30a and place the negative electrode sheet on the diaphragm of the stacking mechanism 40. The second inner suction cup manipulator 200b is used to suck the positive electrode sheet on the second correcting mechanism 30b and place the positive electrode sheet on the diaphragm of the stacking mechanism 40. The first inner suction cup manipulator 20a and the second inner suction cup manipulator 20b both include an inner suction cup lifting linear module 22, an inner suction cup mounting seat 23, an inner suction cup lifting assembly 24 and an inner suction cup assembly 25. The inner suction cup lifting linear module 22 of the first inner suction cup manipulator 20a is connected to the second mover of the multi-motor linear motor 3a, and the inner suction cup lifting linear module 22 of the second inner suction cup manipulator 20b is connected to the fourth mover of the multi-motor linear motor 3a. The multi-motor linear motor 3a is used to drive the inner suction cup lifting linear module 22 to move left and right. One end of the inner suction cup mounting seat 23 is set on the inner suction cup lifting linear module 22, and the inner suction cup lifting linear module 22 is used to drive the inner suction cup mounting seat 23 to move up and down. The inner suction cup lifting assembly 24 includes an inner suction cup lifting cylinder 241. One side of the other end of the inner suction cup mounting seat 23 (that is, the side of the other end of the inner suction cup mounting seat 23 away from the lamination mechanism 40) is provided with an inner suction cup connecting seat 242 near the other end of the inner suction cup mounting seat 23. The inner suction cup lifting cylinder 241 is set on the inner suction cup connecting seat 242. The left and right movement of the inner suction cup mounting seat 23 can drive the inner suction cup connecting seat 242 and the inner suction cup lifting cylinder 241 to move left and right. The up and down movement of the inner suction cup mounting seat 23 can drive the inner suction cup connecting seat 242 and the inner suction cup lifting cylinder 241 to move up and down. An inner suction cup connecting plate 243 is provided at the bottom end of the inner suction cup connecting seat 242, and the inner suction cup connecting plate 243 can move synchronously with the inner suction cup connecting seat 242. The inner suction cup assembly 25 includes an inner suction cup plate 251 located below the inner suction cup connecting plate 243 and a plurality of inner suction cups 252. The length direction of the inner suction cup plate 251 is the same as the length direction of the inner suction cup mounting seat 23. The output end of the inner suction cup lifting cylinder 241 passes through the through hole of the inner suction cup connecting seat 242, the through hole of the inner suction cup connecting plate 243 and is connected to the top end of the inner suction cup plate 251. The inner suction cup lifting cylinder 241 is used to drive the inner suction cup plate 251 to move up and down. A plurality of inner suction cups 252 are evenly arranged at the bottom end of the inner suction cup plate 251. The left and right movement of the inner suction cup lifting cylinder 241 can drive the inner suction cup plate 251 to move left and right, thereby driving several inner suction cups 251 to move left and right. The up and down movement of the inner suction cup lifting cylinder 241 can drive the inner suction cup plate 251 to move up and down, thereby driving several inner suction cups 251 to move up and down.

[0032] The multiple inner suction cups 252 of the first inner suction cup manipulator 20a are used to suck or release the negative electrode sheet, and the multiple inner suction cups 252 of the second inner suction cup manipulator 20b are used to suck or release the positive electrode sheet. In this embodiment, the bottom end of the inner suction cup plate 251 is provided with multiple inner suction cup mounting holes corresponding to the multiple inner suction cups 252, and the inner suction cup mounting holes are threaded holes. The tail ends of the inner suction cups 252 are threadedly mounted in the corresponding inner suction cup mounting holes. An air passage is provided in the inner suction cup plate 251, and the air passages are connected to the interior of the multiple inner suction cups 252. The top end of the inner suction cup plate 251 is provided with an inner suction cup connector 253 connected to the air passage. The inner suction cup connector 253 of the first inner suction cup manipulator 20a is used to connect to the third vacuum pumping device, and the inner suction cup connector 253 of the second inner suction cup manipulator 20b is used to connect to the fourth vacuum pumping device. The third vacuum pumping device is used to vacuum or stop the interior of the multiple inner suction cups 252 of the first inner suction cup manipulator 20a through the corresponding inner suction cup connectors 253 and the air channel, so that the heads of the multiple inner suction cups 252 of the first inner suction cup manipulator 20a can absorb or release the negative electrode sheet. The fourth vacuum pumping device is used to vacuum or stop the interior of the multiple inner suction cups 252 of the second inner suction cup manipulator 20b through the corresponding inner suction cup connectors 253 and the air channel, so that the heads of the multiple inner suction cups 252 of the second inner suction cup manipulator 20b can absorb or release the positive electrode sheet. The number and position of the internal suction cups 252 can be set according to actual conditions. The first inner suction cup manipulator 20a and the second inner suction cup manipulator 20b use suction cups to absorb the negative electrode sheet and the positive electrode sheet, respectively, without damaging the negative electrode sheet and the positive electrode sheet.

[0033] Combine Figure 5 and Figure 6As shown, the first correcting mechanism 30a is used to correct the negative electrode sheet. The second correcting mechanism 30b is used to correct the negative electrode sheet. The first correcting mechanism 30a and the second correcting mechanism 30b both include a correcting mounting frame 31, an alignment robot 32 arranged at the top of the correcting mounting frame 31, and a correcting platform 33 arranged at the top of the alignment robot 32. The correcting mounting frame 31 of the first correcting mechanism 30a is arranged on the first correcting linear module 4a, and the first correcting linear module 4a is used to drive the correcting mounting frame 31 of the first correcting mechanism 30a to move left and right. The correcting mounting frame 31 of the second correcting mechanism 30b is arranged on the second correcting linear module 4b, and the second correcting linear module 4b is used to drive the correcting mounting frame 31 of the second correcting mechanism 30b to move left and right. The left and right movement of the correcting mounting frame 31 can drive the alignment robot 32 and the correcting platform 33 to move left and right. The alignment robot 32 is used to drive the correcting platform 33 to rotate. After the first outer suction cup manipulator 10a places the sucked negative electrode sheet on the correction platform 33 of the first correction mechanism 30a, the alignment robot 32 of the first correction mechanism 30a drives the correction platform 33 to rotate, thereby driving the negative electrode sheet to rotate, thereby adjusting the angle of the negative electrode sheet, thereby correcting the deviation of the negative electrode sheet. After the second outer suction cup manipulator 10b places the sucked positive electrode sheet on the correction platform 33 of the second correction mechanism 30b, the alignment robot 32 of the second correction mechanism 30b drives the correction platform 33 to rotate, thereby driving the positive electrode sheet to rotate, thereby adjusting the angle of the positive electrode sheet, thereby correcting the deviation of the positive electrode sheet.

[0034] Combine Figures 7 to 11 As shown, the lamination mechanism 40 includes a lamination base plate 41, a lamination mounting frame 44 located above the lamination base plate 41, a lamination lifting assembly 42, and a lamination platform 43. The lamination lifting assembly 42 is mounted on the lamination base plate 41 and is used to drive the lamination mounting frame 44 to move up and down. The lamination platform 43 is located at the top of the lamination mounting frame 44. The up and down movement of the lamination mounting frame 44 drives the lamination platform 43 to move up and down. The lamination mounting frame 44 is located between two lamination supports 411 and is slidably mounted on the adjacent sides of the two lamination supports 411 via conventional slide rails that slidably engage with the slide rails. The two lamination supports 411 are located at the top of the lamination base plate 41. The lamination platform 43 is driven up and down by the lamination lifting assembly 42, thereby adjusting the height of the lamination platform 43.

[0035] In this embodiment, the stacking assembly 42 includes a stacking motor 421, a stacking screw 422, and a stacking nut 423. The stacking motor 421 is mounted at the bottom of the stacking base plate 41 via a motor mount. The stacking mounting frame 44 is U-shaped and includes a mounting frame base plate 441 and two mounting frame side plates 442 disposed at the top of the mounting frame base plate 441, arranged in a front-to-rear relationship. One end of the stacking screw 422 is connected to the output end of the stacking motor 421. The other end of the stacking screw 422 passes through the first through-hole of the stacking base plate 41, a hole in the mounting frame base plate 441, and is located between the two mounting frame side plates 442. The stacking nut 423 is disposed within the hole in the mounting frame base plate 441 and threadedly engages with the stacking screw 422. The stacking motor 421 is used to drive the stacking screw 422 to rotate, thereby driving the stacking nut 423 to move up and down, thereby driving the mounting frame base plate 441 and the two mounting frame side plates 442 to move up and down. A bearing is provided in the first through hole of the laminate base plate 41 , and the bearing sleeve is provided on the outer periphery of the laminate screw rod 442 to provide support for the rotation of the laminate screw rod 442 .

[0036] The first and second pressure plate mechanisms 50a, 50b are used to hold down the negative electrode sheet when the first inner suction cup manipulator 20a places it on the diaphragm of the lamination mechanism to prevent it from moving, and to hold down the positive electrode sheet when the second inner suction cup manipulator 20b places it on the diaphragm of the lamination mechanism to prevent it from moving. The first and second pressure plate mechanisms 50a, 50b each include a support plate 51, a pressure plate lifting assembly 52, two pressure plate transverse movement assemblies 53, two pressure plate connecting seats 54, two pressure plate lifting cylinders 55, and two pressure plates 56. The lamination platform 43 is located between the support plate 51 of the first and second pressure plate mechanisms 50a, 50b. Two stacking support columns 412 are located at the top of the stacking base 41, facing each other. Two stacking support members 411 are positioned between the two stacking support columns 412. The support plate 51 of the first pressing plate mechanism 50a is slidably mounted on one side of the two stacking support columns 412 via conventional slide rails and sliders that slidably engage with the slide rails. The support plate 51 of the second pressing plate mechanism 50b is slidably mounted on the other side of the two stacking support columns 412 via conventional slide rails and sliders that slidably engage with the slide rails. A pressing plate lifting assembly 52 is mounted on the stacking base 41 and is used to drive the support plate 51 up and down. Two pressing plate transverse assemblies 53 are respectively mounted on the side of the support plate 51 away from the stacking platform 43 and face each other. Two pressing plate connecting seats 54 are respectively slidably mounted on the side of the support plate 51 away from the stacking platform 43 and are connected to the two pressing plate transverse assemblies 53. The two pressing plate transverse assemblies 53 are used to drive the two pressing plate connecting seats 54 toward or away from the center of the stacking platform 43. Two platen lift cylinders 55 are mounted on top of the two platen connectors 54 via L-shaped cylinder mounts 551. Two platens 56 are positioned front-to-back, with one end of each platen 56 mounted on the top of each platen lift cylinder 55 via platen mounts 561. The other ends of each platen 56 extend toward the center of the stacking platform 43. The two platen lift cylinders 55 are used to drive the two platens 56 up and down, with the stacking platform 43 positioned between them. The vertical movement of the support plate 51 drives the two platen transverse assemblies 53 and the two platen connectors 54 up and down, thereby driving the two platen lift cylinders 55 and the two platens 56 up and down. The platen lift assembly 52 drives the support plate 51 and the two platens 56 up and down, allowing the height of the two platens 56 to be adjusted. When the two pressure plate connecting seats 54 move toward or away from the center of the stacking platform 43, the two pressure plate lifting cylinders 55 can be driven by the two pressure plate connecting seats 54 to move toward or away from the center of the stacking platform 43, thereby driving the two pressure plates 56 to move toward or away from the center of the stacking platform 43.

[0037] In this embodiment, the pressure plate lifting assembly 52 includes a pressure plate lifting motor 521, a pressure plate lifting screw, and a pressure plate lifting nut. The pressure plate lifting motor 521 is mounted on the top of the laminate base plate 41 via a motor mount. The pressure plate lifting motor 521 of the first pressure plate mechanism 50a, the laminate lifting motor 421, and the pressure plate lifting motor 521 of the second pressure plate mechanism 50b are spaced apart from each other from left to right. A mounting block is provided on the side of the support plate 51 near the laminate platform 43. One end of the pressure plate lifting screw is connected to the output end of the pressure plate lifting motor 521. The other end of the pressure plate lifting screw passes through the second through-hole of the laminate base plate 41 and the hole of the mounting block and is located above the mounting block. The pressure plate lifting nut is positioned within the hole of the mounting block and engages with the threaded pressure plate lifting screw. The pressure plate lifting motor 521 is used to drive the pressure plate lifting screw to rotate, thereby driving the pressure plate lifting nut to move up and down, and further driving the support plate 51 to move up and down through the mounting block. A bearing is provided in the second through hole of the laminated bottom plate 41 , and the bearing sleeve is arranged on the outer periphery of the pressing plate lifting screw to provide support for the rotation of the pressing plate lifting screw.

[0038] The pressure plate transverse movement assembly 53 includes a pressure plate transverse movement motor 531, a pressure plate transverse movement screw 532, and a pressure plate transverse movement nut 533. The pressure plate transverse movement motor 531 is arranged on the side of the support plate 51 away from the lamination table 43 through a motor seat. The pressure plate transverse movement screw 532 is rotatably arranged on the side of the support plate 51 away from the lamination table 43 through two screw bearing seats 5321. One end of the pressure plate transverse movement screw 532 is connected to the output end of the pressure plate transverse movement motor 531, and the other end of the pressure plate transverse movement screw 532 extends toward the center of the lamination table 43. The pressure plate transverse movement screws 532 of the two pressure plate transverse movement assemblies 53 are located between the pressure plate transverse movement motors 531 of the two pressure plate transverse movement assemblies 53. The pressure plate transverse movement nut 533 is threadedly engaged with the pressure plate transverse movement screw 532, and a connecting block 5331 is sleeved on the outer periphery of the pressure plate transverse movement nut 533. A pressure plate guide rail 541 is provided on the side of the support plate 51 away from the lamination platform 43. The length of the pressure plate guide rail 541 is the same as that of the support plate 51. A pressure plate sliding block 542 is provided on the side of the pressure plate connecting seat 54 close to the support plate 51. The pressure plate sliding block 542 is connected to the pressure plate guide rail 541. The pressure plate connecting seat 54 is located above the pressure plate transverse movement screw 532 of the corresponding pressure plate transverse movement assembly 53 and is connected to the connecting block 5331 of the corresponding pressure plate transverse movement assembly 53. The pressure plate transverse movement motor 531 is used to drive the pressure plate transverse movement screw 532 to rotate, thereby driving the pressure plate transverse movement nut 533 to move toward or away from the center of the lamination platform 43, thereby driving the connecting block 5331 to move toward or away from the center of the lamination platform 43. The movement of the connecting block 5331 drives the corresponding pressure plate connecting seat 54 to move toward or away from the center of the lamination platform 43. The pressure plate connecting seat 54 is slidably disposed on the side of the support plate 51 away from the lamination table 43, which can improve the smooth movement of the pressure plate connecting seat 54. A first protective cover 57 is provided on the screw bearing seat 5321 and the motor seat of the pressure plate transverse movement motor. The pressure plate transverse movement screw 532, the pressure plate transverse movement nut 533, and the connecting block 5331 are all located within the first protective cover 57. The first protective cover 57 protects the pressure plate transverse movement screw 532, the pressure plate transverse movement nut 533, and the connecting block 5331. A second protective cover 58 corresponding to the pressure plate connecting seat 54 is provided at the top of the first protective cover 57. The pressure plate connecting seat 54 is located within the corresponding second protective cover 58. The second protective cover 58 protects the corresponding pressure plate connecting seat 54.

[0039] The diaphragm reversing mechanism 60 is used to hold the diaphragm in place. It includes a reversing seat 61, a reversing base plate 62, a reversing cylinder 64, a reversing side plate 63, and a vacuum suction plate 65. The reversing seat 61 is positioned at the top of the lamination base plate 41 and between the two platen transverse movement assemblies 53 of the second platen mechanism 50b. The reversing base plate 62 is positioned at the top of the reversing seat 61. The reversing cylinder 64 is mounted at the top of the reversing base plate 62 via a cylinder seat 641. The output end of the reversing cylinder 64 is connected to the reversing side plate 63. The reversing cylinder 64 drives the reversing side plate 63 to move left and right. The reversing side plate 63 is positioned adjacent to the side of the lamination table 43 that is closest to the second platen mechanism 50b. Two adapter plates 631 are positioned in a front-to-rear orientation on the side of the reversing side plate 63 that is away from the lamination table 43. Two suction plate support blocks 632 are provided on the side of the two adapter plates 631 near the reversing side plate 63. The two suction plate support blocks 632 are positioned at the top of the reversing side plate 63. A vacuum suction plate 65 is positioned at the top of the two suction plate support blocks 632. The vacuum suction plate 65 is positioned adjacent to the side of the stacking table 43 near the second pressure plate mechanism 50b and is arranged parallel to the stacking table 43. A plurality of suction holes 651 are evenly distributed on the top side of the vacuum suction plate 65 near the stacking table 43. These suction holes 651 are used to absorb or release the diaphragm. A vacuum channel is provided within the vacuum suction plate 651. A connector is provided at one end of the vacuum suction plate. The suction holes 651 and the connector are connected to the vacuum channel. The connector is used to connect to a fifth vacuum pumping device. The fifth vacuum pumping device, via the connector and the vacuum channel, evacuates or stops evacuating the suction holes 651, thereby enabling the suction or release of the diaphragm through the suction holes 651. The left and right movement of the reversing side plate 63 can drive the two adapter plates 631 to move left and right, thereby driving the two suction plate support blocks 632 to move left and right, and then driving the vacuum suction plate 65 to move left and right. Through the left and right movement of the vacuum suction plate 65, the position of the vacuum suction plate 65 can be adjusted.

[0040] In this embodiment, two adapter plates 631 are slidingly provided on the side of the reversing side plate 63 away from the laminating table 43. Specifically, two first guide rails 6311 are provided on the side of the reversing side plate 63 away from the laminating table 43. The length direction of the first guide rail 6311 is the same as the height direction of the reversing side plate 63. The two first guide rails 6311 are respectively slidably matched with two first sliders 6312. The two first sliders 6312 are respectively provided on the side of the two adapter plates 631 close to the reversing side plate 63. A first L-shaped adjusting block 6313 is provided on the side of the adapter plate 631 away from the reversing side plate 63, and a second adjusting block 6314 corresponding to the first adjusting block 6313 is provided on the side of the reversing side plate 63 away from the laminating table 43. The second adjusting block 6314 is threadedly connected with a screw 6315, and the head of the screw 6315 is located below the second adjusting block 6314, and the tail end of the screw 6315 is located above the second adjusting block 6314 and is against the bottom end of the first adjusting block 6313. By screwing the screw 6315, the height position of the adapter plate 631 can be adjusted, and then the height position of the vacuum suction plate 65 can be adjusted.

[0041] In this embodiment, two side plate mounting blocks 6317 are provided on the side of the reversing side plate 63 away from the lamination table 43, arranged in a front-to-rear manner. The two side plate mounting blocks 6317 are located between the two adapter plates 631. The reversing cylinder 64 is located between the two side plate mounting blocks 6317. The two side plate mounting blocks 6317 are slidably mounted on the top of the reversing base plate 62. Specifically, two second guide rails 621 are provided on the top of the reversing base plate 62. The length of the second guide rails 621 is the same as the width of the reversing base plate 62. The two second guide rails 621 are slidably engaged with two second sliders 622, which are respectively mounted on the bottom ends of the two side plate mounting blocks 6317. By slidably mounting the two side plate mounting blocks 6317 on the top of the reversing base plate 62, the smooth movement of the reversing side plate 63 can be improved.

[0042] Combine Figure 12 and Figure 13 As shown, the diaphragm unwinding mechanism 70 is used to unwind the diaphragm. The diaphragm unwinding mechanism 70 includes an unwinding plate 72, an unwinding inflatable shaft 73, and an unwinding motor 74. The unwinding plate 72 is used to be arranged at the top of the stacking base. One end of the unwinding inflatable shaft 73 is rotatably arranged in a mounting hole on one side of the unwinding plate 72 through a bearing, etc., and the other end of the unwinding inflatable shaft 73 extends forward. The unwinding motor 74 is arranged on the other side of the unwinding plate 72, and the output end of the unwinding motor 74 is connected to one end of the unwinding inflatable shaft 73. The unwinding motor 74 is used to drive the unwinding inflatable shaft 73 to rotate, so that the diaphragm can be unwound through the unwinding inflatable shaft 73. In this embodiment, there are two unwinding inflatable shafts 73.

[0043] The diaphragm correction mechanism 80 is used to correct the diaphragm. The diaphragm correction mechanism 80 includes a correction frame 81, a correction linear motor, a correction plate 82, two correction vertical plates 83 arranged in a front-to-back relationship, and a support roller assembly. The correction frame 81 is mounted at the top of the first frame 1 and the second frame 2. The two ends of the correction frame 81 protrude from the first frame 1 and the second frame 2, respectively. The two ends of the correction frame 81 are respectively used to be mounted at the top of the lamination base via pillars. The correction linear motor is mounted at the top of the correction frame 81, and the correction plate 82 is mounted at the top of the correction linear motor. The correction linear motor is used to drive the correction plate 82 to move back and forth. Both correction vertical plates 83 are mounted at the top of the correction plate 82, and the support roller assembly is mounted between the two correction vertical plates 83. The back-and-forth movement of the correction plate 82 drives the two correction vertical plates 83 to move back and forth, thereby driving the support roller assembly to move back and forth. The support roller assembly is used to support the diaphragm.

[0044] The support roller assembly includes multiple support rollers 84 spaced sequentially from right to left. The number of support rollers 84 can be adjusted based on practical needs. The ends of the support rollers 84 are rotatably mounted on the sides of the two correcting plates 83, respectively, via two support roller bearing blocks. The distances between the multiple support rollers 84 and the top of the correcting plate 82 vary. The forward and backward movement of the two correcting plates 83 drives the multiple support rollers 84 forward and backward. In practice, the diaphragm passes over the multiple support rollers 84 sequentially from right to left, supported by the multiple support rollers 84. The distances between the multiple support rollers 84 and the top of the correcting plate 82 vary. This creates a serpentine path for the diaphragm as it passes over the multiple support rollers 84, thus buffering the diaphragm. The forward and backward movement of the multiple support rollers 84 also drives the diaphragm forward and backward, thus correcting the diaphragm's deviation and ensuring that its position aligns with that of the laminating mechanism 40. In this embodiment, protective covers 831 are provided at the tops of the two deflection-correcting upright plates 83. These protect the multiple support rollers 84. The deflection-correcting plate 82 and the deflection-correcting frame 81 are provided with guide channels 821 corresponding to the diaphragm deflection mechanism 90. The guide channels 821 are located to the left of the support roller assembly.

[0045] Combine Figures 12 to 16As shown, the diaphragm deflection mechanism 90 is used to clamp the diaphragm, to drive the diaphragm to the left to pull the diaphragm to a predetermined length and lay the diaphragm on the lamination mechanism, and to drive the diaphragm to move left and right. The diaphragm deflection mechanism 90 includes two deflection slides 91 arranged in a front-to-back relationship, a deflection connecting rod 911, a deflection top plate 92, two deflection mounting plates 93 arranged in a front-to-back relationship, a clamping roller 94, a deflection cylinder 96, a deflection cylinder plate 97, a deflection pressure plate 95, an upper roller assembly, and a lower roller assembly. The two deflection slides 91 are respectively connected to the third mover of the multi-motor linear motor 3a and the deflection linear module 3b. The multi-motor linear motor 3a and the deflection linear module 3b are respectively used to drive the two deflection slides 91 to move left and right. The yaw connecting rod 911 is disposed between the two yaw slides 91. Specifically, the yaw slides 91 are provided with slide mounting holes, and the ends of the yaw connecting rod 911 are respectively disposed within the slide mounting holes of the two yaw slides 91. The yaw mounting plate 93 is provided with mounting plate through-holes. The two yaw mounting plates 93 are respectively mounted on the outer circumference of the yaw connecting rod 911 through their respective mounting plate through-holes and can move forward and backward along the yaw connecting rod 911. In this embodiment, there are two yaw connecting rods 911, which are spaced apart vertically. The number of mounting plate through-holes in the yaw mounting plates 93 corresponds to the number of yaw connecting rods 911. The clamping roller 94 is rotatably disposed between the two yaw mounting plates 93. Specifically, the ends of the clamping roller 94 are rotatably disposed on the adjacent side of the two yaw mounting plates 93 via two clamping roller bearing seats. The yaw pressure plate 95 is located on one side of the clamping roller 94, for example, to the right of the clamping roller 94. The yaw cylinder 96 is located to the right of the yaw pressure plate 95 and is set at the bottom end of the yaw cylinder plate 97. The output end of the yaw cylinder 96 is connected to the yaw pressure plate 97. The yaw cylinder 96 is used to drive the yaw pressure plate 95 to move toward or away from the clamping roller 94 to clamp or release the diaphragm. The yaw cylinder plate 97 is set between the two yaw mounting plates 93. Specifically, the two ends of the yaw cylinder plate 97 are respectively set on the side close to the two yaw mounting plates 93. The yaw top plate 92 is set at the top of the two yaw mounting plates 93, and the yaw top plate 93 is slidably connected to the correction plate 82. The upper roller assembly is set at the top of the yaw top plate 92, and the lower roller assembly is set between the two yaw mounting plates 93 and is located below the clamping roller 94 and the yaw pressure plate 95. The forward and backward movement of the correction plate 82 can drive the yaw top plate 92, the two yaw mounting plates 93, the clamping roller 94, the yaw pressure plate 95, the yaw cylinder 96, the yaw cylinder plate 97, the upper roller assembly and the lower roller assembly to move forward and backward along the yaw connecting rod 911.

[0046] In this embodiment, a linear bearing 931 is provided in the mounting plate through hole of the yaw mounting plate 93, and the yaw linear bearing 931 is sleeved on the outer periphery of the corresponding yaw connecting rod 911. The provided linear bearing 931 provides mobile support for the corresponding yaw mounting plate 93, thereby improving the smoothness of the movement of the yaw mounting plate 93.

[0047] The deflection top plate 93 is slidably connected to the deviation correction plate 82. Specifically, Figure 12 As shown, the top of the deflection top plate 93 is provided with two deflection connection seats 921 arranged in a front-to-back relationship, and the bottom of the correction plate 82 is provided with two correction connection plates 822 arranged in a front-to-back relationship. One end of the correction connection plate 822 is provided with a first connection block, the top of which passes through the through hole 812 of the correction frame 81 and is connected to the bottom end of the correction plate 82. The other end of the correction connection plate 822 is provided with a second connection block 823 protruding from the left side of the correction frame 81, and the top of the second connection block 823 is connected to the bottom end of the correction plate 82. Two correction slide rails 824 are respectively provided on the side away from the two correction connection plates 822, and two correction sliders 825 are respectively provided on the side close to the two deflection connection seats 921. The two correction sliders 825 are respectively slidably engaged with the two correction slide rails 824.

[0048] The upper roller assembly is located between the two yaw connection seats 921, and the upper roller assembly includes two upper rollers 99 arranged side by side on the left and right. The two ends of the two upper rollers 99 are rotatably set on the top of the yaw top plate 92 through an upper roller bearing seat 991. The lower roller assembly includes two lower rollers 98 arranged side by side on the left and right. The lower rollers 98 are rotatably set between the two yaw mounting plates 93. Specifically, one end of the two lower rollers 98 respectively passes through the two first through holes of the yaw mounting plate 93 located at the rear and are both set on the lower roller bearing seat 981. The lower roller bearing seat 981 is set on the yaw mounting plate 93 located at the rear. The other ends of the two lower rollers 98 are rotatably set in the two second through holes of the yaw mounting plate 93 located at the front. The second through holes are provided with lower roller bearings. The lower roller bearings are sleeved on the outer periphery of the other end of the corresponding lower roller 98 to provide rotation support for the corresponding lower roller 98. Two upper rollers 99 and two lower rollers 98 are provided to support the diaphragm. In practice, the diaphragm passes through the multiple support rollers 84, first through the guide channel 821, then between the two lower rollers 98, then between the clamping roller 94 and the sway pressure plate 95, and finally between the two upper rollers 99. The sway cylinder 96 drives the sway pressure plate 95 toward the clamping roller 94, thereby clamping the diaphragm between the clamping roller 94 and the sway pressure plate 95. The diaphragm deflection mechanism 90 of the present invention has a deflection top plate 92 that is slidably connected to the large correction plate 82 of the diaphragm correction mechanism 80. In this way, when the diaphragm is corrected by the diaphragm correction mechanism 80, the large correction plate 82 can drive the deflection top plate 92, two deflection mounting plates 93, clamping rollers 94, deflection pressure plates 95, deflection cylinders 96, deflection cylinder plates 97, upper roller assemblies and lower roller assemblies to move forward and backward synchronously. In this way, the diaphragm deflection mechanism 90 does not need to be provided with a structure for correcting the diaphragm, which reduces the weight of the diaphragm deflection mechanism 90, facilitates speed increase, and improves the stacking efficiency.

[0049] The working principle of the present invention is as follows: S1. The diaphragm unwinding mechanism 70 operates: the unwinding motor 74 drives the unwinding air shaft 73 to rotate, thereby enabling the unwinding of the diaphragm through the unwinding air shaft 73. The unwound diaphragm passes over the multiple support rollers 84 of the diaphragm correction mechanism 80 in sequence, then passes through the guide channel 821, then passes between the two lower rollers 98, then passes between the clamping roller 94 and the sway pressure plate 95, and then passes between the two upper rollers 99. The sway cylinder 96 drives the sway pressure plate 95 toward the clamping roller 94, thereby clamping the diaphragm through the clamping roller 94 and the sway pressure plate 95. When the unwound diaphragm deflects, the diaphragm correction mechanism 80 operates: for example, when the diaphragm deflects forward, the correction linear motor drives the multiple support rollers 84 to move backward, thereby correcting the diaphragm. When the diaphragm deviates backward, the correction linear motor drives the multiple support rollers 84 to move forward, thereby correcting the deviation of the diaphragm.

[0050] The multi-motor linear motor 3a and the yaw linear module 3b operate: The multi-motor linear motor 3a and the yaw linear module 3b drive the diaphragm yaw mechanism 90 to move leftward, thereby driving the diaphragm leftward through the diaphragm yaw mechanism 90 to pull the diaphragm to a predetermined length and lay it on the stacking table 43 of the stacking mechanism 40. The diaphragm is then suctioned through the suction holes 651 of the vacuum suction plate 65 of the diaphragm reversing mechanism 60.

[0051] S2, the second external suction cup manipulator 10b, the second correction mechanism 30b, the multi-motor linear motor 3a, and the second correction linear module 4b operate as follows: first, the external suction cup lifting linear module 12 of the second external suction cup manipulator 10b drives the plurality of external suction cups 163 to move downward to a predetermined position, so as to absorb the positive electrode sheet on the positive electrode sheet transmission line through the plurality of external suction cups 163. Then, the external suction cup lifting linear module 12 of the second external suction cup manipulator 10b drives the plurality of external suction cups 163 and the positive electrode sheet to move upward to the initial position. Then, the external suction cup motor 141 of the second external suction cup manipulator 10b drives the plurality of external suction cups 163 and the positive electrode sheet to rotate 90 degrees in a clockwise direction through the external suction cup reducer 142, so that the length direction of the positive electrode sheet corresponds to the length direction of the correction platform 33 of the second correction mechanism 30b. Then, the second external suction cup manipulator 10b is driven to move to the left by the multi-motor linear motor 3a. At the same time, the second correction mechanism 30b is driven to move to the right by the second correction linear module 4b, that is, the second external suction cup manipulator 10b and the second correction mechanism 30b move toward each other. After the second external suction cup manipulator 10b and the second correction mechanism 30b respectively reach the predetermined positions, the positive electrode sheet is now located above the correction platform 33 of the second correction mechanism 30b. Then, the external suction cup lifting linear module 12 of the second external suction cup manipulator 10b drives several external suction cups 163 and the positive electrode sheet to move downward, so as to place the positive electrode sheet on the correction platform 33 of the second correction mechanism 30b. Then, the external suction cup lifting linear module 12 of the second external suction cup manipulator 10b drives several external suction cups 163 to move upward to the initial position. The multi-motor linear motor 3a then drives the second outer suction cup manipulator 10b to the right to its initial position, and the second correction linear module 4b drives the second correction mechanism 30b to the left to its initial position. The alignment robot 34 of the second correction mechanism 30b then drives the correction platform 33 to rotate, thereby driving the positive electrode sheet to rotate. This corrects the positive electrode sheet, ensuring that its length aligns with the length of the stacking platform 43 of the stacking mechanism 40.

[0052] S3, the second inner suction cup manipulator 20b, the multi-motor linear motor 3a, the deflection linear module 3b, the second correction linear module 4b, the diaphragm deflection mechanism 90, the lamination mechanism 40, the first pressure plate mechanism 50a, the second pressure plate mechanism 50b, and the diaphragm reversing mechanism 60 act as follows: first, the second inner suction cup manipulator 20b is driven to move to the right by the multi-motor linear motor 3a. At the same time, the second correction linear module 4b is used to drive the second correction mechanism 30b to move to the left, even if the second inner suction cup manipulator 20b and the second correction mechanism 30b move toward each other. After the second inner suction cup manipulator 20b and the second correction mechanism 30b reach the predetermined positions respectively, the several inner suction cups 252 of the second inner suction cup manipulator 20b are located above the positive electrode sheet. Then, the inner suction cup lifting linear module 22 of the second inner suction cup manipulator 20b drives the inner suction cup plate 251 and the several inner suction cups 252 to move downward to the predetermined position. Then, the inner suction cup lifting cylinder 241 of the second inner suction cup manipulator 20b drives the inner suction cup plate 251 and several inner suction cups 252 to move downward to the predetermined position, so that the positive electrode sheet can be sucked by the several inner suction cups 252 of the second inner suction cup manipulator 20b. Then, the inner suction cup lifting cylinder 241 of the second inner suction cup manipulator 20b drives several inner suction cups 252 and the positive electrode sheet to move upward to the initial position. Then, the inner suction cup lifting linear module 22 of the second inner suction cup manipulator 20b drives several inner suction cups 252 and the positive electrode sheet to move upward to the initial position. Then, the multi-motor linear motor 3a drives the second inner suction cup manipulator 20b to move to the left to the stacking mechanism 40. At this time, the positive electrode sheet is located above the stacking platform 43 of the stacking mechanism 40. At the same time, the second correction linear module 4b drives the second correction mechanism 30b to move to the right to the initial position. Then, the inner suction cup lifting linear module 22 of the second inner suction cup manipulator 20b drives several inner suction cups 252 and the positive electrode sheet to move downward to a predetermined position, and then the inner suction cup lifting cylinder 241 of the second inner suction cup manipulator 20b drives several inner suction cups 252 and the positive electrode sheet to move downward, so as to place the positive electrode sheet on the diaphragm of the stacking table 43. Then, the two pressing plates 56 are driven to move toward the center of the stacking table 43 by the pressing plate transverse movement component 53 of the first pressing plate mechanism 50a, and the two pressing plates 56 are driven to move toward the center of the stacking table by the pressing plate transverse movement component 53 of the second pressing plate mechanism 50b, so that the two pressing plates 56 of the first pressing plate mechanism 50a are located above the two ends of the positive electrode sheet, and the two pressing plates 56 of the second pressing plate mechanism 50b are located above the two ends of the positive electrode sheet, and then the two pressing plates 56 are driven downward by the two pressing plate lifting cylinders 55 of the first pressing plate mechanism 50a, and the two pressing plates 56 are driven downward by the two pressing plate lifting cylinders 55 of the second pressing plate mechanism 50b, so that the positive electrode sheet can be pressed by the two pressing plates 56 of the first pressing plate mechanism 50a and the two pressing plates 56 of the second pressing plate mechanism 50b.Then, the inner suction cup lifting cylinder 241 of the second inner suction cup manipulator 20b drives the plurality of inner suction cups 252 to move upward to the initial position. Then, the inner suction cup lifting linear module 22 of the second inner suction cup manipulator 20b drives the plurality of inner suction cups 252 to move upward to the initial position. Then, the multi-actuator linear motor 3a drives the second inner suction cup manipulator 20b to move to the right to the initial position. Then, the two pressure plates 56 are driven to move upward by the two pressure plate lifting cylinders 55 of the first pressure plate mechanism 50a, and the two pressure plates 56 are driven to move upward by the two pressure plate lifting cylinders 55 of the second pressure plate mechanism 50b. Then, the pressure plate transverse movement assembly 53 of the first pressure plate mechanism 50a drives the two pressure plates 56 to move away from the center of the stacking table 43, and the pressure plate transverse movement assembly 53 of the second pressure plate mechanism 50b drives the two pressure plates 56 to move away from the center of the stacking table 43 to release the positive electrode sheet. Then, the diaphragm yaw mechanism 90 is driven to move rightward by the multi-motor linear motor 3a and the yaw linear module 3b, thereby driving the diaphragm to move rightward to fold the diaphragm and cover the positive electrode sheet.

[0053] S4, the first external suction cup manipulator 10a, the multi-motor linear motor 3a, the first correcting mechanism 30a, and the first correcting linear module 4a act: first, the negative electrode sheet on the negative electrode sheet transmission line is sucked by the first external suction cup manipulator 10a. The working principle of sucking the negative electrode sheet is basically the same as the working principle of the second external suction cup manipulator 10b sucking the positive electrode sheet. The only difference is that the external suction cup motor 141 of the first external suction cup manipulator 10a drives several external suction cups 163 through the external suction cup reducer 142, and the negative electrode sheet is rotated 90 degrees in the counterclockwise direction so that the length direction of the negative electrode sheet corresponds to the length direction of the correcting platform 33 of the first correcting mechanism 30a. Then, the multi-motor linear motor 3a drives the first external suction cup manipulator 10a and the negative electrode sheet to move to the right, while the first correction linear module 4a drives the first correction mechanism 30a to move to the left. Even if the first external suction cup manipulator 10a and the first correction mechanism 30a move toward each other, after the first external suction cup manipulator 10a and the first correction mechanism 30a respectively reach the predetermined positions, the first external suction cup manipulator 10a places the sucked negative electrode sheet on the correction platform 33 of the first correction mechanism 30a. The working principle of placing the negative electrode sheet is the same as the principle of placing the positive electrode sheet by the second external suction cup manipulator 10b, which will not be described in detail here. Then, the multi-motor linear motor 3a drives the first external suction cup manipulator 10a to move to the left to the initial position, while the first correction linear module 4a drives the first correction mechanism 30a to move to the right to the initial position. The working principle of the first correcting mechanism 30a correcting the negative electrode sheet is basically the same as the working principle of the second correcting mechanism 30b correcting the positive electrode sheet, which will not be repeated here.

[0054] S5, the first inner suction cup manipulator 20a, the diaphragm deflection mechanism 90, the multi-motor linear motor 3a, the deflection linear module 3b, the first correction linear module 4a, the lamination mechanism 40, the first pressure plate mechanism 50a, the second pressure plate mechanism 50b, and the diaphragm reversing mechanism 60 operate as follows: the multi-motor linear motor 3a first drives the first inner suction cup manipulator 20a to move leftward, while the first correction linear module 4a drives the first correction mechanism 30a to move rightward, i.e., the first inner suction cup manipulator 20a and the first correction mechanism 30a move toward each other. After the first inner suction cup manipulator 20a and the first correction mechanism 30a respectively reach the predetermined positions, the plurality of inner suction cups 252 of the first inner suction cup manipulator 20a are now located above the negative electrode sheet. Then, the first inner suction cup manipulator 20a sucks the negative electrode sheet on the correction platform 33 of the first correction mechanism 30a. The working principle here is basically the same as the working principle of the second inner suction cup manipulator 20b, which will not be repeated here. Then, the first inner suction cup manipulator 20a is driven by the multi-actuator linear motor 3a to move to the right to the stacking mechanism 40. At this time, the negative electrode sheet is located above the stacking platform 43. At the same time, the first correction linear module 4a drives the first correction mechanism 30a to move to the left to the initial position. Then, the inner suction cup lifting linear module 22 of the first inner suction cup manipulator 20a drives several inner suction cups 252 and the negative electrode sheet to move downward to the predetermined position. Then, the inner suction cup lifting cylinder 241 of the first inner suction cup manipulator 20a drives several inner suction cups 252 and the negative electrode sheet to move downward, so as to place the negative electrode sheet on the diaphragm covering the positive electrode sheet on the stacking platform 43. Then, the negative electrode sheet is pressed by the first pressing plate mechanism 50a and the second pressing plate mechanism 50b in accordance with the action method in step S3. Then, the inner suction cup lifting cylinder 241 of the first inner suction cup manipulator 20a drives the plurality of inner suction cups 252 to move upward to the initial position. Then, the inner suction cup lifting linear module 22 of the first inner suction cup manipulator 20a drives the plurality of inner suction cups 252 to move upward to the initial position. Then, the first inner suction cup manipulator 20a is driven to move to the left to the initial position by the multi-motor linear motor 3a. Then, the negative electrode sheet is released by the first pressing plate mechanism 50a and the second pressing plate mechanism 50b in accordance with the action method in step S3. Then, the diaphragm yaw mechanism 90 is driven to move to the left by the multi-motor linear motor 3a and the yaw linear module 3b, thereby driving the diaphragm to move to the left to fold the diaphragm and cover the negative electrode sheet.

[0055] S6. Repeat steps S2-S5, and the lamination is completed.

[0056] The utility model arranges the first deflection-correcting mechanism 30a on the first deflection-correcting linear module 4a and the second deflection-correcting mechanism 30b on the second deflection-correcting linear module 4b. In this way, when the first outer suction cup manipulator 10a places the sucked negative electrode sheet on the first deflection-correcting mechanism 30a, the first outer suction cup manipulator 10a and the first deflection-correcting mechanism 30a can move toward each other. When the second outer suction cup manipulator 10b places the sucked positive electrode sheet on the second deflection-correcting mechanism 30b, the second outer suction cup manipulator 10b and the second deflection-correcting mechanism 30b can move toward each other. During the process of the first inner suction cup manipulator 20a sucking the negative electrode sheet from the first deflection-correcting mechanism 30a, the first inner suction cup manipulator 20a and the first deflection-correcting mechanism 30a can move toward each other. During the process of the second inner suction cup manipulator 20b sucking the positive electrode sheet from the second deflection-correcting mechanism 30b, the second inner suction cup manipulator 20b and the second deflection-correcting mechanism 30b can move toward each other. This can shorten the travel distance of the first outer suction cup manipulator 10a, the second outer suction cup manipulator 10b, the first inner suction cup manipulator 20a, and the second inner suction cup manipulator 20b, thereby reducing the stacking time and improving the stacking efficiency. In addition, the first outer suction cup manipulator 10a, the second outer suction cup manipulator 10b, the first inner suction cup manipulator 20a, the second inner suction cup manipulator 20b, and the diaphragm deflection mechanism 90 are all driven by the multi-motor linear motor 3a, which is easy to install and reduces costs.

[0057] The above is a specific description of the preferred implementation of the present invention, but the invention of the present invention is not limited to the embodiments. Those skilled in the art can make various equivalent modifications or substitutions without violating the spirit of the present invention. These equivalent modifications or substitutions are all included in the scope defined by the claims of this application.

Claims

1. A stacking device, comprising a first outer suction cup manipulator, a second outer suction cup manipulator, a first inner suction cup manipulator, a second inner suction cup manipulator, a first correcting mechanism, a second correcting mechanism, a stacking mechanism, a diaphragm unwinding mechanism and a diaphragm deflection mechanism, wherein the stacking mechanism is located between the first correcting mechanism and the second correcting mechanism, the first inner suction cup manipulator and the second inner suction cup manipulator are located between the first outer suction cup manipulator and the second outer suction cup manipulator in sequence, the first outer suction cup manipulator, the second outer suction cup manipulator, the first inner suction cup manipulator and the second inner suction cup manipulator are all located above the first correcting mechanism, the stacking mechanism and the second correcting mechanism, the diaphragm deflection mechanism is located above the stacking mechanism and between the first inner suction cup manipulator and the second inner suction cup manipulator, and the diaphragm unwinding mechanism is located to the right of the second outer suction cup manipulator; characterized in that, It also includes a multi-motor linear motor, a yaw linear module, a first yaw correction linear module and a second yaw correction linear module, the multi-motor linear motor and the yaw linear module are arranged relative to each other in the front and back, the first outer suction cup manipulator, the second outer suction cup manipulator, the first inner suction cup manipulator, the second inner suction cup manipulator and the diaphragm yaw mechanism are all located between the multi-motor linear motor and the yaw linear module, the first outer suction cup manipulator, the second outer suction cup manipulator, the first inner suction cup manipulator and the second inner suction cup manipulator are all connected to the multi-motor linear motor, the multi-motor linear motor is used to drive the first outer suction cup manipulator to move left and right, to drive the second outer suction cup manipulator to move left and right, to drive the first inner suction cup manipulator to move left and right, and to drive the second inner suction cup manipulator to move left and right, the diaphragm yaw mechanism is respectively connected to the multi-motor linear motor and the yaw linear module, the multi-motor linear motor and the yaw linear module are used to drive the diaphragm yaw mechanism to move left and right; The stacking mechanism is located between the first correcting linear module and the second correcting linear module. The first correcting mechanism is arranged on the first correcting linear module, and the second correcting mechanism is arranged on the second correcting linear module. The first correcting linear module is used to drive the first correcting mechanism to move left and right, and the second correcting linear module is used to drive the second correcting mechanism to move left and right.

2. The lamination device according to claim 1, characterized in that The first outer suction cup manipulator and the second outer suction cup manipulator are arranged symmetrically on the left and right. The first outer suction cup manipulator and the second outer suction cup manipulator both include an outer suction cup lifting linear module, an outer suction cup mounting seat, an outer suction cup rotating assembly, an outer suction cup connecting seat and an outer suction cup assembly. The outer suction cup lifting linear module is connected to the multi-motor linear motor. One end of the outer suction cup mounting seat is arranged on the outer suction cup lifting linear module. The outer suction cup lifting linear module is used to drive the outer suction cup mounting seat to move up and down. The outer suction cup rotating assembly is arranged at the other end of the outer suction cup mounting seat. The outer suction cup assembly is located at the outer suction cup. In front of the mounting seat and below the outer suction cup mounting seat, the outer suction cup assembly and the outer suction cup mounting seat are arranged vertically, and the angle between the center line of the length direction of the outer suction cup connecting seat and the center line of the length direction of the outer suction cup mounting seat is an obtuse angle. One end of the outer suction cup connecting seat is connected to the outer suction cup rotating assembly, and the other end of the outer suction cup connecting seat is connected to the outer suction cup assembly. The center of the outer suction cup assembly is located on the side of the rotation center of the outer suction cup connecting seat away from the stacking mechanism, and the outer suction cup rotating assembly is used to drive the outer suction cup connecting seat to rotate, thereby driving the outer suction cup assembly to rotate.

3. The lamination device according to claim 2, characterized in that The outer suction cup rotation assembly includes an outer suction cup motor and an outer suction cup reducer, the outer suction cup reducer is arranged on the top of the other end of the outer suction cup mounting seat, the outer suction cup motor is arranged on the outer suction cup reducer, the output end of the outer suction cup motor is connected to the input end of the outer suction cup reducer, the output end of the outer suction cup reducer passes through the through hole at the other end of the outer suction cup mounting seat and is connected to one end of the outer suction cup connecting seat, the outer suction cup motor is used to drive the outer suction cup connecting seat to rotate through the outer suction cup reducer, the outer suction cup assembly includes a first outer suction cup plate, a second outer suction cup plate located below the first outer suction cup plate and a plurality of outer suction cups, the first outer suction cup plate is located at the outer suction cup connecting seat The bottom of the seat is connected to the top of the first outer suction cup plate, and the bottom end of the first outer suction cup plate is connected to the second outer suction cup plate through a support column. The first outer suction cup plate is provided with outer suction cup mounting holes corresponding to several of the outer suction cups, and the second outer suction cup plate is provided with outer suction cup through holes corresponding to several of the outer suction cups. The outer suction cup is located between the first outer suction cup plate and the second outer suction cup plate, the tail end of the outer suction cup passes through the corresponding outer suction cup mounting hole and is located above the first outer suction cup plate, the head of the outer suction cup passes through the corresponding outer suction cup through hole and is located below the second outer suction cup plate, and the outer suction cup is threadedly connected to the corresponding outer suction cup mounting hole.

4. The lamination device according to claim 1, characterized in that The first correcting mechanism and the second correcting mechanism are arranged symmetrically on the left and right. The first correcting mechanism and the second correcting mechanism both include a correcting mounting frame, an alignment robot arranged on the top of the correcting mounting frame, and a correcting platform arranged on the top of the alignment robot. The correcting mounting frame of the first correcting mechanism is arranged on the first correcting linear module, and the correcting mounting frame of the second correcting mechanism is arranged on the second correcting linear module. The first correcting linear module is used to drive the correcting mounting frame of the first correcting mechanism to move left and right, and the second correcting linear module is used to drive the correcting mounting frame of the second correcting mechanism to move left and right. The alignment robot is used to drive the correcting platform to rotate.

5. The lamination device according to claim 1, characterized in that: The first inner suction cup manipulator and the second inner suction cup manipulator both include an inner suction cup lifting linear module, an inner suction cup mounting seat, an inner suction cup lifting assembly and an inner suction cup assembly. The inner suction cup lifting linear module is connected to the multi-motor linear motor. One end of the inner suction cup mounting seat is arranged on the inner suction cup lifting linear module. The inner suction cup lifting linear module is used to drive the inner suction cup mounting seat to move up and down. The inner suction cup lifting assembly includes an inner suction cup lifting cylinder. An inner suction cup connecting seat is provided on one side of the other end of the inner suction cup mounting seat. The inner suction cup lifting cylinder is provided with On the inner suction cup connecting seat, an inner suction cup connecting plate is provided at the bottom end of the inner suction cup connecting seat, the inner suction cup assembly includes an inner suction cup plate and a plurality of inner suction cups located below the inner suction cup connecting plate, the length direction of the inner suction cup plate is the same as the length direction of the inner suction cup mounting seat, the output end of the inner suction cup lifting cylinder passes through the through hole of the inner suction cup connecting seat, the through hole of the inner suction cup connecting plate and is connected to the top end of the inner suction cup plate, the inner suction cup lifting cylinder is used to drive the inner suction cup plate to move up and down, and a plurality of inner suction cups are evenly arranged at the bottom end of the inner suction cup plate.

6. The lamination device according to claim 1, characterized in that The stacking mechanism includes a stacking base plate, a stacking mounting frame located above the stacking base plate, a stacking lifting assembly and a stacking platform. The stacking lifting assembly is arranged on the stacking base plate and is used to drive the stacking mounting frame to move up and down. The stacking platform is arranged on the top of the stacking mounting frame.

7. The lamination device according to claim 6, characterized in that The laminating equipment also includes a first pressing plate mechanism and a second pressing plate mechanism arranged on the laminating mechanism, the first pressing plate mechanism and the second pressing plate mechanism are arranged symmetrically on the left and right, the first pressing plate mechanism and the second pressing plate mechanism each include a support plate, a pressing plate lifting assembly, two pressing plate transverse moving assemblies, two pressing plate connecting seats, two pressing plate lifting cylinders and two pressing plates, the laminating platform is located between the support plate of the first pressing plate mechanism and the support plate of the second pressing plate mechanism, the pressing plate lifting assembly is arranged on the laminating bottom plate and is used to drive the support plate to move up and down, the two pressing plate transverse moving assemblies are respectively arranged on the side of the support plate away from the laminating platform and are arranged front to back relative to each other, the two pressing plates The connecting seats are slidably arranged on the side of the support plate away from the stacking platform and are respectively connected to the two pressure plate transverse moving assemblies. The two pressure plate transverse moving assemblies are respectively used to drive the two pressure plate connecting seats to move toward or away from the center of the stacking platform. The two pressure plate lifting cylinders are respectively arranged at the top of the two pressure plate connecting seats. The two pressure plates are arranged relative to each other front and back. One end of the two pressure plates is respectively arranged at the top of the two pressure plate lifting cylinders, and the other ends of the two pressure plates extend toward the center of the stacking platform. The two pressure plate lifting cylinders are respectively used to drive the two pressure plates to move up and down, and the stacking platform is located between the two pressure plates.

8. The lamination device according to claim 7, characterized in that: The lamination equipment also includes a diaphragm reversing mechanism arranged on the lamination mechanism, and the diaphragm reversing mechanism includes a reversing seat, a reversing base plate, a reversing cylinder, a reversing side plate and a vacuum suction plate. The reversing seat is arranged at the top of the lamination base plate and is located between the two pressure plate transverse movement components of the second pressure plate mechanism. The reversing base plate is arranged at the top of the reversing seat, and the reversing cylinder is arranged at the top of the reversing base plate. The output end of the reversing cylinder is connected to the reversing side plate, and the reversing cylinder is used to drive the reversing side plate to move left and right. The reversing side plate is close to the side of the lamination table close to the second pressure plate mechanism, and the reversing side plate is close to the side of the lamination table close to the second pressure plate mechanism. Two adapter plates are arranged front to back oppositely on the side away from the stacking table, and two suction plate support blocks are provided on the side of the two adapter plates close to the reversing side plate. The two suction plate support blocks are placed on the top of the reversing side plate, and the vacuum suction plate is arranged on the top of the two suction plate support blocks. The vacuum suction plate is close to the side of the stacking table close to the second pressure plate position mechanism and is arranged parallel to the stacking table. A number of suction holes are evenly arranged on the side of the top of the vacuum suction plate close to the stacking table, a vacuum channel is provided in the vacuum suction plate, and a joint is provided at one end of the vacuum suction plate, and a number of the suction holes and joints are respectively connected to the vacuum channel.

9. The lamination device according to claim 1, characterized in that: The diaphragm unwinding mechanism includes an unwinding plate, an unwinding air shaft, and an unwinding motor. One end of the unwinding air shaft is rotatably arranged in a mounting hole on one side of the unwinding plate. The unwinding motor is arranged on the other side of the unwinding plate. The output end of the unwinding motor is connected to one end of the unwinding air shaft. The lamination equipment also includes a diaphragm correcting mechanism, which is located above the lamination mechanism, the second correcting mechanism, the second inner suction cup manipulator and the second outer suction cup manipulator. The diaphragm correcting mechanism includes a correcting frame, a correcting linear motor, a correcting plate, two correcting vertical plates arranged relative to each other in the front and back, and a support roller assembly. The correcting linear motor is arranged at the top of the correcting frame, the correcting large plate is arranged at the top of the correcting linear motor, the correcting linear motor is used to drive the correcting large plate to move forward and backward, the two correcting vertical plates are both arranged at the top of the correcting large plate, and the support roller assembly is arranged between the two correcting vertical plates.

10. The lamination device according to claim 9, characterized in that: The diaphragm deflection mechanism is located below the diaphragm deflection correction mechanism and is slidably connected to the deflection correction plate. The deflection correction plate and the deflection correction frame are provided with a guide channel corresponding to the diaphragm deflection mechanism. The guide channel is located to the left of the support roller assembly. The diaphragm deflection mechanism includes two deflection slide seats arranged in a front-to-back relationship, a deflection connecting rod, a deflection top plate, two deflection mounting plates arranged in a front-to-back relationship, a clamping roller, a deflection cylinder, a deflection cylinder plate, a deflection pressure plate, an upper roller assembly, and a lower roller assembly. The two yaw slides are respectively connected to the multi-motor linear motor and the yaw linear module, and the multi-motor linear motor and the yaw linear module are respectively used to drive the two yaw slides to move left and right, and the yaw connecting rod is arranged between the two yaw slides, and the two yaw mounting plates are respectively sleeved on the outer circumference of the yaw connecting rod and can move forward and backward along the yaw connecting rod, and the clamping roller is rotatably arranged between the two yaw mounting plates, and the yaw pressure plate is located on one side of the clamping roller, and the yaw cylinder is arranged in The bottom end of the sway cylinder plate, the output end of the sway cylinder is connected to the sway pressure plate, the sway cylinder is used to drive the sway pressure plate to move toward or away from the clamping roller, the sway cylinder plate is arranged between the two sway mounting plates, the sway top plate is arranged at the top of the two sway mounting plates, the sway top plate is slidably connected to the correction plate, the upper roller assembly is arranged at the top of the sway top plate, and the lower roller assembly is arranged between the two sway mounting plates and is located below the clamping roller and the sway pressure plate.

Images