Single PCP and CSC superimposed fast line

Abstract

The present invention relates to a high-speed lamination line for single-piece PCP and CSC, comprising a core plate feeding section, an upper PP plate feeding section, a lower PP plate feeding section, an upper copper foil feeding section, a lower copper foil feeding section, a steel plate feeding section, a lamination section and a transfer section; the upper PP plate feeding section and the core plate feeding section are arranged on both sides of the same end of the lamination section, the upper copper foil feeding section and the lower copper foil feeding section are arranged at the other end of the lamination section, and the upper copper foil feeding section and the core plate feeding section are located at the lamination section. The upper copper foil feeding section is located between the lower copper foil feeding section and the core plate feeding section, the lower PP plate feeding section is arranged at one end of the overlapping section, and the lower PP plate feeding section and the upper PP plate feeding section are arranged on the same side of the overlapping section, the upper PP feeding section, the core plate feeding section and the lower PP feeding section are staggered on both sides of one end of the overlapping section, and the upper copper foil feeding section, the steel plate feeding section and the lower copper foil feeding section are staggered on both sides of the other end of the overlapping section.

Description

Technical Field

[0001] The present invention relates to the technical field of core plate lamination, and in particular to a fast lamination line for single-piece PCP and CSC. Background Art

[0002] The core boards on the market have a low degree of automation in the lamination process. The various processes are relatively independent and the degree of coordination is low, so the staff need to move the core boards, PP boards, copper foils, steel plates and other lamination materials to the lamination station for lamination respectively. After lamination, they also need to be corrected. Since it involves centralized correction of multiple layers of materials, it will consume more time and waste manpower costs. At the same time, it also reduces the lamination production efficiency, which is not conducive to the expansion of the enterprise scale. At the same time, because more staff are involved in the lamination process, human errors are prone to occur, which affects the lamination quality and is not conducive to the improvement of lamination quality.

[0003] Therefore, the existing technology is insufficient and needs to be improved. Summary of the Invention

[0004] In view of the above-mentioned defects in the prior art, the object of the present invention is to provide a high-speed superposition line for single-piece PCP and CSC.

[0005] In order to achieve the above-mentioned object, the present invention provides a single PCP and CSC superposition fast line, comprising a core plate feeding section, an upper PP plate feeding section, a lower PP plate feeding section, an upper copper foil feeding section, a lower copper foil feeding section, a steel plate feeding section, a superposition section and a transfer section; the upper PP plate feeding section and the core plate feeding section are arranged on both sides of the same end of the superposition section, the upper copper foil feeding section and the lower copper foil feeding section are arranged at the other end of the superposition section, and the upper copper foil feeding section and the core plate feeding section are located on the same side of the superposition section. On the other side, the upper copper foil feeding section is located between the lower copper foil feeding section and the core board feeding section, the lower PP board feeding section is arranged at one end of the overlapping section, and the lower PP board feeding section and the upper PP board feeding section are arranged on the same side of the overlapping section, the upper PP feeding section, the core board feeding section and the lower PP feeding section are staggered on both sides of one end of the overlapping section, the upper copper foil feeding section, the steel plate feeding section and the lower copper foil feeding section are staggered on both sides of the other end of the overlapping section; the transferring section is corresponding to the transferring and stacking of materials.

[0006] Preferably, the single-piece PCP and CSC superposition rapid line also includes an upper PP board correction platform, which is arranged at the common end of the upper PP board feeding part and the superposition part. The transfer part moves the upper PP board provided at the upper PP board feeding part to the upper PP board correction platform for correction, and then moves the upper PP board located at the upper PP board correction platform to the superposition part.

[0007] Preferably, the superposition part includes a PC superposition table. After the transfer part moves the core plate at the core plate feeding part to the PC superposition table, the upper PP plate located at the upper PP plate correction platform is moved to the PC superposition table and superimposed on the core plate.

[0008] Preferably, the single-piece PCP and CSC superposition rapid line further includes a bottom plate feeding section, which is correspondingly arranged at the total superposition platform at the center of the superposition section for providing bottom plates.

[0009] Preferably, the single-piece PCP and CSC superposition rapid line also includes a lower PP board correction platform, which is located between the superposition part and the lower PP feeding part, and is used to correct the lower PP board provided by the lower PP feeding part.

[0010] Preferably, the overlapping part includes a PCP overlapping table, which is close to the PC overlapping table and the lower PP board correction platform. The transfer part moves the lower PP board located on the lower PP board correction platform to the PCP overlapping table, and moves the upper PP board and core board that have been overlapped at the PC overlapping table to the PCP overlapping table as a whole and overlaps them on the lower PP board located at the PCP overlapping table.

[0011] Preferably, the core plate feeding portion is distributed linearly or in a side T-shaped distribution.

[0012] Preferably, the steel plate feeding section includes a steel plate conveyor, a steel plate dust collector and a correction temporary storage mechanism, the steel plate dust collector is located between the steel plate conveyors, and the correction temporary storage mechanism is located at one end of the steel plate conveyor and close to the overlapping portion.

[0013] Preferably, the single-piece PCP and CSC superposition fast line also includes a first buffer material feeding section and a second buffer material feeding section, the first buffer material feeding section is used to provide a first buffer material, the second buffer material feeding section is used to provide a second buffer material, the transfer section respectively moves the first buffer material and the second buffer material to the superposition section for buffering or pressure equalization, the first buffer material feeding section and the second buffer material feeding section are arranged on the side of the bottom plate feeding section close to the area where the steel plate and copper foil are superimposed on the superposition section.

[0014] Preferably, the upper copper foil feeding section includes an upper copper foil cutter, an upper copper foil separator and an upper copper foil conveyor. The upper copper foil cutter is used to cut the upper copper foil in a roll, the upper copper foil separator is used to separate the cut upper copper foil, and the upper copper foil conveyor is used to move the separated upper copper foil to the overlapping section.

[0015] Compared with the prior art, the present invention has the following beneficial effects:

[0016] Through the setting of the core board feeding part, upper PP board feeding part, lower PP board feeding part, upper copper foil feeding part, lower copper foil feeding part, steel plate feeding part, overlapping part and transfer part, the degree of coordination between each part is high and the linkage is better. At the same time, the frequency of staff participation in the entire core board overlapping process is reduced, the degree of automation is improved, which is conducive to saving overlapping time and labor costs, thereby improving overlapping efficiency, expanding the company's production scale, and improving the safety factor and overlapping quality. BRIEF DESCRIPTION OF THE DRAWINGS

[0017] In order to more clearly illustrate the solutions in the present invention, a brief introduction is given below to the drawings required for use in describing the embodiments of the present invention. Obviously, the drawings described below are some embodiments of the present invention. For ordinary technicians in this field, other drawings can be obtained based on these drawings without any creative work.

[0018] Figure 1 This is a planar structural diagram from one perspective of a superimposed fast line of a single-piece PCP and CSC provided by the present invention.

[0019] Figure 2 yes Figure 1 Enlarged view of point A in the middle.

[0020] Figure 3 This is a planar structural diagram of a deformed core plate feeding portion provided by the present invention.

[0021] Figure 4 yes Figure 1 Enlarged view of point B in the middle.

[0022] Figure 5 yes Figure 1 Enlarged view of point C in the middle.

[0023] Figure 6 This is a specific structural diagram of a deformation of an upper copper foil feeding portion provided by the present invention.

[0024] Figure 7 yes Figure 1 Enlarged view of point D in the middle.

[0025] Description of reference numerals:

[0026] 1. Core board feeding section; 2. Upper PP board feeding section; 3. Lower PP board feeding section; 4. Upper copper foil feeding section; 5. Lower copper foil feeding section; 6. Steel board feeding section; 7. Bottom board feeding section; 8. Laminating section; 9. Transfer section; 10. First feeding position; 11. Temporary storage position for core board materials; 111. Pre-collection position for extraction tray; 12. Transfer position for extraction tray unloading; 13. Core board calibration position; 18. Upper PP board calibration platform; 19. PC laminating table; 2 0. Lower PP board correction platform; 21. PCP laminating platform; 22. Steel plate conveyor; 23. Steel plate dust collector; 24. Calibration temporary storage mechanism; 25. Upper copper foil cutting machine; 26. Upper copper foil separator; 27. Upper copper foil conveyor; 34. Main laminating platform; 35. First buffer material feeding section; 37. First buffer material feeding conveyor; 38. First buffer material separator; 39. Buffer material laminating machine; 40. Buffer material laminating platform;

[0027] 14. Core board feeding section; 15. Core board loading mechanism; 16. Core board material removal and separation station; 17. Core board correction station; 29. ​​Upper copper foil feeding section; 30. Upper copper foil loading platform; 31. Upper copper foil separator; 32. Upper copper foil conveyor. DETAILED DESCRIPTION

[0028] The preferred embodiments of the present invention are described in detail below in conjunction with the accompanying drawings so that the advantages and features of the present invention can be more easily understood by those skilled in the art, thereby making a clearer and more precise definition of the scope of protection of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without making any creative work are within the scope of protection of the present invention.

[0029] The terms "including," "having," and any variations thereof in the present specification, claims, and accompanying drawings are intended to cover non-exclusive inclusions. The terms "first," "second," and the like in the present specification, claims, and accompanying drawings are used to distinguish between different items, not to describe a specific order.

[0030] See also Figure 1-7 The present invention provides a fast lamination line for single-piece PCP and CSC, which is used for PCP, CSC and combined lamination to facilitate subsequent processing operations, including a core board feeding part 1, an upper PP board feeding part 2, a lower PP board feeding part 3, an upper copper foil feeding part 4, a lower copper foil feeding part 5, a steel plate feeding part 6, a bottom plate feeding part 7, a lamination part 8 and a transfer part 9, wherein the upper PP board feeding part 2, the lower PP board feeding part 3, the upper copper foil feeding part 4, the lower copper foil feeding part 5, the steel plate feeding part 6, and the bottom plate feeding part 7 are arranged on the peripheral side of the lamination part 8.

[0031] Specifically, the upper PP board feeding part 2 and the core board feeding part 1 are located at both ends of the overlapping part 8, the upper copper foil feeding part 4 and the lower copper foil feeding part 6 are located at one end of the overlapping part 8 and are on the same side as the core board feeding part 1, the upper copper foil feeding part 4 is located between the lower copper foil feeding part 5 and the core board feeding part, the lower PP board feeding part 3 and the upper PP board feeding part 2 are located on the same side of the overlapping part 8, the core board feeding part 1 is used to provide the core board, the upper PP board feeding part 2 is used to provide the upper PP board, and the lower PP board The feeding section 3 is used to provide the lower PP board, the upper copper foil feeding section 4 is used to provide the upper copper foil, the lower copper foil feeding section 5 is used to provide the lower copper foil, the steel plate feeding section 6 is used to provide the steel plate, the bottom plate feeding section 7 is used to provide the bottom plate, the transfer section 9 is used to transfer the materials, and the overlapping section 8 is used to provide an overlapping station for the overlapping of materials, wherein the upper PP board and the lower PP board are of the same material with different names only for distinction, and the upper copper foil and the lower copper foil are of the same material with different names only for distinction.

[0032] Furthermore, the core plate feeding section 1 includes a first feeding position 10, a core plate material temporary storage position 11, a mixing tray pre-collecting position 111, a mixing tray unloading and transfer position 12 and a core plate correction position 13. The first feeding position 10 corresponds to the core plate material temporary storage position 11, the mixing tray pre-collecting position 111 corresponds to the mixing tray unloading and transfer position 12, and the core plate material temporary storage position 11 is located between the core plate correction position 13 and the mixing tray unloading and transfer position 12. When the core plate feeding part 1 is working, multiple groups of extraction trays carrying core plates in the core plate loading temporary storage position 11 are transferred to the first feeding position 10, and the transfer structure located at the core plate feeding part 1 moves the core plate in the first feeding position 10 to the correction position 13 and the extraction tray in the first feeding position 10 to the extraction tray pre-collection position 111 respectively. The extraction tray pre-collection position 111 is used for placing the extraction trays after separation and is moved to the extraction tray unloading transfer position 12 when the extraction trays accumulate to a certain amount. The extraction tray unloading transfer position 12 is used for the transfer of the extraction trays after separation for subsequent recycling. Then the transfer part 9 moves the core plate located in the core plate loading temporary storage position 11 to the core plate correction position 13 for core plate correction so that it can be more accurately overlapped with the upper PP plate and the lower PP plate. This core plate feeding part 1 is linearly distributed. As a specific implementation manner, the core board material temporary storage position 11 can be loaded with materials by means of AGV, trolley or manual loading, or the first material feeding position 10 can be directly loaded with materials.

[0033] As a variation of the core plate feeding section 1, a core plate feeding section 14 with a new structure is provided, which includes two groups of core plate feeding mechanisms 15, a core plate material taking and separation station 16 and a core plate correction station 17. The core plate material taking and separation station 16 is arranged between the two groups of core plate feeding mechanisms 15, and the core plate correction station 17 is arranged between the core plate material taking and separation station 16 and the overlapping section 8. This core plate feeding section 14 is distributed in a side T-shape. When one set of core plate loading mechanisms 15 enters the core plate material taking and separation station 16 to perform the material taking and separation action of the core plate and the extraction tray, the other set of core plate loading mechanisms 15 feeds; when one of the core plate loading mechanisms 15 completes feeding, the material is prepared by moving the mechanism, while the other set of core plate loading mechanisms 15 enters the core plate material taking and separation station 16 to load, wherein the transfer part 9 transfers the core plate to the core plate correction station 17 for correction, and the extraction tray is in the temporary storage waiting for unloading stage. The two sets of core plate loading mechanisms 15 are one in standby and one in use, realizing uninterrupted supply and correction of core plates, which is beneficial to improving the rate of providing corrected core plates and improving the overall stacking efficiency.

[0034] Preferably, the transfer part 9 corresponding to the overlapping part 8 is a six-axis linkage robot arm, which can operate at multiple angles and dimensions.

[0035] Furthermore, the single-piece PCP and CSC superposition rapid line also includes an upper PP board correction platform 18, which is arranged at the common end of the upper PP board feeding section 2 and the superposition section 8. The upper PP board correction platform 18 is used to correct the upper PP board moved to the upper PP board correction platform 18. Specifically, the upper PP board at the upper PP board feeding section 2 is moved to the upper PP board correction platform 18 by the transfer section 9. After the correction is completed, the transfer section 9 moves the upper PP board to the superposition section 8. The provision of the upper PP board correction platform 18 allows the upper PP board to be superimposed to be corrected, which is conducive to improving the subsequent superposition effect.

[0036] Furthermore, the laminating unit 8 includes a PC laminating platform 19. Specifically, after the transfer unit 9 moves the core plate, which has been calibrated at the core plate calibration position 13, to the PC laminating platform 19, it then moves the upper PP plate, which has been calibrated at the upper PP plate calibration platform 18, to the PC laminating platform 19 and laminates it onto the core plate. As a branch laminating mechanism within the overall laminating mechanism, the PC laminating platform 19 facilitates step-by-step laminating by avoiding poor alignment accuracy during a one-time lamination and facilitating orderly lamination.

[0037] Furthermore, the single-piece PCP and CSC superposition rapid line also includes a lower PP board correction platform 20, which is arranged between the lower PP board feeding section 3 and the superposition section 8. The lower PP board correction platform 20 is used to correct the lower PP board moved to the lower PP board correction platform 20. Specifically, the lower PP board at the lower PP board feeding section 3 is moved to the lower PP board correction platform 20 by the transfer section 9. After the correction is completed, the transfer section 9 moves the lower PP board to the superposition section 8. The provision of the lower PP board correction platform 20 allows the lower PP board to be superimposed to be corrected, which is conducive to improving the subsequent superposition effect.

[0038] Furthermore, the laminating section 8 further includes a PCP laminating platform 21, which is located near the PC laminating platform 19 and the lower PP plate correction platform 20. The transfer section 9 moves the lower PP plate that has been corrected on the lower PP plate correction platform 20 onto the PCP laminating platform 21, and then moves the upper PP plate and core plate that have been laminated on the PC laminating platform 19 onto the PCP laminating platform 21 and laminates them onto the lower PP plate located at the PCP laminating platform 21, thereby achieving PCP laminating. As a branch laminating mechanism within the overall laminating mechanism, the PCP laminating platform 21 facilitates step-by-step laminating to avoid the occurrence of poor alignment accuracy in one-time laminating and facilitates orderly laminating.

[0039] Furthermore, the steel plate feeding section 6 includes a steel plate conveyor 22, a steel plate dust collector 23, and a correction and temporary storage mechanism 24. The correction and temporary storage mechanism 24 is located at one end of the steel plate conveyor 22 and near the laminating section 8. The steel plate conveyor 22 is used to continuously convey steel plates. The steel plate dust collector 23 removes dust from the conveyed steel plates to improve the quality of subsequent laminating. The correction and temporary storage mechanism is used to calibrate and temporarily store the steel plates to improve the accuracy when the transfer section 9 subsequently moves the steel plates to the laminating section 8 for laminating.

[0040] In the present invention, when the initial upper copper foil material is a sheet material, no cutting is required at this time; when the upper copper foil and the lower copper foil are initially roll materials, they need to be cut to make them sheet materials for subsequent stacking. Specifically, the upper copper foil feeding section 4 includes an upper copper foil cutter 25, an upper copper foil separator 26, and an upper copper foil conveyor 27. The upper copper foil cutter 25 is used to cut the upper copper foil in the form of a roll material, the upper copper foil separator 26 is used to separate the cut upper copper foil, and the upper copper foil conveyor 27 is used to move the separated upper copper foil to the stacking section 8. The transfer section 9 moves the upper copper foil located at the upper copper foil conveyor 27 to the stacking section 8 to achieve subsequent stacking. It can be understood that the structure of the lower copper foil feeding part 5 is consistent with that of the upper copper foil feeding part 4 or a section of the upper copper foil conveyor is omitted. The specific setting can be made according to actual conditions. When there is no upper copper foil conveyor, the transfer part 9 directly moves the lower copper foil on the conveyor to the overlapping part 8.

[0041] As a modified upper copper foil feeding section 29, when the initial upper copper foil material is a sheet material, no cutting is required. Specifically, the upper copper foil feeding section 29 includes an upper copper foil loading platform 30, an upper copper foil separator 31, and an upper copper foil conveyor 32. The upper copper foil loading platform 30 is used to provide sheet-shaped upper copper foil, and two sets are set up for loading, one for backup and one for use. The upper copper foil separator 31 is used to separate the stacked upper copper foils, and the upper copper foil conveyor 32 is used to move the separated upper copper foils to the laminating section 8 for subsequent lamination. It can be understood that the structure of the modified lower copper foil feeding section is consistent with that of the upper copper foil feeding section 29, and the transfer section 9 directly moves the lower copper foil on the conveyor to the laminating section 8. It can be understood that the structure of the deformed lower copper foil feeding part is consistent with the structure of the upper copper foil feeding part 29 or the upper copper foil conveyor 32 is omitted. In the absence of the upper copper foil conveyor 32, the transfer part 9 directly moves the lower copper foil on the conveyor to the overlapping part 8.

[0042] Furthermore, the superimposing section 8 also includes a total superimposing platform 34. During superimposition, the bottom plate is displaced and lifted to switch to the total superimposing platform 34. The bottom plate is used to support and protect the materials. When moving after superimposition is completed, the bottom plate is directly moved to move the entire unit without touching the superimposed materials, and the superimposed products will not be damaged. The transfer section 9 moves the lower PP plate that has been calibrated on the lower PP plate correction platform 20 to the PCP superimposing platform 21, and then moves the upper PP plate and core plate that have been superimposed on the PC superimposing platform 19 to the PCP superimposing platform 21 as a whole and superimposes them on the lower PP plate located at the PCP superimposing platform 21 to achieve PCP superimposition; the upper copper foil, steel plate and lower copper foil are respectively transported to the corresponding bearing platforms on the superimposing section 8, and the transfer section 9 transfers the lower copper foil on the superimposing section 8 to the top of the steel plate for superimposition, and then the superimposed The lower copper foil + steel plate is moved to the upper copper foil located at the overlapping part 8, thus realizing the CSC form of overlapping. After the buffer material is overlapped, the transfer part 9 moves it to the corresponding overlapping part 8 and participates in the overlapping according to the formula; the transfer part 9 moves the overlapped PCP as a whole and the CSC as a whole to the main overlapping table 34 according to the production formula and overlaps them on the bottom plate, realizing the overlapping form of the combination of PCP and CSC. The material overlapping of the present invention has the advantages of good linkage between the various parts, high positioning accuracy and high degree of automation.

[0043] In the present invention, the bottom plate feeding portion 7 is a bottom plate conveyor, which continuously supplies bottom plates and lifts the bottom plates located at the bottom plate feeding portion 7 to the main stacking platform 34 .

[0044] It can be understood that when the laminated product is moved to other workstations, it is easy to cause extrusion and damage to the laminated materials due to the large rigid force when lowering. Therefore, buffer sheets need to be set above and below the laminated product to play a certain buffering role. Specifically, the single-piece PCP and CSC lamination rapid line also includes a first buffer material feeding section 35 and a second buffer material feeding section 36. The first buffer material feeding section 35 and the second buffer material feeding section are arranged at one end of the lamination section 8. The first buffer material feeding section 35 is used to provide the first buffer material, and the second buffer material feeding section is used to provide the second buffer material. The transfer section 9 moves the laminated first buffer material and the second buffer material to the corresponding lamination section 8 for buffering and pressure equalization according to the production formula. Specifically, the transfer section 9 moves the first buffer material to the bottom plate before the lower copper foil is moved for lamination, and moves the second buffer material to the upper PP plate after the upper PP plate is moved and laminated to the total lamination table 34. Preferably, the first and second cushioning materials can be made of kraft paper, copper plates, or other laminated cushioning materials. Copper plates also provide better heat dissipation. The specific method of laminating the first and second cushioning materials can be determined based on the actual formulation. Specifically, in the present invention, the cushioning sheets are fed from below the steel plate conveyor 22 and then separated and laminated.

[0045] Furthermore, the first buffer material feeding section 35 includes a first buffer material feeding conveyor 37, a first buffer material separating mechanism 38, a buffer material stacking machine 39, and a buffer material stacking platform 40. The first buffer material feeding conveyor 37 transports the first buffer material to the first buffer material separating mechanism 38. The first buffer material separating mechanism 38 separates multiple groups of stacked first buffer materials to reduce the possibility of electrostatic adsorption. The transfer section 9 stacks the separated first buffer materials on the buffer material stacking platform 40 for temporary storage so that the first buffer material can be provided in time during subsequent stacking. It can be understood that the structure of the second buffer material feeding section is consistent with that of the first buffer material feeding section 35 and will not be described in detail here.

[0046] Compared with the prior art, the present invention has the following beneficial effects:

[0047] Through the setting of the core board feeding part, upper PP board feeding part, lower PP board feeding part, upper copper foil feeding part, lower copper foil feeding part, steel plate feeding part, overlapping part and transfer part, the degree of coordination between each part is high and the linkage is better. At the same time, the frequency of staff participation in the entire core board overlapping process is reduced, the degree of automation is improved, which is conducive to saving overlapping time and labor costs, thereby improving overlapping efficiency, expanding the company's production scale, and improving the safety factor and overlapping quality.

[0048] The above description is only used to illustrate the technical solution of the present invention, rather than to limit it. Although the present invention has been described in detail with reference to the aforementioned embodiments, it should be understood by those skilled in the art that the technical solutions described in the aforementioned embodiments can still be modified, or some or all of the technical features therein can be replaced by equivalents. Any equivalent structure or equivalent process transformation made using the contents of the present invention specification and drawings, or directly or indirectly applied to other related technical fields, are also included in the patent protection scope of the present invention.

Claims

1. A high-speed line for superimposing single PCP and CSC, characterized by: The material comprises a core plate feeding part, an upper PP plate feeding part, a lower PP plate feeding part, an upper copper foil feeding part, a lower copper foil feeding part, a steel plate feeding part, a laminating part and a transferring part; the upper PP plate feeding part and the core plate feeding part are arranged on both sides of the same end of the laminating part, the upper copper foil feeding part and the lower copper foil feeding part are arranged on the other end of the laminating part, the upper copper foil feeding part and the core plate feeding part are located on the same side of the laminating part, and the upper copper foil feeding part is located on the lower copper foil feeding part. The lower PP board feeding part is arranged between the stacking part and the core board feeding part, and the lower PP board feeding part and the upper PP board feeding part are arranged on the same side of the stacking part. The upper PP board feeding part, the core board feeding part and the lower PP board feeding part are staggered on both sides of one end of the stacking part, and the upper copper foil feeding part, the steel plate feeding part and the lower copper foil feeding part are staggered on both sides of the other end of the stacking part; the transfer part is corresponding to the transfer and stacking of materials; The single PCP and CSC superposition rapid line also includes an upper PP board correction platform, which is arranged at the common end of the upper PP board feeding part and the superposition part. The transfer part moves the upper PP board provided by the upper PP board feeding part to the upper PP board correction platform for correction, and then moves the upper PP board located on the upper PP board correction platform to the superposition part; The stacking section includes a PC stacking table. After the transfer section moves the core plate at the core plate feeding section to the PC stacking table, the transfer section moves the upper PP plate located at the upper PP plate correction platform to the PC stacking table and stacks it on the core plate. The core plate feeding section includes two groups of core plate feeding mechanisms, a core plate picking and separation station and a core plate correction station. The core plate picking and separation station is arranged between the two groups of core plate feeding mechanisms, and the core plate correction station is arranged between the core plate picking and separation station and the overlapping section; when one group of core plate feeding mechanisms enters the core plate picking and separation station to perform the picking and separation action of the core plate and the extraction tray, the other group of core plate feeding mechanisms feeds; when one of the core plate feeding mechanisms completes feeding, the material is prepared by moving the mechanism, and the other group of core plate feeding mechanisms enters the core plate picking and separation station to load the material, wherein the transfer section performs correction by transferring the core plate to the core plate correction station, and the extraction tray is in a temporary storage waiting for unloading stage.

2. The high-speed line for superimposing single PCP and CSC according to claim 1, characterized in that: The single-piece PCP and CSC superposition rapid line also includes a base plate feeding section, which is correspondingly arranged at the main superposition platform at the center of the superposition section and is used to provide base plates.

3. The high-speed line for superimposing single PCP and CSC according to claim 1, characterized in that: The single-piece PCP and CSC superposition rapid line also includes a lower PP board correction platform, which is located between the superposition part and the lower PP feeding part. The lower PP board correction platform is used to correct the lower PP board provided by the lower PP feeding part.

4. The high-speed line for superimposing single PCP and CSC according to claim 3, characterized in that: The superposition part includes a PCP superposition table, which is close to the PC superposition table and the lower PP board correction platform. The transfer part moves the lower PP board located on the lower PP board correction platform to the PCP superposition table, and moves the upper PP board and core board that have been superimposed at the PC superposition table to the PCP superposition table as a whole and superimposes them on the lower PP board located at the PCP superposition table.

5. The high-speed superposition line for single-piece PCP and CSC according to claim 1, characterized in that: The core plate feeding portion is distributed linearly or in a side T-shaped distribution.

6. The high-speed line for superimposing single PCP and CSC according to claim 1, characterized in that: The steel plate feeding part includes a steel plate conveyor, a steel plate dust collecting machine and a correction temporary storage mechanism. The steel plate dust collecting machine is located between the steel plate conveyors, and the correction temporary storage mechanism is located at one end of the steel plate conveyor and close to the overlapping part.

7. The high-speed superposition line for single-piece PCP and CSC according to claim 2, characterized in that: The single-piece PCP and CSC superposition fast line also includes a first buffer material feeding section and a second buffer material feeding section. The first buffer material feeding section is used to provide a first buffer material, and the second buffer material feeding section is used to provide a second buffer material. The transfer section moves the first buffer material and the second buffer material to the superposition section for buffering or pressure equalization. The first buffer material feeding section and the second buffer material feeding section are arranged on the side of the bottom plate feeding section close to the area where the steel plate and copper foil are superimposed on the superposition section.

8. The high-speed line for superimposing single PCP and CSC according to claim 1, characterized in that: The upper copper foil feeding section includes an upper copper foil cutter, an upper copper foil separator and an upper copper foil conveyor. The upper copper foil cutter is used to cut the upper copper foil in a roll, the upper copper foil separator is used to separate the cut upper copper foil, and the upper copper foil conveyor is used to move the separated upper copper foil to the overlapping section.

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