A conveying device for electrolytic copper flexible copper-clad plate production

Abstract

This application relates to a conveying device for the production of electrolytic copper flexible clad laminates, specifically a suspended conveying device for clad laminates. The device includes a conveyor frame and a processing mechanism for suspending and conveying the clad laminates, detecting weight, automatically screening, clamping and fixing, automatically unloading, marking, and re-inspecting. The processing mechanism includes a conveying component, a detection component, a screening component, a clamping component, an unloading component, a marking component, and a re-inspection component. The conveying component includes a conveyor belt rotatably mounted on the conveyor frame and a transmission component for driving the conveyor belt. The detection component includes multiple fixed frames connected to the conveyor belt, spring components movably mounted within the multiple fixed frames, and disassembly / reassembly components for assembling and disassembling the spring components. This application allows for the rapid detection and separation of clad laminates of different weights but the same volume during conveying, ensuring high production efficiency.

Description

Technical Field

[0001] This application relates to the technical field of copper clad laminate suspension conveying devices, and in particular to a conveying device for the production of electrolytic copper flexible copper clad laminates. Background Technology

[0002] Electrolytic copper flexible clad laminate, also known as flexible copper clad laminate, refers to a copper clad laminate formed by bonding copper foil to one or both sides of a flexible insulating material such as polyester film or polyimide film through a certain process.

[0003] During the production and processing of electrolytic copper flexible clad laminates, an intelligent overhead conveyor system is typically used to transport the clad laminates. This allows for the classification of different models of clad laminates and their transport to designated locations. During transport, the classification method is usually based on the size of the clad laminates. Workers typically identify the size of the clad laminates visually and pick up the designated ones. Alternatively, the conveyor device can separate and transport clad laminates of different sizes based on their size characteristics.

[0004] Regarding the aforementioned technologies, the inventors believe that the following drawbacks exist: When copper-clad laminates are transported and sorted, if they are of the same volume but different weights, it is difficult for workers to determine the type of copper-clad laminate by visual inspection alone. It is necessary to first pick up the copper-clad laminates for judgment and weigh each one. In a fast-paced production environment, this inefficient operation method will lead to production delays and greatly increase the complexity and time cost of the operation. Moreover, the accuracy of workers' tactile judgment is difficult to guarantee, which will lead to classification errors. At the same time, when copper-clad laminates are of the same volume but different weights, it is not easy to effectively distinguish different types of flexible copper-clad laminates based on their size characteristics, which will lead to confusion and errors in subsequent production processes. Summary of the Invention

[0005] To address the issue that when sorting and transporting copper clad laminates, it is difficult for workers to visually determine the type of laminate with the naked eye when they are of the same volume but different weights, requiring them to handle the laminates for identification first, this application provides a conveying device for the production of electrolytic copper flexible copper clad laminates.

[0006] The technical solution of the conveying device for producing electrolytic copper flexible copper-clad laminate provided in this application is as follows:

[0007] A conveying device for producing electrolytic copper flexible copper-clad laminates includes a conveyor frame and a processing mechanism for suspending and conveying the copper-clad laminates, detecting weight, automatically screening, clamping and fixing, automatically unloading, detecting and marking, and re-inspecting. The processing mechanism includes a conveying component, a detection component, a screening component, a clamping component, an unloading component, a marking component, and a re-inspection component.

[0008] The conveying assembly includes a conveyor belt rotatably mounted on a conveyor frame and a transmission component for driving the conveyor belt.

[0009] The detection assembly includes multiple fixed frames connected to the conveyor belt, spring components movably disposed within the multiple fixed frames, and disassembly / assembly components for disassembling and assembling the spring components.

[0010] The screening assembly includes a fixed wedge block fixed on the conveyor frame, multiple support plates rotatably mounted on the conveyor frame, T-blocks movably mounted on the multiple support plates, and a limiting component for limiting the T-blocks.

[0011] The clamping assembly includes clamping strips fixed to multiple T-blocks, clamping blocks movably disposed on multiple clamping strips, and a translation component for driving the clamping blocks to translate.

[0012] The unloading assembly includes two unloading frames movably mounted on the conveyor frame and a drive component for lifting and lowering the unloading frames.

[0013] The marking assembly includes a first marker movably mounted on a conveyor and a oscillating component for oscillating the first marker.

[0014] The re-inspection assembly includes a second marker pen that is movably mounted on multiple fixed frames, a lifting component for lifting and lowering the second marker pen, and an adjusting component for swinging the second marker pen.

[0015] The conveyor frame is also equipped with a synchronizing element for synchronously driving the adjusting and translating elements.

[0016] By adopting the above technical solution, through the coordinated action of the conveying component, detection component, screening component, clamping component, unloading component, marking component, and re-inspection component in the processing mechanism, multiple copper-clad laminates can be suspended and conveyed, weighed, automatically screened, clamped and fixed, automatically unloaded, and marked for detection and re-inspection. The conveying component can suspend and convey multiple copper-clad laminates. The detection component can detect the weight of the copper-clad laminates during suspension and conveying, and can also disassemble, replace, or repair the spring components. The screening component can classify and screen multiple copper-clad laminates during suspension and conveying, so as to facilitate the separate conveying of copper-clad laminates of different weights and models. The clamping component can clamp and fix the copper-clad laminates to prevent them from falling off during suspension and conveying. The unloading component can smoothly unload the screened and inspected copper-clad laminates. The marking component can mark the overweight copper-clad laminates during suspension and conveying, and the position of the marking on the copper-clad laminate can roughly determine how much the copper-clad laminate is overweight.

[0017] The synchronizing component can synchronously drive the adjusting and translating components, so that when a copper-clad laminate of a specified model is suspended and transported to a designated location, the translating component automatically drives the copper-clad laminate for unloading. At the same time, during the unloading of the copper-clad laminate, the swinging component marks the copper-clad laminate for adhesion. The spring component suspends the copper-clad laminate for a long time for inspection. The spring component may become fatigued or deformed, which will affect the effectiveness of the spring component in weighing the copper-clad laminate. Therefore, the re-inspection component can inspect the spring component to detect whether the spring component is damaged. The re-inspection component can re-inspect and mark multiple copper-clad laminates. At the same time, when the copper-clad laminate is marked, the length of the marking line of the copper-clad laminate can be used to judge whether the spring component is damaged. Even if the spring component is damaged, the length of the marking line can be used to roughly judge whether the copper-clad laminate being inspected is qualified, and can also determine whether the copper-clad laminate is too light or too heavy.

[0018] Traditional methods for measuring the weight of copper clad laminates (CCLs) typically use electronic scales. While accurate, this method is limited in its effectiveness, only providing weight measurement. This new solution, however, not only measures the weight of CCLs of the same volume but also facilitates their transport. It can transport two different weights of CCLs to two separate locations for screening. Furthermore, it automatically marks overweight CCLs, allowing workers to understand the extent of overweight and streamlining the process. This significantly reduces the time and effort required for CCL processing, improving overall efficiency.

[0019] Optionally, the limiting component includes first wedge blocks movably disposed on multiple support plates and first springs fixed on multiple first wedge blocks respectively. The multiple first wedge blocks are movably fitted with multiple T-blocks respectively, the multiple first springs are fixedly connected to multiple support plates respectively, and the copper-clad laminate is movably fitted with the fixed wedge blocks.

[0020] By adopting the above technical solution, the limiting component can screen and convey multiple copper-clad laminates of different weights. The heavier copper-clad laminate will gradually come into contact with the fixed wedge during the suspended conveying. The transmission of the conveyor belt, in conjunction with the fixed wedge, can sequentially drive the heavier copper-clad laminate, clamping strip, clamping block and T-block to move horizontally. When the T-block moves, it will push the first wedge block to move, so that the first spring is in a compressed state, which can move the T-block to the other side of the first wedge block. The elastic force of the first spring can re-limit the T-block by resisting the first wedge block, so that copper-clad laminates of different weights and models can be unloaded at different positions.

[0021] Optionally, the translation component includes movable protrusions and movable gears respectively rotatably disposed on multiple clamping bars, and second springs respectively fixed on multiple clamping blocks. The multiple movable protrusions are respectively fixedly connected to multiple movable gears, the multiple second springs are respectively fixedly connected to multiple clamping bars, and the multiple clamping bars and multiple clamping blocks are respectively movably attached to multiple copper-clad laminates.

[0022] By adopting the above technical solution, the translation component can clamp and fix the copper-clad laminate, preventing the copper-clad laminate from falling off during suspension, conveying, screening, and inspection. The copper-clad laminate is attached to the clamping strip, and then the movable gear can be rotated to drive the movable protrusion to rotate, which can push the clamping block to move, so that the second spring is in a compressed state. Thus, when the clamping block moves, it can clamp and fix the copper-clad laminate in conjunction with the clamping strip.

[0023] Optionally, the swinging component includes a second wedge block movably mounted on the conveyor frame, a third spring fixed on the conveyor frame, and an adjusting frame hinged to the conveyor frame. The second wedge block and the first marker are both movably hinged to the adjusting frame. The third spring is fixedly connected to the second wedge block. The copper-clad laminate is movably fitted with the second wedge block. The fixed wedge block and the second wedge block are located on the same horizontal line.

[0024] By adopting the above technical solution, the swinging component can mark copper-clad laminates that are heavier than the standard weight. When the heavier copper-clad laminate is suspended and transported, it will come into contact with the second wedge block and be squeezed and moved. Through the cooperation between the conveyor frame, the first marker, the third spring and the second wedge block, the movement of the second wedge block will push the adjusting frame and the first marker block to move in sequence, so that the first marker block comes into contact with the copper-clad laminate. Then, when the copper-clad laminate is transported, the first marker can mark the copper-clad laminate. By the position of the mark made by the first marker on the copper-clad laminate, the staff can roughly know how much the current copper-clad laminate is heavier.

[0025] Optionally, the lifting component includes movable rods fixed to multiple springs, double-headed wedges and connecting rods movably mounted on multiple fixed frames, fifth springs fixed to multiple double-headed wedges, sixth springs fixed to multiple connecting rods, and swing rods hinged to multiple fixed frames. The movable rods are movably fitted with the double-headed wedges, the connecting rods are movably fitted with the double-headed wedges, the multiple sixth springs are fixedly connected to multiple swing rods, the inner sides of the multiple swing rods are provided with through holes of the same diameter as the multiple connecting rods, the multiple connecting rods are slidably connected to the multiple through holes, the multiple springs are provided with limiting holes of the same diameter as the multiple movable rods, the multiple movable rods are slidably connected to the multiple limiting holes, the multiple fifth springs are fixedly connected to multiple fixed frames, and the multiple second markers are fixedly connected to the multiple connecting rods.

[0026] By adopting the above technical solution, the height of the lifting component can be adjusted. The length of the line drawn by the second marker on the copper-clad laminate can be used to determine whether the spring component is damaged. At the same time, it can be determined whether the copper-clad laminate inspected by the current spring component meets the standard. When the spring force does not drive the movable rod to push the double-headed wedge block to move, the second marker cannot be lifted or lowered. When the spring force drives the movable rod and pushes the double-headed wedge block to move, the fifth spring can be compressed. When the double-headed wedge block moves, the force of the sixth spring can sequentially drive the connecting rod and the second marker to move upward, thus adjusting the height of the second marker. When the lower rack moves the copper-clad laminate downward, the second marker will also make a sliding mark on the copper-clad laminate. The length of the line drawn by the second marker on the copper-clad laminate can be used to determine whether the spring component is damaged.

[0027] Optionally, the synchronizing element includes a first short rack and a second short rack fixed on the conveyor frame, and a plurality of the movable gears are movably meshed with the first short rack and a plurality of the movable gears are movably meshed with the second short rack, wherein the width of the second short rack is greater than the width of the first short rack.

[0028] By adopting the above technical solution, the synchronizing component can drive the adjusting component and the translation component to drive synchronously. When the conveyor belt drives the movable gear to move and rotate in contact with the first short rack or the second short rack, the swinging component can drive the second marker to swing at an angle, so that the second marker is in contact with the copper-clad laminate. The translation component can disassemble the copper-clad laminate to facilitate the unloading of the copper-clad laminate. At the same time, while the copper-clad laminate is being automatically unloaded, the copper-clad laminate can be marked and re-inspected by the second marker being in contact with the copper-clad laminate.

[0029] Optionally, the adjusting component includes a first bevel gear, a second bevel gear, and a fixed screw block rotatably mounted on multiple support plates; a movable screw rod mounted on multiple fixed screw blocks; a dovetail block hinged to multiple movable screw rods; and multiple limiting blocks movable on multiple dovetail blocks. The multiple first bevel gears mesh with the multiple second bevel gears. The multiple fixed screw blocks are threadedly connected to the multiple movable screw rods. The multiple fixed screw blocks are fixedly connected to the multiple second bevel gears. The multiple first bevel gears are coaxially fixed to the multiple movable gears. Each of the multiple limiting blocks has a dovetail groove. The multiple movable screw rods are slidably connected to the multiple dovetail grooves. The inner sides of the multiple limiting blocks each have adjusting holes with a diameter equal to that of multiple connecting rods. The multiple connecting rods are slidably connected to the multiple adjusting holes.

[0030] By adopting the above technical solution, the adjustment component can adjust the angle of the second marker. When the copper-clad laminate is suspended and conveyed, the second marker can be prevented from sticking to the copper-clad laminate for marking. When the copper-clad laminate is unloaded, the second marker can be made to stick to the copper-clad laminate for marking. When the movable gear contacts the first short rack or the second short rack and rotates, it will also drive the first bevel gear, the second bevel gear and the fixed screw block to rotate in sequence. In turn, it can drive the movable screw, the dovetail block and the limit block to move in sequence. When the movable screw moves, it can drive the connecting rod and the second marker to swing in angle in sequence, so that the second marker sticks to the copper-clad laminate. Then, when the unloading rack moves the copper-clad laminate downward, the second marker can mark the copper-clad laminate.

[0031] Optionally, the driving component includes two electric push rods fixed on the conveyor frame and distance sensors respectively fixed on two unloading frames. The copper-clad laminate is movably attached to the unloading frame, and the distance sensors are movably attached to the copper-clad laminate.

[0032] By adopting the above technical solution, the drive unit can smoothly unload the inspected copper-clad laminate, avoiding direct drop of the copper-clad laminate. When it is necessary to unload standard or heavy copper-clad laminates to a designated location, the electric push rod can sequentially drive the unloading rack and distance sensor upward. The distance sensor can detect the distance between the unloading rack and the copper-clad laminate, thereby ensuring that the unloading rack accurately fits the bottom of the copper-clad laminate. During automatic unloading of the copper-clad laminate, the electric push rod can drive the unloading rack to unload the copper-clad laminate.

[0033] Optionally, the transmission component includes a drive wheel and a driven wheel rotatably mounted on the conveyor frame, a motor fixed on the conveyor frame, and two limiting strips. The drive wheel and the driven wheel are both connected to the conveyor belt for transmission. The drive wheel is fixedly connected to the output shaft of the motor, and the two limiting strips are movably fitted with the conveyor belt.

[0034] By adopting the above technical solution, the transmission component can suspend and transport multiple copper-clad laminates. The motor can drive the drive wheel, the conveyor belt and the driven wheel to rotate in sequence. When the conveyor belt rotates, it can drive multiple fixed frames, multiple spring components, multiple second markers, multiple support plates and multiple clamping bars to suspend and transport in sequence. In this way, when the conveyor belt suspends and transports multiple clamping bars, it can clamp multiple copper-clad laminates onto multiple clamping bars in sequence.

[0035] Optionally, the disassembly component includes two first screws respectively disposed on multiple fixed brackets and two second screws respectively disposed on multiple support plates. The spring component has two first slots, and the two first screws are movably engaged with the two first slots respectively. The spring component has two second slots, and the two second screws are movably engaged with the two second slots respectively. Both first screws are threadedly connected to the fixed brackets, and both second screws are threadedly connected to the support plates.

[0036] By adopting the above technical solution, the spring component can be disassembled and assembled. Rotating the two first screws can separate the two first screws from the spring component, causing the spring component to lose its limiting position with the fixing frame. Then, rotating the two second screws can separate the two second screws from the spring component, causing the spring component to separate from the support plate, thereby allowing the spring component to be disassembled and replaced.

[0037] In summary, this application includes at least one of the following beneficial technical effects:

[0038] 1. When multiple copper-clad laminates need to be conveyed and their weight checked, the translation component can clamp and fix the copper-clad laminates to prevent them from falling off during suspension, screening, and inspection marking. This ensures the effectiveness of suspension, screening, and inspection marking of the copper-clad laminates. The transmission component suspends and conveys multiple copper-clad laminates, allowing for screening, inspection marking, and re-inspection marking of multiple copper-clad laminates during the suspension and conveying process. During suspension and conveying, the weight of the copper-clad laminates can be checked by the spring component. The spring component is compressed during the conveying process, which can drive the copper-clad laminates downward. The weight and model of the copper-clad laminate can be checked by the range of downward movement of the copper-clad laminate.

[0039] 2. When the copper-clad laminate is of standard weight, it will not drive the swinging component during the suspended conveyor transport, thus detecting that the copper-clad laminate is of standard weight. As the standard copper-clad laminate continues to be conveyed forward, when it reaches the unloading position, the synchronizing component drives the adjusting and translating components. The translating component disassembles the copper-clad laminate, and together with the driving component, it can be smoothly unloaded. Simultaneously, at the moment the copper-clad laminate is unloaded, the spring component will return to its original shape due to the loss of tension from the copper-clad laminate. Together with the lifting and adjusting components, the elasticity of the spring component can be detected, and whether the spring component is damaged. When the spring force does not drive the lifting component, it cannot drive the second marker to rise or fall. During the smooth unloading of the copper-clad laminate, the adjusting component can drive the second marker to swing at an angle, making the second marker fit against the copper-clad laminate, thus causing the unloading rack to move the copper-clad laminate downwards. When in motion, the second marker can mark the copper-clad laminate. When the spring force drives the lifting component, it can move the second marker upward. When the driving component moves the copper-clad laminate downward, the second marker will also make a sliding mark on the copper-clad laminate. The length of the mark on the copper-clad laminate by the second marker can be used to determine whether the spring is damaged. When the mark line on the copper-clad laminate is short, it indicates that the spring is damaged and that the weight of the copper-clad laminate detected by the current spring is inaccurate and needs to be re-detected. The spring also needs to be disassembled and replaced. When the mark line on the copper-clad laminate is long, it indicates that the weight of the copper-clad laminate detected by the current spring is accurate. When the mark line on the copper-clad laminate is between long and short, it indicates that the spring is about to be damaged and needs to be disassembled and replaced, but it does not affect the weight of the copper-clad laminate detected by the current spring.

[0040] 3. When the weight of the copper-clad laminate exceeds the standard weight, the oscillating component can push the first marker to swing at an angle and fit against the copper-clad laminate. During the conveying of the copper-clad laminate, the first marker can mark a line on it. After the heavier copper-clad laminate is unloaded, by observing the position of the line marked by the first marker, the operator can roughly know how much heavier the copper-clad laminate is, facilitating appropriate adjustments. Simultaneously, through the suspended conveying of the heavier copper-clad laminate, the limiting component can move and limit its movement. When the conveyor belt transports the heavier copper-clad laminate to the unloading position, the synchronizing component will drive the adjusting and translating components. The translation component disassembles the heavier copper-clad laminate, and together with the drive component, it can smoothly unload the heavier copper-clad laminate. At the moment the heavier copper-clad laminate is unloaded, the spring component will return to its original shape due to the loss of tension from the copper-clad laminate. Together with the lifting component and the adjusting component, the elasticity of the spring component can be detected, and whether the spring component is damaged can be detected. When the elasticity of the spring component does not drive the lifting component, it will not be able to drive the second marker pen to rise or fall. When the heavier copper-clad laminate is unloaded smoothly, the adjusting component can drive the second marker pen to swing at an angle, so that the second marker pen is in contact with the copper-clad laminate. Then, when the unloading rack moves the copper-clad laminate downward, the second marker pen can mark the copper-clad laminate.

[0041] 4. When the spring force drives the lifting component, it moves the second marker upwards. When the driving component moves the copper-clad laminate downwards, the second marker also makes a sliding mark on the copper-clad laminate. The length of the mark on the copper-clad laminate indicates whether the spring is damaged. A shorter mark indicates damage to the spring and that the weight detected by the spring is inaccurate, requiring re-inspection and replacement of the spring. A longer mark indicates accurate weight detection. When the mark is between short and long, it indicates the spring is about to break. Damage requires disassembly and replacement, but it does not affect the weight of the copper-clad laminate currently measured by the spring component. It also indicates that the weight measured by the spring component is inaccurate and needs to be remeasured. The spring component itself needs to be disassembled and replaced. When the marking line on the copper-clad laminate is longer, it indicates that the weight measured by the spring component is indeed higher than the standard weight. When the marking line is between long and short, it indicates that the spring component is about to fail and needs to be disassembled and replaced. However, it also indicates that the weight measured by the spring component is very close to the standard weight, and remeasurement of the copper-clad laminate is not necessary. The spring component can be disassembled, replaced, or repaired.

[0042] 5. It can achieve the effect of spring-loaded copper clad laminate (CCL) weight detection, and simultaneously transport CCLs of acceptable weight and overweight CCLs to designated positions respectively. During the suspended transport of CCLs, it can screen CCLs of different weights. The first marker can automatically mark the side of overweight CCLs, and subsequent workers can roughly judge the extent of overweight by the position of the first marker. During the suspended transport of CCLs, it can also perform a re-inspection by using a second marker to automatically mark the surface of the CCLs. Subsequent workers can judge the effectiveness of the spring-loaded CCL weight detection by the length of the second marker, and can also determine whether the spring is faulty or damaged. The length of the mark can roughly determine whether the CCL is heavier or lighter than the standard weight. After the CCLs are inspected, they can be automatically unloaded when transported to the designated position. Attached Figure Description

[0043] Figure 1 This is a schematic diagram of the overall structure of an embodiment of this application;

[0044] Figure 2 The external view of the conveyor frame connection structure in the embodiments of this application;

[0045] Figure 3 The external view of the feeder connection structure in this application embodiment;

[0046] Figure 4 Examples of this application Figure 3Enlarged view at point C;

[0047] Figure 5 Cross-sectional view of the fixing frame connection structure in the embodiment of this application;

[0048] Figure 6 Examples of this application Figure 3 Enlarged view at point D;

[0049] Figure 7 The appearance diagram of the clamping strip connection structure in the embodiment of this application;

[0050] Figure 8 Examples of this application Figure 7 Enlarged view at point E in the middle;

[0051] Figure 9 Examples of this application Figure 1 Enlarged view of point A in the middle;

[0052] Figure 10 Examples of this application Figure 2 Enlarged view of section B in the middle.

[0053] Reference numerals: 1. Conveyor frame; 2. Motor; 3. Drive wheel; 4. Conveyor belt; 5. Driven wheel; 6. Fixed frame; 7. Spring component; 8. Support plate; 9. T-block; 10. Clamping bar; 11. Copper-clad laminate; 12. Second wedge block; 13. Third spring; 14. Adjusting frame; 15. First marker; 16. Fixed wedge block; 17. Movable rod; 18. Double-headed wedge block; 19. Fifth spring; 20. Swing rod; 21. Sixth spring; 22. Connecting rod; 23. Second marker; 2 4. Clamping block; 25. Second spring; 26. Movable protrusion; 27. Movable gear; 28. First bevel gear; 29. ​​Second bevel gear; 30. Fixed screw block; 31. Movable screw; 32. Dovetail block; 33. Limiting block; 34. First wedge block; 35. First spring; 36. First short rack; 37. Second short rack; 38. Electric push rod; 39. Unloading rack; 40. Distance sensor; 41. Limiting strip; 42. Intelligent controller; 43. Second screw; 44. First screw. Detailed Implementation

[0054] The following is in conjunction with the appendix Figure 1-10 This application will be described in further detail.

[0055] This application discloses a conveying device for the production of electrolytic copper flexible copper-clad laminates, referring to... Figure 1 and Figure 2The system includes a conveyor frame 1 and a processing mechanism for suspending and conveying the copper-clad laminate 11, performing weight detection, automatic screening, clamping and fixing, automatic unloading, detection marking, and re-inspection marking. The processing mechanism includes a conveying component, a detection component, a screening component, a clamping component, an unloading component, a marking component, and a re-inspection component. The conveying component includes a conveyor belt 4 rotatably mounted on the conveyor frame 1 and a transmission component for driving the conveyor belt 4. The detection component includes multiple fixed frames 6 connected to the conveyor belt 4, springs 7 movably mounted within the multiple fixed frames 6, and disassembly / assembly components for disassembling the springs 7. The screening component includes a fixed wedge 16 fixed on the conveyor frame 1, multiple support plates 8 rotatably mounted on the conveyor frame 1, T-blocks 9 movably mounted on the multiple support plates 8, and a limiting component for the T-blocks 9. The positioning limiter; the clamping assembly includes clamping strips 10 fixed on multiple T-blocks 9, clamping blocks 24 movably disposed on multiple clamping strips 10, and a translational member for translating the clamping blocks 24; the unloading assembly includes two unloading racks 39 movably disposed on the conveyor frame 1 and a driving member for lifting the unloading racks 39; the marking assembly includes a first marker pen 15 movably disposed on the conveyor frame 1 and a swinging member for swinging the first marker pen 15; the re-inspection assembly includes a second marker pen 23 movably disposed on multiple fixed frames 6, a lifting member for lifting the second marker pen 23, and an adjusting member for swinging the second marker pen 23; the conveyor frame 1 is also provided with a synchronizing member for synchronously driving the adjusting member and the translational member.

[0056] The limiting component includes first wedge blocks 34 movably disposed on multiple support plates 8 and first springs 35 fixed on multiple first wedge blocks 34. The multiple first wedge blocks 34 are movably fitted with multiple T-shaped blocks 9. The multiple first springs 35 are fixedly connected to multiple support plates 8. Each of the multiple support plates 8 has an elongated hole. The multiple T-shaped blocks 9 are slidably connected to the multiple elongated holes. Each of the multiple support plates 8 has a connecting hole. The multiple first wedge blocks 34 are slidably connected to the multiple connecting holes. The copper-clad laminate 11 is movably fitted with the fixed wedge block 16. The spring pressure of the third spring 13 is less than the elastic force of the first spring 35. Therefore, when the copper-clad laminate 11 pushes the second wedge block 12, it will not push the T-shaped block 9 to move.

[0057] The translation component includes movable protrusions 26 and movable gears 27 respectively rotatably disposed on multiple clamping bars 10, and second springs 25 respectively fixed on multiple clamping blocks 24. The multiple movable protrusions 26 are fixedly connected to the multiple movable gears 27 respectively, and the multiple second springs 25 are fixedly connected to the multiple clamping bars 10 respectively. The multiple clamping bars 10 and the multiple clamping blocks 24 are movably attached to the multiple copper-clad laminates 11 respectively.

[0058] The swinging component includes a second wedge block 12 movably mounted on the conveyor frame 1, a third spring 13 fixed on the conveyor frame 1, and an adjusting frame 14 hinged to the conveyor frame 1. The second wedge block 12 and the first marker 15 are both movably hinged to the adjusting frame 14. The third spring 13 is fixedly connected to the second wedge block 12. The copper-clad plate 11 is movably fitted to the second wedge block 12. The conveyor frame 1 has two fixing holes. The first marker 15 and the second wedge block 12 are slidably connected to the two fixing holes respectively. The first marker 15 and the second wedge block 12 can be limited and slid through the two fixing holes to prevent the first marker 15 and the second wedge block 12 from shaking randomly. The fixed wedge block 16 and the second wedge block 12 are located on the same horizontal line.

[0059] The lifting component includes movable rods 17 fixed to multiple springs 7, double-headed wedges 18 and connecting rods 22 movably mounted on multiple fixed frames 6, fifth springs 19 fixed to multiple double-headed wedges 18, sixth springs 21 fixed to multiple connecting rods 22, and swing rods 20 hinged to multiple fixed frames 6. The movable rods 17 and double-headed wedges 18 are movably fitted together, and the connecting rods 22 are movably fitted together. The multiple sixth springs 21 are fixedly connected to the multiple swing rods 20. The inner sides of each swing rod 20 have through holes with a diameter equal to that of the multiple connecting rods 22, and the multiple connecting rods 22 are connected to the multiple through holes. The sliding connection allows the connecting rod 22 to be limited through the through hole, preventing it from sliding freely. Multiple spring members 7 each have a limiting hole with the same diameter as the multiple movable rods 17. The multiple movable rods 17 are slidably connected to the multiple limiting holes, limiting their movement and preventing them from wobbling. The fixing frame 6 has a sliding hole, and the double-headed wedge 18 is slidably connected to it, limiting its movement and preventing it from wobbling. Multiple fifth springs 19 are fixedly connected to multiple fixing frames 6, and multiple second markers 23 are fixedly connected to multiple connecting rods 22.

[0060] The synchronizing element includes a first short rack 36 and a second short rack 37 fixed on the conveyor frame 1. Multiple movable gears 27 are movably meshed with the first short rack 36 and the second short rack 37. The first and second short racks 36 and 37 can limit the rotation of the movable gears 27, preventing them from wobbling during movement. The width of the second short rack 37 is greater than the width of the first short rack 36, facilitating the opening and unloading of copper-clad laminates 11 of different models and weights by the second short rack 37 and the first short rack 36.

[0061] The adjusting component includes a first bevel gear 28, a second bevel gear 29, and a fixed screw block 30 rotatably mounted on multiple support plates 8; a movable screw 31 mounted on multiple fixed screw blocks 30; dovetail blocks 32 hinged to multiple movable screw blocks 31; and multiple limiting blocks 33 movably mounted on multiple dovetail blocks 32. The multiple first bevel gears 28 mesh with the multiple second bevel gears 29. The multiple fixed screw blocks 30 are threadedly connected to the multiple movable screw blocks 31. The multiple fixed screw blocks 30 are fixedly connected to the multiple second bevel gears 29. The multiple first bevel gears 28... The multiple movable gears 27 are coaxially fixed. The inner sides of the multiple fixed screw blocks 30 are respectively provided with threaded holes that are adapted to the outer threads of the multiple movable screws 31. The multiple limiting blocks 33 are each provided with dovetail grooves. The multiple movable screws 31 are slidably connected to the multiple dovetail grooves. The multiple dovetail grooves can limit the sliding of the multiple movable screws 31. The inner sides of the multiple limiting blocks 33 are respectively provided with adjustment holes with the same diameter as the multiple connecting rods 22. The multiple connecting rods 22 are slidably connected to the multiple adjustment holes. The adjustment holes can limit the connecting rods 22 and prevent the connecting rods 22 from shaking randomly.

[0062] The driving component includes two electric push rods 38 fixed on the conveyor frame 1 and distance sensors 40 respectively fixed on two unloading racks 39. The copper-clad laminate 11 is movably attached to the unloading rack 39, and the distance sensors 40 are movably attached to the copper-clad laminate 11. The unloading rack 39 can limit the movement of the copper-clad laminate 11 to prevent it from collapsing during unloading. An intelligent controller 42 is fixedly connected to the conveyor frame 1. The motor 2, the two electric push rods 38 and the two distance sensors 40 are all electrically connected to the intelligent controller 42. The intelligent controller 42 can start or drive the motor 2, the two electric push rods 38 and the two distance sensors 40 at timed intervals. The two unloading racks 39 are located at different positions on the conveyor frame 1 to unload copper-clad laminates 11 of different weights and models.

[0063] The transmission components include a drive wheel 3 and a driven wheel 5 rotatably mounted on the conveyor frame 1, a motor 2 fixed on the conveyor frame 1, and two limiting strips 41. The drive wheel 3 and the driven wheel 5 are both connected to the conveyor belt 4. The drive wheel 3 is fixedly connected to the output shaft of the motor 2. The two limiting strips 41 are in movable contact with the conveyor belt 4. The connection points of the multiple fixed frames 6 and the conveyor belt 4 are all located between the two limiting strips 41. The two limiting strips 41 can limit the conveyor belt 4, preventing the conveyor belt 4 from being pried or damaged due to the weight of the multiple fixed frames 6 and multiple copper-clad laminates 11 when the conveyor belt 4 is suspended and transported. This ensures the stability of the conveyor belt 4 in suspending and transporting the multiple fixed frames 6 and multiple copper-clad laminates 11, and also prevents the conveyor belt 4 from being pried or damaged, which would affect the accuracy of the detection and marking of the multiple copper-clad laminates 11.

[0064] The assembly / disassembly components include two first screws 44 respectively disposed on multiple fixed brackets 6 and two second screws 43 respectively disposed on multiple support plates 8. The spring component 7 has two first slots, and the two first screws 44 are movably engaged with the two first slots respectively. The spring component 7 also has two second slots, and the two second screws 43 are movably engaged with the two second slots respectively. Both first screws 44 are threaded to the fixed brackets 6, and both second screws 43 are threaded to the support plates 8. Each of the multiple support plates 8 has a positioning square groove, and the multiple spring components 7 are movably fitted into the multiple positioning square grooves. The fixed brackets 6 can limit the movement of the spring components 7, preventing them from swinging freely, while the positioning square grooves allow for quick installation and positioning of the spring components 7.

[0065] The implementation principle of a conveying device for producing electrolytic copper flexible copper-clad laminates according to an embodiment of this application is as follows:

[0066] (1) When multiple copper-clad laminates 11 need to be conveyed and their weight is measured, the copper-clad laminates 11 are first attached to the clamping strip 10. Then, by rotating the movable gear 27, the movable protrusion 26 can be rotated, which in turn can push the clamping block 24 to move, so that the second spring 25 is in a compressed state. When the clamping block 24 moves, it can cooperate with the clamping strip 10 to clamp and fix the copper-clad laminates 11, so as to avoid the copper-clad laminates 11 from falling off when they are suspended, conveyed, screened and inspected, so as to ensure the effect of the copper-clad laminates 11 being suspended, conveyed, screened and inspected.

[0067] (2) The motor 2 can drive the drive wheel 3, the conveyor belt 4 and the driven wheel 5 to rotate in sequence. When the conveyor belt 4 rotates, it can drive multiple fixed frames 6, multiple spring parts 7, multiple second markers 23, multiple support plates 8 and multiple clamping strips 10 to be suspended and transported in sequence. When the conveyor belt 4 suspends and transports multiple clamping strips 10, it can clamp multiple copper-clad laminates 11 on multiple clamping strips 10 in sequence, so as to facilitate the suspension and transport of multiple copper-clad laminates 11. When the conveyor belt 4 suspends and transports multiple copper-clad laminates 11, it can screen, inspect and mark, and re-inspect the multiple copper-clad laminates 11.

[0068] (3) When the copper clad laminate 11 is suspended and transported, the weight of the copper clad laminate 11 can be detected by the spring component 7. When the copper clad laminate 11 is transported, the spring component 7 will be compressed, which can drive the copper clad laminate 11 to move downward. The weight of the copper clad laminate 11 can be detected by the range of downward movement of the copper clad laminate 11.

[0069] (4) When the copper-clad laminate 11 is of standard weight, when the copper-clad laminate 11 is suspended and transported, the copper-clad laminate 11 will move directly above the second wedge block 12 and will not be in contact with the second wedge block 12. Thus, it can be detected that the copper-clad laminate 11 is of standard weight. When the standard copper-clad laminate 11 continues to be transported forward, the movable gear 27 will mesh with the first short rack 36, which can drive the movable gear 27 and the movable protrusion 26 to rotate in sequence, so that the clamping block 24 loses resistance. Through the elastic force of the second spring 25, the clamping block 24 can be moved to separate from the copper-clad laminate 11, so that the copper-clad laminate 11 loses its limit and then the copper-clad laminate 11 will slide down.

[0070] (5) When the standard copper-clad laminate 11 needs to be delivered to the designated location for unloading, the electric push rod 38 can sequentially drive the unloading rack 39 and the distance sensor 40 to move upward. The distance sensor 40 can detect the distance between the unloading rack 39 and the copper-clad laminate 11, so that the unloading rack 39 can accurately fit the bottom of the copper-clad laminate 11. Thus, when the copper-clad laminate 11 is automatically unloaded, the copper-clad laminate 11 can be prevented from falling directly. The electric push rod 38 can drive the unloading rack 39 to unload the copper-clad laminate 11.

[0071] (6) At the same time, when the copper-clad plate 11 separates from the clamping bar 10, the spring 7 will return to its original state due to the loss of the tension of the copper-clad plate 11, and then drive the support plate 8, clamping bar 10 and movable rod 17 to move upward in sequence. The elasticity of the spring 7 can be detected by the range of upward movement of the movable rod 17, and whether the spring 7 is damaged can be detected. When the elasticity of the spring 7 does not drive the movable rod 17 to push the double-headed wedge 18 to move, it will be unable to drive the second marker 23 to rise and fall. At the same time, when the first short rack 36 drives the movable gear 27 to rotate, it will also drive the first bevel gear 28 in sequence. The second bevel gear 29 and the fixed screw block 30 rotate, which in turn drives the movable screw 31, the dovetail block 32 and the limiting block 33 to move in sequence. Because the fixed frame 6 is hinged to the swing rod 20, the movable screw 31 is hinged to the dovetail block 32, and the swing rod 20 and the limiting block 33 are slidably connected to the connecting rod 22, when the movable screw 31 moves, it can drive the connecting rod 22 and the second marker 23 to swing at an angle in sequence, so that the second marker 23 is in contact with the copper-clad laminate 11. Then, when the feed rack 39 drives the copper-clad laminate 11 to move downward, the second marker 23 can mark the copper-clad laminate 11.

[0072] (7) When the spring force of the spring 7 drives the movable rod 17 and pushes the double-headed wedge 18 to move, the fifth spring 19 can be compressed. Then, when the double-headed wedge 18 moves, the spring force of the sixth spring 21 can sequentially drive the connecting rod 22 and the second marker 23 to move upward. The height of the second marker 23 can be adjusted. Then, when the lower rack 39 drives the copper-clad laminate 11 to move downward, the second marker 23 will also make a sliding mark on the copper-clad laminate 11. Then, the length of the line marked on the copper-clad laminate 11 by the second marker 23 can be used to determine the spring force. 7. Whether it is damaged: When the marking line on the copper clad laminate 11 is short, it indicates that the spring component 7 is damaged. It also indicates that the weight of the copper clad laminate 11 detected by the spring component 7 is inaccurate and needs to be re-detected. At the same time, the spring component 7 needs to be disassembled and replaced. When the marking line on the copper clad laminate 11 is long, it indicates that the weight of the copper clad laminate 11 detected by the spring component 7 is accurate. When the marking line on the copper clad laminate 11 is between long and short, it indicates that the spring component 7 is about to be damaged and needs to be disassembled and replaced, but it does not affect the weight of the copper clad laminate 11 detected by the spring component 7.

[0073] (8) When the weight of the copper-clad laminate 11 is higher than the standard weight, when the copper-clad laminate 11 is suspended and conveyed, the copper-clad laminate 11 will be in contact with the second wedge block 12 and squeezed and moved, so that the third spring 13 is in a compressed state. Through the cooperation between the conveyor frame 1, the first marker pen 15, the third spring 13 and the second wedge block 12, the second wedge block 12 will push the adjusting frame 14 and the first marker pen 15 to move in sequence when it moves, so that the first marker pen 15 is in contact with the copper-clad laminate 11. Then, when the copper-clad laminate 11 is conveyed, the first marker pen 15 can mark the copper-clad laminate 11. At the same time, after the heavier copper-clad laminate 11 is unloaded, by observing the position of the first marker pen 15 marking the copper-clad laminate 11, the staff can roughly know how much the current copper-clad laminate 11 is heavier, so that the staff can handle it.

[0074] (9) Simultaneously, through the suspended conveyor of the biased copper-clad laminate 11, the copper-clad laminate 11 will gradually come into contact with the fixed wedge block 16. Then, through the transmission of the conveyor belt 4 and in conjunction with the fixed wedge block 16, the biased copper-clad laminate 11, clamping bar 10, clamping block 24, movable gear 27, first bevel gear 28, second bevel gear 29, fixed screw block 30, movable screw 31, dovetail block 32 and T-block 9 can be moved in sequence. When the T-block 9 moves, it will push the first wedge block 34 to move, so that the first spring 3 When 5 is in a compressed state, the T-block 9 can be moved to the other side of the first wedge block 34. The first wedge block 34 can be resisted by the elastic force of the first spring 35, and the T-block 9 can be repositioned. By moving the movable gear 27 and the copper-clad laminate 11, copper-clad laminates 11 of different weights can be screened to prevent the heavier copper-clad laminates 11 from being automatically unloaded when being conveyed. The movable gear 27 meshes with the first short rack 36 and the material is automatically unloaded. Then the conveyor belt 4 will continue to convey the heavier copper-clad laminates 11.

[0075] (10) When the conveyor belt 4 transports the heavier copper-clad laminate 11 to the unloading position, the movable gear 27 will mesh with the second short rack 37, which will drive the movable gear 27 and the movable protrusion 26 to rotate in sequence. When the movable protrusion 26 moves, it will lose resistance with the clamping block 24. The clamping block 24 can be moved by the elastic force of the second spring 25, so that the clamping block 24 is separated from the heavier copper-clad laminate 11, so that the heavier copper-clad laminate 11 loses its limit, and the heavier copper-clad laminate 11 will slide down.

[0076] (11) At the same time, when it is necessary to unload the heavy copper-clad laminate 11 to the designated location, the electric push rod 38 can sequentially drive the unloading rack 39 and the distance sensor 40 to move upward. The distance sensor 40 can detect the distance between the unloading rack 39 and the heavy copper-clad laminate 11, so that the unloading rack 39 can accurately fit the bottom of the copper-clad laminate 11. Thus, when the heavy copper-clad laminate 11 is automatically unloaded, the heavy copper-clad laminate 11 can be prevented from falling directly. The electric push rod 38 can drive the unloading rack 39 to unload the copper-clad laminate 11.

[0077] (12) At the same time, when the copper-clad plate 11 separates from the clamping bar 10, the spring 7 will return to its original state due to the loss of the tension of the copper-clad plate 11, and then drive the support plate 8, clamping bar 10 and movable rod 17 to move upward in sequence. The elasticity of the spring 7 can be detected by the range of upward movement of the movable rod 17, and whether the spring 7 is damaged can be detected. When the elasticity of the spring 7 does not drive the movable rod 17 to push the double-headed wedge 18 to move, it will be unable to drive the second marker 23 to rise and fall. At the same time, when the second short rack 37 drives the movable gear 27 to rotate, it will also drive the first bevel gear 28 in sequence. The second bevel gear 29 and the fixed screw block 30 rotate, which in turn drives the movable screw 31, the dovetail block 32 and the limiting block 33 to move in sequence. Because the fixed frame 6 is hinged to the swing rod 20, the movable screw 31 is hinged to the dovetail block 32, and the swing rod 20 and the limiting block 33 are slidably connected to the connecting rod 22, when the movable screw 31 moves, it can drive the connecting rod 22 and the second marker 23 to swing at an angle in sequence, so that the second marker 23 is in contact with the copper-clad laminate 11. Then, when the feed rack 39 drives the copper-clad laminate 11 to move downward, the second marker 23 can mark the copper-clad laminate 11.

[0078] (13) When the spring force of the spring 7 drives the movable rod 17 and pushes the double-headed wedge 18 to move, the fifth spring 19 can be compressed. Then, when the double-headed wedge 18 moves, the spring force of the sixth spring 21 can sequentially drive the connecting rod 22 and the second marker 23 to move upward. The height of the second marker 23 can be adjusted. Then, when the lower rack 39 drives the copper-clad laminate 11 to move downward, the second marker 23 will also make a sliding mark on the copper-clad laminate 11. Then, by the length of the mark on the copper-clad laminate 11 made by the second marker 23, it can be determined whether the spring 7 is damaged. When the mark line on the copper-clad laminate 11 is short, This indicates that the spring component 7 is damaged, and that the weight of the copper-clad laminate 11 detected by the spring component 7 is inaccurate and needs to be re-inspected. At the same time, the spring component 7 needs to be disassembled and replaced. When the marking line on the copper-clad laminate 11 is longer, it means that the weight of the copper-clad laminate 11 detected by the spring component 7 is indeed higher than the weight of the standard copper-clad laminate 11. When the marking line on the copper-clad laminate 11 is between long and short, it means that the spring component 7 is about to be damaged and needs to be disassembled and replaced. However, it also means that the weight of the copper-clad laminate 11 detected by the spring component 7 is very close to the weight of the standard copper-clad laminate 11, and the current copper-clad laminate 11 does not need to be re-inspected.

[0079] (14) When it is necessary to disassemble and replace the spring component 7, rotate the two first screws 44. Through the threaded connection between the two first screws 44 and the fixing frame 6, the two first screws 44 can be separated from the spring component 7, so that the spring component 7 and the fixing frame 6 are no longer restricted. Then rotate the two second screws 43. Through the threaded connection between the two second screws 43 and the support plate 8, the two second screws 43 can be separated from the spring component 7, so that the spring component 7 and the support plate 8 can be separated. Then the spring component 7 can be disassembled, replaced or repaired.

[0080] Compared with existing technologies, the overall structure is simple and easy to use. When copper clad laminates 11 of the same volume but different weights are being transported, copper clad laminates 11 of different models and weights can be quickly detected and separated. There is no need for staff to judge the weight and model of copper clad laminates 11, nor is there a need to judge the handling of copper clad laminates 11. This ensures the production efficiency of copper clad laminates 11. There is no need for staff to judge the accuracy by touch. It avoids the classification errors of copper clad laminates 11 of different models and weights as much as possible. It can effectively distinguish different types of copper clad laminates 11 and prevent confusion and errors in subsequent production processes of copper clad laminates 11.

[0081] The above are all preferred embodiments of this application, and are not intended to limit the scope of protection of this application. Therefore, all equivalent changes made in accordance with the structure, shape and principle of this application should be covered within the scope of protection of this application.

Claims

1. A conveying device for the production of electrolytic copper flexible copper-clad laminates, characterized in that: It includes a conveyor frame (1) and a processing mechanism for suspending and conveying copper-clad laminates (11), detecting weight, automatically screening, clamping and fixing, automatically unloading, detecting and marking, and re-inspecting. The processing mechanism includes a conveying component, a detection component, a screening component, a clamping component, an unloading component, a marking component, and a re-inspection component. The conveying assembly includes a conveyor belt (4) rotatably mounted on a conveyor frame (1) and a transmission component for driving the conveyor belt (4). The detection assembly includes multiple fixed frames (6) connected to the conveyor belt (4), springs (7) movably disposed within the multiple fixed frames (6), and disassembly / reassembly parts for disassembling and assembling the springs (7); The screening assembly includes a fixed wedge (16) fixed on the conveyor frame (1), a plurality of support plates (8) rotatably disposed on the conveyor frame (1), a T-shaped block (9) movably disposed on the plurality of support plates (8), and a limiting member for limiting the T-shaped block (9); The clamping assembly includes clamping strips (10) fixed on multiple T-blocks (9), clamping blocks (24) movably disposed on multiple clamping strips (10), and a translation component for translating the clamping blocks (24); The unloading assembly includes two unloading racks (39) movably mounted on the conveyor frame (1) and a drive component for lifting and lowering the unloading racks (39); The marking assembly includes a first marker (15) movably mounted on the conveyor (1) and a oscillating member for oscillating the first marker (15); The re-inspection assembly includes a second marker (23) movably mounted on multiple fixed frames (6), a lifting component for lifting the second marker (23), and an adjusting component for swinging the second marker (23). The conveyor frame (1) is also provided with a synchronizing element for synchronously driving the adjusting element and the translation element.

2. The conveying device for producing electrolytic copper flexible copper-clad laminate according to claim 1, characterized in that: The limiting component includes a first wedge block (34) movably disposed on a plurality of support plates (8) and a first spring (35) fixed on a plurality of first wedge blocks (34). The plurality of first wedge blocks (34) are movably fitted with a plurality of T-shaped blocks (9), and the plurality of first springs (35) are fixedly connected to a plurality of support plates (8). The copper-clad plate (11) is movably fitted with a fixed wedge block (16).

3. The conveying device for producing electrolytic copper flexible copper-clad laminates according to claim 1, characterized in that: The translation component includes movable protrusions (26) and movable gears (27) respectively rotatably disposed on multiple clamping bars (10), and second springs (25) respectively fixed on multiple clamping blocks (24). The multiple movable protrusions (26) are respectively fixedly connected to the multiple movable gears (27), the multiple second springs (25) are respectively fixedly connected to the multiple clamping bars (10), and the multiple clamping bars (10) and the multiple clamping blocks (24) are respectively movably attached to the multiple copper-clad laminates (11).

4. The conveying device for producing electrolytic copper flexible copper-clad laminates according to claim 1, characterized in that: The swinging component includes a second wedge block (12) movably mounted on the conveyor frame (1), a third spring (13) fixed on the conveyor frame (1), and an adjusting frame (14) hinged to the conveyor frame (1). The second wedge block (12) and the first marker pen (15) are both movably hinged to the adjusting frame (14). The third spring (13) is fixedly connected to the second wedge block (12). The copper-clad plate (11) is movably attached to the second wedge block (12). The fixed wedge block (16) is located on the same horizontal line as the second wedge block (12).

5. A conveying device for producing electrolytic copper flexible copper-clad laminates according to claim 3, characterized in that: The lifting component includes movable rods (17) fixed to multiple springs (7), double-headed wedges (18) and connecting rods (22) movably mounted on multiple fixed frames (6), fifth springs (19) fixed to multiple double-headed wedges (18), sixth springs (21) fixed to multiple connecting rods (22), and swing rods (20) hinged to multiple fixed frames (6). The movable rods (17) are movably attached to the double-headed wedges (18), the connecting rods (22) are movably attached to the double-headed wedges (18), and the sixth springs (21) are hinged to multiple fixed frames (6). 1) Each of the multiple swing rods (20) is fixedly connected to a plurality of swing rods (20). The inner side of each of the multiple swing rods (20) is provided with a through hole with the same diameter as the multiple connecting rods (22). The multiple connecting rods (22) are slidably connected to the multiple through holes. Each of the multiple springs (7) is provided with a limiting hole with the same diameter as the multiple movable rods (17). The multiple movable rods (17) are slidably connected to the multiple limiting holes. The multiple fifth springs (19) are fixedly connected to a plurality of fixed brackets (6). The multiple second markers (23) are fixedly connected to the multiple connecting rods (22).

6. A conveying device for producing electrolytic copper flexible copper-clad laminates according to claim 3, characterized in that: The synchronizing element includes a first short rack (36) and a second short rack (37) fixed on the conveyor frame (1). A plurality of movable gears (27) are movably meshed with the first short rack (36) and a plurality of movable gears (27) are movably meshed with the second short rack (37). The width of the second short rack (37) is greater than the width of the first short rack (36).

7. A conveying device for producing electrolytic copper flexible copper-clad laminates according to claim 5, characterized in that: The adjusting component includes a first bevel gear (28), a second bevel gear (29), and a fixed screw block (30) rotatably mounted on multiple support plates (8), a movable screw (31) mounted on multiple fixed screw blocks (30), a dovetail block (32) hinged to multiple movable screw blocks (31), and multiple limiting blocks (33) movably mounted on multiple dovetail blocks (32). The multiple first bevel gears (28) mesh with the multiple second bevel gears (29), and the multiple fixed screw blocks (30) mesh with the multiple fixed screw blocks (32). The movable screw (31) is threaded, and the multiple fixed screw blocks (30) are respectively fixedly connected to the multiple second bevel gears (29). The multiple first bevel gears (28) are respectively coaxially fixed to the multiple movable gears (27). The multiple limiting blocks (33) are each provided with dovetail grooves. The multiple movable screws (31) are respectively slidably connected to the multiple dovetail grooves. The inner side of the multiple limiting blocks (33) is respectively provided with adjustment holes with the same diameter as the multiple connecting rods (22). The multiple connecting rods (22) are respectively slidably connected to the multiple adjustment holes.

8. A conveying device for producing electrolytic copper flexible copper-clad laminates according to claim 1, characterized in that: The driving component includes two electric push rods (38) fixed on the conveyor frame (1) and distance sensors (40) respectively fixed on two unloading frames (39). The copper-clad laminate (11) is movably attached to the unloading frame (39), and the distance sensor (40) is movably attached to the copper-clad laminate (11).

9. A conveying device for producing electrolytic copper flexible copper-clad laminates according to claim 1, characterized in that: The transmission components include a drive wheel (3) and a driven wheel (5) rotatably mounted on the conveyor frame (1), a motor (2) fixed on the conveyor frame (1), and two limiting strips (41). The drive wheel (3) and the driven wheel (5) are both connected to the conveyor belt (4). The drive wheel (3) is fixedly connected to the output shaft of the motor (2). The two limiting strips (41) are both in contact with the conveyor belt (4).

10. A conveying device for producing electrolytic copper flexible copper-clad laminates according to claim 1, characterized in that: The assembly / disassembly assembly includes two first screws (44) respectively set on multiple fixed frames (6) and two second screws (43) respectively set on multiple support plates (8). The spring member (7) has two first slots, and the two first screws (44) are movably engaged with the two first slots respectively. The spring member (7) has two second slots, and the two second screws (43) are movably engaged with the two second slots respectively. The two first screws (44) are threaded to the fixed frame (6), and the two second screws (43) are threaded to the support plate (8).

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