Splitting machine for electrolytic copper foil

Abstract

The utility model discloses a splitting machine for electrolytic copper foil, which belongs to the technical field of electrolytic copper foil production and comprises a frame, feeding shafts or rolling shafts are respectively connected with the lower sides of two ends of opposite surfaces of symmetrical side plates of the frame in a sliding manner, and a plurality of limiting shafts are arranged in the middles of two ends of the opposite surfaces of the symmetrical side plates of the frame. Electrolytic copper foil is slidably connected to the outer surfaces of the feeding shaft, the rolling shaft and the multiple limiting shafts, a sliding device is fixedly connected to the position, located on one side of one limiting shaft, of the opposite faces of symmetrical side plates of the frame, a cutting device is slidably connected to the upper end of the sliding device, and a cleaning device is fixedly connected to the middles of the upper ends of the symmetrical side plates of the frame. Through the multiple cutting devices and the sliding device, the cutting devices can be driven to move back and forth on the threaded shaft, a plurality of electrolytic copper foils can be freely cut at a time, the outer surfaces of the just cut electrolytic copper foils can be cleaned, and scratches are generated on the outer surface of the positioning shaft and the electrolytic copper foils in the later period.

Description

Technical Field

[0001] The utility model belongs to the technical field of electrolytic copper foil production, and particularly relates to a slitter for electrolytic copper foil. Background Art

[0002] Electrolytic copper foil is an important material for manufacturing copper clad laminates (CCL), printed circuit boards (PCB), and lithium-ion batteries. In the rapid development of today's electronic information industry, electrolytic copper foil is known as the "neural network" for signal and power transmission and communication in electronic products. Since 2002, the production value of printed circuit boards in China has ranked third in the world. As the substrate material for PCB - copper clad laminate, China has also become the third largest producer in the world, which has also led to the rapid development of China's electrolytic copper foil industry in recent years.

[0003] In the prior art, there is a slitter for electrolytic copper foil with the patent publication number CN220481803U. The above patent generates power through a motor and transmits it to a transmission rod. The transmission rod drives a rotating gear to rotate, enabling the cutting mechanism to move. The cutting mechanism is provided with two, and the cutting mechanism includes a second motor, an electric telescopic rod, a cutting blade block, a rotating gear, a transmission rod, and a third motor. However, there are still the following deficiencies in actual use: In reality, the cutting of the electrolytic copper foil may generate debris, which may scratch the outer surface of the electrolytic copper foil and affect the subsequent use of the electrolytic copper foil.

[0004] Therefore, a slitter for electrolytic copper foil is needed to solve the problems existing in the prior art. Summary of the Utility Model

[0005] The purpose of the utility model is to provide a slitter for electrolytic copper foil to solve the problems raised in the above background art.

[0006] To achieve the above purpose, the utility model provides the following technical solution: A slitter for electrolytic copper foil includes a frame. At the lower sides of the opposite ends of the symmetrical side plates of the frame, a feeding shaft or a winding shaft is respectively slidably connected. In the middle of the opposite ends of the symmetrical side plates of the frame, a number of limiting shafts are provided. An electrolytic copper foil is slidably connected to the outer surfaces of the feeding shaft, the winding shaft, and the number of limiting shafts. On one side of a limiting shaft on the opposite surfaces of the symmetrical side plates of the frame, a sliding device is fixedly connected. The upper end of the sliding device is slidably connected with a cutting device, and in the middle of the upper ends of the symmetrical side plates of the frame, a cleaning device is fixedly connected.

[0007] It should be noted in the solution that the sliding device includes a sliding plate. In the middle of the upper end of the sliding plate, a sliding groove is provided. In the middle of the front and rear ends of the sliding groove, a threaded shaft is provided, and guide columns are fixedly connected to the upper sides of the front and rear ends of the sliding groove.

[0008] Further, it is worth noting that the cutting device includes a number of sliders. Through holes are provided at the lower ends of the middles of the sliders. First limiting grooves are provided in the middles of the sliders. Second limiting grooves are provided on one side above the first limiting grooves of the sliders.

[0009] Furthermore, it needs to be noted that the through holes are all fitted and slidably connected to the outer surfaces of the threaded shafts. The outer surfaces of the middles of the threaded shafts are all threadedly connected to the inner surfaces of the first gear shafts. The outer surfaces of the first gear shafts are all meshed and connected to the inner surfaces of the lower ends of the first connecting belts. The outer surfaces of the first connecting belts are all fitted and slidably connected to the first limiting grooves. The inner surfaces of the upper ends of the first connecting belts are all meshed and connected to the outer surfaces of the second gear shafts. Third gear shafts are fixedly connected to one ends of the second gear shafts. The outer surfaces of the third gear shafts are all meshed and connected to the second connecting belts. The other ends of the second connecting belts are all meshed and connected to an output end of a servo motor. The other output ends of the servo motor are all meshed and connected to a driving shaft. A cutting blade is installed at the other end of the driving shaft.

[0010] As a preferred implementation manner, symmetric sliding holes are provided at the upper ends of the front and rear sides of the slider. The symmetric sliding holes are all fitted and slidably connected to the outer surfaces of the symmetric guide posts. A baffle is fixedly connected to the servo motor outside the cutting blade.

[0011] As a preferred implementation manner, the cleaning device includes a cleaning box. A collection bin is provided in the middle of the cleaning box. Second grooves are provided at the upper ends of the left and right sides of the collection bin. First grooves are provided at the upper ends of the front and rear sides of the collection bin. An air pump is provided at the outer end of the first groove at the rear side of the collection bin. Air inlet covers are provided on both sides of the air pump. A second filter screen is provided at the outer end of the first groove at the front side of the collection bin. A first filter plate is installed on the upper inner surface of the collection bin. Fixing plates are fixedly connected to the lower ends of the left and right inner surfaces of the collection bin on the lower side of the first filter plate.

[0012] As a preferred implementation manner, the diameter of the upper end of the filter holes of the first filter plate is larger than that of the lower end. The symmetric fixing plates are both in a downward arc shape.

[0013] Compared with the prior art, a slitter for electrolytic copper foil provided by the present utility model has at least the following beneficial effects:

[0014] (1) The output end of the servo motor of several cutting devices drives the rotation of the second connecting belt in meshing connection. The second connecting belt drives the rotation of the third gear shaft in meshing connection, that is, drives the rotation of the second gear shaft. The second gear shaft drives the rotation of the first connecting belt in meshing connection, that is, drives the rotation of the first gear shaft in meshing connection. Since the positions of the threaded shaft and the first gear shaft are restricted, when the first gear shaft rotates, it drives the cutting device to move back and forth on the threaded shaft. At the same time, several sliders are all fitted and threadedly connected to the threaded shaft of the sliding device, and the other output end of the servo motor drives the rotation of the driving shaft in meshing connection. The rotation of the driving shaft drives the rotation of the cutting blade, so that multiple electrolytic copper foils can be cut at one time freely, and the cutting device can be adjusted freely, thereby improving the cutting efficiency of the electrolytic copper foil.

[0015] (2) The air pump of the cleaning device drives the air flow to pass through the outer surface of the electrolytic copper foil just cut for cleaning, preventing debris from remaining on the outer surface of the electrolytic copper foil just cut, which may cause scratches on the outer surface of the later-stage limiting shaft and the electrolytic copper foil, thus affecting the later use of the electrolytic copper foil. The fixing plates fixedly connected to the inner surfaces on both sides of the collection bin are all in a downward arc shape, which can make the flow track of the air flow driven by the air pump unchanged, thereby increasing the practicability of the slitter for electrolytic copper foil. Brief Description of the Drawings

[0016] Figure 1 It is a front structural schematic diagram of the present utility model;

[0017] Figure 2 It is a sectional structural schematic diagram of the sliding device of the present utility model;

[0018] Figure 3 It is a sectional structural schematic diagram of the cutting device of the present utility model;

[0019] Figure 4 It is a sectional structural schematic diagram of the cleaning device of the present utility model Figure 1 ;

[0020] Figure 5 It is a sectional structural schematic diagram of the cleaning device of the present utility model Figure 2 .

[0021] In the figure: 1. Frame; 2. Feeding shaft; 3. Limiting shaft; 4. Cleaning device; 401. Cleaning box; 402. Collection bin; 403. First filter plate; 404. Fixed plate; 405. Air pump; 406. First groove; 407. Second filter screen; 408. Air inlet hood; 409. Second groove; 5. Coiling shaft; 6. Sliding device; 601. Sliding plate; 602. Sliding groove; 603. Threaded shaft; 604. Guide post; 7. Electrolytic copper foil; 8. Cutting device; 801. Slide block; 8011. Through hole; 8012. First limiting groove; 8013. Second limiting groove; 802. First connecting band; 803. First gear shaft; 804. Second gear shaft; 805. Third gear shaft; 806. Second connecting band; 807. Sliding hole; 808. Servo motor; 809. Driving shaft; 810. Cutting blade; 811. Baffle plate. Detailed implementation manner

[0022] The present utility model will be further described below in conjunction with embodiments.

[0023] Please refer to Figures 1-5 , the present utility model provides a slitter for electrolytic copper foil, including: a frame 1, the lower sides of the opposite ends of the symmetric side plates of the frame 1 are respectively slidably connected with a feeding shaft 2 or a coiling shaft 5, and several limiting shafts 3 are arranged in the middle of the opposite ends of the symmetric side plates of the frame 1, and an electrolytic copper foil 7 is slidably connected to the outer surfaces of the feeding shaft 2, the coiling shaft 5 and several limiting shafts 3, and a sliding device 6 is fixedly connected to one side of a limiting shaft 3 on the opposite side plates of the frame 1, the upper end of the sliding device 6 is slidably connected with a cutting device 8, and a cleaning device 4 is fixedly connected to the middle of the upper ends of the symmetric side plates of the frame 1.

[0024] Furthermore, as Figure 2 shown, specifically, the sliding device 6 includes a sliding plate 601, a sliding groove 602 is arranged in the middle of the upper end of the sliding plate 601, threaded shafts 603 are arranged in the middle of the front and rear ends of the sliding groove 602, and guide posts 604 are fixedly connected to the upper sides of the front and rear ends of the sliding groove 602. Through the sliding groove 602 and the symmetric guide posts 604 of the sliding device 6, the position and movement track of the slide block 801 of the cutting device 8 can be limited, and the left and right movement of the slide block 801 can be controlled through the threaded shaft 603.

[0025] Furthermore, as Figure 3As shown, it is worth specifically explaining that the cutting device 8 includes a number of sliders 801. A through hole 8011 is provided at the lower end of the middle part of each slider 801. A first limiting groove 8012 is provided in the middle of each slider 801. A second limiting groove 8013 is provided on one side above the first limiting groove 8012 of each slider 801. Through the symmetrical through holes 8011 of the sliders 801, the position and movement trajectory of the sliders 801 of the cutting device 8 are restricted. And through the first limiting groove 8012, the position of the first connecting belt 802 can be restricted. And through the second limiting groove 8013, the position and movement trajectory of the third gear shaft 805 are restricted.

[0026] The working process of this solution is as follows: First, one output end of the servo motor 808 of each cutting device 8 drives the meshing-connected second connecting belt 806 to rotate. The second connecting belts 806 drive the meshing-connected third gear shafts 805 to rotate, that is, drive the second gear shafts 804 to rotate. The second gear shafts 804 drive the meshing-connected first connecting belts 802 to rotate, that is, drive the meshing-connected first gear shafts 803 to rotate. Because the positions of the threaded shaft 603 and the first gear shaft 803 are restricted, when the first gear shaft 803 rotates, it drives the cutting device 8 to move back and forth on the threaded shaft 603. At the same time, a number of sliders 801 are all fitted and threadedly connected to the threaded shaft 603 of the sliding device 6. And the other output end of the servo motor 808 drives the meshing-connected driving shafts 809 to rotate. The rotation of the driving shafts 809 drives the cutting blades 810 to rotate. Then, the air pump 405 of the cleaning device 4 drives the air flow to pass through the outer surface of the just-cut electrolytic copper foil 7 for cleaning, and blows the debris on the outer surface of the just-cut electrolytic copper foil 7 into the collection bin 402.

[0027] According to the above working process, it can be known that: Through the sliding groove 602 and the symmetrical guide posts 604 of the sliding device 6, the position and movement trajectory of the sliders 801 of the cutting device 8 can be restricted. And through the threaded shaft 603, the left and right movement of the sliders 801 can be controlled. Through the symmetrical through holes 8011 of the sliders 801, the position and movement trajectory of the sliders 801 of the cutting device 8 are restricted. And through the first limiting groove 8012, the position of the first connecting belt 802 can be restricted. And through the second limiting groove 8013, the position and movement trajectory of the third gear shaft 805 are restricted.

[0028] Further, as Figure 3As shown, it is worth specifically stating that the through holes 8011 are all fitted and slidably connected to the outer surface of the threaded shaft 603. The middle outer surface of the threaded shaft 603 is threadedly connected to the inner surface of the first gear shaft 803. The outer surfaces of the first gear shafts 803 are all meshed and connected to the inner surface of the lower end of the first connecting belt 802. The outer surfaces of the first connecting belts 802 are all fitted and slidably connected to the first limiting grooves 8012. And the inner surfaces of the upper ends of the first connecting belts 802 are all meshed and connected to the outer surfaces of the second gear shafts 804. One end of each of the second gear shafts 804 is fixedly connected to a third gear shaft 805. The outer surfaces of the third gear shafts 805 are all meshed and connected to a second connecting belt 806. The other ends of the second connecting belts 806 are all meshed and connected to an output end of a servo motor 808. The other output ends of the servo motors 808 are all meshed and connected to a driving shaft 809. A cutting blade 810 is installed at the other end of the driving shaft 809. By means of an output end of each of the servo motors 808 of a plurality of cutting devices 8, the second connecting belts 806 engaged and connected are driven to rotate. The second connecting belts 806 all drive the third gear shafts 805 engaged and connected to rotate, that is, drive the second gear shafts 804 to rotate. The second gear shafts 804 all drive the first connecting belts 802 engaged and connected to rotate, that is, drive the first gear shafts 803 engaged and connected to rotate. Because the positions of the threaded shaft 603 and the first gear shaft 803 are restricted, the first gear shaft 803 rotates. And at the same time, a plurality of sliders 801 are all fitted and threadedly connected to the threaded shaft 603 of the sliding device 6. And the other output ends of the servo motors 808 all drive the driving shafts 809 engaged and connected to rotate. The rotation of the driving shafts 809 all drives the cutting blades 810 to rotate. Thus, multiple electrolytic copper foils 7 can be cut at one time freely, and the cutting device 8 can be adjusted freely, thereby improving the cutting efficiency of the electrolytic copper foil 7.

[0029] Further, as Figure 3 shown, it is worth specifically stating that symmetric sliding holes 807 are provided at the upper ends of the front and rear sides of the slider 801. The symmetric sliding holes 807 are all fitted and slidably connected to the outer surface of the symmetric guide posts 604. And a baffle 811 is fixedly connected to the servo motor 808 outside the cutting blade 810. By means of the symmetric sliding holes 807 being fitted and sliding on the outer surface of the symmetric guide posts 604, the stability of the operation of the slider 801 is further increased.

[0030] Further, as Figure 4 and Figure 5As shown, it is worth specifically explaining that the cleaning device 4 includes a cleaning box 401. A collection bin 402 is provided in the middle of the cleaning box 401. Second grooves 409 are provided at the upper ends of the left and right sides of the collection bin 402, and first grooves 406 are provided at the upper ends of the front and rear sides of the collection bin 402. An air pump 405 is provided at the outer end of the first groove 406 on the rear side of the collection bin 402. Air inlet covers 408 are provided on both sides of the air pump 405. A second filter screen 407 is provided at the outer end of the first groove 406 on the front side of the collection bin 402. A first filter plate 403 is installed at the upper end of the inner surface of the collection bin 402. Fixed plates 404 are fixedly connected to the inner surfaces of the left and right sides of the collection bin 402 at the lower end of the first filter plate 403. The air pump 405 of the cleaning device 4 drives the air flow to pass through the outer surface of the just-cut electrolytic copper foil 7 for cleaning, preventing debris from remaining on the outer surface of the just-cut electrolytic copper foil 7, which may cause scratches on the outer surface of the later limiting shaft 3 and the electrolytic copper foil 7, thus affecting the use of the later electrolytic copper foil 7.

[0031] Further as Figure 4 shown, it is worth specifically explaining that the diameter of the upper end of the filter holes of the first filter plate 403 is larger than that of the lower end, and the symmetric fixed plates 404 are both in a downward arc shape. Through the shape of the filter holes of the first filter plate 403 and the fact that the fixed plates 404 fixedly connected to the inner surfaces on both sides of the collection bin 402 are both in a downward arc shape, the flow trajectory of the air flow driven by the air pump 405 will not be changed, thereby increasing the practicability of the slitter for electrolytic copper foil.

[0032] In summary: First, one output end of the servo motor 808 of each cutting device 8 drives the rotation of the second connecting belt 806 engaged therewith. The second connecting belt 806 drives the rotation of the third gear shaft 805 engaged therewith, that is, drives the rotation of the second gear shaft 804. The second gear shaft 804 drives the rotation of the first connecting belt 802 engaged therewith, that is, drives the rotation of the first gear shaft 803 engaged therewith. Since the positions of the threaded shaft 603 and the first gear shaft 803 are restricted, the rotation of the first gear shaft 803 drives the cutting device 8 to move back and forth on the threaded shaft 603. At the same time, a plurality of sliders 801 are all fitted and threadedly connected to the threaded shaft 603 of the sliding device 6, and the other output end of the servo motor 808 drives the rotation of the drive shaft 809 engaged therewith. The rotation of the drive shaft 809 drives the rotation of the cutting blade 810. Then, the air pump 405 of the cleaning device 4 drives the air flow to pass through the outer surface of the electrolytic copper foil 7 that has just been cut for cleaning, and blows the debris existing on the outer surface of the just-cut electrolytic copper foil 7 into the collection bin 402. By one output end of the servo motor 808 of each cutting device 8 driving the rotation of the second connecting belt 806 engaged therewith, the second connecting belt 806 drives the rotation of the third gear shaft 805 engaged therewith, that is, drives the rotation of the second gear shaft 804. The second gear shaft 804 drives the rotation of the first connecting belt 802 engaged therewith, that is, drives the rotation of the first gear shaft 803 engaged therewith. Since the positions of the threaded shaft 603 and the first gear shaft 803 are restricted, the first gear shaft 803 rotates. At the same time, a plurality of sliders 801 are all fitted and threadedly connected to the threaded shaft 603 of the sliding device 6, and the other output end of the servo motor 808 drives the rotation of the drive shaft 809 engaged therewith. The rotation of the drive shaft 809 drives the rotation of the cutting blade 810. Thus, multiple electrolytic copper foils 7 can be cut at one time freely, and the cutting device 8 can be adjusted freely, thereby improving the cutting efficiency of the electrolytic copper foil 7. By the symmetric sliding holes 807 fittingly sliding on the outer surface of the symmetric guide posts 604, the stability of the operation of the sliders 801 is further increased. By the air pump 405 of the cleaning device 4 driving the air flow to pass through the outer surface of the electrolytic copper foil 7 that has just been cut for cleaning, it is prevented that debris exists on the outer surface of the just-cut electrolytic copper foil 7, resulting in scratches on the outer surface of the later limiting shaft 3 and the electrolytic copper foil 7, thereby affecting the later use of the electrolytic copper foil 7. By the shape of the filter holes of the first filter plate 403 and the fixing plates 404 fixedly connected to the inner surfaces on both sides of the collection bin 402 being both in a downward arc shape, the flow track of the air flow driven by the air pump 405 will not be changed, thereby increasing the practicability of the slitter for electrolytic copper foil.

[0033] The basic principles, main features and advantages of the present invention have been shown and described above. Those skilled in the art should understand that the present invention is not limited by the above embodiments. What is described in the above embodiments and the specification is only the principle of the present invention. Without departing from the spirit and scope of the present invention, various changes and improvements will occur to the present invention, and these changes and improvements all fall within the scope of the present invention claimed. The scope of protection claimed by the present invention is defined by the appended claims and their equivalents.

Claims

1. A slitter for electrolytic copper foil, comprising a frame (1), characterized in that: At the lower sides of both ends of the opposite surfaces of the symmetric side plates of the frame (1), a feeding shaft (2) or a coiling shaft (5) is respectively slidably connected. In the middle of both ends of the opposite surfaces of the symmetric side plates of the frame (1), a number of limiting shafts (3) are provided. The outer surfaces of the feeding shaft (2), the coiling shaft (5) and the number of limiting shafts (3) are slidably connected with electrolytic copper foil (7). On one side of a limiting shaft (3) on the opposite surfaces of the symmetric side plates of the frame (1), a sliding device (6) is fixedly connected. The upper end of the sliding device (6) is slidably connected with a cutting device (8). In the middle of the upper ends of the symmetric side plates of the frame (1), a cleaning device (4) is fixedly connected.

2. The slitter for electrolytic copper foil according to claim 1, wherein: The sliding device (6) includes a sliding plate (601). In the middle of the upper end of the sliding plate (601), a sliding groove (602) is provided. In the middle of the front and rear ends of the sliding groove (602), a threaded shaft (603) is provided. On the upper sides of the front and rear ends of the sliding groove (602), a guide post (604) is fixedly connected.

3. The slitter for electrolytic copper foil according to claim 1, wherein: The cutting device (8) includes a number of sliders (801). Through holes (8011) are provided at the lower ends of the middles of the sliders (801). First limiting grooves (8012) are provided in the middles of the sliders (801). Second limiting grooves (8013) are provided on one side above the first limiting grooves (8012) of the sliders (801).

4. The slitter for electrolytic copper foil according to claim 3, characterized in that: The through holes (8011) are all fitted and slidably connected with the outer surfaces of the threaded shafts (603). The inner surfaces of the first gear shafts (803) are threadedly connected with the outer surfaces of the middles of the threaded shafts (603). The lower inner surfaces of the first connection belts (802) are meshed and connected with the outer surfaces of the first gear shafts (803). The outer surfaces of the first connection belts (802) are all fitted and slidably connected with the first limiting grooves (8012). The outer surfaces of the second gear shafts (804) are meshed and connected with the upper inner surfaces of the first connection belts (802). One end of each of the second gear shafts (804) is fixedly connected with a third gear shaft (805). The outer surfaces of the third gear shafts (805) are meshed and connected with second connection belts (806). The other ends of the second connection belts (806) are meshed and connected to an output end of a servo motor (808). The other output end of the servo motor (808) is meshed and connected with a driving shaft (809). A cutting blade (810) is installed at the other end of the driving shaft (809).

5. The slitter for electrolytic copper foil according to claim 4, characterized in that: Symmetric sliding holes (807) are provided at the upper ends of the front and rear sides of the slider (801). The symmetric sliding holes (807) are all fitted and slidably connected with the outer surfaces of the symmetric guide posts (604). A baffle (811) is fixedly connected to the servo motor (808) outside the cutting blade (810).

6. The slitter for electrolytic copper foil according to claim 1, wherein: The cleaning device (4) includes a cleaning box (401). A collection bin (402) is provided in the middle of the cleaning box (401). Second grooves (409) are provided at the upper ends of the left and right sides of the collection bin (402), and first grooves (406) are provided at the upper ends of the front and rear sides of the collection bin (402). An air pump (405) is provided at the outer end of the first groove (406) on the rear side of the collection bin (402). Air inlet covers (408) are provided on both sides of the air pump (405). A second filter screen (407) is provided at the outer end of the first groove (406) on the front side of the collection bin (402). A first filter plate (403) is installed at the upper end of the inner surface of the collection bin (402). Fixed plates (404) are fixedly connected to the lower ends of the left and right inner surfaces of the collection bin (402) and are located below the first filter plate (403).

7. A slitter for electrolytic copper foil according to claim 6, characterized in that: The diameter of the upper end of the filter holes of the first filter plate (403) is larger than that of the lower end, and the symmetric fixed plates (404) are both in a downward arc shape.

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