Processing device for regenerating copper strip by using copper pipe waste

Abstract

The utility model provides a processing device for regenerating a copper strip by using copper pipe waste. The device comprises a mounting bracket; the feeding mechanism is arranged on the mounting bracket; the pressing wheel mechanism is arranged on the mounting bracket, is close to the feeding mechanism guide mechanism, is arranged on the mounting bracket and is close to the pressing wheel mechanism; the edge cutting mechanism is arranged on the mounting bracket and is close to the guide mechanism; the deburring mechanism is arranged on the mounting bracket and is close to the trimming mechanism; the copper strip receiving disc is arranged on the mounting bracket and is close to the deburring mechanism; the waste material collecting disc is arranged on the mounting bracket and is close to the edge cutting mechanism; and the driving mechanism is arranged on the mounting bracket and is connected with the pressing wheel mechanism, the trimming mechanism and the deburring mechanism through a synchronous chain. Compared with a traditional smelting recovery method, the processing device disclosed by the utility model avoids a high-energy-consumption smelting process through a physical processing mode, so that the processing cost is remarkably reduced.

Description

Technical Field

[0001] The utility model relates to the technical field of copper strip manufacturing, in particular to a copper strip processing device for regenerating copper strips from copper pipe waste materials. Background Art

[0002] In modern industrial production, copper pipes, as an important metal material, are widely used in industries such as electricity, refrigeration, and construction. However, during the production, processing, and use of copper pipes, a large amount of waste materials will be generated. If these waste materials cannot be effectively recycled, it will not only cause waste of resources but also pollute the environment. Traditional methods for treating copper pipe waste materials mostly involve smelting and recycling. However, this method has high energy consumption, high costs, and is prone to generating harmful gases during the smelting process, causing secondary pollution to the environment. Content of the Utility Model

[0003] The utility model aims to at least solve the technical problem of high cost in copper waste material treatment in the prior art, and particularly innovatively provides a copper strip processing device for regenerating copper strips from copper pipe waste materials.

[0004] To achieve the above object of the utility model, the utility model provides a copper strip processing device for regenerating copper strips from copper pipe waste materials, and the device includes:

[0005] An installation bracket;

[0006] A feeding mechanism, arranged on the installation bracket;

[0007] A pressing wheel mechanism, arranged on the installation bracket and close to the feeding mechanism;

[0008] A guiding mechanism, arranged on the installation bracket and close to the pressing wheel mechanism;

[0009] A trimming mechanism, arranged on the installation bracket and close to the guiding mechanism;

[0010] A deburring mechanism, arranged on the installation bracket and close to the trimming mechanism;

[0011] A copper strip collecting tray, arranged on the installation bracket and close to the deburring mechanism;

[0012] A waste material collecting tray, arranged on the installation bracket and close to the trimming mechanism;

[0013] A driving mechanism, arranged on the installation bracket and connected to the pressing wheel mechanism, the trimming mechanism, and the deburring mechanism through a synchronous chain.

[0014] As an optional embodiment of this embodiment, optionally, the feeding mechanism includes:

[0015] The base is arranged on the mounting bracket;

[0016] The guide seat is arranged on the base;

[0017] The guide sleeve is arranged in the guide seat.

[0018] As an alternative embodiment of this embodiment, optionally, the pressing wheel mechanism includes:

[0019] The first pressing wheel frame is arranged on the mounting bracket;

[0020] The first upper pressing wheel assembly is arranged on the first pressing wheel frame;

[0021] The first lower pressing wheel assembly is arranged on the first pressing wheel frame and cooperates with the first upper pressing wheel assembly;

[0022] The first gear disc is arranged on one side of the first lower pressing wheel assembly and is connected to the driving mechanism through the synchronous chain;

[0023] The first handwheel screw rod is movably arranged on the first pressing wheel frame, and the output end of the first handwheel screw rod is fixedly connected to the first upper pressing wheel assembly;

[0024] The first guide post is arranged on the first pressing wheel frame.

[0025] As an alternative embodiment of this embodiment, optionally, the guiding mechanism includes:

[0026] The guide frame is arranged on the mounting bracket;

[0027] The screw rod assembly is arranged on the guide frame;

[0028] The guide wheel assembly is arranged on the guide frame.

[0029] As an alternative embodiment of this embodiment, optionally, the edge trimming mechanism includes:

[0030] The second pressing wheel frame is arranged on the mounting bracket;

[0031] The second upper pressing wheel assembly is arranged on the second pressing wheel frame;

[0032] The second lower pressing wheel assembly is arranged on the second pressing wheel frame and cooperates with the second upper pressing wheel assembly;

[0033] The second gear disc is arranged on one side of the second lower pressing wheel assembly and is connected to the driving mechanism through the synchronous chain;

[0034] The second handwheel screw rod is movably arranged on the second pressing wheel frame, and the output end of the second handwheel screw rod is fixedly connected to the second upper pressing wheel assembly;

[0035] The second guide post is disposed on the second pressure wheel frame.

[0036] As an alternative embodiment of this embodiment, optionally, the second upper pressure wheel assembly includes a concave wheel, the second lower pressure wheel assembly includes a cam, and the concave wheel cooperates with the cam.

[0037] As an alternative embodiment of this embodiment, optionally, the deburring mechanism includes:

[0038] A fixed seat disposed on the mounting bracket;

[0039] A double support wheel disposed on the fixed seat;

[0040] A hand wheel movably disposed on the fixed seat;

[0041] A fixed rod movably disposed on the fixed seat and movably connected to the hand wheel;

[0042] A first grinding wheel fixedly provided on the fixed rod

[0043] A second grinding wheel movably disposed on the fixed seat and connected to the driving mechanism through the synchronous chain.

[0044] The beneficial effects of the present utility model are as follows. Compared with the traditional smelting and recycling method, the processing device of the present utility model avoids the high-energy-consuming smelting process through physical processing methods, thereby significantly reducing the processing cost. Since the processing device of the present utility model does not involve the smelting process, no harmful gases will be generated, reducing the secondary pollution to the environment. The present utility model can effectively process copper tube waste into copper strips, improving the utilization rate of copper resources and helping to alleviate the problem of resource shortage. By providing multiple processing mechanisms, such as a pressure wheel mechanism, a trimming mechanism, and a deburring mechanism, etc., the present utility model can continuously complete the processing process of copper strips, greatly improving the processing efficiency.

[0045] The additional aspects and advantages of the present utility model will be partially given in the following description, partially become obvious from the following description, or be understood through the practice of the present utility model. BRIEF DESCRIPTION OF THE DRAWINGS

[0046] The above and / or additional aspects and advantages of the present utility model will become obvious and easy to understand from the description of the embodiments in conjunction with the following drawings, wherein:

[0047] Figure 1 is a schematic structural diagram of the present utility model.

[0048] Figure 2 is a schematic structural diagram of the feeding mechanism of the present utility model.

[0049] Figure 3 It is a schematic structural diagram of the pressing wheel mechanism of the present utility model.

[0050] Figure 4 It is a schematic structural diagram of the guiding mechanism of the present utility model.

[0051] Figure 5 It is a schematic structural diagram of the edge cutting mechanism of the present utility model.

[0052] Figure 6 It is a schematic structural diagram of the deburring mechanism of the present utility model.

[0053] Figure 7 It is an enlarged view of part A of the present utility model.

[0054] Figure 8 It is an enlarged view of part B of the present utility model.

[0055] In the figure: 1. Installation bracket, 2. Feeding mechanism, 201. Base, 202. Guide seat, 203. Guide sleeve, 3. Pressing wheel mechanism, 301. First pressing wheel frame, 302. First upper pressing wheel assembly, 303. First lower pressing wheel assembly, 304. First gear disk, 305. First handwheel screw rod, 306. First guide post, 4. Guiding mechanism, 401. Guide frame, 402. Screw rod assembly, 403. Guide wheel assembly, 5. Edge cutting mechanism, 501. Second pressing wheel frame, 502. Second upper pressing wheel assembly, 503. Second lower pressing wheel assembly, 504. Second gear disk, 505. Second handwheel screw rod, 506. Second guide post, 6. Deburring mechanism, 601. Fixed seat, 602. Double support wheels, 603. Handwheel, 604. Fixed rod, 605. First grinding wheel, 606. Second grinding wheel, 7. Copper strip winding reel, 8. Waste winding reel, 9. Driving mechanism, 10. Synchronous chain. Detailed implementation manners

[0056] The embodiments of the present utility model will be described in detail below. The examples of the embodiments are shown in the drawings, wherein the same or similar reference numerals denote the same or similar elements or elements having the same or similar functions throughout. The embodiments described below with reference to the drawings are exemplary only for explaining the present utility model and should not be construed as limiting the present utility model.

[0057] As Figure 1 shown, a copper strip processing device for recycling copper from copper pipe waste includes:

[0058] An installation bracket 1;

[0059] A feeding mechanism 2, disposed on the installation bracket 1; As Figure 2As shown in the figure, the feeding mechanism 2 includes a base 201, a guide seat 202 and a guide sleeve 203. The base 201 is fixed on the mounting bracket 1 by welding. In this embodiment, three guide seats 202 and guide sleeves 203 are installed on the top of the base 201. The guide seat 202 is welded to the base 201, and the guide sleeve 203 is clamped in the guide sleeve 203. The diameter of the guide sleeve 203 gradually decreases from large to small, forming a stepped guide channel. When the copper tube passes through the three guide sleeves 203 in sequence, the copper tube can be straightened and guided into the pressure wheel mechanism 3. The combined use of the guide seat 202 and the guide sleeve 203 ensures the stability and accuracy of the copper tube when it enters the processing device.

[0060] The pressure wheel mechanism 3 is arranged on the mounting bracket 1 and close to the feeding mechanism 2; as Figure 3 shown in the figure, the pressure wheel mechanism 3 includes a first pressure wheel frame 301, a first upper pressure wheel assembly 302, a first lower pressure wheel assembly 303, a first gear disk 304, a first handwheel screw rod 305 and a first guide post 306. The first pressure wheel frame 301 is fixed on the mounting bracket 1. The first upper pressure wheel assembly 302 and the first lower pressure wheel assembly 303 are respectively installed at the top and bottom of the first pressure wheel frame 301. By adjusting the first upper pressure wheel assembly 302 with the first handwheel screw rod 305, the pressure between the first upper pressure wheel assembly 302 and the first lower pressure wheel assembly 303 can be controlled to adapt to copper tubes of different diameters. The first gear disk 304 is connected to the driving mechanism 9 and drives the first upper pressure wheel assembly 302 to rotate through the synchronous chain 10 to realize the continuous conveying and processing of the copper tube. The first guide post 306 ensures the stability of the first pressure wheel frame 301 during the processing.

[0061] The guiding mechanism 4 is arranged on the mounting bracket 1 and close to the pressure wheel mechanism 3; as Figure 4 shown in the figure, the guiding mechanism 4 includes a guide frame 401, a screw rod assembly 402 and a guide wheel assembly 403. The guide frame 401 is fixed on the mounting bracket 1. The screw rod assembly 402 is installed on the guide frame 401 by threaded connection and can adjust the position of the guide wheel assembly 403 to adapt to copper tubes of different lengths and shapes.

[0062] The edge cutting mechanism 5 is arranged on the mounting bracket 1 and close to the guiding mechanism 4; as Figure 5The shown trimming mechanism 5 includes a second pressure wheel frame 501, a second upper pressure wheel assembly 502, a second lower pressure wheel assembly 503, a second gear disc 504, a second handwheel screw rod 505 and a second guide post 506. The second pressure wheel frame 501 is fixed on the mounting bracket 1, and the second upper pressure wheel assembly 502 and the second lower pressure wheel assembly 503 are respectively installed at the top and bottom of the second pressure wheel frame 501. By adjusting the second handwheel screw rod 505, the pressure between the second upper pressure wheel assembly 502 and the second lower pressure wheel assembly 503 can be controlled to adapt to copper tubes of different diameters. The second upper pressure wheel assembly 502 includes a concave wheel, and the second lower pressure wheel assembly 503 includes a cam. When the flattened copper tube passes through the second upper pressure wheel assembly 502 and the second lower pressure wheel assembly 503, the cooperation of the concave wheel and the cam can achieve uniform flattening and trimming of the copper tube. The second gear disc 504 is connected to the driving mechanism 9, and drives the rotation of the second upper pressure wheel assembly 502 through the synchronous chain 10 to ensure the continuity and stability of the copper tube during the trimming process. The second guide post 506 ensures the stability of the second pressure wheel frame 501 during the processing.

[0063] The deburring mechanism 6 is arranged on the mounting bracket 1 and is close to the trimming mechanism 5; as Figure 6 shown, the deburring mechanism 6 includes a fixed seat 601, double support wheels 602, a handwheel 603, a fixed rod 604, a first grinding wheel 605 and a second grinding wheel 606. The fixed seat 601 is fixed on the mounting bracket 1, and the double support wheels 602 are fixed on the fixed seat 601 to provide stable support. The handwheel 603 is movably installed on the fixed seat 601. By rotating the handwheel 603, the position of the fixed rod 604 can be adjusted, thereby adjusting the contact pressure between the first grinding wheel 605 and the second grinding wheel 606 and the copper strip. The first grinding wheel 605 is installed at the end of the fixed rod 604, and the second grinding wheel 606 is fixed on the fixed seat 601 and is connected to the driving mechanism 9 through the synchronous chain 10 to realize the rotation of the second grinding wheel 606, thereby removing the burrs on the surface of the copper strip.

[0064] The copper strip collecting tray 7 is arranged on the mounting bracket 1 and is close to the deburring mechanism 6; as Figure 1 shown, the copper strip collecting tray 7 is used to collect the processed copper strip.

[0065] The waste collecting tray 8 is arranged on the mounting bracket 1 and is close to the trimming mechanism 5; as Figure 1 shown, the waste collecting tray 8 is used to collect the waste generated during the processing.

[0066] The driving mechanism 9 is arranged on the mounting bracket 1 and is connected to the pressure wheel mechanism 3, the trimming mechanism 5 and the deburring mechanism 6 through the synchronous chain 10. As Figure 1As shown, the driving mechanism 9 is a reduction motor, which transmits power to each mechanism through the synchronous chain 10 to ensure the coordinated operation of the entire device. The synchronous chain 10 connects the driving mechanism 9 with the pressing wheel mechanism 3, the edge trimming mechanism 5 and the deburring mechanism 6. The synchronous chain 10 has high transmission accuracy and load-bearing capacity, and can ensure the stability and reliability of the device during long-term operation.

[0067] During use, the copper tube is manually placed into the feeding mechanism 2 by the staff for straightening and centering. The staff then manually pulls the copper tube through the pressing wheel mechanism 3, starts the pressing wheel mechanism 3 to press the copper tube into a flat shape, starts the reduction motor to slowly pass the flattened copper tube through the guiding mechanism 4 and the edge trimming mechanism 5, turns off the reduction motor, and starts the edge trimming function of the edge trimming mechanism 5 to cut off both sides of the flattened copper tube. The copper tube is then divided into three parts, with copper strips on the top and bottom and waste on both sides. Start the reduction motor at a very low speed to pass the copper strip through the deburring mechanism 6, and then fix the copper strip on the reel of the copper strip collecting tray 7 and the waste on the reel of the waste collecting tray 8. At the same time, start the reduction motor and the collecting tray motor, so that the copper strip and the waste can be collected into their respective collecting trays. The collecting tray motor is driven by a motor with a tension controller.

[0068] As Figures 1 to 5 shown, in summary, in this embodiment, first, the copper tube waste is straightened by the feeding mechanism 2 and guided into the pressing wheel mechanism 3, and then the pressing wheel mechanism 3 continuously conveys and flattens the copper tube. Next, the guiding mechanism 4 further guides and positions the flattened copper tube to ensure that it can be accurately trimmed in the edge trimming mechanism 5. The trimmed copper strip enters the deburring mechanism 6, and the burrs on the surface are removed by the rotation of the grinding wheel. Finally, the copper strip is collected on the copper strip collecting tray 7, while the waste is collected in the waste collecting tray 8. The design of the entire device fully considers the processing efficiency and operation convenience. For example, both the pressing wheel mechanism 3 and the edge trimming mechanism 5 are equipped with handwheel screws, enabling the operator to easily adjust the pressure according to the diameter and thickness of the copper tube, so as to adapt to copper tube waste of different specifications. In addition, the screw assembly 402 of the guiding mechanism 4 allows flexible adjustment of the position of the guiding wheel assembly 403 to adapt to copper tubes of different lengths and shapes, ensuring smoothness during the processing. The driving mechanism 9, as the power core of the device, evenly transmits power to each working mechanism through the synchronous chain 10, ensuring the continuity and stability of the entire processing process. The use of the synchronous chain 10 not only improves the transmission efficiency but also reduces the maintenance cost, ensuring the reliability of the device during long-term operation. The copper tube waste recycling copper strip processing device of this embodiment. Through reasonable structural design and precise processing control, this device can effectively convert copper tube waste into high-quality copper strip products, while reducing the generation of waste, having significant economic benefits and environmental protection value, and avoiding the high-energy-consuming smelting process, thus significantly reducing the processing cost.

[0069] As an alternative embodiment of this embodiment, optionally, the feeding mechanism 2 includes:

[0070] A base 201, disposed on the mounting bracket 1;

[0071] A guide seat 202, disposed on the base 201;

[0072] A guide sleeve 203, disposed within the guide seat 202.

[0073] As Figure 2 shown, the staff first inserts the copper tube into the guide sleeve 203 and forces the copper tube into the second and third guide sleeves 203. After passing through the first, second, and third guide sleeves 203, the copper tube will be straightened, and then the straightened copper tube is sent to the pressing wheel mechanism 3 for flattening. Through the straightening and guiding of the feeding mechanism 2, the copper tube waste can smoothly enter the pressing wheel mechanism 3.

[0074] As an alternative embodiment of this embodiment, optionally, the pressing wheel mechanism 3 includes:

[0075] A first pressing wheel frame 301, disposed on the mounting bracket 1;

[0076] A first upper pressing wheel assembly 302, disposed on the first pressing wheel frame 301;

[0077] A first lower pressing wheel assembly 303, disposed on the first pressing wheel frame 301 and cooperating with the first upper pressing wheel assembly 302;

[0078] A first gear disk 304, disposed on one side of the first lower pressing wheel assembly 303 and connected to the driving mechanism 9 through the synchronous chain 10;

[0079] A first handwheel screw rod 305, movably disposed on the first pressing wheel frame 301, and the output end of the first handwheel screw rod 305 is movably connected to the first upper pressing wheel assembly 302;

[0080] A first guide post 306, disposed on the first pressing wheel frame 301.

[0081] As Figure 3 and 7As shown in the figure, when the straightened copper tube enters the pressing wheel mechanism 3, the rotating first lower pressing wheel assembly 303 brings the copper tube into the space between the first upper pressing wheel assembly 302 and the first lower pressing wheel assembly 303, and the first upper pressing wheel assembly 302 and the first lower pressing wheel assembly 303 flatten the copper tube. The first gear disk 304 is connected to the driving mechanism 9, and the first lower pressing wheel assembly 303 is driven to rotate through the synchronous chain 10 to ensure the continuity and stability of the copper tube during the flattening process. The first guide post 306 ensures the stability of the first pressing wheel frame 301 during the processing. The first handwheel screw rod 305 is used to adjust the pressure between the first upper pressing wheel assembly 302 and the first lower pressing wheel assembly 303 to adapt to copper tube waste with different thicknesses and diameters. By rotating the first handwheel screw rod 305, the operator can easily adjust the distance between the upper pressing wheel and the lower pressing wheel, thereby achieving an accurate flattening effect.

[0082] As an alternative embodiment of this embodiment, optionally, the guiding mechanism 4 includes:

[0083] A guiding frame 401, arranged on the mounting bracket 1;

[0084] A screw rod assembly 402, arranged on the guiding frame 401;

[0085] A guiding wheel assembly 403, arranged on the guiding frame 401.

[0086] As Figure 4 shown in the figure, after the copper tube is flattened by the pressing wheel mechanism 3, it enters the guiding mechanism 4, and the guiding wheel assembly 403 of the guiding mechanism 4 further guides and positions the copper tube. The screw rod assembly 402 allows the operator to adjust the position of the guiding wheel assembly 403 according to needs to adapt to copper tubes with different lengths and shapes. The flexible adjustment of the guiding wheel assembly 403 ensures the precise positioning of the copper tube in the edge trimming mechanism 5, thereby achieving a high-quality edge trimming effect.

[0087] As an alternative embodiment of this embodiment, optionally, the edge trimming mechanism 5 includes:

[0088] A second pressing wheel frame 501, arranged on the mounting bracket 1;

[0089] A second upper pressing wheel assembly 502, arranged on the second pressing wheel frame 501;

[0090] A second lower pressing wheel assembly 503, arranged on the second pressing wheel frame 501 and cooperating with the second upper pressing wheel assembly 502;

[0091] A second gear disk 504, arranged on one side of the second lower pressing wheel assembly 503 and connected to the driving mechanism 9 through the synchronous chain 10;

[0092] The second handwheel screw rod 505 is movably arranged on the second pressure wheel frame 501, and the output end of the second handwheel screw rod 505 is movably connected to the second upper pressure wheel assembly 502;

[0093] The second guide post 506 is arranged on the second pressure wheel frame 501.

[0094] As Figure 5 shown, when the copper tube enters the edge trimming mechanism 5 through the guiding mechanism 4, the rotating second lower pressure wheel assembly 503 drives the copper tube into the space between the second upper pressure wheel assembly 502 and the second lower pressure wheel assembly 503. The concave wheel of the second upper pressure wheel assembly 502 and the cam of the second lower pressure wheel assembly 503 are used to perform precise edge trimming on the copper tube. The second gear disc 504 is connected to the driving mechanism 9, and drives the second lower pressure wheel assembly 503 to rotate through the synchronous chain 10, ensuring the continuity and stability of the copper tube during the edge trimming process. The second guide post 506 ensures the stability of the second pressure wheel frame 501 during the processing. The second handwheel screw rod 505 is used to adjust the pressure between the second upper pressure wheel assembly 502 and the second lower pressure wheel assembly 503 to adapt to copper tube scraps with different thicknesses and diameters. By rotating the second handwheel screw rod 505, the operator can easily adjust the distance between the upper pressure wheel and the lower pressure wheel, thereby achieving precise edge trimming effect.

[0095] As an optional embodiment of this embodiment, optionally, the second upper pressure wheel assembly 502 includes a concave wheel, the second lower pressure wheel assembly 503 includes a cam, and the concave wheel cooperates with the cam.

[0096] As Figure 5 and 8 shown, in the copper tube scrap regenerated copper strip processing device, the cooperative design of the concave wheel and the cam is the key to achieving precise edge trimming. The concave wheel is arranged on the second upper pressure wheel assembly 502, while the cam is located on the second lower pressure wheel assembly 503. This design enables the copper tube to be accurately positioned and fixed when passing through the pressure wheel mechanism, thereby ensuring the accuracy and consistency of edge trimming. Specifically, when the copper tube is fed into the edge trimming mechanism 5, the cam part of the second lower pressure wheel assembly 503 closely cooperates with the concave wheel part of the second upper pressure wheel assembly 502 to form a precise shearing area. As the second lower pressure wheel assembly 503 rotates, the cam part pushes the copper tube towards the concave wheel part, causing the copper tube to be precisely cut in the shearing area. This cooperative design not only improves the accuracy of edge trimming, but also reduces material waste, ensuring the efficient utilization of copper tube scraps.

[0097] As an optional embodiment of this embodiment, optionally, the deburring mechanism 6 includes:

[0098] A fixed seat 601, arranged on the mounting bracket 1;

[0099] The double support wheels 602 are arranged on the fixed seat 601;

[0100] The hand wheel 603 is movably arranged on the fixed seat 601;

[0101] The fixed rod 604 is movably arranged on the fixed seat 601 and is movably connected to the hand wheel 603;

[0102] The first grinding wheel 605 is fixedly arranged on the fixed rod 604

[0103] The second grinding wheel 606 is movably arranged on the fixed seat 601 and is connected to the driving mechanism 9 through the synchronous chain 10.

[0104] As Figure 6 shown, after the copper tube is trimmed, its waste is directly collected through the waste collection tray 8. The two copper strips after trimming are separated after passing through the double support wheels 602, and respectively pass through the top and bottom of the second grinding wheel 606, that is, the two gaps between the two different first grinding wheels 605 and the second grinding wheel 606, and respectively enter the two copper strip collection trays 7; when the copper strips enter the top and bottom of the second grinding wheel 606, the rotating second grinding wheel 606 is used to grind the copper strips at its top and bottom, so as to grind off the burrs on the copper strips and improve the quality of the copper strips.

[0105] As an optional embodiment of this embodiment, optionally, the deburring mechanism 6 includes two hand wheels 603, two fixed rods 604 and two first grinding wheels 605.

[0106] As Figure 1 and 6 shown, in this embodiment, by installing two first grinding wheels 605, two copper strips can be ground simultaneously, improving the efficiency of grinding the copper strips. When in use, the distance between the first grinding wheel 605 and the second grinding wheel 606 can also be flexibly adjusted through the two hand wheels 603 and the two fixed rods 604.

[0107] As an optional embodiment of this embodiment, optionally, the device includes two copper strip collection trays 7 and both are arranged on the mounting bracket 1.

[0108] As Figure 1 shown, in this embodiment, by installing two copper strip collection trays 7, two copper strips can be reasonably sorted and collected simultaneously, avoiding the copper strips from being wound or mixed with each other during the collection process, and ensuring the convenience of the copper strips.

[0109] As an optional embodiment of this embodiment, optionally, the device further includes a controller, and the controller is connected to the driving mechanism 9 for controlling the state of the driving mechanism 9.

[0110] As Figure 1 shown, in this embodiment, the controller is a control switch, and the state of the moving mechanism 9 is controlled by the control switch.

[0111] Although the embodiments of the present invention have been shown and described, those of ordinary skill in the art can understand that various changes, modifications, substitutions, and variations can be made to these embodiments without departing from the principles and spirit of the present invention. The scope of the present invention is defined by the claims and their equivalents.

Claims

1. A processing device for regenerating copper strips from copper pipe waste, characterized in that, The device includes: Mounting bracket (1); Feeding mechanism (2), arranged on the mounting bracket (1); Pressing wheel mechanism (3), arranged on the mounting bracket (1) and close to the feeding mechanism (2); Guiding mechanism (4), arranged on the mounting bracket (1) and close to the pressing wheel mechanism (3); Edge trimming mechanism (5), arranged on the mounting bracket (1) and close to the guiding mechanism (4); Deburring mechanism (6), arranged on the mounting bracket (1) and close to the edge trimming mechanism (5); Copper strip winding reel (7), arranged on the mounting bracket (1) and close to the deburring mechanism (6); Scrap winding reel (8), arranged on the mounting bracket (1) and close to the edge trimming mechanism (5); Driving mechanism (9), arranged on the mounting bracket (1) and connected to the pressing wheel mechanism (3), edge trimming mechanism (5) and deburring mechanism (6) through a synchronous chain (10).

2. The copper strip processing device for regenerating copper from copper pipe waste according to claim 1, wherein, The feeding mechanism (2) includes: Base (201), arranged on the mounting bracket (1); Guiding seat (202), arranged on the base (201); Guiding sleeve (203), arranged inside the guiding seat (202).

3. The copper strip processing device for regenerating copper from copper pipe waste according to claim 1, characterized in that, The pressing wheel mechanism (3) includes: First pressing wheel frame (301), arranged on the mounting bracket (1); First upper pressing wheel assembly (302), arranged on the first pressing wheel frame (301); First lower pressing wheel assembly (303), arranged on the first pressing wheel frame (301) and cooperating with the first upper pressing wheel assembly (302); First gear disk (304), arranged on one side of the first lower pressing wheel assembly (303) and connected to the driving mechanism (9) through the synchronous chain (10); First handwheel screw rod (305), movably arranged on the first pressing wheel frame (301), and the output end of the first handwheel screw rod (305) is movably connected to the first upper pressing wheel assembly (302); First guide post (306), arranged on the first pressing wheel frame (301).

4. A copper strip processing device for regenerating copper from copper pipe waste as described in claim 1, characterized in that, The guiding mechanism (4) includes: Guiding frame (401), arranged on the mounting bracket (1); Screw rod assembly (402), arranged on the guiding frame (401); Guiding wheel assembly (403), arranged on the guiding frame (401).

5. The copper strip processing device for regenerating copper from copper pipe waste according to claim 1, characterized in that, The edge trimming mechanism (5) includes: Second pressing wheel frame (501), arranged on the mounting bracket (1); Second upper pressing wheel assembly (502), arranged on the second pressing wheel frame (501); Second lower pressing wheel assembly (503), arranged on the second pressing wheel frame (501) and cooperating with the second upper pressing wheel assembly (502); Second gear disk (504), arranged on one side of the second lower pressing wheel assembly (503) and connected to the driving mechanism (9) through the synchronous chain (10); Second handwheel screw rod (505), movably arranged on the second pressing wheel frame (501), and the output end of the second handwheel screw rod (505) is movably connected to the second upper pressing wheel assembly (502); The second guide post (506) is arranged on the second pressure wheel frame (501).

6. The copper strip processing device for regenerating copper from copper pipe waste according to claim 5, characterized in that, The second upper pressure wheel assembly (502) includes a cam, and the second lower pressure wheel assembly (503) includes a cam, and the cams cooperate with each other.

7. The copper strip processing device for regenerating from copper pipe waste according to claim 1, characterized in that, The deburring mechanism (6) includes: A fixed seat (601) arranged on the mounting bracket (1); A double support wheel (602) arranged on the fixed seat (601); A hand wheel (603) movably arranged on the fixed seat (601); A fixed rod (604) movably arranged on the fixed seat (601) and movably connected to the hand wheel (603); A first grinding wheel (605) fixedly arranged on the fixed rod (604); A second grinding wheel (606) movably arranged on the fixed seat (601) and connected to the drive mechanism (9) through the synchronous chain (10).

8. A copper strip processing device for recycling copper tubes from waste copper tubes as claimed in claim 6, characterized in that, The deburring mechanism (6) includes two hand wheels (603), two fixed rods (604) and two first grinding wheels (605).

9. A processing device for regenerating copper strips using copper pipe waste as claimed in claim 1, wherein, The device includes two copper strip collecting discs (7), both of which are arranged on the mounting bracket (1).

10. A copper strip processing device for recycling copper tube waste as described in claim 1, characterized in that, The device further includes a controller, which is connected to the drive mechanism (9) and is used to control the state of the drive mechanism (9).

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