A device for treating wastewater from alloy cable production

Abstract

This invention belongs to the field of wastewater filtration technology, and discloses a wastewater treatment device for alloy cable production. The device includes an installation plate, a wastewater inlet pipe, and a filter. The wastewater inlet pipe is mounted on the installation plate and equipped with a pressure monitoring device. The pressure monitoring device drives the filter to adjust its position within the wastewater inlet pipe. The installation plate is equipped with a cleaning device for removing filter residue from the filter. Wastewater is injected through the wastewater inlet pipe and then passes through the filter. When the filter residue accumulates to the point of affecting filtration, the amount of wastewater inside the wastewater inlet pipe at the top of the filter increases continuously. When the wastewater increases to a certain pressure on the pressure monitoring device, the pressure monitoring device drives the filter to rotate within the wastewater inlet pipe, adjusting its position. This causes the residue-free filtration section to rotate into the wastewater inlet pipe, while the filtration section with filter residue enters the cleaning device for removal.

Description

Technical Field

[0001] This invention belongs to the field of wastewater filtration technology, and in particular relates to a wastewater treatment device for alloy cable production. Background Technology

[0002] Currently in my country, the conductors of most cables are made of copper and aluminum. Copper conductors have superior conductivity, corrosion resistance, and mechanical properties, and their usage far exceeds that of aluminum conductors, making them the preferred material for cable conductors. During cable production, wastewater is generated. To reuse this wastewater, it is first filtered before further treatment.

[0003] Current filtration methods allow wastewater to pass through a device with a filter screen. As filter residue accumulates, it affects the filtration efficiency and requires stopping the filtration process to remove the filter residue. Summary of the Invention

[0004] The purpose of this invention is to provide a wastewater treatment device for alloy cable production, which solves the problem of reducing equipment downtime and autonomously removing filter residue.

[0005] To achieve the above objectives, the specific technical solution of the present invention for a wastewater treatment device for alloy cable production is as follows:

[0006] A wastewater treatment device for alloy cable production includes a mounting plate, a wastewater passage pipe, and a filtration device. The wastewater passage pipe is mounted on the mounting plate, and the filtration device is mounted on the wastewater passage pipe to filter the wastewater passing through the wastewater passage pipe. The device is characterized in that a pressure monitoring device is provided on the wastewater passage pipe, which drives the filtration device to adjust its position on the wastewater passage pipe. The mounting plate is provided with a cleaning device for removing filter residue from the filtration device.

[0007] Furthermore, the sewage pipe includes a connecting pipe and a through hole. The connecting pipe has a through hole inside, a sewage inlet device is provided at one end of the connecting pipe, a sewage collection device is provided at the other end of the connecting pipe, a filter device is provided on the connecting pipe to divide the through hole, and the connecting pipe is provided on the mounting plate.

[0008] Furthermore, the filtration device includes a rotating disc, filter holes, a spherical filter screen, an angle adjustment device, a rotating cylinder, a fixed rod, a semi-bevel gear, a semi-ring, a sliding arc groove, and an inclined surface. The rotating disc is mounted on the rotating cylinder, the rotating cylinder is mounted on the fixed rod, and the fixed rod is mounted on the mounting plate. The rotating disc has two filter holes, and a spherical filter screen is rotatably mounted inside the filter holes. The fixed rod has a semi-bevel gear, and the rotating disc has an angle adjustment device inside. The semi-bevel gear drives the spherical filter screen to rotate and flip through the angle adjustment device. The semi-ring is mounted on the connecting pipe, and the semi-ring has a sliding arc groove and an inclined surface. The sliding arc groove allows the angle adjustment device to be released from its restriction and drive the spherical filter screen to rotate. The pressure monitoring device drives the rotating cylinder to rotate.

[0009] Furthermore, the angle adjustment device includes a drive shaft, a bevel gear, a square column, a limiting groove block, a sliding plate, and a first spring. The drive shaft is disposed inside the rotating disk, and the spherical filter screen is connected to the bevel gear through the drive shaft. The square column is disposed on the drive shaft, and the limiting groove block slides inside the rotating disk through the sliding plate. The first spring is disposed between the sliding plate and the rotating disk. When the limiting groove block is squeezed, it cooperates with the square column to restrict the rotation of the drive shaft. When the limiting groove block enters the sliding arc groove, it releases the restriction on the drive shaft, and the half bevel gear meshes with the bevel gear.

[0010] Furthermore, the pressure monitoring device includes a pressure monitoring connecting pipe, a connecting channel, a monitoring moving device, a push rod, a transmission device, and a second spring. The pressure monitoring connecting pipe is disposed on the pressure monitoring connecting pipe, the connecting channel is disposed on the pressure monitoring connecting pipe and communicates with the pressure monitoring connecting pipe, the monitoring moving device slides inside the connecting channel and the pressure monitoring connecting pipe, the monitoring moving device is connected to the transmission device through the push rod, the second spring is disposed between the monitoring moving device and the pressure monitoring connecting pipe, and the transmission device causes the rotating cylinder to rotate unilaterally.

[0011] Furthermore, the monitoring moving device includes a moving plug plate, a third spring, a limiting ball end plug, and a limiting hole. The moving plug plate slides inside the pressure monitoring connecting pipe and the connecting channel. Two limiting ball end plugs are slidably provided inside the moving plug plate, and a third spring is provided between the two limiting ball end plugs. The two limiting ball end plugs and the limiting hole provided in the inner wall of the connecting channel cooperate to limit the movement of the moving plug plate. The moving plug plate is connected to a push rod and a transmission device.

[0012] Furthermore, the transmission device includes a gear, a moving bar, a connecting sliding bolt, a return spring, and a beveled rack. The gear is mounted on the rotating cylinder, the moving bar is mounted on the push rod, the connecting sliding bolt slides inside the moving bar, a return spring is provided between the connecting sliding bolt and the moving bar, and the beveled rack is mounted on the connecting sliding bolt, driving the gear to rotate in one direction.

[0013] Furthermore, the cleaning device includes an air intake pipe, an exhaust pipe, a servo motor, and a cleaning component. The air intake pipe and the exhaust pipe are connected by a connecting rod. A rotating disc rotates between the air intake pipe and the exhaust pipe. The air intake pipe is connected to an air intake device. The servo motor is located inside the exhaust pipe, and the cleaning component is mounted on the servo motor.

[0014] Furthermore, the front end of the cleaning component is a flexible cleaning column.

[0015] The advantages of this invention are:

[0016] In this invention, wastewater is injected through a pipe and then filtered through a filtration device. When the filter residue on the filtration device accumulates to the point that it affects filtration, the amount of wastewater inside the pipe at the top of the filtration device continuously increases. When the amount of wastewater increases to a certain pressure on the pressure monitoring device, the pressure monitoring device will drive the filtration device to rotate on the wastewater pipe to adjust the position of the filtration device. This causes the filter part without filter residue to rotate into the wastewater pipe, while the filter part with filter residue enters the cleaning device to remove the filter residue. Attached Figure Description

[0017] Figure 1 This is a schematic diagram of the overall structure of the present invention;

[0018] Figure 2 This is a cross-sectional view of the overall structure of the present invention;

[0019] Figure 3 This is a schematic diagram of the pressure monitoring device of the present invention;

[0020] Figure 4 Here is a magnified schematic diagram of part A;

[0021] Figure 5 This is a schematic diagram of the filtration device structure of the present invention. Figure 1 ;

[0022] Figure 6 This is a schematic diagram of the filtration device structure of the present invention. Figure 2 ;

[0023] Figure 7 This is a schematic diagram of the transmission device structure of the present invention;

[0024] Figure 8 for Figure 7 Detailed enlarged diagram B;

[0025] Figure 9 This is a cross-sectional view of the filtering device of the present invention;

[0026] Figure 10 This is a cross-sectional view of the angle adjustment device of the present invention;

[0027] Figure 11 for Figure 10 Schematic diagram C (partially enlarged);

[0028] Figure 12 This is a partial structural diagram of the filtration device of the present invention;

[0029] Figure 13 This is a top view of the transmission device of the present invention;

[0030] Explanation of markings in the diagram:

[0031] Mounting plate 1; sewage pipe 2; connecting pipe 2-1; through hole 2-2, wherein the connecting pipe 2-1 is provided with through hole 2-2; filter device 3; rotating disc 3-1; filter hole 3-2; spherical filter screen 3-3; angle adjustment device 3-4; drive shaft 3-4-1; bevel gear 3-4-2; square column 3-4-3; limiting groove block 3-4-4; sliding plate 3-4-5; first spring 3-4-6; rotating cylinder 3-5; fixed rod 3-6; half bevel gear 3-7; half ring 3-8; sliding arc groove 3-9; inclined surface 3-10. Pressure monitoring device 4; pressure monitoring connecting pipe 4-1; connecting channel 4-2; monitoring moving device 4-3; moving plug plate 4-3-1; third spring 4-3-2; limiting ball end bolt 4-3-3; limiting hole 4-3-4; push rod 4-4; transmission device 4-5; gear 4-5-1; moving bar 4-5-2; connecting sliding bolt 4-5-3; return spring 4-5-4; inclined rack 4-5-5; second spring 4-6; cleaning device 5; air inlet pipe 5-1; exhaust pipe 5-2; servo motor 5-3; cleaning assembly 5-4. Detailed Implementation

[0032] The technical solution of the present invention will now be clearly and completely described with reference to the accompanying drawings. Obviously, the described embodiments are only some, not all, of the embodiments of the present invention. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0033] In the description of this invention, it should be noted that the terms "center," "upper," "lower," "left," "right," "vertical," "horizontal," "inner," and "outer," etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are used only for the convenience of describing the invention and for simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on the invention. Furthermore, the terms "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0034] like Figure 1-13As shown, a wastewater treatment device for alloy cable production includes a mounting plate 1, a wastewater passage pipe 2, and a filter device 3. The wastewater passage pipe 2 is mounted on the mounting plate 1, and the filter device 3 is mounted on the wastewater passage pipe 2 to filter the wastewater passing through the wastewater passage pipe 2. The device is characterized in that a pressure monitoring device 4 is provided on the wastewater passage pipe 2, and the pressure monitoring device 4 drives the filter device 3 to adjust its position on the wastewater passage pipe 2. The mounting plate 1 is provided with a cleaning device 5 for removing filter residue from the filter device 3.

[0035] Wastewater is injected through pipe 2 and then filtered through filter device 3. When the filter residue on filter device 3 accumulates to the point that it affects filtration, the amount of wastewater inside pipe 2 at the top of filter device 3 increases continuously. When the amount of wastewater increases to a certain pressure on pressure monitoring device 4, pressure monitoring device 4 will drive filter device 3 to rotate on wastewater pipe 2 to adjust the position of filter device 3. This causes the filter part without filter residue to rotate into wastewater pipe 2, while the filter part with filter residue enters the cleaning device 5 to remove the filter residue.

[0036] Among them, such as Figure 1-13 As shown, the sewage pipe 2 includes a connecting pipe 2-1 and a through hole 2-2. The connecting pipe 2-1 has a through hole 2-2 inside. One end of the connecting pipe 2-1 is provided with a sewage inlet device, and the other end of the connecting pipe 2-1 is provided with a sewage collection device. The filter device 3 is installed on the connecting pipe 2-1 to divide the through hole 2-2. The connecting pipe 2-1 is installed on the mounting plate 1.

[0037] Wastewater passes through pipe 2 and then through filter device 3 before being discharged.

[0038] Among them, such as Figure 1-13 As shown, the filter device 3 includes a rotating disc 3-1, filter holes 3-2, a spherical filter screen 3-3, an angle adjustment device 3-4, a rotating cylinder 3-5, a fixed rod 3-6, a semi-bevel gear 3-7, a semi-ring 3-8, a sliding arc groove 3-9, and an inclined surface 3-10. The rotating disc 3-1 is mounted on the rotating cylinder 3-5, the rotating cylinder 3-5 is mounted on the fixed rod 3-6, and the fixed rod 3-6 is mounted on the mounting plate 1. The rotating disc 3-1 has two filter holes 3-2, and a spherical filter screen is rotatably mounted inside each filter hole 3-2. The spherical filter screen 3-3 has a semi-bevel gear 3-7 on the fixed rod 3-6. The rotating disk 3-1 has an angle adjustment device 3-4 inside. The semi-bevel gear 3-7 drives the spherical filter screen 3-3 to rotate and flip through the angle adjustment device 3-4. The semi-ring 3-8 is set on the connecting pipe 2-1. The semi-ring 3-8 has a sliding arc groove 3-9 and an inclined surface 3-10. The sliding arc groove 3-9 allows the angle adjustment device 3-4 to be released from its restriction and drive the spherical filter screen 3-3 to rotate. The pressure monitoring device 4 drives the rotating cylinder 3-5 to rotate.

[0039] Wastewater is filtered through the spherical filter screen 3-3 inside the filter hole 3-2. As the amount of filter residue increases, the filtration effect of the spherical filter screen 3-3 will be affected. Then, the amount of wastewater inside the connecting pipe 2-1 will continue to increase. When the amount of wastewater increases to the level that drives the pressure monitoring device 4, the pressure monitoring device 4 will drive the rotating cylinder 3-5 to rotate. The rotating cylinder 3-5 will drive the rotating plate 3-1 and the device installed inside the rotating plate 3-1 to rotate together. When the rotating plate 3-1 rotates to the point where the angle adjustment device 3-4 and the half-bevel gear 3-7 mesh, and at the same time the sliding arc groove 3-9 of the half-ring 3-8 releases the restriction of the angle adjustment device 3-4, the half-bevel gear 3-7 will drive the spherical filter screen 3-3 to rotate 180 degrees inside the filter hole 3-2 through the angle adjustment device 3-4. Then, the spherical filter screen 3-3 without filter residue will rotate to the connecting pipe 2-1, and the spherical filter screen 3-3 with filter residue will rotate to the position of the cleaning device 5 to remove the filter residue.

[0040] Among them, such as Figure 1-13 As shown, the angle adjustment device 3-4 includes a drive shaft 3-4-1, a bevel gear 3-4-2, a square column 3-4-3, a limiting groove block 3-4-4, a sliding plate 3-4-5, and a first spring 3-4-6. The drive shaft 3-4-1 is disposed inside the rotating disk 3-1. The spherical filter screen 3-3 is connected to the drive shaft 3-4-1 and the bevel gear 3-4-2. The square column 3-4-3 is disposed on the drive shaft 3-4-1. The limiting groove block 3-4-4... -4-4 slides inside the rotating disk 3-1 via the sliding plate 3-4-5. The first spring 3-4-6 is set between the sliding plate 3-4-5 and the rotating disk 3-1. When the limiting groove block 3-4-4 is squeezed, it cooperates with the square column 3-4-3 to restrict the rotation of the transmission shaft 3-4-1. When the limiting groove block 3-4-4 enters the sliding arc groove 3-9, the restriction on the transmission shaft 3-4-1 is released, and the half bevel gear 3-7 and the bevel gear 3-4-2 mesh.

[0041] The angle adjustment device 3-4 ensures the stability of the spherical filter screen 3-3 during filtration. When the limiting groove block 3-4-4 rotates to the position of the sliding arc groove 3-9, the first spring 3-4-6 will drive the limiting groove block 3-4-4 to move downward through the sliding plate 3-4-5, so that the limiting groove block 3-4-4 releases the restriction of the counterpost 3-4-3, and then the transmission shaft 3-4-1 can rotate.

[0042] Among them, such as Figure 1-13As shown, the pressure monitoring device 4 includes a pressure monitoring connecting pipe 4-1, a connecting channel 4-2, a monitoring moving device 4-3, a push rod 4-4, a transmission device 4-5, and a second spring 4-6. The pressure monitoring connecting pipe 4-1 is disposed on the connecting pipe 2-1, and the connecting channel 4-2 is disposed on the connecting pipe 2-1 and communicates with the pressure monitoring connecting pipe 4-1. The monitoring moving device 4-3 slides inside the connecting channel 4-2 and the pressure monitoring connecting pipe 4-1. The monitoring moving device 4-3 is connected to the transmission device 4-5 through the push rod 4-4. The second spring 4-6 is disposed between the monitoring moving device 4-3 and the pressure monitoring connecting pipe 4-1. The transmission device 4-5 causes the rotating cylinder 3-5 to rotate unilaterally.

[0043] As the amount of sewage inside the connecting pipe 2-1 increases, the sewage puts pressure on the monitoring moving device 4-3. When the sewage pressure exceeds the limit of the monitoring moving device 4-3, the monitoring moving device 4-3 will move inside the pressure monitoring connecting pipe 4-1 and compress the second spring 4-6. The moving push rod 4-4 drives the rotating cylinder 3-5 to rotate through the transmission device 4-5. When the connecting pipe 2-1 is unblocked, the pressure inside the connecting pipe 2-1 will decrease, and then the compressed second spring 4-6 will push the monitoring moving device 4-3 to reset. The reset monitoring moving device 4-3 drives the push rod 4-4 to move. The reset push rod 4-4 cannot drive the rotating cylinder 3-5 to rotate in the opposite direction through the transmission device 4-5.

[0044] Among them, such as Figure 1-13 As shown, the monitoring moving device 4-3 includes a moving plug plate 4-3-1, a third spring 4-3-2, a limiting ball end plug 4-3-3, and a limiting hole 4-3-4. The moving plug plate 4-3-1 slides inside the pressure monitoring connecting pipe 4-1 and the connecting channel 4-2. Two limiting ball end plugs 4-3-3 are slidably provided inside the moving plug plate 4-3-1. The third spring 4-3-2 is provided between the two limiting ball end plugs 4-3-3. The two limiting ball end plugs 4-3-3 and the limiting hole 4-3-4 provided in the inner wall of the connecting channel 4-2 cooperate to limit the movement of the moving plug plate 4-3-1. The moving plug plate 4-3-1 is connected to the transmission device 4-5 through the push rod 4-4.

[0045] The third spring 4-3-2 acts on the limiting hole 4-3-4 through the limiting ball end bolt 4-3-3, so that the moving plug plate 4-3-1 is subjected to a resistance. When the pressure of the sewage exceeds the resistance, the moving plug plate 4-3-1 moves.

[0046] Among them, such as Figure 1-13As shown, the transmission device 4-5 includes a gear 4-5-1, a moving bar 4-5-2, a connecting sliding bolt 4-5-3, a return spring 4-5-4, and a helical rack 4-5-5. The gear 4-5-1 is mounted on the rotating cylinder 3-5, the moving bar 4-5-2 is mounted on the push rod 4-4, the connecting sliding bolt 4-5-3 slides inside the moving bar 4-5-2, a return spring 4-5-4 is provided between the connecting sliding bolt 4-5-3 and the moving bar 4-5-2, and the helical rack 4-5-5 is mounted on the connecting sliding bolt 4-5-3. The helical rack 4-5-5 drives the gear 4-5-1 to rotate in one direction.

[0047] When push rod 4-4 pushes moving bar 4-5-2 to move, moving bar 4-5-2 drives gear 4-5-1 to rotate through inclined rack 4-5-5. When push rod 4-4 pulls moving bar 4-5-2 to move, inclined rack 4-5-5 will retract into moving bar 4-5-2, disengaging gear 4-5-1 and inclined rack 4-5-5.

[0048] Among them, such as Figure 1-13 As shown, the cleaning device 5 includes an air inlet pipe 5-1, an exhaust pipe 5-2, a servo motor 5-3, and a cleaning component 5-4. The air inlet pipe 5-1 and the exhaust pipe 5-2 are connected by a connecting rod. The rotating disk 3-1 rotates between the air inlet pipe 5-1 and the exhaust pipe 5-2. The air inlet pipe 5-1 is connected to the air intake device. The servo motor 5-3 is located inside the exhaust pipe 5-2. The cleaning component 5-4 is provided on the servo motor 5-3.

[0049] Servo motor 5-3 drives cleaning component 5-4 to remove filter residue from spherical filter screen 3-3, and then air inlet pipe 5-1 blows the filter residue off.

[0050] Among them, such as Figure 1-13 As shown, the front end of the cleaning component 5-4 is a flexible cleaning column.

[0051] It is understood that the present invention has been described through some embodiments, and those skilled in the art will recognize that various changes or equivalent substitutions can be made to these features and embodiments without departing from the spirit and scope of the invention. Furthermore, under the teachings of the present invention, these features and embodiments can be modified to adapt to specific situations and materials without departing from the spirit and scope of the invention. Therefore, the present invention is not limited to the specific embodiments disclosed herein, and all embodiments falling within the scope of the claims of this application are within the protection scope of the present invention.

Claims

1. A wastewater treatment device for alloy cable production, comprising a mounting plate (1), a wastewater passage pipe (2), and a filter device (3), wherein the wastewater passage pipe (2) is mounted on the mounting plate (1), and the filter device (3) is mounted on the wastewater passage pipe (2) to filter the wastewater passing through the wastewater passage pipe (2), characterized in that, The sewage pipe (2) is equipped with a pressure monitoring device (4), which drives the filter device (3) to adjust its position in the sewage pipe (2). The mounting plate (1) is equipped with a cleaning device (5) for removing filter residue from the filter device (3). The sewage pipe (2) includes a connecting pipe (2-1) and a through hole (2-2). The connecting pipe (2-1) has a through hole (2-2) inside. One end of the connecting pipe (2-1) is provided with a sewage inlet device, and the other end of the connecting pipe (2-1) is provided with a sewage collection device. The filter device (3) is installed on the connecting pipe (2-1), and the connecting pipe (2-1) is installed on the mounting plate (1). The filtration device (3) includes a rotating disc (3-1), filter holes (3-2), a spherical filter screen (3-3), an angle adjustment device (3-4), a rotating cylinder (3-5), a fixed rod (3-6), a semi-bevel gear (3-7), a semi-ring (3-8), a sliding arc groove (3-9), and an inclined surface (3-10). The rotating disc (3-1) is mounted on the rotating cylinder (3-5), the rotating cylinder (3-5) is mounted on the fixed rod (3-6), and the fixed rod (3-6) is mounted on the mounting plate (1). The rotating disc (3-1) has two filter holes (3-2), and a spherical filter screen is rotatably mounted inside the filter holes (3-2). The spherical filter screen (3-3) is equipped with a half-bevel gear (3-7) on the fixed rod (3-6). The rotating plate (3-1) is equipped with an angle adjustment device (3-4). The half-bevel gear (3-7) drives the spherical filter screen (3-3) to rotate and flip through the angle adjustment device (3-4). The half-ring (3-8) is set on the connecting pipe (2-1). The half-ring (3-8) is equipped with a sliding arc groove (3-9) and an inclined surface (3-10). The sliding arc groove (3-9) allows the angle adjustment device (3-4) to be released from its restriction and drive the spherical filter screen (3-3) to rotate. The pressure monitoring device (4) drives the rotating cylinder (3-5) to rotate. The angle adjustment device (3-4) includes a drive shaft (3-4-1), a bevel gear (3-4-2), a square column (3-4-3), a limiting groove block (3-4-4), a sliding plate (3-4-5), and a first spring (3-4-6). The drive shaft (3-4-1) is located inside the rotating disk (3-1). The spherical filter screen (3-3) is connected to the bevel gear (3-4-2) via the drive shaft (3-4-1). The square column (3-4-3) is located on the drive shaft (3-4-1). The limiting groove block (3-4-4) is located on the rotating disk (3-4-1). -4-4) Slides inside the rotating disk (3-1) via the sliding plate (3-4-5). The first spring (3-4-6) is set between the sliding plate (3-4-5) and the rotating disk (3-1). When the limiting groove block (3-4-4) is squeezed, it cooperates with the square column (3-4-3) to restrict the rotation of the transmission shaft (3-4-1). When the limiting groove block (3-4-4) enters the sliding arc groove (3-9), the restriction on the transmission shaft (3-4-1) is released, and the half bevel gear (3-7) and the bevel gear (3-4-2) mesh.

2. The wastewater treatment device for alloy cable production according to claim 1, characterized in that, The pressure monitoring device (4) includes a pressure monitoring connecting pipe (4-1), a connecting channel (4-2), a monitoring moving device (4-3), a push rod (4-4), a transmission device (4-5), and a second spring (4-6). The pressure monitoring connecting pipe (4-1) is installed on the connecting pipe (2-1). The connecting channel (4-2) is installed on the connecting pipe (2-1) and communicates with the pressure monitoring connecting pipe (4-1). The monitoring moving device (4-3) slides inside the connecting channel (4-2) and the pressure monitoring connecting pipe (4-1). The monitoring moving device (4-3) is connected to the transmission device (4-5) through the push rod (4-4). The second spring (4-6) is installed between the monitoring moving device (4-3) and the pressure monitoring connecting pipe (4-1). The transmission device (4-5) causes the rotating cylinder (3-5) to rotate unilaterally.

3. The wastewater treatment device for alloy cable production according to claim 2, characterized in that, The monitoring moving device (4-3) includes a moving plug plate (4-3-1), a third spring (4-3-2), a limiting ball end plug (4-3-3), and a limiting hole (4-3-4). The moving plug plate (4-3-1) slides inside the pressure monitoring connecting pipe (4-1) and the connecting channel (4-2). Two limiting ball end plugs (4-3-3) are provided inside the moving plug plate (4-3-1). A third spring (4-3-2) is provided between the two limiting ball end plugs (4-3-3). The two limiting ball end plugs (4-3-3) and the limiting hole (4-3-4) provided on the inner wall of the connecting channel (4-2) cooperate to limit the movement of the moving plug plate (4-3-1). The moving plug plate (4-3-1) is connected to the transmission device (4-5) through the push rod (4-4).

4. The wastewater treatment device for alloy cable production according to claim 3, characterized in that, The transmission device (4-5) includes a gear (4-5-1), a moving bar (4-5-2), a connecting sliding bolt (4-5-3), a return spring (4-5-4), and a helical rack (4-5-5). The gear (4-5-1) is mounted on the rotating cylinder (3-5), the moving bar (4-5-2) is mounted on the push rod (4-4), the connecting sliding bolt (4-5-3) slides inside the moving bar (4-5-2), a return spring (4-5-4) is provided between the connecting sliding bolt (4-5-3) and the moving bar (4-5-2), and the helical rack (4-5-5) is mounted on the connecting sliding bolt (4-5-3). The helical rack (4-5-5) drives the gear (4-5-1) to rotate in one direction.

5. The wastewater treatment device for alloy cable production according to claim 1, characterized in that, The cleaning device (5) includes an air inlet pipe (5-1), an exhaust pipe (5-2), a servo motor (5-3), and a cleaning component (5-4). The air inlet pipe (5-1) and the exhaust pipe (5-2) are connected by a connecting rod. A rotating disk (3-1) rotates between the air inlet pipe (5-1) and the exhaust pipe (5-2). The air inlet pipe (5-1) is connected to an air intake device. The servo motor (5-3) is located inside the exhaust pipe (5-2). The cleaning component (5-4) is provided on the servo motor (5-3).

6. The wastewater treatment device for alloy cable production according to claim 5, characterized in that, The front end of the cleaning component (5-4) is a flexible cleaning column.

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