Multifunctional processing equipment for copper wire cable

Abstract

The invention relates to the technical field of cable processing, in particular to multifunctional processing equipment for a copper wire cable. Comprising a cooling box and a rotating wheel, and a plurality of rotating wheels are fixedly connected in the cooling box. The cable is directly cooled through the low-temperature cooling water, so that the cooling efficiency is higher than that of mixed cooling water, the cooling time is further shortened, the problem that the cable is not completely cooled due to the fact that the temperature of the mixed cooling water is high can be avoided by directly cooling through the low-temperature cooling water, and the service life of the cable is prolonged. When the cable is just fed into the cooling box for cooling, the temperature of the protective layer of the cable is high, and if the temperature difference between the cable and cooling water is too large, thermal stress is easily generated on the protective layer material, and the problems of deformation or damage and the like are caused; the low-temperature cooling water flowing out of the flow guide pipe is mixed with the heated cooling water, so that the temperature of the cooling water at the right part of the cooling box is reduced, and cooling efficiency reduction caused by overhigh temperature of the cooling water at the right part of the cooling box is avoided.

Description

Technical Field

[0001] The invention relates to the technical field of cable processing, and in particular to multifunctional processing equipment for copper wire cables. Background Art

[0002] Copper wire cables have excellent conductivity and stable electrical properties, and are suitable for power transmission and signal transmission. Copper wire cables also have a long service life and can withstand multiple bends without breaking easily. However, since a large amount of heat is generated during the processing of cables, such as extrusion and coating, cooling is required to quickly reduce the temperature of the cable surface and interior to prevent overheating from causing performance degradation or damage to the cable. During the cooling work, the cooling water continues to heat up due to the contact between the cable and the cooling water, so new cooling water needs to be continuously added. The newly added cooling water is mixed with the heated cooling water to cool down the heated cooling water, thereby ensuring the cooling effect of the cooling water on the cable. When the cable is just sent into the cooling box for cooling, the temperature of the cable's protective layer is relatively high. If the temperature difference with the cooling water is too large, it is easy to cause thermal stress in the protective layer material, resulting in deformation or damage. Summary of the invention

[0003] In order to overcome the disadvantage that when the cable is just sent into the cooling box for cooling, the temperature of the cable protective layer is relatively high. If the temperature difference with the cooling water is too large, it is easy to cause thermal stress in the protective layer material, resulting in deformation or damage. The present invention provides a multifunctional processing equipment for copper wire cables.

[0004] The technical solution of the present invention is: a multifunctional processing equipment for copper wire cables, including a cooling box and a rotating wheel; a plurality of rotating wheels are fixedly connected in the cooling box; it also includes a guide pipe, a rotating cylinder, a filter screen and a water inlet pipe; the cooling box is connected to at least three guide pipes; each guide pipe is located between two adjacent rotating wheels; the guide pipe is provided with a water inlet groove; each guide pipe is connected to a rotating cylinder; each rotating cylinder is provided with a connecting groove; the connecting groove is initially connected to the water inlet groove; a filter screen is fixedly connected to one of the connecting grooves of each rotating cylinder; the cooling box is fixedly connected to the water inlet pipe; the water inlet pipe is connected to all the guide pipes.

[0005] More preferably, it also includes a rotating rod; a feed trough is provided on each side of the cooling box; the right feed trough is lower than the left feed trough; a number of rotating rods are slidably connected on each side of the cooling box, and except for the leftmost and rightmost two rotating rods, the vertical distance between the lowest point of the remaining rotating rods and the highest point of the cable carried by the rotary wheel is equal to the diameter of the cable, and the highest point of the cable carried by the rotary wheel is higher than the lowest point of the inner ring surface of the guide tube, the rotary wheel.

[0006] More preferably, it also includes a DD motor 1 and a filter 2; each guide tube has a DD motor 1 fixedly connected to both sides inside; the rotating parts of the DD motor 1 on the same guide tube are fixedly connected to the corresponding rotating cylinder; each guide tube is provided with a water inlet groove 2 on the upper part; each guide tube has a filter 2 fixedly connected to the two water inlet grooves; and the DD motor 1 is connected to an external power supply.

[0007] More preferably, the mesh size of filter screen two is smaller than that of filter screen one.

[0008] More preferably, it further includes an arc-shaped guide plate; each guide tube is fixedly connected with an arc-shaped guide plate inside; each arc-shaped guide plate is provided with a plurality of water inlet holes.

[0009] More preferably, it also includes an electric push rod and a baffle plate; an electric push rod is fixedly connected to both sides of the upper part of each guide tube; the telescopic parts of all the electric push rods on each guide tube are commonly fixedly connected to a baffle plate; each baffle plate is fitted with the lower side of the corresponding arc-shaped guide plate; the baffle plate is provided with a plurality of connecting holes.

[0010] More preferably, with the middle of the guide pipe as the boundary, the front connecting hole and the front water inlet hole are both inclined toward the front; the rear connecting hole and the rear water inlet hole are both inclined toward the rear; so that the sprayed cooling water is in an eight-shaped shape.

[0011] More preferably, it further includes DD motor 2; each guide tube is rotatably connected to the cooling box; a plurality of DD motors 2 are fixedly connected to the cooling box; and the rotating part of each DD motor 2 is fixedly connected to the corresponding guide tube.

[0012] More preferably, it also includes a water-blocking cloth and a material baffle plate; a second connecting groove is provided on the upper part of the rotating cylinder; a water-blocking cloth is fixedly connected to the second connecting groove of the rotating cylinder; the water-blocking cloth is fixedly connected to the material baffle plate; the material baffle plate is consistent in size with the first water inlet groove.

[0013] More preferably, the width of water inlet groove 1 is greater than that of water inlet groove 2. Beneficial Effects

[0014] The cable is cooled directly by low-temperature cooling water, which is more efficient than cooling with mixed cooling water, thereby reducing the cooling time. Cooling directly with low-temperature cooling water can avoid the problem of incomplete cooling of the cable due to the high temperature of the mixed cooling water. When the cable is just sent into the cooling box for cooling, the temperature of the cable's protective layer is relatively high. If the temperature difference with the cooling water is too large, it is easy to cause thermal stress in the protective layer material, resulting in deformation or damage. The low-temperature cooling water flowing out of the guide pipe is mixed with the heated cooling water, thereby reducing the temperature of the cooling water on the right side of the cooling box, avoiding the cooling efficiency being reduced due to the cooling water temperature on the right side of the cooling box being too high.

[0015] Filter 1 will play a filtering role, intercepting particulate matter in the cooling water to avoid affecting the quality of cable production.

[0016] The transmission position of the cable is limited by the rotating rod and the rotating wheel, so that the cable is in a horizontal state when moving in the guide tube, avoiding contact between the cable and the guide tube when in an inclined state, thereby affecting the cooling efficiency, and avoiding scratches of the cable by the guide tube when moving.

[0017] The impact force of the low-temperature cooling water can be further weakened by blocking it with the arc-shaped guide plate, and the low-temperature cooling water is first concentrated between the guide pipe and the arc-shaped guide plate before being sprayed out, so that the contact range between the low-temperature cooling water and the cable is increased, thereby accelerating the cooling speed.

[0018] The electric push rod is used to push the baffle plate to the left so that the water inlet hole and the connecting hole are no longer connected, as shown in the figure, thereby preventing particles from adhering to the filter screen 2 and preventing particles from accumulating between the arc guide plate and the guide tube. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] Figure 1 It is a schematic diagram of the structure disclosed by the multifunctional processing equipment for copper wire cables of the present invention; Figure 2 A structural cross-sectional view of a cooling box disclosed in the multifunctional processing equipment for copper wire cables of the present invention; Figure 3 A cross-sectional view of the structure of the guide tube disclosed by the multifunctional processing equipment for copper wire cables of the present invention from a first viewing angle; Figure 4 A second perspective structural cross-sectional view of the flow guide tube disclosed by the multifunctional processing equipment for copper wire cables of the present invention; Figure 5 A structural cross-sectional view of a flow guide tube and a rotating cylinder disclosed in the multifunctional processing equipment for copper wire and cable of the present invention; Figure 6 The present invention is a cross-sectional view of the structure of the waterproof cloth and the material baffle plate disclosed in the multifunctional processing equipment for copper wire cables.

[0020] In the accompanying drawings: 1-cooling box, 2-rotor, 3-guide pipe, 4-rotating cylinder, 5-DD motor one, 6-filter screen one, 7-filter screen two, 8-water inlet pipe, 9-rotating rod, 101-arc guide plate, 102-electric push rod, 103-hole baffle plate, 201-DD motor two, 202-water-proof cloth, 203-material baffle plate, 1001-feed trough, 3001-water inlet trough one, 3002-water inlet trough two, 4001-connecting trough one, 4002-connecting trough two, 10101-water inlet hole, 10301-connecting hole, 100-cable. DETAILED DESCRIPTION

[0021] The present invention will be further described below in conjunction with the embodiments shown in the accompanying drawings. Example 1

[0022] A multifunctional processing equipment for copper wire cables, such as Figure 1-Figure 6 As shown, it includes a cooling box 1 and a rotating wheel 2; five rotating wheels 2 are fixedly connected in the cooling box 1; It also includes a guide tube 3, a rotating cylinder 4, a filter screen 6 and a water inlet pipe 8; the cooling box 1 is connected to three guide tubes 3; each guide tube 3 is located between two adjacent wheels 2; the guide tube 3 is provided with a water inlet groove 3001; each guide tube 3 is connected to a rotating cylinder 4; each rotating cylinder 4 is provided with a connecting groove 4001; the connecting groove 4001 is initially connected to the water inlet groove 3001; a filter screen 6 is fixedly connected to the connecting groove 4001 of each rotating cylinder 4; the cooling box 1 is fixedly connected to the water inlet pipe 8; the water inlet pipe 8 is connected to all the guide tubes 3.

[0023] It also includes a rotating rod 9; a feed trough 1001 is respectively provided on the left and right sides of the cooling box 1; the right feed trough 1001 is lower than the left feed trough 1001, so that cooling water flows out from the right feed trough 1001, and then the cooling water flows from left to right in the cooling box 1; two rotating rods 9 are slidably connected to the left and right sides of the cooling box 1, and except for the leftmost and rightmost two rotating rods 9, the vertical distance between the lowest point of the remaining rotating rods 9 and the highest point of the cable 100 carried by the rotating wheel 2 is equal to the diameter of the cable 100, and the highest point of the cable 100 carried by the rotating wheel 2 is higher than the lowest point of the inner annular surface of the guide tube 3. The transmission limit of the cable 100 by the rotating rod 9 and the rotating wheel 2 makes the cable 100 in a horizontal state when located in the guide tube 3, thereby facilitating the movement of the cable 100 in the guide tube 3.

[0024] It also includes a DD motor 1 5 and a filter 2 7; each guide tube 3 has a DD motor 1 5 fixedly connected to the left side and the right side thereof; the rotating parts of the DD motor 1 5 on the same guide tube 3 are fixedly connected to the corresponding rotating cylinder 4; each guide tube 3 is provided with a water inlet groove 2 3002 on the upper part; a filter 2 7 is fixedly connected to the water inlet groove 2 3002 of each guide tube 3; the DD motor 5 is connected to an external power supply.

[0025] The mesh size of the filter screen 2 7 is smaller than that of the filter screen 1 6 , thereby enhancing the filtering function when the filter screen 2 7 is aligned with the filter screen 1 6 .

[0026] It also includes an arc-shaped guide plate 101; each guide tube 3 has an arc-shaped guide plate 101 fixedly connected to the upper side of the interior; each arc-shaped guide plate 101 is provided with a plurality of water inlet holes 10101.

[0027] It also includes an electric push rod 102 and a baffle plate 103; each guide tube 3 is fixedly connected to the upper left side and the upper right side with an electric push rod 102; the telescopic parts of all the electric push rods 102 on each guide tube 3 are commonly fixedly connected to a baffle plate 103; each baffle plate 103 is fitted with the lower side of the corresponding arc-shaped guide plate 101; the baffle plate 103 is provided with a plurality of connecting holes 10301.

[0028] Taking the middle part of the guide tube 3 as the boundary, the front connecting hole 10301 and the front water inlet hole 10101 are both inclined toward the front; the rear connecting hole 10301 and the rear water inlet hole 10101 are both inclined toward the rear; so that the sprayed cooling water is in an eight-shaped shape, which makes it easier to disperse the cooling water, reduce the impact force of the cooling water and increase the contact range between the cooling water and the cable 100.

[0029] The specific working steps are: The water inlet pipe 8 is connected to an external water supply device, and the external water supply device delivers cooling water; an external winding device is arranged on the left side of the cooling box 1.

[0030] After the protective layer wrapping work is completed, the cable 100 will be pushed out. At this time, the worker guides the moving end of the cable 100 into the cooling box 1 and places it on the rotating wheel 2, so that the rotating wheel 2 plays a supporting and limiting role, and passes it into the right end of the guide tube 3. Then the cable 100 continues to move under the action of the thrust, and then passes through the left end of the guide tube 3. Then, with the assistance of the workers, it passes through all the guide tubes 3 and is supported and limited by the rotating wheel 2. Then, the cooled cable 100 is reeled in by the external reeling device. In this way, the cable 100 is continuously reeled in, and when the cable 100 enters the cooling box 1, the cooling box 1 will be filled with cooling water, so that when the cable 100 moves in the cooling box 1, the cooling water cools the cable 100. At the same time, the external water supply equipment will transport low-temperature cooling water to the water inlet pipe 8, so that the low-temperature cooling water enters the guide tube 3 through the water inlet pipe 8 and the water inlet trough 3001. Then it flows out from the guide pipe 3 and mixes with the cooling water in the cooling box 1. When the low-temperature cooling water flows out of the guide pipe 3, the low-temperature cooling water will directly cool the cable 100, so that the cable 100 can be cooled directly by the low-temperature water, which is more efficient than cooling with the mixed cooling water, thereby reducing the cooling time. Moreover, cooling directly with the low-temperature cooling water can avoid the problem of incomplete cooling of the cable 100 due to the high temperature of the mixed cooling water. When the cable 100 is just sent to the cooling box 1 for cooling, the temperature of the protective layer of the cable 100 is relatively high. If the temperature difference with the cooling water is too large, it is easy to cause thermal stress in the protective layer material, resulting in deformation or damage. Therefore, the cable 100 needs to be cooled by the mixed cooling water for a period of time before being cooled by the low-temperature cooling water. Therefore, the guide pipe 3 is only distributed on the left side of the cooling box 1. Figure 2In the state shown, when the cable 100 just enters the cooling box 1, it is cooled only by the cooling water in the cooling box 1, so as to avoid deformation and other problems caused by the large temperature difference between the protective layer and the cooling water, and the low-temperature cooling water flowing out of the guide pipe 3 is mixed with the heated cooling water, thereby reducing the temperature of the cooling water on the right side of the cooling box 1, and avoiding the cooling efficiency being reduced due to the excessively high temperature of the cooling water on the right side of the cooling box 1; and when the cable 100 contacts the low-temperature cooling water, the impact of the low-temperature cooling water may cause the cable 100 to move or bend in the cooling trough, affecting the cooling effect and the quality of the cable 100, so when the low-temperature cooling water is discharged from the water inlet pipe 8 into the water inlet trough 3001, the low-temperature cooling water will first pass through the filter screen 6, and then enter the guide pipe 3, and the filter screen 6 can disperse the low-temperature cooling water flow into multiple A thin stream is formed to reduce the concentrated impact of the water flow, thereby avoiding the direct discharge of low-temperature cooling water into the guide tube 3, which will cause the low-temperature cooling water to have too great an impact force and cause the cable 100 to deform. Various impurities may be mixed into the cooling water during the circulation process, such as metal chips, dust, oil stains, etc. These impurities may come from wear and tear during the processing of the cable 100, equipment leakage or other sources, and the particles in the cooling water may cause scratches or wear on the surface of the cable 100, affecting the appearance quality of the cable 100, and the particles in the cooling water may adhere to the surface of the cable 100, affecting the cleanliness and appearance quality of the cable 100. Therefore, at this time, the filter screen 6 will play a filtering role, intercepting the particles in the cooling water to avoid affecting the production quality of the cable 100.

[0031] When the cable 100 is fed into the cooling box 1, it will pass through the right feed slot 1001 and finally pass through the left feed slot 1001 for winding. Since the right feed slot 1001 is lower than the left feed slot 1001, the cooling water flows out from the right feed slot 1001, and then the cooling water flows from the left to the right in the cooling box 1, thereby ensuring that the cooling water on the right side of the cooling box 1 can be mixed with the low-temperature cooling water. When passing through the cooling box 1, the cable 100 will pass through the multiple rotating rods 9 in turn, so that the cable 100 is limited by the rotating rod 9, so that the cable 100 is located at the bottom of the cooling box 1, ensuring that the cable 100 The cable 100 is immersed in a large amount of cooling water. Except for the two leftmost and rightmost rotating rods 9, the vertical distance between the lowest point of the remaining rotating rods 9 and the highest point of the cable 100 carried by the rotating wheel 2 is equal to the diameter of the cable 100. The highest point of the cable 100 carried by the rotating wheel 2 is higher than the lowest point of the inner annular surface of the guide tube 3. Therefore, the transmission limit of the cable 100 by the rotating rods 9 and the rotating wheel 2 makes the cable 100 in a horizontal state when moving in the guide tube 3, avoiding the cable 100 from contacting the guide tube 3 when in an inclined state, thereby affecting the cooling efficiency, and avoiding the cable 100 from being scratched by the guide tube 3 when moving.

[0032] When cooling a cable 100 with a large diameter, the rotating rod 9 can be adjusted up and down to adapt to the cable 100 with a large diameter. At this time, it is also necessary to increase the amount of low-temperature cold water supplied to ensure that the cable 100 can be fully cooled. After the amount of low-temperature cooling water supplied increases, the impact force of the low-temperature cooling water will also increase. Therefore, at this time, the DD motor 15 drives the rotating cylinder 4 to rotate 180 degrees counterclockwise from right to left, so that the connecting groove 1 4001 is aligned with the water inlet groove 2 3002. At this time, the filter screen 1 6 will also be aligned with the filter screen 2 7, so as to filter through the double-layer blocking of the filter screen 1 6 and the filter screen 2 7, thereby further avoiding excessive impact of the low-temperature cooling water, resulting in the cable 1 00 bending deformation problem occurs, and the stacking of filter screen 1 6 and filter screen 2 7 can avoid the situation that a single filter screen 1 6 is deformed by impact due to excessive impact force, thereby extending the service life; and the low-temperature cooling water entering the guide tube 3 from the water inlet trough 2 3002 will be blocked by the arc guide plate 101, thereby being concentrated between the guide tube 3 and the arc guide plate 101, and finally sprayed out from the water inlet hole 10101, and the blocking by the arc guide plate 101 can further weaken the impact force of the low-temperature cooling water, and the low-temperature cooling water is first concentrated between the guide tube 3 and the arc guide plate 101 and then sprayed out, so that the contact range of the low-temperature cooling water and the cable 100 is increased, thereby accelerating the cooling speed.

[0033] However, during the cooling process of the cable 100, the insulating layer or sheath on the surface of the cable 100 may slightly peel off due to the rapid change in temperature. When the low-temperature cooling water is only discharged from the water inlet trough 1 3001 into the guide tube 3, the particles of the insulating layer or sheath peeled off on the surface of the cable 100 will adhere to the filter screen 2 7, resulting in an increase in the number of particles attached to the filter screen 2 7, making the filter screen 2 7 prone to clogging, and some particles are prone to accumulate between the arc guide plate 101 and the guide tube 3 through the connecting hole 10301 and the water inlet hole 10101, and the accumulated particles are not easy to clean. In order to avoid the above problem, the electric push rod 102 pushes the baffle plate 103 to move to the left, so that the water inlet hole 10101 and the connecting hole 10301 are no longer connected. Figure 6 The state shown in the figure can prevent particles from adhering to the filter screen 7 and prevent particles from accumulating between the arc guide plate 101 and the guide pipe 3. Example 2

[0034] On the basis of Example 1, Figure 4-Figure 6 As shown, it also includes a DD motor 201; each guide tube 3 is rotatably connected to the cooling box 1; the cooling box 1 is fixedly connected to a plurality of DD motors 201; and the rotating part of each DD motor 201 is fixedly connected to the corresponding guide tube 3.

[0035] It also includes a water-blocking cloth 202 and a material-blocking plate 203; a connecting groove 2 4002 is provided on the upper part of the rotating cylinder 4; the water-blocking cloth 202 is fixedly connected to the connecting groove 2 4002 of the rotating cylinder 4; the water-blocking cloth 202 is fixedly connected to the material-blocking plate 203; the material-blocking plate 203 is consistent in size with the water inlet groove 1 3001.

[0036] The width of water inlet trough 1 3001 is greater than that of water inlet trough 2 3002 to prevent the baffle plate 203 from falling into water inlet trough 2 3002 when the baffle plate 203 is located above the water inlet trough 2 3002, causing the baffle plate 203 to squeeze the filter screen 2 7 when purified water enters, causing the filter screen 2 7 to deform.

[0037] The specific working steps are: When the cable 100 is pushed out after the protective layer wrapping work is completed, the worker guides the moving end of the cable 100 into the cooling box 1, passes it through the rotating rod 9 in turn, and places it on the rotary wheel 2, so that the rotary wheel 2 plays a supporting and limiting role, and continues to move under the action of thrust to pass its moving end into the right end of the guide tube 3. Since the lowest point of the inner annular surface of the guide tube 3 is not much different from the highest point of the rotary wheel 2 carrying the cable 100, and there is a gap between the guide tube 3 and the rotary wheel 2, the moving end of the cable 100 tends to sag under the action of gravity, resulting in it being unable to smoothly enter the guide tube 3. It is also necessary to manually pull its moving end into the underwater guide tube 3, which is extremely inconvenient. In addition, in the process of the moving end of the cable 100 passing through the left end of the guide tube 3 and moving onto the rotary wheel 2, there is also a situation where the moving end of the cable 100 sags and cannot smoothly pass through the rotary wheel 2. Therefore, in the process of the moving end of the cable 100 moving from the rotary wheel 2 to the right end of the guide tube 3, the DD horse is used. The DD motor 201 drives the guide tube 3 to rotate clockwise from the front and back perspective, so that the lowest point of the right end of the inner annular surface of the guide tube 3 drops, which is conducive to the mobile end of the cable 100 to penetrate the guide tube 3. After the cable 100 penetrates from the right end of the guide tube 3, the DD motor 201 is controlled to drive the guide tube 3 to rotate back to the horizontal state. Later, when the mobile end of the cable 100 penetrates from the left end of the guide tube 3 and moves to the rotating wheel 2, the DD motor 201 is controlled again to drive the guide tube 3 to rotate from the front and back. From the perspective of , rotate clockwise to make the lowest point on the left end of the inner ring surface of the guide tube 3 rise, and there is an obvious height difference with the rotating wheel 2. Even if the moving end of the cable 100 droops, it can be ensured to move smoothly to the rotating wheel 2, and then control the DD motor 201 to drive the guide tube 3 to rotate back to a horizontal state. In the subsequent process of passing through and out of other guide tubes 3, repeat the above work, and there is no need to manually reach into the underwater towing cable 100 The moving end of the smooth transmission of the cable 100 can be achieved.

[0038] It is also considered that when the moving end of the cable 100 moves in the guide tube 3, the moving end of the cable 100 will be bent, and because the moving end of the guide tube 3 droops, it is easy to cause the moving end of the cable 100 to be stuck on the water inlet trough 1 3001, thereby affecting its normal transmission and easily causing the area of ​​the cable 100 to deform. Therefore, when the free end of the cable 100 moves, the DD motor 1 5 is controlled to drive the rotating cylinder 4 to rotate, so that the filter screen 1 6 rotates to the top of the filter screen 2 7. At this time, the water inlet trough 1 3001 will be aligned with the connecting trough 2 4002. The baffle plate 203 is aligned with the water inlet trough 3001, and then the external water supply equipment delivers cooling water, so that the delivered cooling water pushes the baffle plate 203 to rise, and the baffle plate 203 will enter the water inlet trough 3001 after rising, and the baffle plate 203 and the inner annular surface of the guide tube 3 form a complete arc surface, so that the baffle plate 203 plays a blocking role to prevent the moving end of the cable 100 from being stuck in the water inlet trough 3001, and the waterproof cloth 202 will block the gap between the rotating cylinder 4 and the baffle plate 203 after rising, so as to prevent the cooling water from 10101 and the connecting hole 10301 are not in a connected state at this time, so as to prevent water from being discharged from the water inlet hole 10101. When the cooling water cannot be discharged, the water pressure of the cooling water between the guide tube 3 and the rotating cylinder 4 will increase, thereby ensuring the squeezing force of the cooling water on the baffle plate 203, and at the same time preventing water from being discharged from the water inlet hole 10101 and pushing the cable 100, thereby affecting the automatic placement of the cable 100, and when the water delivery amount of the external water delivery equipment reaches the pushing baffle plate 203, the water in the water inlet hole 10101 will be prevented from pushing the cable 100. When the material plate 203 enters the water inlet trough 3001 to form a complete arc surface, stop supplying water and keep blocking the water inlet trough 3001. When the moving end of the cable 100 passes through the guide pipe 3 at the leftmost end, control the external water supply equipment to pump water between the guide pipe 3 and the rotating cylinder 4 to restore the waterproof cloth 202 and the material baffle plate 203 to their original state, and then control the DD motor 5 to drive the rotating cylinder 4 to rotate, so that the filter screen 6 rotates to the water inlet trough 3001. At this time, cooling water is transported through the external water supply equipment for cooling.

[0039] The above embodiments are only preferred embodiments of the present invention and are not intended to limit the scope of implementation of the present invention. Therefore, all equivalent changes made to the contents described in the claims of the present invention should be included in the scope of the claims of the present invention.

Claims

1. A multifunctional processing device for copper wire cables, comprising a cooling box (1) and a rotating wheel (2); a plurality of rotating wheels (2) are fixedly connected to the cooling box (1); the characteristics are: The cooling box (1) is connected to at least three flow guide pipes (3); each flow guide pipe (3) is located between two adjacent wheels (2); the flow guide pipe (3) is provided with a water inlet groove (3001); each flow guide pipe (3) is connected to a rotating cylinder (4); each rotating cylinder (4) is provided with a connecting groove (4001); the connecting groove (4001) is initially connected to the water inlet groove (3001); a filter mesh (6) is fixedly connected to the connecting groove (4001) of each rotating cylinder (4); the cooling box (1) is fixedly connected to the water inlet pipe (8); the water inlet pipe (8) is connected to all the flow guide pipes (3).

2. The multifunctional processing equipment for copper wire and cable according to claim 1, characterized in that: It also includes a rotating rod (9); a feed trough (1001) is provided on each side of the cooling box (1); the right feed trough (1001) is lower than the left feed trough (1001); a plurality of rotating rods (9) are slidably connected to each side of the cooling box (1); except for the leftmost and rightmost two rotating rods (9), the vertical distance between the lowest point of the remaining rotating rods (9) and the highest point of the cable (100) carried by the rotating wheel (2) is equal to the diameter of the cable (100); the highest point of the cable (100) carried by the rotating wheel (2) is higher than the lowest point of the inner annular surface of the guide tube (3) of the rotating wheel (2).

3. The multifunctional processing equipment for copper wire and cable according to claim 2, characterized in that: It also includes a DD motor 1 (5) and a filter screen 2 (7); each guide tube (3) is fixedly connected to both sides of the inside of the DD motor 1 (5); the rotating parts of the DD motor 1 (5) on the same guide tube (3) are fixedly connected to the corresponding rotating cylinder (4); each guide tube (3) is provided with a water inlet groove 2 (3002) on the upper part; each guide tube (3) is fixedly connected to a filter screen 2 (7) at the water inlet groove 2 (3002); and the DD motor 1 (5) is connected to an external power supply.

4. The multifunctional processing equipment for copper wire and cable according to claim 3, characterized in that: The mesh size of the second filter (7) is smaller than that of the first filter (6).

5. A multifunctional processing equipment for copper wire cables according to any one of claims 3-4, characterized in that: It also includes an arc-shaped flow guide plate (101); each flow guide tube (3) is fixedly connected to an arc-shaped flow guide plate (101); and each arc-shaped flow guide plate (101) is provided with a plurality of water inlet holes (10101).

6. The multifunctional processing equipment for copper wire and cable according to claim 5, characterized in that: It also includes an electric push rod (102) and a baffle plate (103); each guide tube (3) is fixedly connected to both sides of the upper part of each guide tube (3); the telescopic parts of all the electric push rods (102) on each guide tube (3) are commonly fixedly connected to a baffle plate (103); each baffle plate (103) is fitted with the lower side of the corresponding arc-shaped guide plate (101); and the baffle plate (103) is provided with a plurality of communication holes (10301).

7. The multifunctional processing equipment for copper wire and cable according to claim 6, characterized in that: Taking the middle of the guide pipe (3) as the boundary, the front communication hole (10301) and the front water inlet hole (10101) are both inclined toward the front; the rear communication hole (10301) and the rear water inlet hole (10101) are both inclined toward the rear; so that the sprayed cooling water is in an eight-shaped shape.

8. The multifunctional processing equipment for copper wire and cable according to claim 6, characterized in that: It also includes a DD motor 2 (201); each guide tube (3) is rotatably connected to the cooling box (1); the cooling box (1) is fixedly connected to a plurality of DD motors 2 (201); and the rotating part of each DD motor 2 (201) is fixedly connected to the corresponding guide tube (3).

9. The multifunctional processing equipment for copper wire and cable according to claim 8, characterized in that: It also includes a water-blocking cloth (202) and a material-blocking plate (203); a second connecting groove (4002) is provided on the upper part of the rotating cylinder (4); a water-blocking cloth (202) is fixedly connected to the second connecting groove (4002) of the rotating cylinder (4); the water-blocking cloth (202) is fixedly connected to the material-blocking plate (203); the material-blocking plate (203) is of the same size as the first water inlet groove (3001).

10. The multifunctional processing equipment for copper wire and cable according to claim 9, characterized in that: The width of water inlet trough 1 (3001) is greater than that of water inlet trough 2 (3002).

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