Working method of intelligent tire bead steel wire copper plating equipment

Abstract

The invention relates to intelligent tire bead steel wire copper plating equipment which comprises a pickling tank and a cleaning box, and a cleaning mechanism is arranged in the cleaning box; the cleaning mechanism comprises a washing assembly and two auxiliary assemblies, the washing assembly is located between the two auxiliary assemblies, the two auxiliary assemblies are arranged in a bilateral symmetry mode, clear water acts on the steel wire through the washing assembly, washing of the pickling solution on the steel wire is achieved, and in the two auxiliary assemblies, the auxiliary assembly located on the left side is used for removing impurities on the steel wire, and the auxiliary assembly located on the right side is used for removing impurities on the steel wire. The auxiliary assembly located on the right side is used for drying the steel wire, cleaning of pickling liquid on the steel wire is achieved through the cleaning mechanism, meanwhile, through friction between the steel wire in the rotating pipe and the rotating pipe, impurity removal of the steel wire is further achieved, the steel wire cleaning effect is improved, water on the steel wire can be separated conveniently, and the drying speed of the water on the steel wire is increased; and secondly, when the rotating pipe is abraded, the steel wire can still be dried, and the drying reliability of the steel wire is improved.

Description

[0001] This application is a divisional application of the invention entitled "An Intelligent Device for Copper Plating of Tire Bead Steel Wire", filed on April 18, 2023, with application number CN2023104149461. Technical Field

[0002] This invention relates to an intelligent copper plating equipment for tire bead wire, belonging to the field of tire bead wire production equipment. Background Technology

[0003] Bead wire is used in the bead portion of a tire and is one of the main skeleton materials of the tire. It is used to manufacture bead wire bundles for passenger cars and other transport vehicles. Its function is to secure the tire tightly to the rim and withstand various interaction forces between the tire and the rim. During the production process, bead wire needs to be copper-plated. The copper plating process for bead wire is as follows: wire pretreatment, water washing, pickling, water washing, electroplating, water rinsing, and lime plating.

[0004] Utility model patent application number CN202123426168.3 discloses an electrolytic pickling device for tire bead wire, including an electrolytic pickling mechanism. The electrolytic pickling mechanism has a cleaning and drying mechanism on its side for cleaning the wire after electrolytic pickling. The electrolytic pickling mechanism includes an electrolytic pickling tank, and a second guide roller is located on the right side of the top of the electrolytic pickling tank. This utility model, by providing a cleaning and drying mechanism on the side of the electrolytic pickling mechanism, allows the cleaning chamber inside the cleaning and drying mechanism to flush and clean the incoming wire, promptly removing impurities and liquid residues from the electrolytic pickling process and preventing continuous corrosion of the wire by the acidic liquid. After rinsing, the wire is wiped and dried in the drying chamber, thus thoroughly and promptly removing residual moisture and impurities from the wire surface, resulting in a cleaner wire surface after electrolytic pickling, facilitating subsequent wire winding. However, in the existing technology, the steel wire is dried by using a drying cotton sleeve. However, the drying cotton sleeve is prone to wear after long-term use, which causes gaps to form between the drying cotton sleeve and the steel wire. The drying cotton sleeve cannot dry the steel wire properly, which affects the drying effect of the steel wire. In addition, when water is sprayed on the steel wire to rinse off the acidic liquid on the steel wire, it is difficult to wash away the fixed impurities remaining on the steel wire, which affects the subsequent processing of the steel wire.

[0005] Therefore, there is a need for an intelligent copper plating equipment for tire bead wires to improve the cleaning effect of the wires and enhance the reliability of wire drying. Summary of the Invention

[0006] The technical problem to be solved by the present invention is to overcome the shortcomings of the prior art and provide an intelligent copper plating equipment for tire bead wire that improves the cleaning effect and the reliability of steel wire drying.

[0007] The technical solution adopted by the present invention to solve the above problems is as follows: an intelligent copper plating equipment for tire bead wire, including an acid pickling tank and a cleaning tank, the acid pickling tank and the cleaning tank being arranged side by side, the acid pickling tank containing acid pickling solution, a supply pipe being provided on the acid pickling tank, the supply pipe being connected to an external acid pickling solution delivery system, a level gauge being provided on the inner wall of the acid pickling tank, the level gauge being immersed in the acid pickling solution, the level gauge being connected to the external acid pickling solution delivery system, and a cleaning mechanism being provided in the cleaning tank; The cleaning mechanism includes a rinsing component and two auxiliary components. The rinsing component is located between the two auxiliary components, which are arranged symmetrically on the left and right. The rinsing component allows clean water to be applied to the steel wire to rinse off the pickling solution. Of the two auxiliary components, the auxiliary component on the left is used to remove impurities from the steel wire, and the auxiliary component on the right is used to dry the steel wire. The auxiliary component includes a rotating tube and two conduits. The rotating tube is parallel to the left-right direction, and the two conduits are coaxially arranged with the rotating tube, located on the left and right sides of the rotating tube respectively. One of the two conduits passes through the cleaning box, and the other conduit is fixedly connected to the inner wall of the cleaning box. Two bearings are installed on the outer wall of the rotating tube, distributed left and right. The outer ring of the bearing is fixedly connected to the inner wall of the cleaning box. A drive unit is provided on the rotating tube, which drives the rotating tube to rotate around its own axis. A rotating tube is fixedly installed inside the rotating tube, parallel to the rotating tube and eccentrically positioned. A connecting tube is fixedly installed on the side of the rotating tube away from the axis of the rotating tube, passing through the rotating tube and communicating with the rotating tube.

[0008] Preferably, the drive unit includes a driven gear mounted on the outer wall of the rotating tube, and a drive gear meshes with the driven gear, which is driven by a motor.

[0009] Preferably, the rinsing assembly includes a conveying pipe that extends vertically through the top of the cleaning tank, a cleaning pipe that is horizontally positioned at the bottom of the conveying pipe, both ends of the cleaning pipe being sealed, and multiple spray heads installed at the bottom of the cleaning pipe. The cleaning pipe and the spray heads are both located above the conduit. The conveying pipe is connected to each spray head through the cleaning pipe. A drain pipe is provided on the right side of the cleaning tank, and the drain pipe is located below the conduit.

[0010] Preferably, multiple spray heads are arranged sequentially from left to right.

[0011] Preferably, the cleaning box is also equipped with a filtration mechanism located between the drain pipe and the conduit. The filtration mechanism includes a horizontally sealed partition fixedly installed on the inner wall of the cleaning box. A lifting pipe is vertically inserted through the partition. The lifting pipe is slidably and sealed to the partition. A filter screen is installed at the top of the lifting pipe and is positioned opposite the rinsing assembly. A slag discharge pipe is provided on the right side of the cleaning box, located between the conduit and the partition. Two lifting assemblies are provided on the lifting pipe, and the two lifting assemblies correspond one-to-one with two connecting pipes. The lifting assemblies drive the lifting pipe to reciprocate up and down by rotating the connecting pipe around the axis of the rotating pipe.

[0012] Preferably, the lifting assembly includes a lifting rod, a spring, and a connecting plate. The lifting rod passes vertically through the partition and is slidably and sealingly connected to the partition. A push plate is horizontally fixed at the top of the lifting plate, located below the rotating tube and facing the connecting tube. The spring is located between the partition and the push plate, sleeved on the lifting rod. One end of the spring is fixedly mounted on the push plate, and the other end is fixedly mounted on the partition. The connecting plate is horizontally fixed at the bottom of the lifting rod and fixedly mounted on the outer wall of the lifting tube, fitting snugly against the bottom of the partition.

[0013] Preferably, the bottom of the push plate is provided with two guide rods, which are arranged one in front of the other. The guide rods pass vertically through the partition and are slidably and sealingly connected with the partition.

[0014] Preferably, both ends of the conduit are chamfered.

[0015] Preferably, the axis of the connecting pipe is perpendicular to and intersects the axis of the rotating pipe.

[0016] Preferably, the top of the pickling tank is fixedly provided with two upper rollers, which are distributed left and right, and the bottom of the pickling tank is fixedly provided with two lower rollers, which are arranged left and right and located between the two upper rollers. The lower rollers are immersed in the pickling solution.

[0017] Compared with the prior art, the advantages of the present invention are as follows: This invention discloses an intelligent copper plating equipment for tire bead wire. The cleaning mechanism effectively removes pickling solution from the wire. Simultaneously, the friction between the wire and the rotating tube further removes impurities, enhancing the cleaning effect. Furthermore, the centrifugal force generated during the rotation of the tube facilitates moisture separation and increases the airflow velocity, accelerating the drying process. Even when the rotating tube wears down, the drying process continues, improving reliability. Additionally, a filtration mechanism separates impurities from water, and the reciprocating movement of the lifting tube prevents filter clogging. Attached Figure Description

[0018] Figure 1 This is a perspective view of an intelligent copper plating equipment for tire bead wire according to the present invention; Figure 2 for Figure 1 The front view; Figure 3 for Figure 1 Top view; Figure 4 for Figure 1 The left view; Figure 5 This is a schematic diagram of the internal structure of the pickling tank; Figure 6 This is a schematic diagram of the internal structure of the cleaning box; Figure 7 A 3D view of the auxiliary components; Figure 8 for Figure 7 A three-dimensional image; Figure 9 This is a schematic diagram of the flushing assembly. Figure 10 This is a schematic diagram of the first structure of the filtration mechanism; Figure 11 This is a schematic diagram of the second structure of the filtration mechanism.

[0019] The components include: pickling tank 1, cleaning tank 2, supply pipe 3, level gauge 4, upper roller 5, lower roller 6, cleaning mechanism 7, rinsing assembly 71, conveying pipe 71.1, cleaning pipe 71.2, spray head 71.3, drain pipe 71.4, auxiliary assembly 72, rotating pipe 72.1, guide pipe 72.2, bearing 72.3, drive unit 72.4, driven gear 72.41, drive gear 72.42, motor 72.43, rotating pipe 72.5, connecting pipe 72.6, filtration mechanism 8, partition plate 81, lifting pipe 82, filter screen 83, slag discharge pipe 84, lifting assembly 85, lifting rod 85.1, spring 85.2, connecting plate 85.3, push plate 85.4, guide rod 85.5, and steel wire 9. Detailed Implementation

[0020] like Figure 1-11 As shown in this embodiment, an intelligent copper plating equipment for tire bead wire includes an pickling tank 1 and a cleaning tank 2, which are arranged horizontally. The pickling tank 1 contains pickling solution, and a supply pipe 3 is installed on the top of the pickling tank 1. A level gauge 4 is installed on the inner wall of the pickling tank 1. Two upper rollers 5 are fixedly installed at the top of the pickling tank 1, distributed horizontally. Two lower rollers 6 are fixedly installed at the bottom of the pickling tank 1, arranged horizontally between the two upper rollers 5. The lower rollers 6 and the level gauge 4... All are immersed in pickling solution. The cleaning tank 2 is equipped with a cleaning mechanism 7. The steel wire 9 enters from the left side, passes around the left upper roller 5, left lower roller 6, right lower roller 6 and right upper roller 5 in sequence and is then transported to the cleaning tank 2. The steel wire 9 is immersed in pickling solution for pickling. The level of pickling solution is measured by the level gauge 4. When the level of pickling solution is lower than the set level, the supply pipe 3 supplies pickling solution to the pickling tank 1. The supply pipe 3 is connected to an external pickling solution delivery system. The level data measured by the level gauge 4 enables the external pickling solution delivery system to automatically supply pickling solution, realizing intelligent operation. The cleaning mechanism 7 includes a rinsing component 71 and two auxiliary components 72. The rinsing component 71 is located between the two auxiliary components 72, which are arranged symmetrically on the left and right. The rinsing component 71 allows clean water to be applied to the steel wire 9 to rinse off the pickling solution on the steel wire 9. Of the two auxiliary components 72, the auxiliary component 72 on the left is used to remove impurities from the steel wire 9, and the auxiliary component 72 on the right is used to dry the steel wire 9. The auxiliary component 72 includes a rotating tube 72.1 and two conduits 72.2. The rotating tube 72.1 is parallel to the left-right direction, and the two conduits 72.2 are coaxially arranged with the rotating tube 72.1, located on the left and right sides of the rotating tube 72.1 respectively. Both ends of the conduits 72.2 are chamfered. One of the conduits 72.2 passes through the cleaning box 2, and the other conduit 72.2 is fixedly connected to the inner wall of the cleaning box 2. Two bearings 72.3 are installed on the outer wall of the rotating tube 72.1, distributed left and right. The outer ring of the bearings 72.3 is fixedly connected to the inner wall of the cleaning box 2. A driving unit 72.4 is provided on the rotating tube 72.1, and the driving unit 72.4 drives the rotating tube 72.1 to rotate around its own axis. A rotating tube 72.5 is fixedly provided inside the rotating tube 72.1. The rotating tube 72.5 is parallel to the rotating tube 72.1 and is eccentrically arranged with respect to the rotating tube 72.1. A connecting tube 72.6 is fixedly provided on the side of the rotating tube 72.5 away from the axis of the rotating tube 72.1. The axis of the connecting tube 72.6 is perpendicular to and intersects the axis of the rotating tube 72.5. The connecting tube 72.6 passes through the rotating tube 72.1 and is connected to the rotating tube 72.5. When the left auxiliary component 72 is working, the steel wire 9 passes sequentially through the left conduit 72.2, the rotating tube 72.1, and the rear conduit 72.2. The steel wire 9 inside the rotating tube 72.1 also passes through the rotating tube 72.5. The drive unit 72.4 causes the rotating tube 72.1 to rotate around its own axis on the bearing 72.3. The rotation of the rotating tube 72.1 drives the rotating tube 72.5 and the connecting tube 72.6 to rotate synchronously. During the rotation of the rotating tube 72.5, a relative rotation occurs between the steel wire 9 and the inner wall of the rotating tube 72.5. This causes the inner wall of the rotating tube 72.5 to rotate relative to the steel wire 9. The remaining fixed impurities are rubbed to separate them from the steel wire 9, thereby removing the impurities from the steel wire 9 and improving the cleaning effect of the steel wire 9. In addition, by rotating the connecting pipe 72.6, the air in the connecting pipe 72.6 is discharged from the end of the connecting pipe 72.6 away from the rotating pipe 72.5 by inertia. The air and impurities in the rotating pipe 72.5 are transported to the connecting pipe 72.6 and then discharged. The air in the rotating pipe 72.1 is then transported to the rotating pipe 72.5. In this way, the impurities are automatically discharged, and the impurity discharge effect can be improved by the air flow. When the right auxiliary component 72 is working, the steel wire 9 has already undergone impurity removal and water cleaning. The steel wire 9 passes sequentially through the left conduit 72.2, the rotating tube 72.1, and the rear conduit 72.2. The steel wire 9 in the rotating tube 72.1 also passes through the rotating tube 72.5. The drive unit 72.4 causes the rotating tube 72.1 to rotate around its own axis on the bearing 72.3. The rotation of the rotating tube 72.1 drives the rotating tube 72.5 and the connecting tube 72.6 to rotate synchronously. During the rotation of the rotating tube 72.5, the steel wire 9 rotates synchronously, and centrifugal force is used to rotate the wire. This process separates residual moisture from the steel wire 9, improving the drying effect of the steel wire 9. Furthermore, the air in the connecting tube 72.6 is discharged from the end of the connecting tube 72.6 away from the rotating tube 72.5 due to inertia, while the air in the rotating tube 72.5 is transported to the connecting tube 72.6 and then discharged. The air in the rotating tube 72.1 is then transported to the rotating tube 72.5. Through the flow of air, the drying efficiency of the steel wire 9 is improved. Moreover, even when the rotating tube 72.5 is worn, the steel wire 9 can still be dried, improving the reliability of the drying of the steel wire 9. The drive unit 72.4 includes a driven gear 72.41 mounted on the outer wall of the rotating tube 72.1, a drive gear 72.42 meshing with the driven gear 72.41, and the drive gear 72.42 being driven by a motor 72.43. The rinsing assembly 71 includes a delivery pipe 71.1 that extends vertically through the top of the cleaning tank 2. A cleaning pipe 71.2 is horizontally positioned at the bottom end of the delivery pipe 71.1. Both ends of the cleaning pipe 71.2 are sealed. Multiple spray heads 71.3 are installed at the bottom of the cleaning pipe 71.2, arranged sequentially from left to right. Both the cleaning pipe 71.2 and the spray heads 71.3 are located above the conduit 72.2. The delivery pipe 71.1 connects to each spray head 71 through the cleaning pipe 71.2. 3. The top end of the conveying pipe 71.1 is connected to the outer diameter water supply system. A drain pipe 71.4 is provided on the right side of the cleaning box 2. The drain pipe 71.4 is located below the conduit 72.2. The water supply system sequentially delivers clean water to the conveying pipe 71.1, the cleaning pipe 71.2 and each spray head 71.3. Each spray head 71.3 sprays water and acts on the steel wire 9 to rinse the acidic liquid on the steel wire 9. The rinsed water flows to the bottom of the cleaning box 2 and can be discharged through the drain pipe 71.4. The cleaning box 2 is also equipped with a filter mechanism 8, which is located between the drain pipe 71.4 and the conduit 72.2. The filter mechanism 8 is used to separate water and impurities. The filtration mechanism 8 includes a horizontally arranged partition 81, which divides the cleaning tank 2 into a vertically arranged cleaning chamber and a water recovery chamber. A vertically movable lifting pipe 82 is installed on the partition 81, and the lifting pipe 82 is slidably and sealingly connected to the partition 81. A filter screen 83 is installed at the top of the lifting pipe 82, and the filter screen 83 is positioned opposite the rinsing assembly 71. A slag discharge pipe 84 is located on the right side of the cleaning tank 2, between the guide pipe 72.2 and the partition 81. Two... Two lifting components 85 correspond one-to-one with two connecting pipes 72.6. The rotation of the connecting pipes 72.6 around the axis of the rotating pipe 72.1 causes the lifting components 85 to drive the lifting pipes 82 to move up and down reciprocally. When water and impurities on the steel wire 9 fall onto the filter screen 83, the water passes through the filter screen 83, while the impurities are trapped on the filter screen 83. The reciprocating movement of the filter screen 83 driven by the lifting pipes 82 causes the impurities on the filter screen 83 to jump and fall to the top of the partition plate 81, thereby cleaning the filter screen 83 and preventing the filter screen 83 from becoming clogged. The lifting assembly 85 includes a lifting rod 85.1, a spring 85.2, and a connecting plate 85.3. The lifting rod 85.1 vertically passes through the partition 81 and is slidably and sealingly connected to the partition 81. A push plate 85.4 is horizontally fixed at the top of the lifting plate, located below the rotating tube 72.1, and is arranged opposite to the connecting tube 72.6. The spring 85.2 is located between the partition 81 and the push plate 85.4, sleeved on the lifting rod 85.1, with one end fixedly mounted on the push plate 85.4. The other end of .2 is fixedly mounted on the partition plate 81. The connecting plate 85.3 is horizontally fixedly mounted on the bottom end of the lifting rod 85.1. The connecting plate 85.3 is fixedly mounted on the outer wall of the lifting tube 82. The connecting plate 85.3 is attached to the bottom of the partition plate 81. When the rotating tube 72.1 drives the connecting tube 72.6 to rotate around the axis of the rotating tube 72.1, the connecting tube 72.6 intermittently pushes the push plate 85.4 down. And through the elastic action of the spring 85.2, the push plate 85.4 achieves reciprocating lifting and lowering. The reciprocating lifting and lowering of the push plate 85.4 drives the lifting tube 82 to reciprocate and lower synchronously through the lifting rod 85.1 and the connecting plate 85.3. The bottom of the push plate 85.4 is provided with two guide rods 85.5, which are arranged one in front of the other. The guide rods 85.5 pass vertically through the partition plate 81 and are slidably and sealingly connected with the partition plate 81.

[0021] In addition to the above embodiments, the present invention also includes other embodiments. All technical solutions formed by equivalent transformation or equivalent substitution should fall within the protection scope of the claims of the present invention.

Claims

1. A working method for an intelligent copper plating equipment for tire bead wire, characterized in that: The system includes a pickling tank (1) and a cleaning tank (2), which are arranged on the left and right sides. The pickling tank (1) is filled with pickling solution. A supply pipe (3) is installed on the pickling tank (1) and connected to an external pickling solution delivery system. A level gauge (4) is installed on the inner wall of the pickling tank (1) and is immersed in the pickling solution. The level gauge (4) is connected to the external pickling solution delivery system. A cleaning mechanism (7) is installed in the cleaning tank (2). The cleaning mechanism (7) includes a rinsing component (71) and two auxiliary components (72). The rinsing component (71) is located between the two auxiliary components (72). The two auxiliary components (72) are arranged symmetrically on the left and right. The rinsing component (71) allows clean water to act on the steel wire (9) to rinse the pickling solution on the steel wire (9). Among the two auxiliary components (72), the auxiliary component (72) on the left is used to remove impurities on the steel wire (9), and the auxiliary component (72) on the right is used to dry the steel wire (9). The auxiliary component (72) includes a rotating tube (72.1) and two conduits (72.2). The rotating tube (72.1) is parallel to the left-right direction, and the two conduits (72.2) are coaxially arranged with the rotating tube (72.1). The two conduits (72.2) are located on the left and right sides of the rotating tube (72.1), respectively. One of the two conduits (72.2) passes through the cleaning box (2), and the other conduit (72.2) is fixedly connected to the inner wall of the cleaning box (2). Two bearings (72.3) are installed on the outer wall of the rotating tube (72.1). The two bearings (72.3) are distributed on the left and right sides, and the outer ring of the bearing (72.3) is connected to the cleaning box (2). The inner wall is fixedly connected, and a driving unit (72.4) is provided on the rotating tube (72.1). The driving unit (72.4) drives the rotating tube (72.1) to rotate around its own axis. A rotating tube (72.5) is fixedly provided inside the rotating tube (72.1). The rotating tube (72.5) is parallel to the rotating tube (72.1). The rotating tube (72.5) is eccentrically set to the rotating tube (72.1). A connecting tube (72.6) is fixedly provided on the side of the rotating tube (72.5) away from the axis of the rotating tube (72.1). The connecting tube (72.6) passes through the rotating tube (72.1) and is connected to the rotating tube (72.5). The cleaning box (2) is also equipped with a filter mechanism (8), which is located between the drain pipe (71.4) and the conduit (72.2). The filter mechanism (8) includes a horizontally sealed partition (81) fixedly installed on the inner wall of the cleaning box (2). A lifting pipe (82) is vertically inserted through the partition (81). The lifting pipe (82) is slidably and sealedly connected to the partition (81). A filter screen (83) is installed at the top of the lifting pipe (82). The cleaning box (2) is positioned opposite the flushing assembly (71). A slag discharge pipe (84) is provided on the right side of the cleaning box (2). The slag discharge pipe (84) is located between the guide pipe (72.2) and the partition (81). Two lifting assemblies (85) are provided on the lifting pipe (82). The two lifting assemblies (85) correspond one-to-one with the two connecting pipes (72.6). The lifting assemblies (85) drive the lifting pipe (82) to reciprocate up and down by rotating the connecting pipe (72.6) around the axis of the rotating pipe (72.1). The lifting assembly (85) includes a lifting rod (85.1), a spring (85.2), and a connecting plate (85.3). The lifting rod (85.1) passes vertically through the partition (81). The lifting rod (85.1) and the partition (81) are slidably and sealingly connected. A push plate (85.4) is horizontally fixed at the top of the lifting rod (85.1). The push plate (85.4) is located below the rotating tube (72.1). The push plate (85.4) and the connecting tube (72.6) are arranged opposite each other. The spring (85.2) is positioned... Between the partition (81) and the push plate (85.4), the spring (85.2) is sleeved on the lifting rod (85.1), one end of the spring (85.2) is fixedly set on the push plate (85.4), and the other end of the spring (85.2) is fixedly set on the partition (81). The connecting plate (85.3) is horizontally fixedly set at the bottom end of the lifting rod (85.1). The connecting plate (85.3) is fixedly set on the outer wall of the lifting tube (82). The connecting plate (85.3) is in contact with the bottom of the partition (81). The bottom of the push plate (85.4) is provided with two guide rods (85.5), which are arranged front and back. The guide rods (85.5) pass vertically through the partition (81), and the guide rods (85.5) are slidably and sealingly connected with the partition (81). The pickling tank (1) is fixedly provided with two upper rollers (5) on the top, which are distributed on the left and right. The pickling tank (1) is fixedly provided with two lower rollers (6) on the bottom, which are arranged on the left and right. The two lower rollers (6) are located between the two upper rollers (5) and are immersed in the pickling solution. The steel wire enters from the left and passes sequentially around the left upper roller, left lower roller, right lower roller, and right upper roller before being conveyed to the cleaning tank. The steel wire is immersed in the pickling solution for pickling. The level of the pickling solution is measured by a level gauge. When the level of the pickling solution is lower than the set level, the supply pipe delivers pickling solution into the pickling tank. The supply pipe is connected to an external pickling solution delivery system. The external pickling solution delivery system automatically delivers pickling solution based on the level data measured by the level gauge. When the left auxiliary component is working, the steel wire passes through the left guide tube, the rotating tube, and the rear guide tube in sequence. The steel wire in the rotating tube also passes through the rotating tube. The drive unit causes the rotating tube to rotate around its own axis on the bearing. The rotation of the rotating tube drives the rotating tube and the connecting tube to rotate synchronously. During the rotation of the rotating tube, the steel wire and the inner wall of the rotating tube rotate relative to each other. This causes the inner wall of the rotating tube to rub against the fixed impurities remaining on the steel wire, causing the fixed impurities to separate from the steel wire and thus removing the impurities from the steel wire. Through the rotation of the connecting tube, the air in the connecting tube is discharged from the end of the connecting tube away from the rotating tube by inertia. The air and impurities in the rotating tube are transported to the connecting tube and then discharged. The air in the rotating tube is then transported to the rotating tube. In this way, the impurities are automatically discharged. When the auxiliary component on the right is working, the steel wire has already been cleaned of impurities and rinsed with water. The steel wire passes through the left guide tube, the rotating tube and the rear guide tube in sequence. The steel wire in the rotating tube also passes through the rotating tube. The drive unit makes the rotating tube rotate around its own axis on the bearing. The rotation of the rotating tube drives the rotating tube and the connecting tube to rotate synchronously. During the rotation of the rotating tube, the steel wire rotates synchronously. The centrifugal force separates the residual water on the steel wire from the steel wire. The air in the connecting tube is discharged from the end of the connecting tube away from the rotating tube by inertia. The air in the rotating tube is then transported to the connecting tube and discharged. The air in the rotating tube is then transported to the rotating tube. When water and impurities on the steel wire fall onto the filter screen, the water passes through the filter screen, while the impurities are trapped on the filter screen. The filter screen is moved up and down by the lifting pipe, causing the impurities on the filter screen to jump and fall to the top of the baffle, thus cleaning the filter screen. When the rotating tube drives the connecting tube to rotate around the axis of the rotating tube, the connecting tube intermittently pushes the push plate down, and through the elastic action of the spring, the push plate reciprocates up and down. The reciprocating up and down of the push plate drives the lifting tube to reciprocate up and down synchronously through the lifting rod and the connecting plate.

2. The working method of the intelligent tire bead wire copper plating equipment according to claim 1, characterized in that: The drive unit (72.4) includes a driven gear (72.41) mounted on the outer wall of the rotating tube (72.1), and a drive gear (72.42) meshes with the driven gear (72.41). The drive gear (72.42) is driven by a motor (72.43).

3. The working method of the intelligent tire bead wire copper plating equipment according to claim 1 or 2, characterized in that: The rinsing assembly (71) includes a conveying pipe (71.1) that runs vertically through the top of the cleaning tank (2). A cleaning pipe (71.2) is horizontally arranged at the bottom end of the conveying pipe (71.1). Both ends of the cleaning pipe (71.2) are sealed. Multiple spray heads (71.3) are installed at the bottom of the cleaning pipe (71.2). The cleaning pipe (71.2) and the spray heads (71.3) are both located above the conduit (72.2). The conveying pipe (71.1) is connected to each spray head (71.3) through the cleaning pipe (71.2). A drain pipe (71.4) is arranged on the right side of the cleaning tank (2). The drain pipe (71.4) is located below the conduit (72.2). The water supply system delivers clean water sequentially to the delivery pipe, cleaning pipe, and each spray head. Each spray head sprays water onto the steel wire to rinse off the acidic liquid. The rinsed water flows to the bottom of the cleaning tank and can be discharged through the drain pipe.

4. The working method of the intelligent tire bead wire copper plating equipment according to claim 3, characterized in that: Multiple spray heads (71.3) are arranged sequentially from left to right.

5. The working method of the intelligent tire bead wire copper plating equipment according to claim 1, characterized in that: Both ends of the conduit (72.2) are chamfered.

6. The working method of the intelligent tire bead wire copper plating equipment according to claim 1, characterized in that: The axis of the connecting tube (72.6) is perpendicular to and intersects the axis of the rotating tube (72.5).

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