Multi-wire galvanized steel wire tension equalization guide

Abstract

The present application belongs to the technical field of galvanized steel wire uniform conductor, and specifically discloses a multi-wire galvanized steel wire tension balanced conductor device, which comprises a conductor frame, a tension adjusting device and a self-adaptive tension balancing device. The multiple hydraulic cylinders are connected with each other through hydraulic pipes to form a hydraulic linkage system, and based on Pascal's principle, the real-time dynamic balance of the tension of the multiple galvanized steel wires is realized. The single tension fluctuation is instantaneously transmitted through the hydraulic medium, the wire wrapping angle and path length of each steel wire are synchronously changed, the tension of each steel wire automatically tends to be consistent, and the whole process does not need sensors, controllers or external energy sources, so that the response is fast and the cost is low. In cooperation with the spring buffer adjusting structure, the tension impact protection and multi-specification adaptability are combined, the limitations of the prior art, such as the dependence on electrical control or independent adjustment, are overcome, and an efficient and reliable pure mechanical balanced conductor solution is provided for the continuous production of multi-wire galvanized steel wires.

Description

Technical Field

[0001] This invention belongs to the technical field of galvanized steel wire uniform conductors, specifically referring to a multi-wire galvanized steel wire tension balanced conductor device. Background Technology

[0002] Galvanized steel wire is widely used in metal products, wire drawing, rope making, and other industries. Its production process typically involves multiple steps, including unwinding, pickling, annealing, galvanizing, and winding. With long wire paths and numerous steps, tension control is one of the key factors affecting product quality. In the multi-line parallel production of galvanized steel wire, the tension consistency of each wire directly affects the uniformity of the galvanized layer, the surface quality of the product, and the processing effect of subsequent stranding processes.

[0003] Currently, there are various technical solutions for controlling wire tension. One type of solution uses purely mechanical structures such as springs or counterweights to achieve tension adjustment. For example, the tension can be adjusted by the cooperation of a swing arm, elastic connector, and tension roller; or the wire tension can be changed by adjusting the pressure of the intermediate idler roller. This type of solution has a simple structure, but the tension adjustment of each wire is independent, and it is impossible to achieve balanced and coordinated tension among multiple wires.

[0004] Another approach uses electrical control to regulate tension. For example, a linear displacement sensor detects tension changes, and a frequency converter controls the motor speed to achieve closed-loop tension control; or a cylinder applies a balancing force, and a moving plate changes the motor torque output when tension changes, achieving closed-loop dynamic balance. However, these approaches rely on sensors, controllers, and external power sources, resulting in complex systems, high costs, and the potential for sensor failures or signal delays to affect the timeliness and reliability of regulation.

[0005] Furthermore, in applications requiring simultaneous tension equalization guidance of multiple galvanized steel wires, existing technologies have the following shortcomings: First, the tension adjustment devices for each steel wire are independent of each other. When the tension of one steel wire changes due to fluctuations in the upstream process, the tension of other steel wires cannot be adaptively adjusted accordingly, making it difficult to achieve real-time synchronous equalization of the tension of multiple steel wires. Second, existing devices lack an effective buffer protection mechanism when the steel wire tension is too high, making them prone to damage due to tension impacts. Third, some adjustment devices require shutdown for adjustment, which cannot meet the needs of continuous production for online real-time adjustment.

[0006] To address the aforementioned issues, there is an urgent need for a conductor device that can automatically balance tension during the parallel operation of multiple galvanized steel wires, requires no external energy source or sensors, and has tension buffer protection functions. Summary of the Invention

[0007] To address the above issues and overcome the shortcomings of existing technologies, this invention provides a multi-wire galvanized steel wire tension balancing conductor device. This device utilizes multiple hydraulic cylinders interconnected via hydraulic pipes to form a hydraulic linkage system. Based on Pascal's principle, it achieves real-time dynamic tension balancing of multiple galvanized steel wires. Tension fluctuations in a single wire are instantaneously transmitted through the hydraulic medium, synchronously changing the wrap angle and path length of each wire, automatically bringing the tension of each wire to a uniform level. The entire process requires no sensors, controllers, or external energy sources, offering fast response and low cost. Combined with a spring-buffered adjustment structure, it provides both tension impact protection and adaptability to multiple specifications, overcoming the limitations of existing technologies that rely on electrical control or independent adjustments. This provides a highly efficient and reliable purely mechanical conductor balancing solution for continuous production of multi-wire galvanized steel wire.

[0008] The technical solution adopted by this invention is as follows: This invention provides a multi-wire galvanized steel wire tension balancing conductor device, including a conductor frame, a tension adjusting device, and an adaptive tension balancing device. The tension adjusting device is disposed on the conductor frame, and the adaptive tension balancing device is disposed on the tension adjusting device and the conductor frame. The adaptive tension balancing device includes a galvanized steel wire guide assembly and a balancing hydraulic assembly. The galvanized steel wire guide assembly is disposed on the conductor frame and the tension adjusting device, and the balancing hydraulic assembly is disposed on the conductor frame. The balancing hydraulic assembly is connected to the galvanized steel wire guide assembly.

[0009] Furthermore, the galvanized steel wire guide assembly includes an inlet guide, a tension guide, an outlet guide, and a tension adaptive movable component. The inlet guide is mounted on the conductor frame, the outlet guide is mounted on the conductor frame, the tension guide is positioned between the inlet and outlet guides, and is located below the inlet and outlet guides. The tension adaptive movable component is mounted on the tension adjusting device, and the tension guide is mounted on the tension adaptive movable component. The galvanized steel wire guide assembly has multiple sets.

[0010] Preferably, the tension adaptive movable component includes a fixed cylinder, a return spring, and a movable column. The fixed cylinder is mounted on the tension adjusting device, the movable column is telescopically movably mounted in the fixed cylinder, the return spring is sleeved on the movable column, and the return spring is located between the bottom end of the movable column and the inner top wall of the fixed cylinder. The tension guide component is connected to the upper end of the movable column. The number of tension adaptive movable components is the same as that of the galvanized steel wire guide assembly.

[0011] Furthermore, the tension guide includes a tension guide frame and a tension guide wheel. The tension guide frame is located at the upper end of the movable column, and the tension guide wheel is rotatably disposed within the tension guide frame.

[0012] The incoming line guide includes an incoming line guide frame and an incoming line guide wheel. The incoming line guide frame is mounted on the conductor frame, and the incoming line guide wheel is rotatably mounted in the incoming line guide frame.

[0013] Furthermore, the lead-out guide includes a lead-out guide frame and a lead-out guide wheel. The lead-out guide frame is mounted on the conductor frame, and the lead-out guide wheel is rotatably mounted in the lead-out guide frame.

[0014] As a further preferred embodiment of the present invention, the balanced hydraulic assembly includes a hydraulic cylinder and a hydraulic pipe. The hydraulic cylinder is mounted on a guide frame and has a piston rod inside. The piston rod is slidably connected to the hydraulic cylinder in a sealed manner. A linkage column is provided on the movable column, and the piston rod is connected to the linkage column. When the movable column extends or retracts, it drives the linkage column to rise or fall, thereby driving the piston rod to reciprocate within the hydraulic cylinder. Each hydraulic cylinder corresponds to a galvanized steel wire guide assembly. The hydraulic pipe connects each hydraulic cylinder, linking the cylinder cavities of each hydraulic cylinder to each other. The hydraulic cylinder and the hydraulic pipe are filled with a hydraulic medium, which is hydraulic oil.

[0015] Furthermore, the tension adjusting device includes a chassis, an incomplete bolt, an adjusting nut, a spring, and a locking sliding frame plate. The chassis is mounted on the conductor frame, the incomplete bolt is mounted on the chassis, and the end of the incomplete bolt away from the chassis has an external thread. The adjusting nut is sleeved on the incomplete bolt, and the inner wall of the adjusting nut has an internal thread. The adjusting nut is threadedly connected to the incomplete bolt through the internal and external threads. The end of the incomplete bolt near the chassis has a locking groove. The locking sliding frame plate is sleeved on the incomplete bolt and is locked and slidably disposed in the locking groove. The spring is sleeved on the incomplete bolt and is located below the adjusting nut. A washer is provided between the spring and the adjusting nut. One end of the spring is connected to the locking sliding frame plate, and the other end of the spring is connected to the washer.

[0016] The locking sliding frame includes a locking sliding frame and a support plate. The locking sliding frame is locked and slidably disposed in the locking sliding groove. The support plate is disposed at the upper end of the locking sliding frame. The fixing cylinder is disposed on the support plate.

[0017] Furthermore, the conductor frame has buffer grooves on its two opposite inner sidewalls, and the support plate is engaged and slidably disposed in the buffer grooves. When the tension of the galvanized steel wire is too high, the support plate can rise along the buffer grooves to buffer the tension, effectively preventing the device from being damaged when the tension of the galvanized steel wire is too high.

[0018] The beneficial effects achieved by the present invention using the above structure are as follows: (i) Pure mechanical hydraulic linkage adaptive adjustment without external energy and sensors: This invention utilizes Pascal's principle, in which multiple hydraulic cylinders are interconnected through hydraulic pipes. When the tension of a galvanized steel wire changes due to fluctuations in the upstream process, the corresponding movable column rises or falls, driving the piston rod of the corresponding hydraulic cylinder to move through the linkage column, thus changing the pressure inside the hydraulic cylinder. The increased pressure is instantly transmitted to other hydraulic cylinders through the hydraulic medium, driving the piston rods of other hydraulic cylinders to move in the opposite direction, thereby changing the position of the corresponding tension guide wheel, changing the wrap angle and path length of each steel wire. The entire adjustment process requires no sensors, controllers, or external energy, and is completed automatically by the hydraulic linkage system, with the advantages of fast response speed, high reliability, and low cost. (II) Real-time synchronous equalization of tension in multiple galvanized steel wires: When the tension of one galvanized steel wire increases, the present invention synchronously increases the running resistance of other steel wires through a hydraulic linkage system. This reduces the running resistance of the wire with excessive tension and increases the running resistance of the wire with insufficient tension until the pressure in each hydraulic cylinder is rebalanced and each movable column returns to its equilibrium position. This mechanism ensures that the tension of multiple parallel galvanized steel wires remains consistent, effectively avoiding problems such as inconsistent galvanized layer thickness and fluctuations in product surface quality caused by uneven tension in each steel wire. (III) Possesses tension buffer protection function and extends the service life of the device: The present invention can preset the elastic force or compression of the spring by adjusting the nut, which can provide elastic auxiliary buffer when the tension of the galvanized steel wire is too large; when the tension of the steel wire exceeds the normal range, the elastic deformation of the spring can absorb part of the impact energy, effectively preventing the device from being damaged due to excessive tension of the galvanized steel wire, and improving the stability and service life of the equipment. (iv) Simple structure, applicable to galvanized steel wire of different specifications: The spring force or compression can be adjusted by rotating the adjusting nut, which can flexibly adapt to the tension control requirements of galvanized steel wire of different diameters and strength grades. It has strong versatility and is easy to operate. (v) Adapting to the needs of continuous production without the need for machine stoppage adjustment: The present invention can complete the tension balance adjustment in real time during the line running process without the need for machine stoppage operation, which meets the urgent needs of continuous production lines for galvanized steel wire for efficient and stable operation. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the overall structure of a multi-wire galvanized steel wire tension balancing conductor device proposed in this invention; Figure 2 This is a left view of a multi-wire galvanized steel wire tension equalization conductor device proposed in this invention; Figure 3 This is a front view of a multi-wire galvanized steel wire tension balancing conductor device proposed in this invention; Figure 4 This is a top view of a multi-wire galvanized steel wire tension equalization conductor device proposed in this invention; Figure 5 This is a schematic diagram of the adaptive tension equalization device. Figure 6 A schematic diagram of the cross-sectional structure of the adaptive tension equalization device; Figure 7 This is a schematic diagram of the tension adjustment device. Figure 8 This is a schematic diagram of the combination of chassis, incomplete bolts, adjusting nuts, and springs. Figure 9 This is a schematic diagram of the locking sliding frame plate. Figure 10 This is a schematic diagram of the conductor frame structure.

[0020] The components are as follows: 1. Conductor frame; 2. Tension adjustment device; 3. Adaptive tension balancing device; 4. Galvanized steel wire guide assembly; 5. Balancing hydraulic assembly; 6. Inlet guide; 7. Tension guide; 8. Outlet guide; 9. Tension adaptive movable component; 10. Fixed cylinder; 11. Return spring; 12. Movable column; 13. Tension guide frame; 14. Tension guide wheel; 15. Inlet guide frame; 16. Inlet guide wheel; 17. Outlet guide frame; 18. Outlet guide wheel; 19. Hydraulic cylinder; 20. Hydraulic pipe; 21. Piston rod; 22. Linkage column; 23. Chassis; 24. Incomplete bolt; 25. Adjusting nut; 26. Spring; 27. Engaging sliding frame plate; 28. Engaging slide groove; 29. ​​Shim; 30. Engaging sliding frame; 31. Support plate; 32. Buffer groove.

[0021] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention and do not constitute a limitation thereof. Detailed Implementation

[0022] The technical solutions of the present invention will be clearly and completely described below with reference to the accompanying drawings of the embodiments of the present invention. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.

[0023] In the description of this invention, it should be understood that the terms "upper", "lower", "front", "rear", "left", "right", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and 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 this invention.

[0024] like Figures 1-10 As shown, the present invention provides a multi-wire galvanized steel wire tension balancing conductor device, including a conductor frame 1, a tension adjusting device 2, and an adaptive tension balancing device 3. The tension adjusting device 2 is disposed on the conductor frame 1, and the adaptive tension balancing device 3 is disposed on the tension adjusting device 2 and the conductor frame 1. Buffer grooves 32 are provided on the two opposite inner sidewalls of the conductor frame 1.

[0025] The tension adjusting device 2 includes a base 23, an incomplete bolt 24, an adjusting nut 25, a spring 26, and a locking sliding frame plate 27. The base 23 is mounted on the conductor frame 1. The incomplete bolt 24 is mounted on the base 23, and the end of the incomplete bolt 24 away from the base 23 has an external thread. The adjusting nut 25 is sleeved on the incomplete bolt 24, and the inner wall of the adjusting nut 25 has an internal thread. The adjusting nut 25 is threadedly connected to the incomplete bolt 24 through the internal and external threads. The end of the incomplete bolt 24 near the base 23 has a locking groove 28. The locking sliding frame plate 27 is sleeved on the incomplete bolt 24 and includes a locking sliding frame 3. The device consists of a 0 and a support plate 31. The engaging sliding frame 30 is engaged and slidably disposed in the engaging sliding groove 28. The support plate 31 is disposed on the upper end of the engaging sliding frame 30 and engaged and slidably disposed in the buffer groove 32. When the tension of the galvanized steel wire is too high, the support plate 31 can rise along the buffer groove 32 to buffer the tension and effectively prevent the device from being damaged due to excessive tension of the galvanized steel wire. The fixed cylinder 10 is disposed on the support plate 31. The spring 26 is sleeved on the incomplete bolt 24 and is disposed below the adjusting nut 25. A washer 29 is provided between the spring 26 and the adjusting nut 25. One end of the spring 26 is connected to the engaging sliding frame plate 27, and the other end of the spring 26 is connected to the washer 29.

[0026] The adaptive tension balancing device 3 includes a galvanized steel wire guide assembly 4 and a balancing hydraulic assembly 5. The galvanized steel wire guide assembly 4 includes an inlet guide 6, a tension guide 7, an outlet guide 8, and a tension adaptive movable component 9. The inlet guide 6 includes an inlet guide frame 15 and an inlet guide wheel 16. The inlet guide frame 15 is mounted on the conductor frame 1, and the inlet guide wheel 16 is rotatably mounted in the inlet guide frame 15. The outlet guide 8 includes an outlet guide frame 17 and an outlet guide wheel 18. The outlet guide frame 17 is mounted on the conductor frame 1, and the outlet guide wheel 18 is rotatably mounted in the conductor frame 1. In the lead wire guide frame 17, the tension guide component 7 includes a tension guide frame 13 and a tension guide wheel 14. The tension guide frame 13 is located at the upper end of the movable column 12, and the tension guide wheel 14 is rotatably mounted in the tension guide frame 13. The tension guide wheel 14 is located between the lead wire guide wheel 16 and the lead wire guide wheel 18, and is located below the lead wire guide wheel 16 and the lead wire guide wheel 18. The tension adaptive movable component 9 is located on the tension adjusting device 2, and the tension guide component 7 is located on the tension adaptive movable component 9. The galvanized steel wire guide assembly 4 has multiple sets; the tension self... The adaptive movable component 9 includes a fixed cylinder 10, a return spring 11, and a movable column 12. The fixed cylinder 10 is mounted on the support plate 31, and the movable column 12 is telescopically movably mounted within the fixed cylinder 10. The return spring 11 is sleeved on the movable column 12 and is located between the bottom end of the movable column 12 and the inner top wall of the fixed cylinder 10. The tension guide frame 13 is connected to the upper end of the movable column 12. The number of tension adaptive movable components 9 is the same as that of the galvanized steel wire guide assembly 4. The equalizing hydraulic assembly 5 includes a hydraulic cylinder 19 and a hydraulic pipe 20. The hydraulic cylinder 19 is mounted on... On the conductor frame 1, a piston rod 21 is provided in the hydraulic cylinder 19. The piston rod 21 is slidably connected to the hydraulic cylinder 19. A linkage column 22 is provided on the movable column 12. The piston rod 21 is connected to the linkage column 22. When the movable column 12 extends or retracts, it drives the linkage column 22 to rise or fall, thereby driving the piston rod 21 to reciprocate in the hydraulic cylinder 19. The hydraulic cylinder 19 corresponds one-to-one with the galvanized steel wire guide assembly 4. The hydraulic pipe 20 connects each hydraulic cylinder 19, connecting the cylinder cavities of each hydraulic cylinder 19 to each other. The hydraulic cylinder 19 and the hydraulic pipe 20 are filled with hydraulic medium.

[0027] In practical use, depending on the characteristics of the galvanized steel wire to be guided, the adjusting nut 25 is rotated. Rotating the adjusting nut 25 adjusts the elasticity or compression of the spring 26 to better accommodate galvanized steel wires of different specifications. It provides elastic buffering when the tension of the galvanized steel wire is too high, effectively preventing damage to the device due to excessive tension. After adjustment, multiple galvanized steel wires are sequentially passed through the infeed guide wheel 16, tension guide wheel 14, and outfeed guide wheel 18. During the wire routing process, if the tension of the multiple galvanized steel wires is initially balanced, each movable column 12 is in a balanced position, and the pressure in each hydraulic cylinder 19 is equal, when one of the galvanized steel wires... When the tension of the galvanized steel wire increases due to fluctuations in the upstream process, the pressure of this galvanized steel wire on its corresponding tension guide wheel 14 increases, causing the corresponding movable column 12 to rise along the fixed cylinder 10. The rise of the movable column 12 causes the linkage column 22 to rise, which in turn causes the piston rod 21 of the corresponding hydraulic cylinder 19 to move upward, compressing the hydraulic medium inside the hydraulic cylinder 19 and increasing the pressure inside the cylinder. Since the hydraulic cylinders 19 are interconnected through hydraulic pipes 20, according to Pascal's principle, the increased pressure is transmitted to other hydraulic cylinders 19 through the hydraulic medium. Under the action of the increased hydraulic pressure, the piston rod 21 of the other hydraulic cylinders 19 extends downward, pushing the piston rod 21 of the corresponding hydraulic cylinder 19 upward. The corresponding linkage column 22 moves in the opposite direction. For the adaptive tension balancing device 3 where this galvanized steel wire is located, the rise of the movable column 12 causes the position of the corresponding tension guide wheel 14 to change, reducing the wrap angle of this galvanized steel wire and changing the length of its path, thereby reducing the resistance of the first galvanized steel wire and decreasing its tension. For the adaptive tension balancing device 3 where other galvanized steel wires are located, the rise of the movable column 12 causes the position of the corresponding tension guide wheel 14 to change, increasing the wrap angle of other galvanized steel wires and changing their path length, thereby increasing the resistance of other galvanized steel wires. The resistance of the wire's path increases the tension of other galvanized steel wires. This process continues automatically until the pressure in each hydraulic cylinder 19 is balanced again and each movable column 12 returns to its balanced position. At this point, the tension of each galvanized steel wire becomes consistent again. The entire adjustment process requires no sensors, controllers, or external energy; it is completed automatically by the hydraulic linkage system. When the tension of this galvanized steel wire returns to its normal value, the process reverses, and the system automatically returns to its initial equilibrium state. This achieves the technical effect of guiding the tension of multiple galvanized steel wires evenly. This is the specific workflow of the present invention. This step can be repeated for the next use.

[0028] It should be noted that, in this document, the terms “comprising,” “including,” or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.

[0029] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the foregoing and its equivalents.

[0030] The present invention and its embodiments have been described above. This description is not restrictive, and the accompanying drawings are only one embodiment of the present invention; the actual structure is not limited thereto. In conclusion, if those skilled in the art are inspired by this description and design similar structures and embodiments without departing from the spirit of the invention, such designs should fall within the protection scope of the present invention.

Claims

1. A multi-wire galvanized steel wire tension balancing conductor device, characterized in that: The device includes a conductor frame (1), a tension adjustment device (2), and an adaptive tension equalization device (3). The tension adjustment device (2) is mounted on the conductor frame (1), and the adaptive tension equalization device (3) is mounted on both the tension adjustment device (2) and the conductor frame (1). The adaptive tension equalization device (3) includes a galvanized steel wire guide assembly (4) and a balancing hydraulic assembly (5). The galvanized steel wire guide assembly (4) is mounted on both the conductor frame (1) and the tension adjustment device (2), and the balancing hydraulic assembly (5) is mounted on the conductor frame (1). The balancing hydraulic assembly (5) is connected to the galvanized steel wire guide assembly (4).

2. The multi-wire galvanized steel wire tension equalization conductor device according to claim 1, characterized in that: The galvanized steel wire guide assembly (4) includes an inlet guide (6), a tension guide (7), an outlet guide (8), and a tension adaptive movable part (9). The inlet guide (6) is located on the conductor frame (1), the outlet guide (8) is located on the conductor frame (1), the tension guide (7) is located between the inlet guide (6) and the outlet guide (8), and the tension guide (7) is located below the inlet guide (6) and the outlet guide (8). The tension adaptive movable part (9) is located on the tension adjusting device (2), and the tension guide (7) is located on the tension adaptive movable part (9). The galvanized steel wire guide assembly (4) has multiple sets.

3. The multi-wire galvanized steel wire tension balancing conductor device according to claim 2, characterized in that: The tension adaptive movable component (9) includes a fixed cylinder (10), a return spring (11), and a movable column (12). The fixed cylinder (10) is mounted on the tension adjusting device (2). The movable column (12) is telescopically mounted in the fixed cylinder (10). The return spring (11) is sleeved on the movable column (12). The return spring (11) is located between the bottom end of the movable column (12) and the inner top wall of the fixed cylinder (10). The tension guide component (7) is connected to the upper end of the movable column (12). The number of tension adaptive movable components (9) is the same as that of the galvanized steel wire guide assembly (4).

4. The multi-wire galvanized steel wire tension balancing conductor device according to claim 3, characterized in that: The tension guide (7) includes a tension guide frame (13) and a tension guide wheel (14). The tension guide frame (13) is located at the upper end of the movable column (12), and the tension guide wheel (14) is rotatably located in the tension guide frame (13).

5. The multi-wire galvanized steel wire tension balancing conductor device according to claim 4, characterized in that: The incoming line guide (6) includes an incoming line guide frame (15) and an incoming line guide wheel (16). The incoming line guide frame (15) is mounted on the conductor frame (1), and the incoming line guide wheel (16) is rotatably mounted in the incoming line guide frame (15).

6. The multi-wire galvanized steel wire tension balancing conductor device according to claim 5, characterized in that: The outgoing guide (8) includes an outgoing guide frame (17) and an outgoing guide wheel (18). The outgoing guide frame (17) is mounted on the conductor frame (1), and the outgoing guide wheel (18) is rotatably mounted in the outgoing guide frame (17).

7. The multi-wire galvanized steel wire tension balancing conductor device according to claim 6, characterized in that: The balanced hydraulic assembly (5) includes a hydraulic cylinder (19) and a hydraulic pipe (20). The hydraulic cylinder (19) is mounted on the guide frame (1). The hydraulic cylinder (19) has a piston rod (21) and is slidably connected to the hydraulic cylinder (19). The movable column (12) has a linkage column (22) and the piston rod (21) is connected to the linkage column (22). The hydraulic cylinder (19) corresponds one-to-one with the galvanized steel wire guide assembly (4). The hydraulic pipe (20) connects to each hydraulic cylinder (19). The hydraulic cylinder (19) and the hydraulic pipe (20) are filled with hydraulic medium.

8. The multi-wire galvanized steel wire tension balancing conductor device according to claim 7, characterized in that: The tension adjusting device (2) includes a base (23), an incomplete bolt (24), an adjusting nut (25), a spring (26), and a locking sliding frame plate (27). The base (23) is mounted on the conductor frame (1), and the incomplete bolt (24) is mounted on the base (23). The end of the incomplete bolt (24) away from the base (23) has an external thread. The adjusting nut (25) is sleeved on the incomplete bolt (24), and the inner wall of the adjusting nut (25) has an internal thread. The adjusting nut (25) is threaded to the incomplete bolt (24) through the internal and external threads. The incomplete bolt (24) has a locking groove (28) at one end near the chassis (23). The locking sliding frame plate (27) is sleeved on the incomplete bolt (24) and is locked and slidably disposed in the locking groove (28). The spring (26) is sleeved on the incomplete bolt (24) and is disposed below the adjusting nut (25). A washer (29) is provided between the spring (26) and the adjusting nut (25). One end of the spring (26) is connected to the locking sliding frame plate (27), and the other end of the spring (26) is connected to the washer (29).

9. A multi-wire galvanized steel wire tension balancing conductor device according to claim 8, characterized in that: The locking sliding frame plate (27) includes a locking sliding frame (30) and a support plate (31). The locking sliding frame (30) is locked and slidably disposed in the locking sliding groove (28). The support plate (31) is disposed at the upper end of the locking sliding frame (30). The fixing cylinder (10) is disposed on the support plate (31).

10. A multi-wire galvanized steel wire tension balancing conductor device according to claim 9, characterized in that: The conductor frame (1) has buffer grooves (32) on its two opposite inner sidewalls, and the support plate (31) is engaged and slidably disposed in the buffer grooves (32).

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