Wire winding equipment for wire processing

Abstract

The invention relates to the technical field of electric wire processing, and discloses winding equipment for electric wire processing, which comprises a thread type wire leading mechanism and a damping type wire leading mechanism, a cable leading ring body which moves along with the movable base block and can horizontally guide the cable and a cylindrical bag body which is arranged in the cable leading ring body and can generate pressure type wrapping on the cable body are arranged in the movable base block. According to the winding equipment for electric wire processing, a cable can be wound in a winding groove of a winding wheel in a preset mode through a lead ring body capable of doing reciprocating motion, in addition, the device utilizes the inner diameter folding phenomenon generated after a cylindrical bag body is pressed to generate the extrusion type wrapping phenomenon on a cable body, and therefore when the winding wheel winds the cable, the cable can be wound in the winding groove of the winding wheel, and the cable can be wound in the winding groove of the winding wheel. The frictional resistance of the cylindrical bag body to the cable can generate a damping phenomenon to a winding phenomenon, and the damping phenomenon can enable the cable to generate winding tightness, so that the winding effect of a finished product is improved.

Description

Technical Field

[0001] This invention relates to the field of wire processing technology, specifically to a wire winding device for wire processing. Background Technology

[0002] Wires and cables are products used to transmit electrical (magnetic) energy. They consist of one or more insulated wire cores, and their respective sheaths, overall protective layers, and outer protective layers. Since the diameter of the winding spool used for winding is generally larger than the width of the wire and cable, the wire and cable tend to pile up on one side of the winding spool during the winding process, resulting in uneven winding and reducing the winding effect of the wire and cable.

[0003] To this end, Chinese Patent Publication No. CN222181395U discloses a "winding device for wire and cable processing," the main structure of which includes a base plate, a guide component fixedly connected to the upper surface of the base plate, and a rotating component fixedly connected to the side of the upper surface of the base plate away from the guide component. In use, this winding device, through the coordinated operation of a first motor, a threaded rod, a fixed rod, a moving block, and a guide ring, allows the first motor to drive the threaded rod to rotate, while the moving block drives the guide ring to reciprocate, guiding the movement path of the wire and cable. This ensures that the wire and cable are evenly wound onto the take-up roller during the winding process, preventing the winding reel from directly contacting the wire and cable and avoiding the wire and cable from easily piling up on one side of the winding reel, thus improving the winding effect of the device.

[0004] However, when the aforementioned wire and cable processing winding equipment guides the cable, the guide ring can only drive the cable to move horizontally back and forth. During the winding process, the guide ring does not generate movement and winding damping on the cable. As a result, the cable winding into the winding wheel has poor winding tightness due to tension relaxation. Therefore, the spiral regularity of the cable after winding is relatively poor. Summary of the Invention

[0005] To address the shortcomings of existing technologies, this invention provides a winding device for wire processing. It utilizes a reciprocating lead ring to wind the cable into the winding groove of a winding wheel in a predetermined manner. Furthermore, the device employs the inner diameter closing phenomenon of a cylindrical bladder under pressure to create a squeezing and wrapping effect on the cable. This allows the frictional resistance of the cylindrical bladder against the cable to dampen the winding process as the winding wheel winds the cable. This damping effect increases the tightness of the winding, improving the winding effect of the finished product and solving the aforementioned technical problems.

[0006] To achieve the above objectives, the present invention provides the following technical solution: a winding device for wire processing, comprising a bottom support base, a first support base and a second support base fixedly mounted on the upper surface of the bottom support base, a winding shaft rotatably mounted on the top of the first support base, a synchronous pulley capable of driving the winding shaft to rotate, and a winding wheel detachably mounted on the surface of the winding shaft; further comprising a threaded wire guiding mechanism, which internally comprises a movable base fixedly mounted on the top of the second support base and capable of guiding the cable horizontally, a horizontal threaded rod capable of moving the movable base horizontally during rotation, and a drive motor capable of driving the horizontal threaded rod to rotate; and a damping wire guiding mechanism, which internally comprises a wire guiding ring body that moves with the movable base block and can guide the cable horizontally, and a cylindrical bladder installed inside the wire guiding ring body and capable of pressure-wrapping the cable.

[0007] Preferably, the threaded lead mechanism includes two symmetrical L-shaped mounting bases fixedly mounted on the top of the second support base. Each of the two L-shaped mounting bases has a rotatable horizontal drive shaft mounted via bearings. At opposite ends of the two horizontal drive shafts, a horizontal threaded rod is fixedly mounted via a mating flange. At opposite ends of the two L-shaped mounting bases, a horizontal limiting rod is fixedly mounted. One end of one of the horizontal drive shafts is fixedly connected to the rotor of the drive motor via a coupling. The drive motor is mounted on one side of the L-shaped mounting base via a fixed bracket. The movable base block has an internally threaded hole mounted on the horizontal threaded rod body via a threaded structure. The movable base block also has a limiting sliding hole that allows horizontal sliding along the horizontal limiting rod. The top of the movable base block has a first connecting plate integrally formed with it.

[0008] Preferably, the thread structure includes an internal thread structure disposed on the inner wall of the internal thread hole and an external thread structure disposed on the horizontal thread rod body, and the internal thread structure and the external thread structure are matched.

[0009] Preferably, the cross-sectional shape of the limiting sliding hole is consistent with the cross-sectional shape of the horizontal limiting rod, both being polygonal structures, and the structural dimensions of the cross-sectional shape of the limiting sliding hole match the structural dimensions of the cross-sectional shape of the horizontal limiting rod.

[0010] Preferably, the damping lead wire mechanism includes a second connecting plate disposed at the bottom of the lead wire ring body and fixedly connected to a first connecting plate. The center of the lead wire ring body has a lead wire through-hole pointing towards the winding reel. The lead wire ring body has an annular liquid flow cavity surrounding the central area of ​​the lead wire through-hole. The top area of ​​the lead wire ring body has a liquid compensation channel for injecting liquid into the annular liquid flow cavity. One side of the lead wire ring body has a first liquid flow hole communicating with one side of the annular liquid flow cavity. One end of the first liquid flow hole has a first horizontal component movable cavity. One end of the first horizontal component movable cavity has a rod through-hole. The lead wire ring body is located at the... Inside the movable cavity of the first horizontal component, a piston body capable of moving axially along the movable cavity of the first horizontal component is installed. A horizontal pull rod is fixedly installed at the end of the piston body facing the through hole of the rod body. A first helical spring in a compressed state is sleeved around the rod body located inside the movable cavity of the first horizontal component. On the other side of the lead ring body, a first docking channel with an integral structure is provided. Inside the first docking channel, a second liquid flow hole is provided, connecting the external space and the other side of the annular liquid flow cavity. A cylindrical capsule is embedded in the lead ring body at the junction of the lead hole and the annular liquid flow cavity.

[0011] Preferably, the lead ring body has rounded corner structures at both open ends of the lead through hole to facilitate cable bending and movement.

[0012] Preferably, it also includes an elastic pressure control mechanism, which has a horizontal hollow tube fixedly installed at the end of the first docking channel and is hollow inside, a movable valve plate placed inside the horizontal hollow tube and capable of intercepting the liquid from the second liquid flow hole, and a second helical spring that generates elastic damping for the directional movement of the movable valve plate.

[0013] Preferably, the elastic pressure control mechanism includes a second horizontal component movable cavity disposed inside a horizontal hollow tube. One end of the horizontal hollow tube is provided with a second docking channel fixedly installed at the end of the first docking channel. The second docking channel is provided with a first pressure relief hole connecting one end of the second horizontal component movable cavity and a second liquid flow hole. The other end of the horizontal hollow tube located in the second horizontal component movable cavity is provided with a second pressure relief hole for discharging liquid. A movable valve plate capable of moving axially along the second horizontal component movable cavity is placed inside the horizontal hollow tube located in the second horizontal component movable cavity. The circumferential surface of the movable valve plate is provided with multiple concave pressure relief grooves. An annular sealing ring is embedded in the end of the movable valve plate facing the first pressure relief hole. A second helical spring in a compressed state is installed at the other end of the annular sealing ring.

[0014] Preferably, a portion of the structure of the annular sealing ring protrudes outward relative to the embedded end face of the movable valve plate, and the structural radius of the inner ring of the annular sealing ring is greater than the structural radius of the first pressure relief hole, while the structural radius of the outer ring is less than the distance between the annular sealing ring and the axis of the movable valve plate.

[0015] Preferably, the elastic strength of the second helical spring in the initial state is not less than the elastic strength of the first helical spring in the fully compressed state.

[0016] Compared with the prior art, the present invention provides a winding device for wire processing, which has the following advantages: The device utilizes a reciprocating lead ring to wind the cable into the winding groove of the winding wheel in a predetermined manner. Furthermore, the device uses the inner diameter closing phenomenon of the cylindrical bladder after being compressed to create a squeezing and wrapping phenomenon on the cable. As the winding wheel winds the cable, the frictional resistance of the cylindrical bladder on the cable can generate a damping phenomenon in the winding process. This damping phenomenon can make the cable winding tighter, thereby improving the winding effect of the finished product. Attached Figure Description

[0017] Figure 1 This is a perspective view of the present invention; Figure 2 This is a three-dimensional cross-sectional view of the present invention; Figure 3 This is a perspective view of the threaded lead mechanism in this invention; Figure 4 This is a three-dimensional cross-sectional view of the threaded lead mechanism in this invention; Figure 5 This is a perspective view of the damping lead wire mechanism in this invention; Figure 6 This is a three-dimensional cross-sectional view of the damping lead wire mechanism in this invention; Figure 7 This is a three-dimensional cross-sectional view of the elastic pressure control mechanism in this invention; Figure 8 This is a perspective view of the movable valve plate in this invention.

[0018] The components include: 1. Bottom support base plate; 2. Support base No. 1; 3. Support base No. 2; 4. Winding spool; 5. Synchronous belt pulley; 6. Winding reel; 7. Threaded lead wire mechanism; 71. L-shaped mounting base; 72. Horizontal drive shaft; 73. Connecting flange; 74. Coupling; 75. Drive motor; 76. Horizontal threaded rod; 77. Horizontal limit rod; 78. Moving base block; 79. Internal threaded hole; 710. Limiting sliding hole; 711. Connecting plate No. 1; 8. Damped lead wire mechanism; 81. Lead wire ring body; 82. Connecting plate No. 2; 83. Lead wire through hole; 84. Annular liquid. 85. Flow chamber; 86. Cylindrical bladder; 87. Liquid compensation channel; 88. Liquid flow hole No. 1; 89. Horizontal component movable chamber No. 1; 80. Rod perforation; 811. Piston body; 812. Horizontal tie rod; 813. Helical spring No. 1; 814. Docking channel No. 1; 815. Liquid flow hole No. 2; 91. Elastic pressure control mechanism; 92. Horizontal hollow tube; 93. Docking channel No. 2; 94. Pressure relief hole No. 1; 95. Pressure relief hole No. 2; 96. Moving valve plate; 97. Pressure relief groove; 98. Annular sealing ring; 99. Helical spring No. 2. Detailed Implementation

[0019] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0020] Please see Figure 1 and Figure 2 A wire winding device for wire processing includes a bottom support base 1, a first support base 2 and a second support base 3 fixedly mounted on the upper surface of the bottom support base 1, a winding shaft 4 rotatably mounted on the top of the first support base 2, a synchronous pulley 5 capable of driving the winding shaft 4 to rotate, and a winding wheel 6 detachably mounted on the surface of the winding shaft 4. During operation, a hoisting motor mounted on the upper surface of the bottom support base 1 is used, and the rotor of the hoisting motor and the synchronous pulley 5 are linked by a drive pulley and a synchronous belt. Then, one end of the cable to be wound is passed through the lead wire through hole 83, and the end of the cable is installed in the winding groove of the winding wheel 6 in a predetermined manner. The hoisting motor is then started, at which point the synchronous pulley 5 and the winding wheel 6 will rotate in a directional manner, thus rotating and winding the cable.

[0021] To achieve horizontal guidance of the cable, please refer to Figure 1 , Figure 2 , Figure 3 and Figure 4 A threaded cable guide mechanism 7 needs to be installed, which contains a movable base block 78 fixedly installed on the top of the second support base 3 and capable of guiding the cable horizontally, a horizontal threaded rod 76 that allows the movable base block 78 to move horizontally when rotated, and a drive motor 75 that drives the horizontal threaded rod 76 to rotate. When the cable is being wound, the drive motor 75 is started. It should be noted that the drive motor 75 is connected to the signal output terminal of a PLC controller, and the PLC controller needs to have the function of controlling the rotation direction and speed of the drive motor 75. By controlling the rotation direction and speed of the drive motor 75 through the PLC controller, the movable base block 78 can drive the cable to move horizontally according to the required stroke, so that the cable can be wound in the winding wheel 6 in a cyclic manner.

[0022] For details regarding the specific structure of the threaded lead mechanism 7, please refer to [link / reference]. Figure 3 and Figure 4 The system includes two symmetrical L-shaped mounting bases 71 fixedly mounted on top of the second support base 3. Each of the two L-shaped mounting bases 71 has a rotatable horizontal drive shaft 72 mounted on it via bearings. At opposite ends of the two horizontal drive shafts 72, a horizontal threaded rod 76 is fixedly mounted via a mating flange 73. At opposite ends of the two L-shaped mounting bases 71, a horizontal limiting rod 77 is fixedly mounted. The end of one of the horizontal drive shafts 72 is fixedly connected to the rotor of a drive motor 75 via a coupling 74. The drive motor 75 is mounted on one side of the L-shaped mounting base 71 via a fixed bracket. The movable base block 78 is provided with a threaded structure mounted on the horizontal threaded rod. The threaded rod 76 has an internal threaded hole 79 on its body. The movable base block 78 is provided with a limiting sliding hole 710 that can slide horizontally along the horizontal limiting rod 77. The top of the movable base block 78 is provided with a first connecting plate 711 integral with it. The threaded structure includes an internal thread structure provided on the inner circumference of the internal threaded hole 79 and an external thread structure provided on the body of the horizontal threaded rod 76. The internal thread structure matches the external thread structure. The cross-sectional shape of the limiting sliding hole 710 is consistent with the cross-sectional shape of the horizontal limiting rod 77, both being polygonal structures. The cross-sectional dimensions of the limiting sliding hole 710 match the cross-sectional dimensions of the horizontal limiting rod 77.

[0023] To achieve frictional damping of the cable during the winding process, please refer to... Figure 1 , Figure 2 , Figure 5 and Figure 6A damped lead wire mechanism 8 is required, which includes a lead wire ring 81 that moves with the movable base block 78 and can horizontally guide the cable, and a cylindrical capsule 85 installed inside the lead wire ring 81 that can pressure-enclose the cable. A liquid injection device is used to inject buffer solution into the annular liquid flow chamber 84 through the liquid compensation channel 86, and the pressure after liquid injection is controlled. This pressure is required to keep the piston body 810 in the middle region of the first horizontal component's movable chamber 88, and the first helical spring 812 in a semi-compressed state. This is necessary when threading the cable. Pulling the horizontal lever 811 outward reduces the liquid pressure inside the annular liquid flow chamber 84. Then, the cable is passed through the lead wire hole 83, and the tension on the horizontal lever 811 is released. Under the elastic pressure of the first helical spring 812, the liquid reapplies pressure to the outer circumferential surface of the cylindrical bladder 85. At this time, the cylindrical bladder 85 compresses and wraps the cable, creating friction between the cylindrical bladder 85 and the cable. This friction causes frictional damping during the winding process, adjusting the tightness of the cable arrangement.

[0024] For details regarding the specific structure of the damped lead mechanism 8, please refer to [link / reference needed]. Figure 5 and Figure 6The system includes a second connecting plate 82 located at the bottom of the lead ring body 81 and fixedly connected to the first connecting plate 711. The center of the lead ring body 81 has a lead wire through hole 83 pointing towards the winding reel 6. The lead ring body 81 has an annular liquid flow cavity 84 located around the central area of ​​the lead wire through hole 83. The top area of ​​the lead ring body 81 has a liquid compensation channel 86 for injecting liquid into the annular liquid flow cavity 84. One side of the lead ring body 81 has a first liquid flow hole 87 communicating with one side of the annular liquid flow cavity 84. One end of the first liquid flow hole 87 has a first horizontal component movable cavity 88. One end of the first horizontal component movable cavity 88 has a rod through hole 89. Inside the first horizontal component movable cavity 88, the lead ring body 81 houses a rod capable of moving along the first horizontal component movable cavity 88. The piston body 810 has an axial movement. A horizontal pull rod 811 is fixedly installed at the end of the piston body 810 facing the rod through hole 89. A first helical spring 812 in a compressed state is placed around the rod body inside the first horizontal component movable cavity 88. A first docking channel 813 with an integral structure is provided on the other side of the lead wire ring body 81. A second liquid flow hole 814 is provided inside the first docking channel 813, which connects to the external space and the other side of the annular liquid flow cavity 84. A cylindrical bladder 85 is embedded in the lead wire ring body 81 at the junction of the lead wire through hole 83 and the annular liquid flow cavity 84. The lead wire ring body 81 has a rounded corner structure at both open ends of the lead wire through hole 83 to facilitate the bending and movement of the cable.

[0025] To prevent excessive injection pressure due to operational errors in hydraulic injection, please refer to [link / reference needed]. Figure 1 , Figure 2 , Figure 7 and Figure 8 An elastic pressure control mechanism 9 needs to be installed. Inside this mechanism is a horizontal hollow tube 91 fixedly installed at the end of the first docking channel 813 and hollow inside; a movable valve plate 96 placed inside the horizontal hollow tube 91 to trap liquid from the second liquid flow hole 814; and a second helical spring 99 that provides elastic damping for the directional movement of the movable valve plate 96. When the liquid pressure entering the annular liquid flow cavity 84 exceeds the elastic pressure of the second helical spring 99, the movable valve plate 96 will move. At this time, excess liquid will be released outwards in sequence through the second liquid flow hole 814, the first pressure relief hole 94, the movement gap of the movable valve plate 96, the pressure relief groove 97, and the second pressure relief hole 95, until the liquid pressure inside the annular liquid flow cavity 84 matches the pressure of the second helical spring 99 in its initial state. This prevents excessive injection pressure due to hydraulic injection operation errors.

[0026] For details regarding the specific structure of the elastic pressure control mechanism 9, please refer to [link / reference]. Figure 7 and Figure 8 The system includes a second horizontal component movable cavity 93 disposed inside a horizontal hollow tube 91. One end of the horizontal hollow tube 91 has a second docking channel 92 fixedly installed at the end of a first docking channel 813. The second docking channel 92 has a first pressure relief hole 94 connecting one end of the second horizontal component movable cavity 93 and a second liquid flow hole 814. The other end of the horizontal hollow tube 91, located in the second horizontal component movable cavity 93, has a second pressure relief hole 95 for discharging liquid. A movable valve plate 96, capable of moving axially along the second horizontal component movable cavity 93, is placed inside the horizontal hollow tube 91 within the second horizontal component movable cavity 93. The circumferential surface of the valve plate 96 is provided with multiple concave pressure relief grooves 97. An annular sealing ring 98 is embedded in one end of the movable valve plate 96 facing the first pressure relief hole 94. A second helical spring 99 in a compressed state is installed at the other end of the annular sealing ring 98. Part of the structure of the annular sealing ring 98 protrudes outward relative to the embedded end of the movable valve plate 96. The structural radius of the inner ring of the annular sealing ring 98 is larger than the structural radius of the first pressure relief hole 94, and the structural radius of the outer ring is smaller than the distance between the axis of the annular sealing ring 98 and the movable valve plate 96. The elastic strength of the second helical spring 99 in the initial state is not less than the elastic strength of the first helical spring 812 in the fully compressed state.

[0027] In use, a winch motor mounted on the upper surface of the bottom support base plate 1 is used, and the rotor of the winch motor and the synchronous pulley 5 are linked by the drive pulley and the synchronous belt. A liquid injection device is used to inject buffer solution into the annular liquid flow chamber 84 through the liquid compensation channel 86, and the pressure after liquid injection is controlled. This pressure is required to keep the piston body 810 in the middle region of the first horizontal component movable chamber 88, and the first helical spring 812 in a semi-compressed state. When the cable is threaded, the horizontal pull rod 811 is pulled outward. At this time, the liquid pressure inside the annular liquid flow chamber 84 will decrease. The cable is then passed through the lead wire hole 83, and the tension on the horizontal tie rod 811 is released. Under the elastic pressure of the first helical spring 812, the liquid reapplies pressure to the outer circumferential surface of the cylindrical capsule 85. One end of the cable is installed in the winding groove of the winding wheel 6 in a predetermined manner, and the winding motor can be started. At this time, the synchronous belt pulley will drive the synchronous belt pulley 5 and the winding wheel 6 to produce a directional rotation phenomenon. Friction is generated between the cylindrical capsule 85 and the cable. This friction can cause friction damping phenomenon in the cable during the winding process to adjust the tightness of the cable arrangement, thereby rotating the cable for winding.

[0028] 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 appended claims and their equivalents.

Claims

1. A wire winding device for wire processing, comprising a bottom support base (1), a first support base (2) and a second support base (3) fixedly mounted on the upper surface of the bottom support base (1), a winding spool (4) rotatably mounted on the top of the first support base (2), a synchronous pulley (5) capable of driving the winding spool (4) to rotate, and a winding wheel (6) detachably mounted on the surface of the winding spool (4), characterized in that: It also includes, The threaded lead wire mechanism (7) has a movable base block (78) fixedly installed on the top of the second support base (3) and capable of guiding the cable in the horizontal direction, a horizontal threaded rod (76) that can make the movable base block (78) move horizontally when rotating, and a drive motor (75) that can drive the horizontal threaded rod (76) to rotate. And a damped lead wire mechanism (8), which has a lead wire ring (81) that moves with the moving base block (78) and can guide the cable horizontally, and a cylindrical bladder (85) installed inside the lead wire ring (81) and can pressure-wrap the cable.

2. The wire winding device for wire processing according to claim 1, characterized in that: The threaded lead mechanism (7) includes two symmetrical L-shaped mounting bases (71) fixedly mounted on the top of the second support base (3). Each of the two L-shaped mounting bases (71) has a rotatable horizontal drive shaft (72) mounted on it via bearings. At opposite ends of the two horizontal drive shafts (72), a horizontal threaded rod (76) is fixedly mounted via a mating flange (73). At opposite ends of the two L-shaped mounting bases (71), a horizontal limiting rod (77) is fixedly mounted. The end of one of the horizontal drive shafts (72)... The rotor of the drive motor (75) is fixedly connected to the coupling (74). The drive motor (75) is mounted on one side of the L-shaped mounting base (71) by a fixed bracket. The movable base block (78) is provided with an internal thread hole (79) that is installed on the body of the horizontal threaded rod (76) by a threaded structure. The movable base block (78) is provided with a limiting sliding hole (710) that can slide horizontally along the horizontal limiting rod (77). The top of the movable base block (78) is provided with a first connecting plate (711) that is integral with it.

3. The wire winding device for wire processing according to claim 2, characterized in that: The threaded structure includes an internal threaded structure located on the inner wall of the internal threaded hole (79) and an external threaded structure located on the body of the horizontal threaded rod (76), and the internal threaded structure matches the external threaded structure.

4. The wire winding device for wire processing according to claim 3, characterized in that: The cross-sectional shape of the limiting sliding hole (710) is consistent with the cross-sectional shape of the horizontal limiting rod (77), both being polygonal structures, and the structural dimensions of the cross-section of the limiting sliding hole (710) match the structural dimensions of the cross-section of the horizontal limiting rod (77).

5. The wire winding device for wire processing according to claim 4, characterized in that: The damping lead wire mechanism (8) includes a second connecting plate (82) disposed at the bottom of the lead wire ring body (81) and fixedly connected to the first connecting plate (711). The center of the lead wire ring body (81) is provided with a lead wire through hole (83) pointing to the winding wheel (6). The lead wire ring body (81) is provided with an annular liquid flow cavity (84) located in the middle area of ​​the lead wire through hole (83). The top area of ​​the lead wire ring body (81) is provided with a liquid compensation channel (86) for injecting liquid into the annular liquid flow cavity (84). One side of the lead wire ring body (81) is provided with a first liquid flow hole (87) communicating with one side of the annular liquid flow cavity (84). One end of the first liquid flow hole (87) is provided with a first horizontal component movable cavity (88). One end of the first horizontal component movable cavity (88) is provided with a rod body through hole (89). The lead wire ring body (81) is located in the middle area of ​​the first horizontal component movable cavity (84) and has a first horizontal component movable cavity (88) at one end. Inside the movable cavity (88) of the first horizontal component, a piston body (810) capable of moving axially along the first horizontal component movable cavity (88) is placed. A horizontal pull rod (811) passing through the rod through hole (89) is fixedly installed on the end of the piston body (810) facing the rod through hole (89). A first helical spring (812) in a compressed state is placed around the rod body inside the first horizontal component movable cavity (88). On the other side of the lead ring body (81), a first docking channel (813) with an integral structure is provided. Inside the first docking channel (813), a second liquid flow hole (814) connecting the external space and the other side of the annular liquid flow cavity (84) is provided. A cylindrical bladder (85) is embedded in the lead ring body (81) at the junction of the lead through hole (83) and the annular liquid flow cavity (84) in a sealed manner.

6. The wire winding device for wire processing according to claim 5, characterized in that: The lead ring (81) has rounded corners at both open ends of the lead through hole (83) to facilitate the bending and movement of the cable.

7. A wire winding device for wire processing according to any one of claims 5-6, characterized in that: It also includes an elastic pressure control mechanism (9), which is equipped with a horizontal hollow tube (91) fixedly installed at the end of the first docking channel (813) and hollow inside, a movable valve plate (96) placed inside the horizontal hollow tube (91) and capable of intercepting the liquid from the second liquid flow hole (814), and a second helical spring (99) that generates elastic damping for the directional movement of the movable valve plate (96).

8. A wire winding device for wire processing according to claim 7, characterized in that: The elastic pressure control mechanism (9) includes a second horizontal component movable cavity (93) disposed inside a horizontal hollow tube (91). One end of the horizontal hollow tube (91) is provided with a second docking channel (92) fixedly installed at the end of the first docking channel (813). The interior of the second docking channel (92) is provided with a first pressure relief hole (94) connecting one end of the second horizontal component movable cavity (93) and a second liquid flow hole (814). The other end of the horizontal hollow tube (91) located in the second horizontal component movable cavity (93) is provided with a discharge hole. The liquid has a second pressure relief hole (95). The horizontal hollow tube (91) has a movable valve plate (96) that can move along the axial direction of the movable cavity (93) of the second horizontal component inside the movable cavity (93) of the second horizontal component. The circumferential surface of the movable valve plate (96) is provided with a plurality of concave pressure relief grooves (97). An annular sealing ring (98) is embedded at one end of the movable valve plate (96) facing the first pressure relief hole (94). A second helical spring (99) in a compressed state is installed at the other end of the annular sealing ring (98).

9. A wire winding device for wire processing according to claim 8, characterized in that: The structure of the annular sealing ring (98) protrudes outward relative to the embedded end face of the moving valve plate (96), and the structural radius of the inner ring of the annular sealing ring (98) is greater than the structural radius of the first pressure relief hole (94), and the structural radius of the outer ring is less than the distance between the axis of the annular sealing ring (98) and the moving valve plate (96).

10. A wire winding device for wire processing according to claim 9, characterized in that: The elastic strength of the second helical spring (99) in the initial state is not less than the elastic strength of the first helical spring (812) in the fully compressed state.

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