Composite cable processing device and processing method thereof
By using a synchronous pulley assembly and friction drive, the problem of unevenness caused by cable slippage during the wrapping process is solved, achieving uniform wrapping and cable protection.
Patent Information
- Application Number
- CN202511689343.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- Filing Date
- 2025-11-18
- Publication Date
- 2026-03-03
- Estimated Expiration
- 2045-11-18
AI Technical Summary
In the existing technology, when the cable wrapping equipment is wrapping the cable, the cable is prone to slippage during the traction process, which can lead to unevenness in the seams or overlaps of the wrapping.
A composite cable processing device is used to ensure that the cable rotates synchronously during traction through a synchronous wheel assembly and friction transmission. The winding speed is adjusted by the cooperation of electric clamping components and drive motor to avoid unevenness caused by slippage.
This ensures uniformity in seams and overlaps during the wrapping process, improves wrapping quality, and reduces mechanical damage to the cable surface.
Smart Images
Figure CN121237519B_ABST
Abstract
Description
Technical Field
[0001] This invention relates to the field of cable processing equipment technology, and specifically to a composite cable processing device and processing method. Background Technology
[0002] In the production of composite cables, the wrapping equipment is a key piece of equipment used to wrap insulating and shielding materials around the multiple cores of the composite cable. The feeding device of the wrapping equipment is responsible for evenly releasing the materials to be wrapped, such as paper tape, aluminum foil, and non-woven fabric. The wrapping device then uses a rotating wrapping head to tightly wrap these materials around the cable cores at specific angles and intervals to form insulation or shielding layers. During wrapping, depending on the process requirements, the wrapping material can be spliced, overlapped, or spaced when wound around the cable cores.
[0003] When a cable wrapping device performs the wrapping process, it typically uses a traction device to pull the cable through the device. As the cable moves, the wrapping material is wrapped around the cable core. The traction device usually uses friction to pull the cable, relying on the friction generated by the direct clamping of the traction device and the cable surface. This method effectively reduces mechanical damage to the cable surface. However, due to the magnitude of the friction, slippage is inevitable during the cable traction process. When slippage occurs, the cable traction speed fluctuates. If the wrapping device continues to wrap at the set speed, it can lead to uneven overlap or uneven seams when the wrapping material is wrapped around the cable core. Summary of the Invention
[0004] The purpose of this invention is to provide a composite cable processing device and processing method, which solves the problem in the prior art that when the wrapping equipment is wrapping the cable, the cable slips during the traction process, resulting in uneven seams or overlaps in the wrapping.
[0005] To solve the above-mentioned technical problems, the present invention adopts the following technical solution:
[0006] A composite cable processing device includes a device body, an upper mounting frame, a rotating external gear ring rotatably mounted on the front side of the mounting frame, and a drive gear for driving the rotating external gear ring. A fifth synchronous pulley is mounted on the rear side of the mounting frame, and the fifth synchronous pulley is connected to the drive gear via a connecting shaft. A drive motor is mounted on the rear side of the fifth synchronous pulley, and the output shaft of the drive motor drives the fifth synchronous pulley to rotate via friction transmission. A wrapping assembly is mounted on the front side of the rotating external gear ring. Two drive shafts are mounted at intervals on the front side of the mounting frame on the upper side of the device body, and a drive belt is sleeved on the two drive shafts. Several electric clamping components for clamping cables are mounted on the surface of the drive belt. The drive shafts are connected to the fifth synchronous pulley via the synchronous pulley assembly.
[0007] A further technical solution is that the synchronous pulley assembly includes a first synchronous pulley, a second synchronous pulley, a third synchronous pulley, and a fourth synchronous pulley. The first synchronous pulley is installed at the end of the drive shaft, and the second, third, and fourth synchronous pulleys are all installed inside the device body. The first synchronous pulley is connected to the second synchronous pulley via a first synchronous belt, and the second synchronous pulley is connected to the third synchronous pulley via a second synchronous belt. A first bevel gear is coaxially arranged on the side of the third synchronous pulley, and a second bevel gear is arranged on the side of the fourth synchronous pulley. The first and second bevel gears mesh and drive each other. The fourth synchronous pulley is connected to the fifth synchronous pulley via a third synchronous belt.
[0008] A further technical solution is that a drive hole is provided in the shaft recess on the rear side of the fifth synchronous pulley, a first friction element is provided at the bottom of the drive hole, the output shaft of the drive motor is provided in the drive hole, and a second friction element is provided at the end of the output shaft of the drive motor, and the first friction element and the second friction element are in contact transmission.
[0009] A further technical solution is that the output shaft of the drive motor is coaxially connected to a drive shaft, which is rotatably mounted in a drive hole. The front end of the drive shaft is recessed with a first elastic groove and a recessed insertion hole at the edge of the first elastic groove. The rear side of the second friction member is provided with a insertion rod that mates with the insertion hole. There are at least two insertion holes and insertion rods. A first spring is provided in the first elastic groove. A gap is left between the rear end of the second friction member and the front end of the output shaft of the drive motor. One end of the first spring is abutted to the rear side of the second friction member, and the other end is abutted to the bottom of the first elastic groove through a pressure sensor.
[0010] A further technical solution involves an electric clamping component comprising a mounting base plate, a power supply bar, a left clamping plate, and a right clamping plate. The mounting base plate is mounted on the surface of the transmission belt. The power supply bar is positioned between two transmission shafts. A track is provided on the upper side of the mounting base plate along the left-right direction. The left and right clamping plates are positioned opposite each other, and their lower sides are slidably connected to the track. A left control hole and a right control hole are respectively provided on opposite sides of the left and right clamping plates. A control rod is positioned between the left and right clamping plates, and the lower side of the control rod is connected to the mounting base plate. The left and right ends of the control rod are slidably installed in the left and right control holes, respectively. Electromagnets are installed at both ends of the control rod. A contact piece for supplying power to the electromagnets is installed on the lower side of the mounting base plate. A power supply slider electrically connected to the contact piece is installed on the upper side of the power supply bar. An iron block is installed in both the left and right control holes. A second elastic groove is recessed on the side of the iron block facing the electromagnet. A second spring is installed in the second elastic groove. One end of the second spring is connected to the bottom of the second elastic groove, and the other end is connected to the electromagnet.
[0011] A further technical solution is that an arc-shaped groove is recessed on the opposite side of both the left and right clamping plates. Several rotating grooves are recessed in the groove wall of the arc-shaped groove. A rotating shaft is arranged in the rotating groove along the front-back direction, and a portion of the rotating shaft protrudes out of the rotating groove.
[0012] A further technical solution is that the wrapping assembly includes a mounting rod, a rotating sleeve, a drum, and a tensioning motor. The mounting rod is horizontally mounted on the front side of the rotating external gear ring. The rotating sleeve is rotatably sleeved on the mounting rod. A first damping plate is provided in the middle of the rotating sleeve, and a second damping plate is provided at the end of the rotating sleeve away from the rotating external gear ring. The drum is rotatably sleeved on the outer wall of the rotating sleeve between the first and second damping plates. Both ends of the drum are respectively in contact with the first and second damping plates. The tensioning motor is mounted on one side of the mounting rod on the front side of the rotating external gear ring. A first tensioning gear is sleeved on the output shaft of the tensioning motor, and a second tensioning gear is sleeved on the outer wall of the rotating sleeve. The first tensioning gear and the second tensioning gear are meshed and connected.
[0013] Compared with the prior art, the beneficial effects of the present invention are: 1. When the cable is pulled by the traction device, the electric clamping component on the transmission belt clamps the cable when it moves below the cable. This causes the electric clamping component to drive the transmission belt to move synchronously with the cable. During the movement of the transmission belt, it drives two transmission shafts to rotate together. With the help of the synchronous pulley assembly, the fifth synchronous pulley can rotate synchronously with the transmission shaft. Thus, when the cable slips and decelerates, it synchronously drives the transmission shaft and the fifth synchronous pulley to decelerate, which in turn drives the rotating external toothed ring to decelerate, thereby synchronously reducing the wrapping speed and improving the uniformity of the wrapping seam or overlap; 2. By setting the drive motor to drive the fifth synchronous pulley through friction transmission, It can provide the main power to the fifth synchronous pulley. When the cable is not slipping, the drive motor drives the fifth synchronous pulley to rotate at the set speed. In turn, the gear drives the rotating external gear ring to rotate at the set speed for wrapping. At this time, the synchronous pulley assembly adjusts the gear ratio so that the speed at which the drive shaft drives the fifth synchronous pulley to rotate is the same as the speed at which the drive motor drives the fifth synchronous pulley to rotate. When the speed of the drive pulley decreases, it will also cause the speed of the fifth synchronous pulley to decrease. At this time, the advantage of friction transmission allows slippage between the output shaft of the drive motor and the fifth synchronous pulley to offset the speed difference between the fifth synchronous pulley and the drive motor. When the speed of the drive pulley recovers, the output shaft of the drive motor and the fifth synchronous pulley return to a state of synchronous rotation. Attached Figure Description
[0014] Figure 1 This is a schematic diagram of the overall structure of a composite cable processing device according to the present invention.
[0015] Figure 2 This is a side cross-sectional view of a composite cable processing device according to the present invention.
[0016] Figure 3 This is a schematic diagram of the electric clamping component of a composite cable processing device according to the present invention.
[0017] Figure 4 This is a schematic diagram of the fifth synchronous pulley and drive shaft transmission of a composite cable processing device according to the present invention.
[0018] Figure 5 for Figure 2 A magnified view of the area marked A in the middle.
[0019] Figure 6 This is a schematic diagram of the wrapping assembly of a composite cable processing device according to the present invention.
[0020] Figure 7 This is a schematic diagram of the drive shaft, the first synchronous pulley, and the sixth synchronous pulley of a composite cable processing device according to the present invention.
[0021] Icons: 1-Device body, 2-Mounting frame, 3-Rotating external gear ring, 4-Drive gear, 5-Fifth synchronous pulley, 6-Connecting shaft, 7-Drive motor, 8-Wrapping assembly, 9-Transmission shaft, 10-Transmission belt, 11-First synchronous pulley, 12-Second synchronous pulley, 13-Electric clamping component, 14-Fourth synchronous pulley, 15-First synchronous belt, 16-Second synchronous belt, 17-First bevel gear, 18-Second bevel gear, 19-Sixth synchronous pulley, 20-Third synchronous belt, 21-Drive hole, 22-First friction element, 23-Second friction element, 24-Drive shaft, 25-First elastic groove, 26-Insertion hole, 27 28-Plug-in rod, 29-First spring, 30-Pressure sensor, 31-Mounting base plate, 32-Power supply bar, 33-Left clamping plate, 34-Right clamping plate, 35-Right control hole, 36-Right control hole, 37-Control rod, 38-Electromagnet, 39-Contact piece, 40-Power supply slide bar, 41-Iron block, 42-Second elastic groove, 43-Second spring, 44-Arc groove, 45-Rotating groove, 46-Rotating shaft, 47-Mounting rod, 48-Rotating sleeve, 49-Drum, 50-Tensioning motor, 51-First damping plate, 52-Second damping plate, 53-First tensioning gear, 54-Second tensioning gear. Detailed Implementation
[0022] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative and not intended to limit the invention.
[0023] like Figure 1-7 The image shows an embodiment of the present invention.
[0024] Example 1:
[0025] A composite cable processing device includes a device body 1, an mounting frame 2 on the upper side of the device body 1, a rotating external gear ring 3 rotatably mounted on the front side of the mounting frame 2, and a drive gear 4 for driving the rotating external gear ring 3. A fifth synchronous wheel 5 is mounted on the rear side of the mounting frame 2. The fifth synchronous wheel 5 and the drive gear 4 are connected by a connecting shaft 6. A drive motor 7 is mounted on the rear side of the fifth synchronous wheel 5. The output shaft of the drive motor 7 drives the fifth synchronous wheel 5 to rotate by friction transmission. A wrapping assembly 8 is mounted on the front side of the rotating external gear ring 3. Two drive shafts 9 are mounted at intervals on the front side of the mounting frame 2 on the upper side of the device body 1, and a drive belt 10 is sleeved on the two drive shafts 9. A plurality of electric clamping parts 13 for clamping cables are mounted on the surface of the drive belt 10. The drive shafts 9 are connected to the fifth synchronous wheel 5 by the synchronous wheel assembly.
[0026] The synchronous pulley assembly includes a first synchronous pulley 11, a second synchronous pulley 12, a third synchronous pulley, and a fourth synchronous pulley 14. The first synchronous pulley 11 is mounted on the end of the drive shaft 9. The second, third, and fourth synchronous pulleys 14 are all mounted inside the device body 1. The first synchronous pulley 11 is connected to the second synchronous pulley 12 via a first synchronous belt 15. The second synchronous pulley 12 is connected to the third synchronous pulley via a second synchronous belt 16. A first bevel gear 17 is coaxially mounted on the side of the third synchronous pulley, and a second bevel gear 18 is mounted on the side of the fourth synchronous pulley 14. The first bevel gear 17 and the second bevel gear 18 mesh and drive each other. The fourth synchronous pulley 14 is connected to the fifth synchronous pulley 5 via a third synchronous belt 20. The diameters and gear ratios of the first, second, third, and fourth synchronous pulleys, as well as the first and second bevel gears 17 and 18, are calculated based on the cable diameter and cable traction speed, and different models are designed based on whether the wrapping method involves splicing, overlapping, or intermittent winding. The transmission belt 10 adopts a fourth synchronous belt, and a sixth synchronous pulley 19 is fitted on each of the two transmission shafts 9. The fourth synchronous belt is connected to the sixth synchronous pulley 19, so that the two transmission shafts 9 can be driven to rotate synchronously when the cable moves.
[0027] A drive hole 21 is recessed at the rear of the fifth synchronous pulley 5. A first friction element 22 is provided at the bottom of the drive hole 21. The output shaft of the drive motor 7 is located inside the drive hole 21, and a second friction element 23 is provided at the end of the output shaft of the drive motor 7. The first friction element 22 and the second friction element 23 engage in transmission. When the cable is being pulled normally without slippage, there is no relative movement between the first friction element 22 and the second friction element 23. The first friction element 22 rotates synchronously under the drive of the second friction element 23, thereby driving the fifth synchronous pulley 5 to rotate. When the cable slips, the first friction element 22 and the second friction element 23 move relative to each other to decelerate the rotating external gear ring 3.
[0028] A drive shaft 24 is coaxially connected to the output shaft end of the drive motor 7. The drive shaft 24 is rotatably mounted in the drive hole 21. The front end of the drive shaft 24 has a first elastic groove 25 recessed therein, and an insertion hole 26 recessed at the edge of the first elastic groove 25. The rear side of the second friction member 23 has a insertion rod 27 that mates with the insertion hole 26. There are at least two insertion holes 26 and insertion rods 27. A first spring 28 is installed in the first elastic groove 25. There is a gap between the rear end of the second friction member 23 and the front end of the output shaft of the drive motor 7. One end of the first spring 28 is abutted to the rear side of the second friction member 23, and the other end is abutted to the bottom of the first elastic groove 25 through a pressure sensor 29. The insertion rod 27 and the insertion hole 26 enable the second friction member 23 to rotate synchronously with the drive shaft 24. Similarly, the first friction member 22 can also be fixed to the bottom of the drive hole 21 by the insertion rod 27 and the insertion hole 26, or by welding, bolting, or other methods. After the first friction element 22 and the second friction element 23 undergo multiple relative displacement frictions, a certain amount of wear will occur. After wear, the first friction element 22 and the second friction element 23 will become thinner. With the help of the first spring 28, the first friction element 22 and the second friction element 23 can always maintain a close fit. After the first friction element 22 and the second friction element 23 become thinner, the pressure generated by the first spring 28 on the pressure sensor 29 will decrease. By monitoring the pressure value of the pressure sensor 29, it is easy to determine whether the pressure between the first friction element 22 and the second friction element 23 can generate sufficient friction force, thereby avoiding insufficient friction force causing insufficient power generated by the drive motor 7 to the rotating external gear ring 3.
[0029] The electric clamping component 13 includes a mounting base plate 30, a power supply bar 31, a left clamping plate 32, and a right clamping plate 33. The mounting base plate 30 is mounted on the surface of the transmission belt 10. The power supply bar 31 is placed between the two transmission shafts 9. A track 34 is provided on the upper side of the mounting base plate 30 in the left-right direction. The left clamping plate 32 and the right clamping plate 33 are arranged opposite to each other, and the lower sides of the left clamping plate 32 and the right clamping plate 33 are slidably connected to the track 34. A left control hole 35 and a right control hole 36 are respectively provided on the opposite side of the left clamping plate 32 and the right clamping plate 33. A control rod 37 is provided between the left clamping plate 32 and the right clamping plate 33. The lower side of the control rod 37 is connected to the mounting base plate 30. The left and right ends of the control rod 37 are slidably disposed in the left control hole 35 and the right control hole 36, respectively. Electromagnets 38 are provided at both ends of the control rod 37. A contact piece 39 for supplying power to the electromagnets 38 is provided on the lower side of the mounting base plate 30. A power supply slide 40 electrically connected to the contact piece 39 is provided on the upper side of the power supply strip 31. An iron block 41 is provided in both the left control hole 35 and the right control hole 36. A second elastic groove 42 is recessed on the side of the iron block 41 facing the electromagnet 38. A second spring 43 is installed in the second elastic groove 42. One end of the second spring 43 is connected to the bottom of the second elastic groove 42, and the other end is connected to the electromagnet 38. The transmission belt 10 has a through hole at the fixed position of the mounting base plate 30, allowing the contact piece 39 to pass through. The power supply bar 31 is located near the lower side of the transmission belt 10 located at the upper part. When the contact piece 39 moves to the upper side with the electric clamp 13, it will contact the power supply bar 31, thereby supplying power to the two electromagnets 38, causing the electromagnets 38 to generate magnetic attraction. This will drive the left clamp 32 and the right clamp 33 to move closer together to clamp the cable, so that the transmission belt 10 moves together with the cable. When the electric clamp 13 is about to rotate to the front end of the transmission belt 10, the contact piece 39 separates from the power supply bar 31, the electromagnets 38 lose their magnetism, and under the elastic force of the two second springs 43, the left clamp 32 and the right clamp 33 separate and separate from the cable as the transmission belt 10 moves. Two sixth synchronous pulleys 19 are fitted onto each of the two drive shafts 9, spaced apart to allow the contact piece 39 to pass through. This allows the contact piece 39 of the electric clamping member 13 to pass through when it moves to the position of the drive shaft 9, preventing collision between the contact piece 39 and the drive shaft 9 or the sixth synchronous pulley 19. Slider blocks are provided on the underside of both the left clamping plate 32 and the right clamping plate 33. The underside of the sliders has grooves that slide smoothly along the track 34, allowing the left clamping plate 32 and the right clamping plate 33 to move smoothly along the track 34.
[0030] Both the left clamping plate 32 and the right clamping plate 33 have recessed arc-shaped grooves 44 on opposite sides. The groove walls of these arc-shaped grooves 44 have several rotating grooves 45. A rotating shaft 46 is positioned within each rotating groove 45 along the front-to-back direction, with a portion of the rotating shaft 46 protruding from the groove. By providing the arc-shaped grooves 44, the surface of the cable core can be well fitted, allowing the electric clamping component 13 to move together with the cable. During wrapping, the cable not only moves linearly but also rotates as needed to facilitate wrapping and other processes. Therefore, rotating grooves 45 and rotating shafts 46 are provided within the arc-shaped grooves 44, clamping the cable by the rotating shaft 46 fitting against the surface of the cable core. The rotating shaft 46 is cylindrical, with bearings at both ends rotatably connected to the groove walls on its front and rear sides, ensuring rotational stability. A rubber layer is provided on the surface of the rotating shaft 46, which deforms upon contact with the cable core to increase the contact area and friction.
[0031] The wrapping assembly 8 includes a mounting rod 47, a rotating sleeve 48, a drum 49, and a tensioning motor 50. The mounting rod 47 is horizontally mounted on the front side of the rotating external gear ring 3. The rotating sleeve 48 is rotatably sleeved on the mounting rod 47. A first damping plate 51 is provided in the middle of the rotating sleeve 48, and a second damping plate 52 is provided at the end of the rotating sleeve 48 away from the rotating external gear ring 3. The drum 49 is rotatably sleeved on the outer wall of the rotating sleeve 48 between the first damping plate 51 and the second damping plate 52. The two ends of the drum 49 are respectively in contact with the first damping plate 51 and the second damping plate 52. The tensioning motor 50 is mounted on one side of the mounting rod 47 on the front side of the rotating external gear ring 3. A first tensioning gear 53 is sleeved on the output shaft of the tensioning motor 50, and a second tensioning gear 54 is sleeved on the outer wall of the rotating sleeve 48. The first tensioning gear 53 and the second tensioning gear 54 are meshed and connected. The wrapping material is installed on the drum 49. As the rotating external toothed ring 3 rotates, the wrapping material is wound around the cable core. During the winding process, in order to make the wrapping material have a certain tension on the surface of the cable core, this application sets a tensioning motor 50 to drive the rotating sleeve 48 to rotate in the opposite direction, and uses the first damping plate 51 and the second damping plate 52 to clamp the drum 49, so that the drum 49 does not rotate with the rotating sleeve 48, but rubs against the first damping plate 51 and the second damping plate 52 to straighten the wrapping material, so that the wrapping material is always in a taut state during the winding process.
[0032] Example 2:
[0033] A processing method for processing cables using a composite cable processing apparatus as described in Example 1.
[0034] Although the invention has been described herein with reference to several illustrative embodiments, it should be understood that many other modifications and implementations can be devised by those skilled in the art, which will fall within the scope and spirit of the principles disclosed herein. More specifically, various variations and modifications can be made to the components and / or layout of the subject matter arrangement within the scope of the disclosure, drawings, and claims. Besides variations and modifications to the components and / or layout, other uses will be apparent to those skilled in the art.
Claims
1. A composite cable processing device, characterized in that, The device includes a device body (1), an upper mounting frame (2) is provided on the upper side of the device body (1), a rotating external gear ring (3) is rotatably provided on the front side of the mounting frame (2), and a drive gear (4) for driving the rotating external gear ring (3). A fifth synchronous wheel (5) is installed on the rear side of the mounting frame (2). The fifth synchronous wheel (5) is connected to the drive gear (4) through a connecting shaft (6). A drive motor (7) is installed on the rear side of the fifth synchronous wheel (5). The output shaft of the drive motor (7) drives the fifth synchronous wheel (5) to rotate through friction transmission. A wrapping assembly (8) is installed on the front side of the rotating external gear ring (3). Two drive shafts (9) are installed at intervals on the front side of the mounting frame (2) on the upper side of the device body (1), and a drive belt (10) is sleeved on the two drive shafts (9). Several electric clamping parts (13) for clamping cables are installed on the surface of the drive belt (10). The drive shaft (9) is connected to the fifth synchronous wheel (5) through the synchronous wheel assembly.
2. The composite cable processing device according to claim 1, characterized in that: The synchronous pulley assembly includes a first synchronous pulley (11), a second synchronous pulley (12), a third synchronous pulley, and a fourth synchronous pulley (14). The first synchronous pulley (11) is installed at the end of the drive shaft (9). The second synchronous pulley (12), the third synchronous pulley, and the fourth synchronous pulley (14) are all installed inside the device body (1). The first synchronous pulley (11) is connected to the second synchronous pulley (12) via a first synchronous belt (15). The second synchronous pulley (12) is connected to the third synchronous pulley via a second synchronous belt (16). A first bevel gear (17) is coaxially arranged on the side of the third synchronous pulley. A second bevel gear (18) is arranged on the side of the fourth synchronous pulley (14). The first bevel gear (17) and the second bevel gear (18) mesh and drive each other. The fourth synchronous pulley (14) is connected to the fifth synchronous pulley (5) via a third synchronous belt (20).
3. The composite cable processing device according to claim 1, characterized in that: The fifth synchronous pulley (5) has a drive hole (21) recessed on the rear side of the shaft. A first friction element (22) is provided at the bottom of the drive hole (21). The output shaft of the drive motor (7) is located in the drive hole (21). A second friction element (23) is provided at the end of the output shaft of the drive motor (7). The first friction element (22) and the second friction element (23) are in contact and driven.
4. The composite cable processing device according to claim 3, characterized in that: The output shaft of the drive motor (7) is coaxially connected to the drive shaft (24). The drive shaft (24) is rotatably disposed in the drive hole (21). The front end of the drive shaft (24) is recessed with a first elastic groove (25) and a socket (26) recessed at the edge of the first elastic groove (25). The rear side of the second friction member (23) is provided with a plug rod (27) that cooperates with the socket (26). There are at least two sockets (26) and plug rods (27). The first elastic groove (25) is provided with a first spring (28). There is a gap between the rear end of the second friction member (23) and the front end of the output shaft of the drive motor (7). One end of the first spring (28) is connected to the rear side of the second friction member (23) and the other end is connected to the bottom of the first elastic groove (25) through a pressure sensor (29).
5. The composite cable processing device according to claim 1, characterized in that: The electric clamping component (13) includes a mounting base plate (30), a power supply bar (31), a left clamping plate (32), and a right clamping plate (33). The mounting base plate (30) is mounted on the surface of the transmission belt (10). The power supply bar (31) is placed between two transmission shafts (9). A track (34) is provided on the upper side of the mounting base plate (30) in the left-right direction. The left clamping plate (32) and the right clamping plate (33) are arranged opposite to each other, and the lower sides of the left clamping plate (32) and the right clamping plate (33) are slidably connected to the track (34). A left control hole (35) and a right control hole (36) are respectively provided on the opposite side of the left clamping plate (32) and the right clamping plate (33). A control rod (37) is provided between the left clamping plate (32) and the right clamping plate (33). The lower side of the control rod (37) is connected to the mounting base plate (30). The left and right ends of the control rod (37) are slidably disposed in the left control hole (35) and the right control hole (36) respectively. Electromagnets (38) are provided at both ends of the control rod (37). A contact piece (39) for supplying power to the electromagnet (38) is provided on the lower side of the mounting base plate (30). A power supply slide (40) electrically connected to the contact piece (39) is provided on the upper side of the power supply strip (31). An iron block (41) is provided in both the left control hole (35) and the right control hole (36). A second elastic groove (42) is recessed on the side of the iron block (41) facing the electromagnet (38). A second spring (43) is installed in the second elastic groove (42). One end of the second spring (43) is connected to the bottom of the second elastic groove (42), and the other end is connected to the electromagnet (38).
6. The composite cable processing device according to claim 5, characterized in that: The left clamp (32) and the right clamp (33) are both recessed on opposite sides with an arc-shaped groove (44). The groove wall of the arc-shaped groove (44) is recessed with a number of rotating grooves (45). A rotating shaft (46) is provided in the rotating groove (45) along the front-back direction. A part of the rotating shaft (46) protrudes from the rotating groove (45).
7. The composite cable processing device according to claim 1, characterized in that: The wrapping assembly (8) includes a mounting rod (47), a rotating sleeve (48), a drum (49), and a tensioning motor (50). The mounting rod (47) is horizontally mounted on the front side of the rotating external gear ring (3). The rotating sleeve (48) is rotatably sleeved on the mounting rod (47). A first damping plate (51) is provided in the middle of the rotating sleeve (48), and a second damping plate (52) is provided at the end of the rotating sleeve (48) away from the rotating external gear ring (3). The drum (49) is positioned between the first damping plate (51) and the second damping plate (50). The drum (49) is rotatably sleeved on the outer wall of the rotating sleeve (48). The two ends of the drum (49) are respectively attached to the first damping plate (51) and the second damping plate (52). The tensioning motor (50) is installed on one side of the mounting rod (47) in front of the rotating external gear ring (3). The output shaft of the tensioning motor (50) is sleeved with the first tensioning gear (53). The outer wall of the rotating sleeve (48) is sleeved with the second tensioning gear (54). The first tensioning gear (53) and the second tensioning gear (54) are meshed and connected.
8. A processing method, characterized in that, A method for processing cables using the composite cable processing apparatus as described in any one of claims 1-7.
Citation Information
Patent Citations
Composite high-strength corrosion-resistant cable
CN115132414A
Movable wrapping machine
CN216412760U