Bunched cable forming tool and method

Abstract

The invention discloses a bunched cable forming tool and method, and belongs to the technical field of cable forming, the bunched cable forming tool comprises a mounting part used for mounting the end part of an electric wire to be wound into a bunch, the mounting part comprises a first mounting part and a second mounting part which are coaxially and oppositely arranged, and the second mounting part can coaxially rotate relative to the first mounting part; the plurality of wires are wound into a twisted cable bundle, or the twisted cable bundle is kept in spiral winding tightness within a set range; the device further comprises a moving assembly which is connected with the two mounting parts so as to drive the two mounting parts to synchronously and linearly move and synchronously rotate at the same time. An adhesive tape wheel is arranged on one side of the cable bundle, and one end of an adhesive tape on the adhesive tape wheel can be wound at one end of the cable bundle, so that the cable bundle is spirally wound together by the adhesive tape while linearly moving and rotating at the same time. According to the invention, bundling forming processing can be efficiently carried out on the cable, and the cable forming quality is stable and controllable.

Description

Technical Field

[0001] The invention relates to the technical field of cable processing and manufacturing, and in particular to a bundled cable forming tool and method. Background Art

[0002] Bundled cable is a cable product formed by bundling and coating multiple insulated wires or optical fibers together through a special process. There are many equipment and methods for making this type of cable, but the basic principle is to use multiple strands of wire to twist into a twisted shape. Different cable thicknesses and lengths may require different cable forming methods. In some shorter cable laying occasions, the cables used, such as some automotive cables, are not long, but they need to be integrated with multiple wires to be concentrated in the corresponding functional module area for connection. At present, the bundling of this type of cable is mostly done manually with the assistance of simple tooling. For example, one end of the multiple strands of wire is fixed to the corresponding support rod end of the workbench, tightened with bolts, and then the other end is gathered together for rotation winding, or even hand-woven. Some of the original manual work is even carried out in a way similar to weaving straw ropes. Not only is the forming efficiency low, but the forming quality is difficult to control and strictly depends on the operator's operating experience. In addition, after the wires are initially twisted together, they need to be wrapped with some insulating materials such as insulating tape on the outside to shape the cable bundle composed of these wires. In this process, a problem that is very easy to occur is that because the wires are not tightly wound like steel cables, when the insulating materials such as tape are spirally wrapped, it is easy to cause the cable bundle to be twisted into a pretzel shape. As the spiral winding of the tape proceeds, it becomes more and more obviously dispersed and fluffy, resulting in a poor appearance of the cable bundle and local bulges. Summary of the invention

[0003] In view of the deficiencies in the prior art, the present invention provides a bundled cable forming tool and method to solve the problems of low cable forming efficiency, difficult to control forming quality, and easy local loosening of cables mentioned in the background technology.

[0004] To achieve the above-mentioned purpose, the present invention provides the following technical solutions: a cable bundle forming tool, comprising a mounting part for mounting the ends of the wires to be wound into a bundle, the mounting part comprising a first mounting part and a second mounting part which are coaxial and relatively arranged, the second mounting part being able to rotate coaxially relative to the first mounting part to wind a plurality of wires into a twisted cable bundle, or to keep the cable bundle which has been twisted into a twisted shape with a spiral winding tightness within a set range; further comprising a moving component, the moving component being connected to the two mounting parts to move synchronously in a straight line while maintaining synchronous rotation; a tape wheel is provided on one side of the cable bundle, one end of the tape on the tape wheel being able to be wound around one end of the cable bundle, so that the cable bundle is spirally wound together by the tape while moving in a straight line and rotating on its own.

[0005] Furthermore, the mounting portion includes an inner top component and an outer pressure component arranged on the mounting disk, the mounting disk being provided with a plurality of jacks in a circular array, the ends of the power lines being inserted into the jacks; the inner top component is located on the inner side of the outer pressure component, and the inner top component pushes the ends of the wires toward the outside of the mounting disk, while the outer pressure component squeezes the wires toward the inside of the mounting disk, so as to fix the ends of all the wires on the mounting disk.

[0006] Furthermore, the inner top component includes a plurality of sliders in a circular array in the center of the mounting disk, the sliders are installed in the mounting disk in a radially sliding manner along the mounting disk, the opposite sides of the sliders are conical surfaces, and the small ends of the conical surfaces of the two mounting parts are arranged opposite to each other; it also includes a truncated cone-shaped slide, the small end of the slide is in the same direction as the small end of the conical surface, and an adjusting stud is coaxially fixed to the slide, the adjusting stud is threadedly screwed into the mounting disk, and the conical surface of the slide is synchronously and snugly contacted with the conical surfaces of all the sliders, so that all the sliders are moved away from each other and push the ends of the wires facing each other.

[0007] Furthermore, a guide block is fixed to the end of the sliding block, and the guide block is installed in a strip-shaped slide groove in the mounting plate in a sliding cooperation manner, and is in contact with a preload spring arranged at one end of the strip-shaped slide groove.

[0008] Furthermore, a socket pipe is coaxially fixed on the small end of the slide, a compression spring is installed in the socket pipe, the compression spring is slidably matched with a guide column axially slidably installed in the socket pipe, and the free end of the guide column is in contact with the inner wall of the mounting plate.

[0009] Further, the external pressure component includes a plurality of sliding shoes in an annular array, and a transmission stud is rotatably mounted on a side of the sliding shoe facing away from the slider, the transmission stud is arranged along the radial direction of the mounting plate, and a first cylindrical gear is coaxially fixed after passing through the outer side of the mounting plate in a threaded manner, and all the cylindrical gears are meshed with the same plane gear, so that all the transmission studs are synchronously screwed into or out of the mounting plate; The plane gear is fixed on the port of a knob cover, and an inner gear ring is coaxially fixed to the center of the knob cover. The inner gear ring is meshed and driven with a second cylindrical gear coaxially fixed on the adjusting stud through a speed change gear, and when the adjusting stud is axially screwed into the mounting disk, the transmission stud is also radially screwed into the mounting disk.

[0010] Furthermore, the speed change gear is rotatably mounted on the end surface of the mounting plate; the transmission stud is a T-bolt structure, and its nut is rotatably mounted in the sliding shoe.

[0011] Furthermore, an operating disk is fixed to the end of the second cylindrical gear so that the adjusting stud can be rotated by rotating the operating disk; a fastening stud is also provided on the end surface of the mounting disk, and the free end of the fastening stud is in contact with the end surface of the operating disk.

[0012] Furthermore, the mobile component has one of the following two structural designs: Structure 1: includes two drive motors and two hydraulic rods. The main shaft of the drive motor is coaxially fixed to the mounting part through a connecting tube to drive it to rotate synchronously. The hydraulic rod is fixed to the mounting part to drive it to move linearly in the same direction.

[0013] Structure 2: The moving component is arranged on one of the mounting parts, including a screw rod, a threaded support seat and a motor. The motor is coaxially fixed with one end of the screw rod. The screw rod is threaded into the threaded support seat, and one end extending out of the threaded support seat is coaxially fixed with the mounting part through a right-angle bent arm. The motor is horizontally slidably mounted on a guide rail, and the threaded support seat is fixed to one end of the guide rail close to the mounting part.

[0014] Finally, based on the above tooling, the present invention also proposes a method for forming a bundled cable. According to the needs of cable processing, the two ends of several wires that have not yet been wound or have been wound are selected to be installed on the mounting parts respectively. For the wires that have not yet been wound, the second mounting part needs to be rotated first so that the wires are wound to the required tightness to obtain a semi-finished cable bundle, and then one end of the tape is pasted on the cable bundle. Through the moving component, the two mounting parts are allowed to rotate while translating to one side, so that the tape is spirally wound on the cable bundle.

[0015] The present invention provides a bundled cable forming tool and method, which has the following beneficial effects: higher automation, higher forming efficiency, and more stable quality. Specifically, the installation part automatically spirally winds when rotating to form a semi-finished product of the cable bundle, and then the installation part is used to rotate with the cable bundle while axially translating to spirally wind with the tape to form a twisted bundling structure. The whole process is automatically carried out by corresponding automatic components, and does not need to strictly rely on manual work, and the quality is stable and controllable. In addition, another key effect is that the two installation parts can be rotated to maintain a relative position state. In this position state, the cable bundle is always in a twisted state. Therefore, when its own weight and axial movement pass under the tape wheel, the tape can be evenly and stably wound around the outside of the cable bundle, aligned and evenly and stably wrapped, and there will be no problem of fluffy and messy wires between the wires due to the spiral winding, squeezing and spreading of the tape at the local position of the cable, and the cable appearance is neat and beautiful. In addition, the installation position of the end of the wire can be flexibly adjusted for wires of various thicknesses or bundles of multiple wires to better obtain the required cable. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 A schematic diagram of a working state of the present invention; Figure 2 for Figure 1 An enlarged view of the appearance structure of the installation part at the middle right end; Figure 3 for Figure 2 A cross-sectional view of the structure shown; Figure 4 for Figure 3 A magnified view of the structure within the middle dashed rectangular box area; Figure 5 A structural schematic diagram of a second mounting portion driven by a mobile component.

[0017] In the figure: wire 1, mounting part 2, cable bundle 3, tape 4, tape wheel 5, mounting plate 6, slider 7, slide 8, adjusting stud 9, second cylindrical gear 10, sliding shoe 11, transmission stud 12, first cylindrical gear 13, flat gear 14, knob cover 15, inner ring gear 16, speed change gear 17, guide block 18, preload spring 19, socket pipe 20, compression spring 21, guide column 22, operating panel 23, fastening stud 24, motor 25, screw 26, threaded support seat 27, crank arm 28, guide rail 29. DETAILED DESCRIPTION

[0018] This specification will clearly and completely express the technical solutions in the following examples based on the drawings of the embodiments of the present invention. The implementation methods described in this specification are only some of the embodiments of the present invention, not all of them. All other embodiments extended and inspired by those skilled in the art based on these embodiments in this application without creative work should fall within the scope of protection of the present invention.

[0019] like Figure 1 As shown, the bundled cable forming tool in this embodiment mainly includes a mounting portion 2 for mounting the ends of the wires 1 to be wound into a bundle. The two mounting portions 2 are respectively a first mounting portion and a second mounting portion that are coaxial and arranged oppositely. Specifically, the second mounting portion can rotate coaxially relative to the first mounting portion to wind a plurality of wires 1 into a twisted cable bundle 3. When necessary, the second mounting portion can also move linearly while rotating. Or during processing, the cable bundle 3 that has been wound into a twisted shape can maintain a spiral winding tightness within a set range, because different wires 1 may be twisted to different degrees of tightness when they are assembled into a bundle. Too thin or too hard wires only need to be wound until they will not easily loosen. This is different from common wires such as bridge cables or some special cables. In addition, the present embodiment also includes a moving component, which is directly or indirectly connected to the two mounting parts 2, and its purpose is to be able to move the two mounting parts 2 synchronously in a straight line, while maintaining synchronous rotation or relative rotation until the wires 1 always have a set torque state, the purpose is to twist or prevent the cable bundle 3 from loosening during movement, because it is necessary to wrap the tape 4 on the outside, that is, Figure 1 As shown, a tape wheel 5 is provided on one side of the cable bundle 3, and one end of the tape 4 on the tape wheel 5 can be wound around one end of the cable bundle 3, so that the cable bundle 3 can move in a straight line while rotating on its own while being spirally wound together by the tape 4, thereby fixing the winding state of the cable bundle 3, or further tightening the cable bundle 3 by winding and pasting the tape 4, and also facilitating the cable bundle 3 to be bent in multiple positions to a large extent without damaging the metal conductors in the electric wire 1.

[0020] like Figure 2-Figure 3As shown, the mounting portion 2 in this embodiment includes an inner top component and an outer pressure component disposed on the mounting disk 6, and a plurality of annular array sockets are disposed on the mounting disk 6, and the ends of the power lines 1 are inserted into these sockets. Generally, the wires 1 are distributed in the corresponding sockets in the form of an annular array, which is similar to the processing of steel cables, etc. Specifically, the inner top component is located on the inner side of the outer pressure component, and the inner top component pushes the ends of the wires 1 toward the outside of the mounting disk 6, while the outer pressure component squeezes the wires 1 toward the inside of the mounting disk 6, so that a section of the ends of the wires 1 can be clamped, and the ends of all the wires 1 can be fixed on the mounting disk 6, and most importantly, it can be flexibly adjusted to adapt to different wire thicknesses, and to adapt to different cable integration processing occasions, and the installation spacing between the ends of a pair of relative wires 1.

[0021] like Figure 3 As shown, the inner top component in this embodiment includes a plurality of sliders 7 arranged in an annular array in the center of the mounting disk 6. These sliders 7 are installed in the mounting disk 6 in a radially sliding manner. The opposite sides of these sliders 7 are conical surfaces, and the small ends of the conical surfaces of the two mounting parts 2 are arranged opposite to each other. In addition, this embodiment also includes a truncated cone-shaped slide 8. The small end of this slide 8 is in the same direction as the small end of the conical surface, and an adjustment stud 9 is coaxially fixed to the slide 8. This adjustment stud 9 is screwed into the mounting disk 6 in a threaded manner, and the conical surface of the slide 8 is synchronously fitted with the conical surfaces of all the sliders 7. When the adjustment stud 9 is screwed in, all the sliders 7 can be moved away from each other, and then the ends of the wires 1 facing each other are pushed.

[0022] As one of the specific implementation structures, a guide block 18 is fixed to the end of the slider 7. The guide block 18 is slidably installed in the strip slide groove in the mounting plate 6, and is in contact with the preload spring 19 set at one end of the strip slide groove to maintain the stability of the slider 7 and prevent it from malfunctioning easily.

[0023] In order to further maintain the stability of the overall structure during the adjustment process, a socket pipe 20 is coaxially fixed on the small end of the slide 8. A compression spring 21 is installed in the socket pipe 20. The compression spring 21 slides with a guide column 22 axially slidably installed in the socket pipe 20. The free end of the guide column 22 is in contact with the inner wall of the mounting plate 6, so that the slide 8 can slide axially more stably.

[0024] Continue reading Figure 3The external pressure component in this embodiment includes a plurality of sliding shoes 11 in an annular array. A transmission stud 12 is rotatably installed on one side of these sliding shoes 11 away from the slider 7. All the transmission studs 12 are arranged along the radial direction of the mounting plate 6, and after passing through the outer side of the mounting plate 6 in a threaded manner, a first cylindrical gear 13 is specially coaxially fixed thereto. The cylindrical gear is a special gear similar to a spline with a very large tooth thickness. All the cylindrical gears are meshed with the same flat gear 14. Through this structural design, all the transmission studs 12 can be synchronously screwed in or out of the mounting plate 6, and the meshing state is always maintained during the axial movement of the transmission studs 12.

[0025] More specifically, if Figure 3 The flat gear 14 is fixed on the port of a knob cover 15, and the knob cover 15 is coaxially fixed with an inner gear ring 16 in the center. The inner gear ring 16 is meshed with a second cylindrical gear 10 coaxially fixed on the adjusting stud 9 through a speed change gear 17. The purpose is to always indirectly maintain the transmission relationship with the inner gear ring 16 when the adjusting stud 9 moves axially. That is, when the adjusting stud 9 is axially screwed into the mounting plate 6, the transmission stud 12 is also radially screwed into the mounting plate 6, and then a section of the end of the corresponding wire is clamped and fixed. In practice, the above-mentioned speed change gear 17 can be rotatably mounted on the end face of the mounting plate 6, and the transmission stud 12 mentioned can be a T-bolt structure, and the nut of the T-bolt is made into a round shape and rotatably mounted in the sliding shoe 11.

[0026] In order to drive the adjusting stud 9 to rotate, Figure 3 An operating disk 23 is fixed to the end of the second cylindrical gear 10, so that the adjusting stud 9 can be rotated by rotating the operating disk 23, and a fastening stud 24 is also provided on the end surface of the mounting disk 6. When the free end of the fastening stud 24 contacts and contacts the end surface of the operating disk 23, the adjusting stud 9 is axially fixed, that is, the position of the slide 8 is fixed, and all the sliders 7 and all the sliding shoes 11 maintain a constant position, thereby realizing a one-time simultaneous fixation of these clamping elements, which is very clever.

[0027] Specifically, during the manufacturing process, the moving assembly in this embodiment is one of the following two structural designs, both of which can realize the processing of the cable bundle 3. As one of the structures, it is mainly realized directly by the automatic function of the components, that is, it includes two drive motors and two hydraulic rods, the main shaft of the drive motor is coaxially fixed with the mounting part 2 through a connecting tube, and can drive the second mounting part to rotate synchronously, and the hydraulic rod is fixed with the mounting part 2, which can simply and directly drive the second mounting part to move linearly in the same direction.

[0028] In addition, if Figure 5As another implementation structure, the moving component is arranged on one of the mounting parts 2, which can be the second mounting part, and specifically includes a screw rod 26, a threaded support seat 27 and a motor 25. The motor 25 is coaxially fixed to one end of the screw rod 26 to drive it to rotate, and the screw rod 26 is screwed into the threaded support seat 27 with threaded cooperation. The threaded support seat 27 is fixedly installed, and one end of the screw rod 26 extending out of the threaded support seat 27 is fixedly installed coaxially with the mounting part 2 through a right-angled curved arm 28. Then, when the main shaft rotates, one end of the wire 1 begins to twist in a twisted shape. If the two mounting parts 2 are each coaxially fixed to the main shaft through a curved arm 28, the cable bundle 3 rotates as a whole to achieve spiral winding of the tape 4. In the above structure, due to the transmission of the threaded pair, the main shaft and the motor 25 will translate axially. Therefore, the motor 25 is horizontally slidably installed on a guide rail 29 for smooth sliding, and the threaded support seat 27 is fixed to one end of the guide rail 29 close to the mounting portion 2. Usually, the length of some cables that need to be bundled inside the car is not very long. Therefore, a screw rod 26 is used to achieve rotation and axial movement. Its length is completely sufficient, and the structure is simple and reliable, easy to manufacture and use.

[0029] Finally, as a specific embodiment, a method for forming a bundled cable is introduced. During the forming process, it is necessary to select and install the two ends of several wires 1 that have not been wound or have been wound on the mounting parts 2 respectively according to the cable processing needs. Among them, for the wires 1 that have not been wound, it is necessary to rotate the second mounting part first so that the wires 1 are wound to the required tightness to obtain a semi-finished cable bundle 3, and then paste one end of the tape 4 on the cable bundle 3. By moving the components, the two mounting parts 2 are rotated while translating to one side, so that the tape 4 is automatically spirally wound on the cable bundle 3. This forming method can also avoid the accidental situation that when the tape 4 is wound on the outer layer of the cable bundle 3, the local wires 1 of the cable bundle 3 are further separated and fluffy due to the spiral extrusion and winding of the tape 4.

[0030] It should be explained here that, in this specification, terms such as first and second are only used to distinguish one feature from another, and do not mean that there is a certain relationship or order between these technical features. The terms "including" and "comprising" refer to the inclusion of one or some technical means or features, specifically meaning that there are other existing or non-existing technical features that have not been included. The discussion in the above embodiments is only a representative example for the present invention, and is by no means the only restrictive constraint feature. A person of ordinary skill in the art should understand that, without departing from the technical content recorded in all the claims of this application, some simple substitutions and modifications can be made, thereby changing or becoming equivalent to other specific embodiments and application scenarios. However, no matter how the adaptability is changed, these embodiments will inevitably fall within the scope of protection of the present invention.

Claims

1. A bundled cable forming tool, comprising a mounting portion (2) for mounting ends of wires (1) to be bundled, characterized in that: The mounting portion (2) comprises a first mounting portion and a second mounting portion which are coaxially and oppositely arranged, and the second mounting portion can coaxially rotate relative to the first mounting portion to wind a plurality of electric wires (1) into a twisted cable bundle (3), or to allow the twisted cable bundle (3) to maintain a spiral winding tightness within a set range; The invention also comprises a moving component, which is connected to the two mounting parts (2) so as to move the two mounting parts (2) synchronously in a straight line while maintaining synchronous rotation; a tape wheel (5) is provided on one side of the cable bundle (3), and one end of the tape (4) on the tape wheel (5) can be wound around one end of the cable bundle (3), so that the cable bundle (3) is spirally wound together by the tape (4) while moving in a straight line and rotating.

2. The cable bundle forming tool according to claim 1, characterized in that: The mounting portion (2) comprises an inner top component and an outer pressure component arranged on a mounting plate (6); the mounting plate (6) is provided with a plurality of jacks in a ring array, into which the ends of the power lines (1) are inserted; the inner top component is located on the inner side of the outer pressure component, and the inner top component pushes the ends of the wires (1) toward the outer side of the mounting plate (6), while the outer pressure component presses the wires (1) toward the inner side of the mounting plate (6), so that the ends of all the wires (1) are fixed on the mounting plate (6).

3. The cable bundle forming tool according to claim 2, characterized in that: The inner top component comprises a plurality of sliders (7) arranged in an annular array at the center of the mounting plate (6), the sliders (7) being mounted in the mounting plate (6) in a sliding manner along the radial direction of the mounting plate (6), the surfaces of the sliders (7) facing each other being conical surfaces, and the small ends of the conical surfaces of the two mounting parts (2) being arranged facing each other; It also includes a truncated cone-shaped slide (8), the small end of the slide (8) is aligned with the small end of the conical surface, an adjusting stud (9) is coaxially fixed to the slide (8), the adjusting stud (9) is screwed into the mounting plate (6) in a threaded manner, and the conical surface of the slide (8) is synchronously and closely fitted with the conical surfaces of all the sliders (7) to make all the sliders (7) move away from each other and push the ends of the wires (1) facing each other.

4. The cable bundle forming tool according to claim 3, characterized in that: A guide block (18) is fixed to the end of the slide block (7). The guide block (18) is slidably mounted in a strip-shaped slide groove in the mounting plate (6) and is in contact with a preload spring (19) disposed at one end of the strip-shaped slide groove.

5. The cable bundle forming tool according to claim 3, characterized in that: A bell-and-spigot pipe (20) is coaxially fixed on the small end of the slide (8), a compression spring (21) is installed in the bell-and-spigot pipe (20), and the compression spring (21) is slidably matched with a guide column (22) axially slidably installed in the bell-and-spigot pipe (20), and the free end of the guide column (22) is in contact with the inner wall of the mounting plate (6).

6. The cable bundle forming tool according to claim 3, characterized in that: The external pressure component comprises a plurality of sliding shoes (11) in an annular array, a driving stud (12) being rotatably mounted on a side of the sliding shoe (11) facing away from the slider (7), the driving stud (12) being arranged along the radial direction of the mounting plate (6), and being threadedly fitted through the outer side of the mounting plate (6) and coaxially fixed with a first cylindrical gear (13), all cylindrical gears being meshed with the same plane gear (14), so that all the driving studs (12) are synchronously screwed into or out of the mounting plate (6); The plane gear (14) is fixed on the port of a knob cover (15), and an inner gear ring (16) is coaxially fixed at the center of the knob cover (15). The inner gear ring (16) is meshed and driven with a second cylindrical gear (10) coaxially fixed on the adjusting stud (9) through a speed change gear (17). When the adjusting stud (9) is axially screwed into the mounting plate (6), the transmission stud (12) is also radially screwed into the mounting plate (6).

7. The cable bundle forming tool according to claim 6, characterized in that: The speed change gear (17) is rotatably mounted on the end surface of the mounting plate (6); the transmission stud (12) is a T-bolt structure, and its nut is rotatably mounted in the sliding shoe (11).

8. The cable bundle forming tool according to claim 6, characterized in that: An operating disc (23) is fixed to the end of the second cylindrical gear (10), so that the adjusting stud (9) can be rotated by rotating the operating disc (23); a fastening stud (24) is also provided on the end surface of the mounting disc (6), and the free end of the fastening stud (24) is in contact with the end surface of the operating disc (23).

9. The cable bundle forming tool according to claim 1, characterized in that: The mobile assembly has one of the following two structural designs: Structure 1: comprising two drive motors and two hydraulic rods, wherein the main shaft of the drive motor is coaxially fixedly connected to the mounting portion (2) via a connecting tube to drive the same-axis rotation thereof, and the hydraulic rod is fixedly connected to the mounting portion (2) to drive the same-direction linear movement thereof; Structure 2: The moving assembly is arranged on one of the mounting parts (2), and comprises a screw rod (26), a threaded support seat (27) and a motor (25). The motor (25) is coaxially fixed with one end of the screw rod (26). The screw rod (26) is screwed into the threaded support seat (27) in a threaded manner. One end of the screw rod (26) extending out of the threaded support seat (27) is coaxially fixed with the mounting part (2) through a right-angle bent arm (28). The motor (25) is horizontally slidably mounted on a guide rail (29). The threaded support seat (27) is fixed to one end of the guide rail (29) close to the mounting part (2).

10. A method for forming a bundled cable, characterized in that: The cable bundle (3) is manufactured by using the cable bundle forming tool as described in any one of claims 1 to 9. First, according to the processing requirements, the two ends of a plurality of wires (1) that have not been wound or have been wound are selected to be installed on the mounting part (2) respectively. For the wires (1) that have not been wound, the second mounting part needs to be rotated first so that the wires (1) are wound to the required tightness to obtain a semi-finished cable bundle (3). Then, one end of the tape (4) is pasted on the cable bundle (3). By moving the assembly, the two mounting parts (2) are allowed to rotate while translating to one side, so that the tape (4) is spirally wound on the cable bundle (3).

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