Multi-core wire arranging device
The automated wire splitting and positioning technology of the multi-core wire assembly device solves the problem of splitting multiple core wires, improves processing accuracy and efficiency, and is applicable to a variety of multi-core wires.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- GUANGDONG HONGHUI INTELLIGENT TECHNOLOGY CO LTD
- Filing Date
- 2025-04-17
- Publication Date
- 2026-04-14
AI Technical Summary
Existing technologies struggle to automate and efficiently separate multiple core wires and ensure their ends are on the same plane, leading to problems such as welding misalignment, affecting processing quality and increasing labor costs.
A multi-core wire laying device is adopted, including a middle partition, a front and rear moving mechanism, a wire pressing mechanism, a wire pulling mechanism, and a wire loosening mechanism. These mechanisms realize the automatic splitting and positioning of the core wires, ensuring that the core wires are on the same plane.
It enables automated splitting of multi-core wires, reduces labor costs, improves processing accuracy and production efficiency, and is suitable for multi-core wires of different specifications.
Smart Images
Figure CN224123678U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of wire harness processing, and more particularly to a multi-core wire assembly device. Background Technology
[0002] Cables are used for transmitting power and electronic communications. To facilitate connections between cables and other devices, connectors are typically soldered to the ends of the cables. Currently, cables contain single or multiple cores. For cables with multiple cores, each core must be separated individually before soldering a connector to each one. However, in current automated production processes, it is difficult to separate the cores one by one, and even after separation, the ends of the cores are not on the same plane. This can easily lead to problems such as misalignment and welding during subsequent processing, compromising the quality of the final product. Separating the cores would require significant manpower, severely impacting operational efficiency. Utility Model Content
[0003] To solve the above problems, this utility model provides a multi-core wire cabling device.
[0004] To achieve the above objectives, the present invention adopts the following technical solution: The present invention relates to a multi-core wire arrangement device, which is used to process the sequential arrangement of core wires inside a multi-core wire. Its features include: a partition plate, a forward and backward moving mechanism, a wire pressing mechanism, a wire pulling mechanism, and a wire loosening mechanism. The partition plate is disposed on the forward and backward moving mechanism. The wire pulling mechanism and the wire loosening mechanism are disposed on one side of the partition plate. The wire pressing mechanism is disposed above the partition plate. The wire pulling mechanism is used to realize the arrangement of core wires. The wire pressing mechanism is used to realize the positioning of each core wire within the multi-core wire. The wire loosening mechanism is used to release the clamping force of the wire pulling mechanism on the core wire.
[0005] Preferably, the forward and backward moving mechanism includes a support platform, front and rear slide rails, front and rear sliders, and a front and rear adjusting cylinder. The middle partition is installed above the support platform, the front and rear slide rails are installed below the support platform, the front and rear sliders are fixedly installed on the workbench, the front and rear slide rails are connected to the front and rear sliders, and the output end of the front and rear adjusting cylinder is connected to the front and rear slide rails. The front and rear adjusting cylinder drives the front and rear slide rails to slide within the front and rear sliders.
[0006] Preferably, the forward and backward movement mechanism further includes a stroke adjuster connected to the forward and backward adjustment cylinder.
[0007] Preferably, the pressing mechanism includes a pressing bracket, a pressing motor, a pressing screw, a pressing slide rail, a first pressing slider, a second pressing slider, a first pressing seat, and a second pressing seat. The pressing bracket is fixedly connected to the middle partition plate. The pressing motor and the pressing slide rail are fixedly installed on the pressing bracket. The first pressing slider and the second pressing slider are slidably installed on the pressing slide rail. The first pressing seat is installed on the first pressing slider, and the second pressing seat is installed on the second pressing slider. The output end of the pressing motor is connected to the pressing screw, and the pressing screw is sequentially connected to the first pressing seat and the second pressing seat.
[0008] Preferably, the pressure rail is arranged along the output end of the pressure motor.
[0009] Preferably, the first wire pressing base is provided with an upper positioning fork, and the upper positioning fork is provided with a first wire pressing groove that matches the shape of the core wire; the second wire pressing base is provided with a lower positioning fork, and the lower positioning fork is provided with a second wire pressing groove that matches the shape of the core wire.
[0010] Preferably, the wire pulling mechanism includes several pairs of wire pulling components, which are arranged side by side on the partition plate, and each pair of wire pulling components completes the correct arrangement of each wire core inside the multi-core wire.
[0011] Preferably, the cable pulling assembly includes a cable pulling motor, a cable pulling screw, a cable pulling slide rail, a first cable pulling slider, a second cable pulling slider, a first gripper screw seat, a leftward push block, a first cable pulling gripper, and a second cable pulling gripper. The cable pulling motor and the cable pulling slide rail are mounted on the middle partition plate. The first cable pulling slider and the second cable pulling slider are slidably mounted on the cable pulling slide rail. The first gripper screw seat is mounted on the first cable pulling slider, and the leftward push block is mounted on the second cable pulling slider. The output end of the cable pulling motor is connected to the cable pulling screw. The cable pulling screw is sequentially connected to the first gripper screw seat and the leftward push block. The first cable pulling gripper is mounted on the first gripper screw seat, and the second cable pulling gripper is mounted on the leftward push block.
[0012] Preferably, the first wire puller includes a first wire puller adapter plate and a first clamping jaw. One end of the first wire puller adapter plate is fixedly installed on the first clamping jaw screw seat, and the other end of the first wire puller adapter plate is connected to the first clamping jaw. The first clamping jaw is provided with a first clamping opening that matches the shape of the core wire.
[0013] The second pull wire clamp includes a second pull wire adapter plate and a second clamping member. One end of the second pull wire adapter plate is fixedly installed on the leftward push block, and the other end of the second pull wire adapter plate is connected to the second clamping member. The second clamping member is provided with a second clamping opening that matches the shape of the core wire.
[0014] Preferably, the wire loosening mechanism includes a wire loosening cylinder, a push plate, and a clamp cam. The wire loosening cylinder is mounted on the middle partition plate, and the output end of the wire loosening cylinder is connected to the push plate. The middle partition plate is provided with a wire loosening slide. The clamp cam passes through the wire loosening slide and is connected to the wire pulling mechanism.
[0015] The beneficial effects of this utility model are as follows: This utility model relates to a multi-core wire arrangement device. It controls and adjusts the entry and exit of multi-core wires through a forward and backward moving mechanism, arranges each core wire inside the multi-core wire by moving left and right through a wire pulling mechanism, positions each core wire through a wire pressing mechanism, and releases the clamping force on the core wire through a wire releasing mechanism. This utility model's multi-core wire arrangement device can automatically process multi-core wires, reducing labor costs, improving operational accuracy, and meeting the precision requirements of assembly lines. This utility model allows for the replacement of the wire pulling component in the wire pulling mechanism to perform wire separation operations according to different specifications of multi-core wires. It is applicable to the wire separation operations of most multi-core wires, meeting the wire separation needs of various multi-core wires, and also improving production efficiency. Attached Figure Description
[0016] Figure 1 This is a schematic diagram of the overall structure of this utility model.
[0017] Figure 2 This is a utility model Figure 1 Enlarged view of point A in the middle.
[0018] Figure 3 This is a schematic diagram of the overall structure of this utility model from another angle.
[0019] Figure 4 This is a schematic diagram of the structure of this utility model after the outer cover is installed.
[0020] Figure 5 This is a schematic diagram of the front-to-back moving mechanism of this utility model.
[0021] Figure 6 This is a structural schematic diagram of the wire pressing mechanism of this utility model.
[0022] Figure 7 This is a schematic diagram of the wire pressing motor and wire pressing screw in the wire pressing mechanism of this utility model.
[0023] Figure 8 This is a schematic diagram of the overall structure of the wire-pulling mechanism of this utility model.
[0024] Figure 9 This is a schematic diagram of the assembly structure of the wire pulling mechanism of this utility model, including the wire pulling motor, the wire pulling screw, the first gripper screw seat, and the leftward pushing block.
[0025] Figure 10 This is an exploded structural diagram of the wire-pulling mechanism of this utility model.
[0026] Figure 11 This is a schematic diagram of the transverse structure of the wire-pulling mechanism of this utility model.
[0027] Figure 12 This is a structural diagram of the first and second wire clamping claws of this utility model.
[0028] Figure 13 This is a utility model Figure 12 Enlarged view of section B in the middle.
[0029] Figure 14 This is a schematic diagram of the wire loosening mechanism of this utility model.
[0030] Figure 15 This is a structural diagram of the clamp cam connected to the leftward push block of this utility model.
[0031] Figure 16 This is a schematic diagram of the state during operation of this utility model.
[0032] Figure 17 This utility model relates to the operation of the wire-pulling mechanism. Figure 16 Enlarged view of point C in the image.
[0033] Figure 18 When the wire pressing mechanism is in operation, this utility model... Figure 16 Enlarged view of point C in the image.
[0034] Figure Labels
[0035] 1. Middle partition; 11. Motor mounting plate; 111. Motor mounting hole; 12. Loose wire slide;
[0036] 2. Forward and backward moving mechanism; 21. Slider fixing plate; 22. Forward and backward slide rails; 23. Forward and backward sliders; 24. Forward and backward adjusting cylinder; 25. Stroke adjuster;
[0037] 3. Wire pressing mechanism; 30. Wire pressing screw; 31. Wire pressing bracket; 32. Wire pressing motor; 33. Wire pressing slide rail; 34. First wire pressing slider; 35. Second wire pressing slider; 36. First wire pressing screw seat; 37. Second wire pressing screw seat; 38. Upper positioning fork; 381. First wire pressing groove; 39. Lower positioning fork; 391. Second wire pressing groove;
[0038] 4. Wire pulling mechanism; 40. Wire pulling screw; 41. Wire pulling motor; 42. Motor origin sensor; 43. Wire pulling slide rail; 44. First wire pulling slider; 45. Second wire pulling slider; 46. First gripper screw seat; 47. Leftward push block; 48. First wire pulling gripper; 481. First wire pulling adapter plate; 482. First wire gripper; 483. First clamping opening; 49. Second wire pulling gripper; 491. Second wire pulling adapter plate; 492. Second wire gripper; 493. Second clamping opening;
[0039] 5. Wire release mechanism; 51. Wire release cylinder; 52. Push plate; 53. Clamp cam; 6. Multi-core wire; 61. Core wire; 7. Worktable; 8. Housing; 81. Core wire inlet / outlet. Detailed Implementation
[0040] Please see Figure 1-18 As shown, this utility model relates to a multi-core wire arrangement device, which is mainly used to process the distribution of core wires 61 of a multi-core wire 6. The multi-core wire arrangement device includes a partition plate 1, a front-back moving mechanism 2, a wire pressing mechanism 3, a wire pulling mechanism 4, and a wire loosening mechanism 5. The partition plate 1 is set on the front-back moving mechanism 2. The wire pulling mechanism 4 and the wire pressing mechanism 3 are installed on one side of the partition plate 1. The wire pressing mechanism 3 drives the wire pressing screw 30 to control the upper and lower positioning forks 39 to accurately position the arranged core wires 61 by driving the wire pressing motor 32. The wire pulling mechanism 4 drives the wire pulling screw by controlling the wire pulling claw to correctly arrange each core wire inside the multi-core wire 61. The wire loosening mechanism 5 is installed on the other side of the partition plate 1. The wire loosening mechanism 5 releases the clamping force of the wire pulling mechanism 4 on the core wires 61 by pushing the wire pulling slider.
[0041] Existing multi-core cables separate the internal cores using a splitting mechanism, while this invention uses a pulling mechanism to arrange each core of the multi-core cable in a certain order, thereby achieving a precise splitting effect. In this embodiment, a five-core wire is used as an example. It has five core wires 61, namely blue, yellow, green, red and black, which are arranged in a certain sequence, such as blue, yellow, green, red and black, or red, yellow, blue, green and black. The wire pulling mechanism first arranges the five core wires according to the set sequence. At this time, the multi-core wires are not on the same horizontal plane. After the arrangement is completed, the wire pressing mechanism positions the core wires that have been arranged in the correct sequence (the core wires are located in the lower positioning fork 39 after positioning). At the same time, the wire releasing mechanism releases the wire pulling mechanism (the second wire pulling claw 49 is opened by the clamp cam 53). When the wire pressing motor completes the positioning, it automatically releases (the upper positioning fork 38 and the lower positioning fork 39 open). At this time, the five core wires are on the same horizontal plane.
[0042] Furthermore, in this embodiment, during the operation of the multi-core wire laying device, firstly, the multi-core wire 6 enters the pulling mechanism 4 from the X-axis direction. At this time, the five core wires 61 are arranged longitudinally on the same longitudinal plane. The pulling mechanism 4 clamps each core wire 61 of the multi-core wire 6 in the Y-axis direction through the pulling components for positioning. The five pulling components clamp the five core wires 61 respectively and move in the Y-axis direction, thereby realizing the positioning of the five core wires 61. At this time, the five core wires 61 are on different longitudinal planes and not on the same horizontal plane. After the multi-core wire 6 is arranged in a certain order by the pulling mechanism 4, the pressing mechanism 3 uses the upper positioning fork 38 and the lower positioning fork 39 to press and position the multi-core wire 6 in the Z-axis vertical direction, thereby realizing the precise arrangement and positioning of each core wire 61. At this time, the five core wires 61 are on the same horizontal plane.
[0043] Furthermore, depending on the needs of the production line, two multi-core wire laying devices can be set up to simultaneously split the multi-core wires at both ends, improving work efficiency and saving the overall operation time of the production line.
[0044] In this embodiment, the forward and backward moving mechanism 2 includes a slider fixing plate 21, a front and rear slide rail 22, a front and rear slider 23, a front and rear adjusting cylinder 24, and a stroke adjuster 25. The partition plate 1 is installed above the slider fixing plate 21. The front and rear slide rail 22 is installed below the slider fixing plate 21. The front and rear sliders 23 are fixedly installed on the worktable 7, and the front and rear slide rails 22 are connected to the front and rear sliders 23. The output end of the front and rear adjusting cylinder 24 is connected to the front and rear slide rails 22. The front and rear adjusting cylinder 24 drives the front and rear slide rails 22 to slide within the front and rear sliders 23, and the front and rear slide rails 22 drive the slider fixing plate 21 to slide, thereby adjusting the components on the slider fixing plate 21 for forward and backward adjustment. The stroke adjuster 25 is connected to the front and rear adjusting cylinder 24. The stroke adjuster 25 adjusts the stroke length of the front and rear adjusting cylinder 24 to meet different working conditions and improve the accuracy of the front and rear adjusting cylinder 24.
[0045] Furthermore, in order to protect the internal components of the multi-core wire wiring device, the workbench 7 is provided with a housing 8, and the wire pressing mechanism 3, the wire pulling mechanism 4 and the wire loosening mechanism 5 are located inside the housing 8. The surface of the housing 8 is provided with a core wire inlet / outlet 81, and the core wire 61 enters the housing 8 through the core wire inlet / outlet 81 for wire splitting.
[0046] In this embodiment, the wire pressing mechanism 3 includes a wire pressing bracket 31, a wire pressing motor 32, a wire pressing screw 30, a wire pressing slide rail 33, a first wire pressing slider 34, a second wire pressing slider 35, a first wire pressing screw seat 36, a second wire pressing screw seat 37, an upper positioning fork 38, and a lower positioning fork 39. The wire pressing bracket 31 is fixedly connected to the middle partition 1, and the wire pressing motor 32 and the wire pressing slide rail 33 are fixedly installed on the wire pressing bracket 31. The wire pressing slide rail 33 is arranged along the output end direction of the wire pressing motor 32. The first wire pressing slider 34 and the second wire pressing slider 35 are slidably installed on the wire pressing slide rail 33, wherein the first wire pulling slider 44 is close to the wire pulling motor 41. The first pressure screw seat 36 is mounted on the first pressure slider 34, and the second pressure screw seat 37 is mounted on the second pressure slider 35. The output end of the pressure motor 32 is connected to the pressure screw 30, which is sequentially connected to the first pressure screw seat 36 and the second pressure screw seat 37. Therefore, the pressure motor 32 can be driven to rotate the pressure screw 30, controlling the first pressure screw seat 36 and the second pressure screw seat 37 to slide back and forth along the wire pull rail 43. The upper positioning fork 38 is mounted on the first pressure screw seat 36, and the lower positioning fork 39 is mounted on the second pressure screw seat 37.
[0047] The upper positioning fork 38 is mounted on the first pressure screw seat 36, and the lower positioning fork 39 is mounted on the second pressure screw seat 37. The upper positioning fork 38 has several first pressure grooves 381 at its end that match the shape of the core wire 61, and the lower positioning fork 39 has a second pressure groove 391 at its end that matches the shape of the core wire 61. When the pressure motor 32 controls the first pressure screw seat 36 and the second pressure screw seat 37 to move closer together, the upper positioning fork 38 and the lower positioning fork 39 also move closer together. At this time, the first pressure grooves 381 and the second pressure grooves 391 come together to compress the core wires 61 inside the multi-core wire 6. The core wires 61 are compressed into the first pressure grooves 381 and the second pressure grooves 391, thereby positioning each core wire 61 so that each core wire 61 is on a vertical line, facilitating subsequent wire pulling and arrangement.
[0048] In this embodiment, the cable pulling mechanism 4 includes several pairs of cable pulling assemblies arranged side-by-side on the partition plate 1. Each cable pulling assembly includes a cable pulling motor 41, a cable pulling screw 40, a motor origin sensor 42, a cable pulling slide rail 43, a first cable pulling slider 44, a second cable pulling slider 45, a first gripper screw seat 46, a leftward push block 47, a first cable pulling gripper 48, and a second cable pulling gripper 49. A motor fixing plate 11 is provided on the side of the partition plate 1, and the motor fixing plate 11 has several motor mounting holes 111. The cable pulling motor 41 is mounted in the motor mounting holes 111, and the motor origin sensor 42 is mounted on the cable pulling motor 41. The motor origin sensor 42 establishes the working origin of the cable pulling motor 41 to ensure precise position control of the equipment. The cable pulling slide rail 43 is mounted on the partition plate 1 and is arranged along the output end direction of the cable pulling motor 41. The first pull-line slider 44 and the second pull-line slider 45 are slidably mounted on the pull-line slide rail 43, with the first pull-line slider 44 close to the pull-line motor 41. The first gripper screw seat 46 is mounted on the first pull-line slider 44, and the leftward push block 47 is mounted on the second pull-line slider 45. The output end of the pull-line motor 41 is connected to the pull-line screw 40, which is sequentially connected to the first gripper screw seat 46 and the leftward push block 47. Therefore, the pull-line motor 41 can be driven to rotate the pull-line screw 40, controlling the first gripper screw seat 46 and the leftward push block 47 to slide back and forth along the pull-line slide rail 43. The first pull-line adapter plate 481 is mounted on the first gripper screw seat 46, and the second pull-line adapter plate 491 is mounted on the leftward push block 47.
[0049] Furthermore, the first pull-wire clamp 48 includes a first pull-wire adapter plate 481 and a first wire claw 482. One end of the first pull-wire adapter plate 481 is fixedly mounted on the first clamp screw seat 46, and the other end of the first pull-wire adapter plate 481 is connected to the first wire claw 482. The head of the first wire claw 482 is provided with a first clamping opening 483 that matches the shape of the core wire 61. The second pull-wire clamp 49 includes a second pull-wire adapter plate 491 and a second wire claw 492. One end of the second pull-wire adapter plate 491 is fixedly mounted on the leftward push block 47, and the other end of the second pull-wire adapter plate 491 is connected to the second wire claw 492. The head of the second wire claw 492 is provided with a second clamping opening 493 that matches the shape of the core wire 61.
[0050] When the pull motor 41 rotates the pull screw 40 to control the first clamping claw screw seat 46 and the leftward push block 47 to move closer together, the first pull clamping claw 48 and the second pull clamping claw 49 also move closer together. At this time, the first clamping port 483 and the second clamping port 493 come together to clamp the core wires 61 inside the multi-core wire 6, thereby clamping and separating the multi-core wire 6. In this embodiment, by setting several pairs of pull components to clamp the core wires 61 simultaneously, each core wire 61 is arranged.
[0051] In this embodiment, the wire loosening mechanism 5 includes a wire loosening cylinder 51, a push plate 52, and a clamping cam 53. The wire loosening cylinder 51 is mounted on the middle partition 1, and its output end is connected to the push plate 52. The middle partition 1 has several wire loosening slots 12, which are located on the back of the left-side push block 47. In this embodiment, the wire loosening slot 12 is rectangular with rounded edges, and its length is based on the sliding range of the left-side push block 47. The clamping cam 53 is mounted on the wire loosening slot 12, passes through the slot, and connects to the left-side push block 47. When the left-side push block 47 slides, the clamping cam 53 slides within the wire loosening slot 12.
[0052] When the wire pulling mechanism 4 clamps the multi-core wire 6 and it is necessary to loosen the wire, the wire loosening cylinder 51 pushes the push plate 52, which in turn pushes the clamp cam 53. The clamp cam 53 slides within the wire loosening slide 12 under the pushing force. At this time, the leftward push block 47 slides outward along with the clamp cam 53. At this time, the second clamping port 493 will move away from the first clamping port 483, thereby achieving the wire loosening operation.
[0053] This utility model relates to a multi-core wire arrangement device. A forward and backward moving mechanism 2 controls the entry and exit of multi-core wires 6. A wire pulling mechanism 4 separates each core wire 61. A wire pressing mechanism 3 precisely positions each core wire 61 within the multi-core wire 6. A wire releasing mechanism 5 releases the clamping force on the core wires 61. This utility model's multi-core wire arrangement device can automatically process multi-core wires, reducing labor costs, improving operational accuracy, and meeting the precision requirements of assembly lines. This utility model allows for changing the number of wire pulling components in the wire pulling mechanism 4 to perform the separation operation according to different specifications of multi-core wires. It is applicable to the separation of most multi-core wires, meeting the separation needs of various multi-core wires, and also improving production efficiency.
[0054] The above embodiments are merely preferred embodiments of the present utility model and are not intended to limit the scope of the present utility model. Various modifications and improvements made to the technical solutions of the present utility model by those skilled in the art without departing from the spirit of the present utility model should fall within the protection scope defined by the claims of the present utility model.
Claims
1. A multi-core wire arrangement device, wherein the multi-core wire arrangement device is used to process the sequential arrangement of the core wires inside a multi-core wire, characterized in that: The device includes a partition plate, a forward and backward moving mechanism, a wire pressing mechanism, a wire pulling mechanism, and a wire loosening mechanism. The partition plate is disposed on the forward and backward moving mechanism. The wire pulling mechanism and the wire loosening mechanism are disposed on one side of the partition plate. The wire pressing mechanism is disposed above the partition plate. The wire pulling mechanism is used to arrange the core wires. The wire pressing mechanism is used to position each core wire in the multi-core wire. The wire loosening mechanism is used to release the clamping force of the wire pulling mechanism on the core wires.
2. The multi-core wire wiring device according to claim 1, characterized in that: The forward and backward moving mechanism includes a support platform, front and rear slide rails, front and rear sliders, and a forward and backward adjusting cylinder. The middle partition is installed above the support platform, the front and rear slide rails are installed below the support platform, the front and rear sliders are fixedly installed on the workbench, the front and rear slide rails are connected to the front and rear sliders, and the output end of the forward and backward adjusting cylinder is connected to the front and rear slide rails. The forward and backward adjusting cylinder drives the front and rear slide rails to slide within the front and rear sliders.
3. The multi-core wire wiring device according to claim 2, characterized in that: The forward and backward movement mechanism also includes a stroke adjuster, which is connected to the forward and backward adjustment cylinder.
4. The multi-core wire cabling device according to claim 1, characterized in that: The wire pressing mechanism uses a wire pressing motor and a wire pressing screw to drive the upper and lower positioning forks to accurately position each pre-arranged core wire inside the multi-core wire.
5. A multi-core wire cabling device according to claim 4, characterized in that: The pressing mechanism includes a pressing bracket, a pressing motor, a pressing screw, a pressing slide rail, a first pressing slider, a second pressing slider, a first pressing seat, and a second pressing seat. The pressing bracket is fixedly connected to a partition plate. The pressing motor and the pressing slide rail are fixedly mounted on the pressing bracket. The first pressing slider and the second pressing slider are slidably mounted on the pressing slide rail. The first pressing seat is mounted on the first pressing slider, and the second pressing seat is mounted on the second pressing slider. The output end of the pressing motor is connected to the pressing screw. The pressing screw is sequentially connected to the first pressing seat and the second pressing seat.
6. A multi-core wire cabling device according to claim 5, characterized in that: The first wire pressing base is provided with an upper positioning fork, and the upper positioning fork is provided with a first wire pressing groove; the second wire pressing base is provided with a lower positioning fork, and the lower positioning fork is provided with a second wire pressing groove.
7. A multi-core wire cabling device according to claim 1, characterized in that: The wire pulling mechanism includes several pairs of wire pulling components, which are arranged side by side on the partition plate. Each pair of wire pulling components completes the correct arrangement of each wire core inside the multi-core wire.
8. A multi-core wire cabling device according to claim 7, characterized in that: The cable pulling assembly includes a cable pulling motor, a cable pulling screw, a cable pulling slide rail, a first cable pulling slider, a second cable pulling slider, a first gripper screw seat, a leftward push block, a first cable pulling gripper, and a second cable pulling gripper. The cable pulling motor and the cable pulling slide rail are mounted on a central partition. The first and second cable pulling sliders are slidably mounted on the cable pulling slide rail. The first gripper screw seat is mounted on the first cable pulling slider, and the leftward push block is mounted on the second cable pulling slider. The output end of the cable pulling motor is connected to the cable pulling screw. The cable pulling screw is sequentially connected to the first gripper screw seat and the leftward push block. The first cable pulling gripper is mounted on the first gripper screw seat, and the second cable pulling gripper is mounted on the leftward push block.
9. A multi-core wire cabling device according to claim 8, characterized in that: The first wire puller includes a first wire puller adapter plate and a first clamping jaw. One end of the first wire puller adapter plate is fixedly installed on the first clamping jaw screw seat, and the other end of the first wire puller adapter plate is connected to the first clamping jaw. The first clamping jaw is provided with a first clamping opening that matches the shape of the core wire. The second pull wire clamp includes a second pull wire adapter plate and a second clamping member. One end of the second pull wire adapter plate is fixedly installed on the leftward push block, and the other end of the second pull wire adapter plate is connected to the second clamping member. The second clamping member is provided with a second clamping opening that matches the shape of the core wire.
10. A multi-core wire cabling device according to claim 1, characterized in that: The wire loosening mechanism includes a wire loosening cylinder, a push plate, and a clamping cam. The wire loosening cylinder is mounted on the middle partition plate, and the output end of the wire loosening cylinder is connected to the push plate. The middle partition plate is provided with a wire loosening slide, and the clamping cam passes through the wire loosening slide and connects to the wire pulling mechanism.