Automatic color separation and sorting method for core wires of wires
By automatically flattening, straightening and longitudinal misalignment processing of core wire docking segments, and using a sorter to perform color separation sorting, the problem of low color separation sorting efficiency of wire core wires in the existing technology is solved, and efficient and accurate core wires are achieved Color sorting.
Patent Information
- Application Number
- CN202411586562.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-08
- Publication Date
- 2025-01-07
- Estimated Expiration
- 2044-11-08
AI Technical Summary
In the prior art, the color separation sorting of wire core wires has the problem of low operation efficiency, which is mainly due to the reliance on manual operations, which are prone to errors and troublesome operations.
采用自动分色排序方法,包括将多个芯线的对接段压平、拉直、分离、置于高度器中纵向错位,并利用排序器中的排序槽进行分色排序,通过摄像头识别和夹 The coordination of the header realizes the orderly sorting of the docking segments.
It improves the convenience of operation and work efficiency, ensures the correct color separation and sorting of core wires, and reduces the possibility of manual errors.
Smart Images

Figure CN119275683A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to the technical field of wire cores, and more specifically, to a method for automatic color separation and sorting of wire cores. Background Art
[0002] Wire generally refers to a wire body with multiple core wires wrapped inside. The outside of the wire forms an outer sheath, which wraps the multiple core wires inside. The core wires are wrapped with an inner sheath, and the color of the inner sheath of each core wire is different, thereby forming different colors of the inner sheaths of the multiple core wires.
[0003] In the actual manufacturing process, multiple core wires of the wire need to be connected to the terminals, and the multiple core wires need to be color-coded and sorted so that the core wires and the terminals can be correctly connected.
[0004] In the prior art, multiple core wires are often sorted by color by manual operation, which is not only prone to errors, but also cumbersome to operate and has low work efficiency. Summary of the invention
[0005] The object of the present invention is to provide a method for automatically color-sorting and sorting wire cores, aiming to solve the problem of low operating efficiency in the prior art of color-sorting and sorting wire cores.
[0006] The present invention is implemented in this way: a method for automatically color-sorting and sorting wire core wires comprises the following steps:
[0007] 1) Providing a wire material, the wire material comprising an outer layer and a plurality of core wires of different colors wrapped in the outer layer, the core wire having a butt joint section exposed outside the outer layer, and the plurality of butt joint sections being arranged in a three-dimensional staggered manner;
[0008] 2) Flattening the plurality of docking segments so that the plurality of docking segments are arranged side by side in sequence, and straightening the plurality of docking segments into a straight line;
[0009] 3) Separate and arrange the adjacent butt joint sections so as to form a separation interval between the adjacent butt joint sections, and a plurality of the butt joint sections form an interval core wire group;
[0010] 4) placing the spaced core wire group in a height gauge, wherein the height gauge places the plurality of butt joint sections in different longitudinal positions, so that the plurality of butt joint sections are arranged in a staggered manner in the longitudinal direction to form a staggered core wire group;
[0011] 5) Provide a sorter, wherein the sorter is provided with a plurality of sorting grooves, and the plurality of sorting grooves are arranged in sequence along the longitudinal direction; the sorter moves laterally toward the dislocated core wire group, and places the plurality of longitudinally dislocated docking segments in the plurality of sorting grooves respectively, so that the plurality of docking segments are sorted by color.
[0012] Furthermore, in the step 1), a feeding structure is used to feed a wire of a set length, and processing sections are formed at both ends of the wire. The middle part of the wire is arranged in a curved manner, and the two processing sections are clamped respectively and arranged at intervals, and a plurality of docking sections are formed in the processing sections.
[0013] Furthermore, in step 1), a peeler is used to peel off the outer layer on the processed section to form a butt joint section exposed outside the outer layer.
[0014] Furthermore, in the step 2), a docking segment of a certain specific color is selected as a set docking segment, an initial position of the set docking segment is identified by a camera, and the set docking segment is rotated to a set position by rotation to form a color separation core wire group;
[0015] The color separation core wire group is placed in a flattening structure, and the flattening structure flattens multiple butt sections so that the multiple butt sections are in the same plane to form a flat-laid core wire group, and the set butt sections are located at the side edges of the flat-laid core wire group.
[0016] Furthermore, in the step 2), the flattening structure comprises a base, a flattening groove is provided in the base, and a flattening head is provided at the top of the flattening groove for longitudinal movement;
[0017] The color separation core wire group is placed in the flattening groove, and the set docking section is abutted against the bottom of the flattening groove. The flattening head is embedded in the flattening groove downward, and the color separation core wire group is pressed from top to bottom, so that multiple docking sections of the color separation core wire group are all abutted against the bottom of the flattening groove, and multiple docking sections are arranged side by side in sequence to form the flattened core wire group, and the set docking section is located at the side edge of the flattened core wire group.
[0018] Furthermore, in the step 2), a clamping head is used to movably clamp multiple docking segments of the flat core wire group, and the clamping head is pulled linearly relative to the multiple docking segments until the clamping head is relatively pulled to the end of the docking segment, and the multiple docking segments are pulled into a straight line.
[0019] Furthermore, in step 2), the clamping head movably clamps multiple docking segments, and during the process of linearly pulling the multiple docking segments, the clamping head synchronously swings back and forth longitudinally until the clamping head is relatively pulled to the end of the docking segment, and then the clamping head stops swinging.
[0020] Furthermore, in step 3), when the clamping head clamps the plurality of docking segments and pulls the plurality of docking segments linearly to the ends of the docking segments, the clamping head stops the longitudinal reciprocating swing and the clamping head oscillates transversely for a set number of times;
[0021] After the clamping head swings back and forth horizontally for a set number of times, the clamping head and the multiple docking segments are clamped relatively fixedly, and after the clamping head applies a set axial pulling force to the multiple docking segments, the clamping head releases the clamping of the multiple docking segments.
[0022] Furthermore, in the step 3), a wire splitter is provided, the wire splitter having a plurality of longitudinally arranged wire splitting lines, and a wire splitting groove is provided between adjacent wire splitting lines; the wire splitting lines are inserted between adjacent docking sections, a plurality of the docking sections are respectively placed in a plurality of wire splitting grooves, and the plurality of the docking sections are moved away from the wire splitter until the docking sections are separated from the wire splitting grooves, and the plurality of the docking sections form a spaced core wire group.
[0023] Furthermore, in the step 4), after the spaced core wire group is placed in the height gauge, the color distribution of the plurality of docking segments is identified by a camera, and the height gauge raises the docking segments according to the sorting order of the plurality of docking segments, and arranges the plurality of docking segments in a longitudinal staggered manner to form the staggered core wire group;
[0024] In the step 5), after the multiple butt joint segments of the offset core wire group are placed in the sorting groove, the multiple butt joint segments are separated from the height device, and the sorting device is rotated so that the multiple butt joint segments are arranged side by side in a horizontal direction to form a color-sorted core wire group.
[0025] Compared with the prior art, the method for automatic color separation and sorting of wire cores provided by the present invention flattens and then straightens a plurality of butt joint segments so that the butt joint segments are in a straight line shape, and then the adjacent butt joint segments are separated and arranged to form an interval core wire group. According to the core wires of different colors, a height gauge is used to longitudinally displace the plurality of butt joint segments, and then a sorter is used to place the plurality of butt joint segments in a plurality of sorting grooves respectively, so as to achieve a sequence sorting effect of the plurality of butt joint segments, and the operation is convenient and the working efficiency is high. BRIEF DESCRIPTION OF THE DRAWINGS
[0026] Figure 1 It is a schematic diagram of the process of the automatic color separation and sorting method of wire core wires provided by the present invention;
[0027] Figure 2 It is a schematic diagram of the arrangement of wires after loading provided by the present invention;
[0028] Figure 3 is a partial schematic diagram of the flattening structure provided by the present invention;
[0029] Figure 4 is a partial schematic diagram of the straightening structure provided by the present invention;
[0030] Figure 5 It is a main schematic diagram of the splitter provided by the present invention;
[0031] Figure 6It is a three-dimensional schematic diagram of the height provided by the present invention;
[0032] Figure 7 is a three-dimensional schematic diagram of a sequencer provided by the present invention;
[0033] Figure 8 It is a schematic diagram of the arrangement of the docking section processing process provided by the present invention. DETAILED DESCRIPTION
[0034] In order to make the purpose, technical solution and advantages of the present invention more clearly understood, the present invention is further described in detail below in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain the present invention and are not intended to limit the present invention.
[0035] The implementation of the present invention is described in detail below in conjunction with specific embodiments.
[0036] The same or similar numbers in the drawings of this embodiment correspond to the same or similar parts; in the description of the present invention, it should be understood that if the terms "upper", "lower", "left", "right" and the like indicate directions or positional relationships based on the directions or positional relationships shown in the drawings, it is only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific direction, be constructed and operated in a specific direction. Therefore, the terms describing the positional relationship in the drawings are only used for illustrative purposes and cannot be understood as limitations on this patent. For ordinary technicians in this field, the specific meanings of the above terms can be understood according to specific circumstances.
[0037] Reference Figure 1-8 The figure shows a preferred embodiment of the present invention.
[0038] The method for automatically color-sorting and sorting wire core wires comprises the following steps:
[0039] 1) Provide a wire 100, the wire 100 includes an outer layer and a plurality of core wires of different colors and wrapped in the outer layer, the core wire has a butt joint section 102 exposed outside the outer layer, and the plurality of butt joint sections 102 are arranged in a three-dimensional staggered manner; the outer surface of a single core wire is wrapped with an inner layer, and the colors of the inner layers of the plurality of core wires are different, so that the colors of the plurality of core wires are different; when the outer layer at the end of the wire 100 is peeled off, the core wire is exposed at the end of the wire 100 to form a butt joint section 102;
[0040] 2) Flattening the plurality of docking sections 102 so that the plurality of docking sections 102 are arranged side by side in sequence, and straightening the plurality of docking sections 102 into a straight line;
[0041] At the beginning, the multiple docking segments 102 are arranged in a spatially staggered manner in space, and the multiple docking segments 102 are flattened so as to be in the same horizontal plane, and then the docking segments 102 are straightened into a straight line by straightening;
[0042] 3) Separate and arrange adjacent butt joint sections 102 to form a separation interval between adjacent butt joint sections 102, and multiple butt joint sections 102 form an interval core wire group 703;
[0043] 4) placing the spacer core wire group 703 in the height gauge 500, and the height gauge 500 places the plurality of docking sections 102 in different longitudinal positions, so that the plurality of docking sections 102 are staggered in the longitudinal direction, forming a staggered core wire group 704; through the height gauge 500, the plurality of docking sections 102 are staggered in the longitudinal direction, presenting a high and low arrangement;
[0044] 5) Provide a sorter 600, wherein a plurality of sorting slots 601 are provided in the sorter 600, and the plurality of sorting slots 601 are arranged in sequence along the longitudinal direction; the sorter 600 moves laterally toward the offset core wire group 704, and places the plurality of longitudinally offset docking segments 102 in the plurality of sorting slots 601 respectively, so that the plurality of docking segments 102 are sorted by color.
[0045] The above-mentioned automatic color separation and sorting method for wire core wires is achieved by flattening and straightening multiple docking segments 102 so that the docking segments 102 are in a straight line shape, and then the adjacent docking segments 102 are separated and arranged to form an interval core wire group 703. According to the core wires of different colors, the multiple docking segments 102 are longitudinally displaced using a height gauge 500, and then the multiple docking segments 102 are respectively placed in multiple sorting grooves 601 using a sorter 600, so as to achieve a sequential sorting effect of the multiple docking segments 102, which is easy to operate and has high working efficiency.
[0046] In this embodiment, in step 1), a wire 100 of a set length is fed using a feeding structure, and processing sections 101 are formed at both ends of the wire 100. The middle part of the wire 100 is arranged in a curved manner, and the two processing sections 101 are clamped respectively and arranged at intervals, and a plurality of the docking sections 102 are formed in the processing section 101.
[0047] According to actual needs, the length of the wire 100 can be changed, and it can be directly cut automatically by a cutting knife. The wire 100 is arranged in a curved shape, which can facilitate the simultaneous processing of the two processing sections 101.
[0048] In this embodiment, in step 1), the outer layer on the processing section 101 is peeled off by a peeler to form a docking section 102 exposed outside the outer layer. In this way, the multiple docking sections 102 on the two processing sections 101 can be color-sorted and sorted synchronously.
[0049] In this embodiment, in step 2), a docking segment 102 of a certain color is selected as a set docking segment 102, an initial position of the set docking segment 102 is identified by a camera, and the set docking segment 102 is rotated to a set position to form a color separation core wire group 701;
[0050] The color separation core wire group 701 is placed in a flattening structure, which flattens the multiple docking sections 102 so that the multiple docking sections 102 are in the same plane to form a flattened core wire group 702, and the docking sections 102 are set to be located at the side edge of the flattened core wire group 702.
[0051] According to the needs of color separation and sorting of multiple docking segments 102, a set docking segment 102 is selected, and after the camera identifies the initial position of the set docking segment 102, the set docking segment 102 is rotated to the set position. In this way, when the color separation core wire group 701 is flattened, in the formed flat core wire group 702, the set docking segment 102 can be located at the side edge of the flat core wire group 702 to meet the needs of subsequent color separation and sorting.
[0052] In this embodiment, in step 2), the flattening structure includes a base 202, a flattening groove is provided in the base 202, and a flattening head 201 that moves longitudinally is provided at the top of the flattening groove;
[0053] The color separation core wire group 701 is placed in the flattening groove, and the docking section 102 is set to abut against the bottom of the flattening groove. The flattening head 201 is embedded into the flattening groove downward, and the color separation core wire group 701 is pressed from top to bottom, so that multiple docking sections 102 of the color separation core wire group 701 are all abutted against the bottom of the flattening groove, and multiple docking sections 102 are arranged side by side in sequence to form a flattened core wire group 702, and the docking sections 102 are set to be located at the side edge of the flattened core wire group 702.
[0054] When the color separation core wire group 701 is placed in the flattening groove, the docking section 102 is set to abut against the bottom of the flattening groove. In this way, when the color separation core wire group 701 is flattened by the flattening head 201, it can be ensured that the docking section 102 is set to be located at the side edge of the flattened core wire group 702.
[0055] In this embodiment, in step 2), the clamping head 300 is used to flexibly clamp the multiple docking segments 102 of the flat core wire group 702, and the clamping head 300 is pulled linearly relative to the multiple docking segments 102 until the clamping head 300 is pulled relatively to the end of the docking segment 102, and the multiple docking segments 102 are pulled into a straight line.
[0056] The clamping head 300 clamps the plurality of docking segments 102 and moves relative to the docking segments 102 , so that the plurality of docking segments 102 can be pulled into a straight line more efficiently.
[0057] In this embodiment, in step 2), the clamping head 300 movably clamps the multiple docking segments 102, and during the process of linearly pulling relative to the multiple docking segments 102, the clamping head 300 synchronously swings back and forth longitudinally until the clamping head 300 is relatively pulled to the end of the docking segment 102, and then the clamping head 300 stops swinging.
[0058] During the pulling process, the clamping head 300 synchronously swings back and forth longitudinally, so that the docking section 102 can be further adjusted linearly to ensure that the docking section 102 is pulled into a straight line more quickly and efficiently.
[0059] In this embodiment, in step 3), after the clamping head 300 clamps the plurality of docking segments 102 and pulls the plurality of docking segments 102 linearly to the ends of the docking segments 102, the clamping head 300 stops the longitudinal reciprocating swing and the clamping head 300 oscillates transversely a set number of times;
[0060] After the clamping head 300 oscillates back and forth a set number of times, the clamping head 300 and the plurality of docking sections 102 are clamped relatively fixedly, and after the clamping head 300 applies a set axial pulling force to the plurality of docking sections 102 , the clamping head 300 releases the clamping of the plurality of docking sections 102 .
[0061] When the clamping head 300 is pulled to the end of the docking section 102, the clamping head 300 is swung back and forth horizontally to adjust the docking section 102 laterally. The clamping head 300 is used to adjust the docking section 102 longitudinally during the pulling process, thereby achieving multiple longitudinal and transverse adjustments of the docking section 102, and then applying axial pulling force to the docking section 102, thereby ensuring that the docking section 102 is pulled in a straight line.
[0062] In this embodiment, in step 3), a wire splitter 400 is provided, and the wire splitter 400 has a plurality of longitudinally arranged wire splitting lines 401, and a wire splitting groove 402 is provided between adjacent wire splitting lines 401; the wire splitting lines 401 are inserted between adjacent docking sections 102, and the plurality of docking sections 102 are respectively placed in the plurality of wire splitting grooves 402, and the plurality of docking sections 102 are moved away from the wire splitter 400 until the docking sections 102 are separated from the wire splitting grooves 402, and the plurality of docking sections 102 form an interval core wire group 703.
[0063] By inserting multiple branching wires 401 into adjacent docking segments 102, adjacent docking segments 102 can be separated and set at intervals to form separation intervals, ensuring that the docking segments 102 in the interval core wire group 703 maintain a uniform interval, which facilitates the subsequent sorting of multiple docking segments 102.
[0064] In this embodiment, in step 4), after the spaced core wire group 703 is placed in the height gauge 500, the color distribution of the plurality of docking segments 102 is identified by a camera, and the height gauge 500 raises the docking segments 102 according to the sorting order of the plurality of docking segments 102, and arranges the plurality of docking segments 102 in a longitudinal staggered manner to form a staggered core wire group 704;
[0065] The height gauge 500 is provided with a plurality of height grooves 501 which are longitudinally staggered. The plurality of height grooves 501 are arranged in a lateral interval, and the bottoms of the height grooves 501 are longitudinally staggered. Thus, when the plurality of docking sections 102 are placed at the bottoms of the plurality of height grooves 501, the plurality of docking sections 102 are longitudinally staggered.
[0066] In step 5), after the multiple docking segments 102 of the offset core wire group 704 are placed in the sorting groove 601, the multiple docking segments 102 are separated from the height device 500, and the sorter 600 is rotated so that the multiple docking segments 102 are arranged side by side horizontally to form a color-sorted sequenced core wire group 705.
[0067] According to the requirements of color sorting of the core wires, the camera is used to identify the colors of the multiple docking segments 102, so that the multiple docking segments 102 can be placed at different heights in the longitudinal direction to maintain longitudinal misalignment. Then, the sorter 600 is moved toward the misaligned core wire group 704 to place the multiple longitudinally misaligned docking segments 102 in the multiple cable slots, thereby achieving color sorting of the multiple docking segments 102.
[0068] The above description is only a preferred embodiment of the present invention and is not intended to limit the present invention. Any modifications, equivalent substitutions and improvements made within the spirit and principles of the present invention should be included in the protection scope of the present invention.
Claims
1. A method for automatically sorting wire core wires by color, characterized in that: The following steps are involved: 1) Providing a wire material, the wire material comprising an outer layer and a plurality of core wires of different colors wrapped in the outer layer, the core wire having a butt joint section exposed outside the outer layer, and the plurality of butt joint sections being arranged in a three-dimensional staggered manner; 2) Flattening the plurality of docking segments so that the plurality of docking segments are arranged side by side in sequence, and straightening the plurality of docking segments into a straight line; 3) Separate and arrange the adjacent butt joint sections so as to form a separation interval between the adjacent butt joint sections, and a plurality of the butt joint sections form an interval core wire group; 4) placing the spaced core wire group in a height gauge, wherein the height gauge places the plurality of butt joint sections in different longitudinal positions, so that the plurality of butt joint sections are arranged in a staggered manner in the longitudinal direction to form a staggered core wire group; 5) Provide a sorter, wherein the sorter is provided with a plurality of sorting grooves, and the plurality of sorting grooves are arranged in sequence along the longitudinal direction; the sorter moves laterally toward the dislocated core wire group, and places the plurality of longitudinally dislocated docking segments in the plurality of sorting grooves respectively, so that the plurality of docking segments are sorted by color.
2. The method for automatic color sorting of wire cores according to claim 1, characterized in that: In the step 1), a wire of a set length is fed by a feeding structure, and processing sections are formed at both ends of the wire. The middle of the wire is bent, and the two processing sections are clamped respectively and arranged at intervals, and a plurality of docking sections are formed in the processing sections.
3. The method for automatic color sorting of wire cores according to claim 2, characterized in that: In step 1), the outer layer on the processing section is peeled off by a peeler to form a butt joint section exposed outside the outer layer.
4. The method for automatically color-sorting and sorting wire cores according to any one of claims 1 to 3, characterized in that: In the step 2), a docking segment of a certain specific color is selected as a set docking segment, an initial position of the set docking segment is identified by a camera, and the set docking segment is rotated to a set position by rotation to form a color separation core wire group; The color separation core wire group is placed in a flattening structure, and the flattening structure flattens multiple butt sections so that the multiple butt sections are in the same plane to form a flat-laid core wire group, and the set butt sections are located at the side edges of the flat-laid core wire group.
5. The method for automatically color-sorting and sorting wire cores according to claim 4, characterized in that: In the step 2), the flattening structure comprises a base, a flattening groove is provided in the base, and a flattening head is provided on the top of the flattening groove for longitudinal movement; The color separation core wire group is placed in the flattening groove, and the set docking section is abutted against the bottom of the flattening groove. The flattening head is embedded in the flattening groove downward, and the color separation core wire group is pressed from top to bottom, so that multiple docking sections of the color separation core wire group are all abutted against the bottom of the flattening groove, and multiple docking sections are arranged side by side in sequence to form the flattened core wire group, and the set docking section is located at the side edge of the flattened core wire group.
6. The method for automatically color-sorting and sorting wire cores according to any one of claims 1 to 3, characterized in that: In the step 2), a clamping head is used to movably clamp multiple docking segments of the flat core wire group, and the clamping head is pulled linearly relative to the multiple docking segments until the clamping head is relatively pulled to the end of the docking segment, and the multiple docking segments are pulled into a straight line.
7. The method for automatically sorting the wire core wires by color according to claim 6, characterized in that: In the step 2), the clamping head movably clamps the multiple docking segments, and during the process of linearly pulling the multiple docking segments, the clamping head synchronously swings back and forth longitudinally until the clamping head is relatively pulled to the end of the docking segment, and then the clamping head stops swinging.
8. The method for automatically color-sorting and sorting wire cores according to claim 7, characterized in that: In the step 3), when the clamping head clamps the multiple docking segments and pulls the multiple docking segments linearly to the ends of the docking segments, the clamping head stops the longitudinal reciprocating swing and the clamping head oscillates transversely for a set number of times; After the clamping head swings back and forth horizontally for a set number of times, the clamping head and the multiple docking segments are clamped relatively fixedly, and after the clamping head applies a set axial pulling force to the multiple docking segments, the clamping head releases the clamping of the multiple docking segments.
9. The method for automatically color-sorting and sorting wire cores according to any one of claims 1 to 3, characterized in that: In the step 3), a wire splitter is provided, the wire splitter has a plurality of longitudinally arranged wire splitting lines, and a wire splitting groove is provided between adjacent wire splitting lines; the wire splitting lines are inserted between adjacent docking sections, a plurality of docking sections are respectively placed in a plurality of wire splitting grooves, and the plurality of docking sections are moved away from the wire splitter until the docking sections are separated from the wire splitting grooves, and the plurality of docking sections form a spaced core wire group.
10. The method for automatically sorting wire core wires by color according to any one of claims 1 to 3, characterized in that: In the step 4), after the spaced core wire group is placed in the height gauge, the color distribution of the plurality of docking segments is identified by a camera, and the height gauge raises the docking segments according to the sorting order of the plurality of docking segments, and arranges the plurality of docking segments in a longitudinal staggered manner to form the staggered core wire group; In the step 5), after the multiple docking segments of the offset core wire group are placed in the sorting groove, the multiple docking segments are separated from the height device and the sorting device is rotated so that the multiple docking segments are arranged side by side horizontally to form a color-sorted sequenced core wire group.
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