Automobile wire harness terminal processing device
By adopting an island-style integrated layout and magnetic cooperative positioning method, combined with a rotary ring-cutting and peeling mechanism and adaptive clamping components, the continuity and positioning accuracy problems of existing automotive wire harness terminal processing devices are solved, realizing fully automated processing, improving efficiency and quality, and adapting to the stable synchronous delivery of multi-specification wire harnesses.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Patents(China)
- Current Assignee / Owner
- SUZHOU DEQI AUTO PARTS SYST CO LTD
- Filing Date
- 2026-02-11
- Publication Date
- 2026-06-09
Smart Images

Figure CN121688495B_ABST
Abstract
Description
Technical Field
[0001] This invention belongs to the field of automotive wiring harness connection technology, specifically referring to an automotive wiring harness terminal processing device. Background Technology
[0002] Automotive wiring harnesses are the main network of automotive circuits, equivalent to the "neural network" and "blood vessels" of a car. They are responsible for transmitting power and signals between various components such as the engine, chassis, body, and electronic appliances, and are the core foundation for the normal operation of the automotive electrical system.
[0003] Existing automotive wiring harness terminal processing equipment is mostly of a step-by-step structure, which suffers from poor processing continuity, insufficient wiring harness positioning accuracy, and weak compatibility with multiple wiring harness specifications. This results in low processing efficiency, unstable terminal crimping and connection quality, and susceptibility to faults such as excessive wire stripping damaging the wire core and crimping deviation leading to poor contact. It cannot meet the high-precision, high-efficiency batch processing requirements of automotive wiring harnesses. Furthermore, the traditional equipment suffers from poor coordination between modules such as feeding, stripping, and crimping, requiring significant manual intervention, increasing labor costs and processing errors, and making it difficult to adapt to the automated production requirements of modern automotive manufacturing. Summary of the Invention
[0004] To address the above issues and overcome the shortcomings of existing technologies, this invention provides an automotive wiring harness terminal processing device. Addressing the problems of poor processing continuity, insufficient compatibility with multiple wiring harness specifications, and low positioning accuracy in existing devices, this invention adopts an island-style integrated layout and a magnetic cooperative positioning method. It incorporates a multi-module surrounding conveying mechanism and adaptive clamping components, achieving fully automated and continuous processing of the entire process from wire harness feeding, stripping, crimping, to terminal connection. This solves the technical problems of low efficiency in step-by-step processing and poor processing quality due to positioning deviations. To solve the problems of easy damage to the wire core during wire harness stripping and untimely waste insulation recovery, this invention creatively proposes a rotary ring-cutting and stripping mechanism. This mechanism uses gear meshing to drive the stripping roller to rotate, simultaneously stripping the wire harness sheath after the circumferential cutting arm, achieving precise ring cutting, damage-free stripping, and real-time waste insulation recovery. To solve the problems of difficult synchronous feeding and positioning of multiple wiring harness specifications and insufficient clamping stability, this invention employs a spring-adaptive clamping and permanent magnet linkage opening and closing method, incorporating an adjustable wire harness clamp and a synchronous wire feeding device. This achieves the technical effects of secure clamping of wire harnesses of different diameters, synchronous and precise feeding, and seamless connection between feeding and positioning.
[0005] The technical solution adopted by the present invention is as follows: The present invention provides an automotive wiring harness terminal processing device, including a feeding module, a stripping module, a crimping module, a connecting module and a conveying mechanism, wherein the feeding module, the stripping module, the crimping module and the connecting module are arranged sequentially around the conveying mechanism.
[0006] Furthermore, the conveying mechanism includes a ring platform, a conveying turntable, a ring main shaft, a conveying gear ring, a conveying gear, a conveying motor, and a top platform. The ring platform is located on the ground, and the ring main shaft is located above the ring platform. The conveying turntable is rotatably connected to the ring main shaft. Four sets of conveyors are arranged around the conveying turntable. The conveying gear ring is located at the bottom of the conveying turntable. The conveying motor is located on the ring main shaft, and the conveying gear is located at the output end of the conveying motor. The conveying gear meshes with the conveying gear ring. The top platform is fixedly connected to the top of the ring main shaft. Three sets of docking air rods are arranged in a ring around the top of the top platform. A transfer device is located on the top of the top platform. All components of the conveying mechanism work together to realize the rotational transfer and precise docking of the wire harness between various processing modules. The four sets of conveyors can operate in cycles, greatly improving processing efficiency. The docking air rods ensure the precise alignment of the wire harness with each module.
[0007] Furthermore, the transferor includes a rotary motor, a sliding shaft, a transfer cylinder, a transfer base, a synchronous push arm, a rotary joint, and a magnetic clamp. The transfer base is located above the top platform, the rotary motor is located on the transfer base, the transfer cylinder is located on the transfer base, the sliding shaft is splinedly connected to the output end of the rotary motor, the synchronous push arm is fixedly connected to the telescopic end of the transfer cylinder, the sliding shaft is rotatably connected to the synchronous push arm, the rotary joint is located at the lower end of the sliding shaft, and the magnetic clamp is located at the bottom of the rotary joint. The transferor, through lifting, rotating, and magnetic clamping functions, realizes rapid gripping, turning, and transfer of the wire harness end, ensuring the precise fixation of the wire harness on the transporter and providing a guarantee for subsequent processing and positioning.
[0008] Furthermore, the transporter includes a sliding spring, a transport base, a sliding base, an upper sliding cover, an opening and closing spring, a magnetic base, and upper clamping teeth. The transport base is mounted on a transport turntable, and symmetrical sliding bases are provided above the transport base. An upper sliding cover is slidably connected to the sliding base, and a sliding spring connects the upper sliding cover and the sliding base. A magnetic base is installed above the upper sliding cover, and upper clamping teeth are slidably connected to the magnetic base. An opening and closing spring connects the upper clamping teeth and the magnetic base. The transporter achieves elastic fixation and rapid opening and closing of the wire harness through spring buffering and magnetic clamping structure, adapting to the clamping requirements of wire harnesses of different diameters, while ensuring the stability of the wire harness during transportation and avoiding shaking damage.
[0009] Furthermore, the feeding module includes a wire laying platform, a buffer slide, a synchronous connecting rod, a lifting conveyor frame, and a servo electric cylinder. The wire laying platform is located on the ground. The buffer slide is slidably connected to the wire laying platform in the horizontal direction, and the lifting conveyor frame is slidably connected to the wire laying platform in the vertical direction. The wire laying platform is equipped with symmetrical wire feeding devices. The buffer slide is equipped with pulley clamps, and the lifting conveyor frame is equipped with wire harness clamps. The wire laying platform contains a servo electric cylinder, the extension end of which is fixedly connected to the lifting conveyor frame. One end of the synchronous connecting rod is rotatably connected to the buffer slide, and the other end is rotatably connected to the lifting conveyor frame. The feeding module, through a servo-driven linkage structure, realizes the lifting, buffering, conveying, and precise positioning of the wire harness, providing stable support for the synchronous feeding of multi-specification wire harnesses and ensuring the continuity of the feeding process and subsequent processing.
[0010] Further, the wire feeding device includes a wire feeding base, a wire feeding cylinder, a wire feeding slide rail, a wire feeding slide block, a drive wheel, a wire feeding follower shaft, a wire feeding follower gear, a wire feeding transmission gear, a wire feeding servo motor, and a rubber toothed belt. The wire feeding base is mounted on the wire laying platform. The wire feeding cylinder is fixedly connected to the side wall of the wire feeding base. The wire feeding slide rail is located inside the wire feeding base. The wire feeding slide block is slidably connected to the wire feeding slide rail. The wire feeding slide block is fixedly connected to the telescopic end of the wire feeding cylinder. Symmetrical tensioning wheels are rotatably connected inside the wire feeding slide block. The wire feeding follower shaft is rotatably mounted on the wire feeding slide block. The drive wheel is mounted on the wire feeding follower shaft, the wire feeding follower gear is mounted on the upper end of the wire feeding follower shaft, the wire feeding servo motor is mounted on the top of the wire feeding slide, the wire feeding transmission gear is connected to the output end of the wire feeding servo motor, the wire feeding transmission gear meshes with the wire feeding follower gear, and the rubber toothed belt meshes with the drive wheel and the tension wheel. The wire feeding device achieves stable wire harness delivery and precise length control through gear transmission and rubber toothed belt clamping structure. The rubber toothed belt can prevent wear on the wire harness surface, and the tension wheel ensures stability during delivery and improves feeding accuracy.
[0011] Furthermore, opening and closing permanent magnets are installed on both sides of the wire feeding slide located on one side of the wire clamp. The opening and closing permanent magnets control the opening and closing state of the wire clamp through magnetic attraction, realizing seamless switching between feeding and positioning, reducing manual intervention, and improving the collaborative efficiency of feeding and positioning.
[0012] Furthermore, the wire clamp includes a wire clamping channel, a wire clamping base, a wire clamping connecting rod, a compression base, a wire clamping slide plate, and a metal suction plate. The wire clamping channel is located on a lifting conveyor frame, the wire clamping base is located within the wire clamping channel, the compression base is slidably located within the wire clamping channel, symmetrical wire clamping connecting rods are connected to the compression base, the wire clamping connecting rods are slidably connected to the wire clamping base, and a compression roller is rotatably connected to the end of the wire clamping connecting rod. The wire clamping slide plate is slidably located within the wire clamping channel, the metal suction plate is located on the wire clamping slide plate, a compression spring is provided between the wire clamping base and the compression base, and a return spring is provided between the wire clamping slide plate and the inner wall of the wire clamping channel. The wire clamp adopts a spring return and magnetic attraction linkage structure, which can adapt to the clamping requirements of wire harnesses of different diameters, realize the firm fixation and quick release of the wire harness, and ensure precise constraint of the wire harness during feeding.
[0013] Furthermore, the pulley clamp is slidably connected with symmetrical pulley seats, and a compression pulley is rotatably connected to the pulley seats. A pulley spring is connected between the pulley seats and the inner wall of the pulley clamp. The pulley clamp uses an elastic compression structure to pre-position the wire harness, reducing shaking during the conveying process. At the same time, the pulley structure reduces the friction during wire harness conveying, avoids damage to the wire harness surface, and improves feeding stability.
[0014] Furthermore, a wire cutting machine is installed on the wiring platform. The wire cutting machine includes a blade holder, a flat cutter, a bevel cutter, and a wire cutting cylinder. The blade holder is located on the wiring platform, the flat cutter is located on the blade holder, the wire cutting cylinder is located on the blade holder, and the bevel cutter is located at the extension end of the wire cutting cylinder. The wire cutting machine cuts the wire harness by cooperating with the flat cutter and the bevel cutter, ensuring that the cut of the wire harness is flat, avoiding burrs from affecting the subsequent crimping and connection quality, improving the reliability of the terminal connection, and providing qualified wire harness ends for subsequent processing.
[0015] Furthermore, the stripping module includes a stripping platform, a stripper, and a recycling channel. The stripping platform is located on the ground, the stripper is located on the stripping platform, and the recycling channel runs through the stripping platform. The upper end of the recycling channel is connected to the stripper. The stripping module enables precise stripping of the wire harness sheath and centralized recycling of waste sheaths, which avoids damage to the wire core, maintains a clean processing environment, and improves processing standardization and environmental protection.
[0016] Furthermore, the wire stripper includes a stripping connector, a waste discharge channel, a rotating frame, a tangent arm, a stripping roller, a stripping gear, a stripping toothed ring, and a stripping motor. The stripping connector is located above the stripping platform, and the waste discharge channel is connected to the stripping connector. The rotating frame is rotatably connected to the stripping connector. The tangent arm is rotatably mounted on the rotating frame, and a connecting spring connects the tangent arms. A stripping blade is provided on the inner side of the tangent arm. The stripping roller is rotatably mounted on the rotating frame, and the stripping gear is located at the end of the stripping roller. The stripping toothed ring is located on the stripping connector, and the stripping gear meshes with the stripping toothed ring. The stripping motor is located on the side wall of the waste discharge channel, and the rotating frame is driven by the output end of the stripping motor. The wire stripper achieves simultaneous ring cutting and stripping through gear meshing drive. The connecting spring ensures that the stripping blade is compatible with wire harnesses of different diameters, the stripping roller accurately strips the outer sheath, and the waste discharge channel promptly removes waste sheaths, achieving damage-free and efficient wire stripping.
[0017] Furthermore, the crimping module includes a crimping platform, a crimping chamber, a bottom pressure plate, a sliding pressure plate, and a crimping hydraulic arm. The crimping platform is located on the ground, the crimping chamber is located on the crimping platform, the bottom pressure plate is located inside the crimping chamber, and the sliding pressure plate is slidably located inside the crimping chamber. The bottom of the sliding pressure plate is provided with extrusion teeth and cutting teeth, and the top of the crimping chamber is provided with a crimping hydraulic arm. The telescopic end of the crimping hydraulic arm is fixedly connected to the sliding pressure plate. The crimping module, through hydraulic drive and toothed structure design, simultaneously completes the crimping and fixing of copper tubes and the cutting of excess parts, reducing processing steps. The extrusion teeth improve the crimping firmness, and the cutting teeth ensure a smooth cut, thereby improving crimping efficiency and connection stability.
[0018] Furthermore, the connection module includes a terminal channel and a connection platform. The connection platform is located on the ground, and the terminal channel is located on the connection platform. The connection module provides a precise channel for the docking of the terminal and the wire harness, ensuring a stable connection between the terminal and the crimped wire harness, completing the last link in the entire processing process, and realizing a closed-loop operation for terminal processing.
[0019] The beneficial effects of the automotive wiring harness terminal processing device provided in this solution are as follows:
[0020] (1) Based on the problems of poor processing continuity, insufficient adaptation of multiple specifications of wire harnesses and low positioning accuracy of existing equipment, an island-type integrated layout and magnetic cooperative positioning method are adopted. A multi-module surrounding conveying mechanism and adaptive clamping components are set up to achieve the technical effect of automated continuous processing of wire harness feeding, stripping, crimping and terminal connection. This solves the technical problems of low efficiency of step-by-step processing and poor processing quality caused by positioning deviation.
[0021] (2) Through the gear meshing transmission design of the rotary ring cutting and stripping mechanism, the wire stripping knife ring cutting and the stripping roller stripping are carried out simultaneously to avoid damage to the wire core. At the same time, the waste sheath is collected in a centralized manner through the waste discharge channel and the recycling channel to keep the processing environment clean.
[0022] (3) The wire clamp adopts a hydraulic drive, spring reset and magnetic attraction linkage structure, which can adapt to the clamping requirements of wire harnesses of different diameters. It can also be used with the opening and closing permanent magnet to achieve seamless switching between feeding and positioning, thereby improving feeding accuracy.
[0023] The elastic compression structure of the pulley clamp can pre-position the wire harness, reducing shaking during the conveying process. Together with the synchronous linkage buffer slide and lifting conveyor, it ensures the stability of synchronous conveying of multiple specifications of wire harnesses.
[0024] (4) The wire feeding device uses a rubber toothed belt to clamp and transport the wire harness, avoiding wear on the surface of the wire harness. At the same time, the servo motor precisely controls the wire harness transport length to meet the size requirements of different terminal processing.
[0025] (5) The crimping module has an integrated design of extrusion teeth and cutting teeth, which can simultaneously complete the crimping and fixing of copper tubes and the cutting of excess parts, reducing processing steps and improving crimping efficiency and connection stability.
[0026] (6) The conveying mechanism adopts an island layout with four sets of conveyors operating in a cycle. With the rotation and lifting adjustment of the transferor, the wire harness can be quickly transferred between processing modules, greatly improving the overall processing efficiency.
[0027] (7) The synergistic design of the magnetic clip and the metal suction plate enables the rapid fixing and transfer of the wire harness end, which is convenient to operate, accurate in positioning, and reduces the cost of manual intervention. Attached Figure Description
[0028] Figure 1 This is a schematic diagram of the structure of an automotive wiring harness terminal processing device proposed in this invention;
[0029] Figure 2 This is a structural diagram of the feeding module;
[0030] Figure 3 This is a schematic diagram of the wire feeding device;
[0031] Figure 4 This is a diagram showing the internal transmission relationship of the wire feeding slide.
[0032] Figure 5 This is a schematic diagram of the wire clamp structure;
[0033] Figure 6 This is a schematic diagram of the pulley clamp structure;
[0034] Figure 7 for Figure 2Enlarged view of point A in the middle;
[0035] Figure 8 This is a schematic diagram of the stripping module structure;
[0036] Figure 9 This is a schematic diagram of a wire stripper.
[0037] Figure 10 This is a diagram showing the connection relationships of the tangential pivot arm;
[0038] Figure 11 This is a structural schematic diagram of the crimping module;
[0039] Figure 12 for Figure 11 Enlarged view of point B in the middle;
[0040] Figure 13 This is a structural diagram of the connection module;
[0041] Figure 14 This is a schematic diagram of the conveying mechanism;
[0042] Figure 15 This is a diagram showing the transmission relationship of the conveyor turntable;
[0043] Figure 16 This is a schematic diagram of the transport vehicle's structure;
[0044] Figure 17 This is a schematic diagram of the transferor.
[0045] The components include: 1. Feeding module; 2. Stripping module; 3. Crimping module; 4. Connecting module; 5. Conveying mechanism; 101. Cable laying platform; 102. Buffer slide; 103. Lifting conveyor frame; 104. Cable feeding device; 105. Cable clamp; 106. Pulley clamp; 107. Servo electric cylinder; 108. Synchronous connecting rod; 109. Cable feeding base; 110. Cable feeding cylinder; 111. Cable feeding slide rail; 112. Cable feeding slide block; 113. Opening and closing permanent magnet; 114. Tensioning wheel; 115. Drive wheel; 116. Cable feeding follower shaft; 117. Cable feeding follower gear. 118. Wire feeding drive gear; 119. Wire feeding servo motor; 120. Rubber toothed belt; 121. Wire clamping channel; 122. Wire clamping base; 123. Wire clamping connecting rod; 124. Extrusion roller; 125. Extrusion base; 126. Extrusion spring; 127. Wire clamping slide plate; 128. Metal suction plate; 129. Return spring; 130. Pulley seat; 131. Pulley spring; 132. Extrusion pulley; 133. Wire cutter; 134. Knife holder; 135. Flat cutter; 136. Bevel cutter; 137. Wire cutting cylinder; 201. Wire stripping platform; 202. Wire stripper. 203. Recycling channel; 204. Wire stripping connector; 205. Waste discharge channel; 206. Rotating frame; 207. Wire cutting arm; 208. Stripping roller; 209. Stripping gear; 210. Stripping tooth ring; 211. Wire stripping motor; 212. Wire stripping knife; 213. Connecting spring; 301. Crimping platform; 302. Crimping chamber; 303. Bottom pressure plate; 304. Sliding pressure plate; 305. Extrusion teeth; 306. Cutting teeth; 307. Crimping hydraulic arm; 401. Terminal channel; 402. Connecting platform; 501. Roundabout platform; 502. Conveyor. 503. Disc, Conveyor, 504. Ring spindle, 505. Conveyor gear ring, 506. Conveyor gear, 507. Conveyor motor, 508. Top platform, 509. Connecting air rod, 510. Transfer device, 511. Rotary motor, 512. Sliding shaft, 513. Transfer cylinder, 514. Transfer base, 515. Synchronous push arm, 516. Rotary joint, 517. Magnetic clamp, 518. Sliding spring, 519. Conveyor base, 520. Sliding base, 521. Upper sliding cover, 522. Opening and closing spring, 523. Magnetic base, 524. Upper clamping tooth.
[0046] The accompanying drawings are provided to further illustrate the invention and form part of the specification. They are used together with the embodiments of the invention to explain the invention and do not constitute a limitation thereof. Detailed Implementation
[0047] The technical solutions in the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without creative effort are within the scope of protection of the present invention.
[0048] In the description of this invention, it should be understood that the terms "upper", "lower", "front", "rear", "left", "right", "top", "bottom", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this invention.
[0049] like Figures 1-17 As shown, the present invention provides an automotive wiring harness terminal processing device, including a feeding module 1, a stripping module 2, a crimping module 3, a connecting module 4, and a conveying mechanism 5, wherein the feeding module 1, the stripping module 2, the crimping module 3, and the connecting module 4 are arranged sequentially around the conveying mechanism 5.
[0050] The feeding module 1 includes a wire laying platform 101, a buffer slide 102, a synchronous connecting rod 108, a lifting conveyor frame 103, and a servo electric cylinder 107. The wire laying platform 101 is located on the ground. The buffer slide 102 is slidably connected to the wire laying platform 101 in the horizontal direction, and the lifting conveyor frame 103 is slidably connected to the wire laying platform 101 in the vertical direction. The wire laying platform 101 is equipped with symmetrical wire feeding devices 104. The buffer slide 102 is equipped with pulley clamps 106, and the lifting conveyor frame 103 is equipped with wire clamps 105. The wire laying platform 101 contains a servo electric cylinder 107. The telescopic end of the servo electric cylinder 107 is fixedly connected to the lifting conveyor frame 103. One end of the synchronous connecting rod 108 is rotatably connected to the buffer slide 102. The other end of the synchronous connecting rod 108 is rotatably connected to the lifting conveyor frame 103; the wire feeding device 104 includes a wire feeding base 109, a wire feeding cylinder 110, a wire feeding slide rail 111, a wire feeding slide block 112, a drive wheel 115, a wire feeding follower shaft 116, a wire feeding follower gear 117, a wire feeding transmission gear 118, a wire feeding servo motor 119, and a rubber toothed belt 120. The wire feeding base 109 is mounted on the wire laying platform 101. The wire feeding cylinder 110 is fixedly connected to the side wall of the wire feeding base 109. The wire feeding slide rail 111 is located inside the wire feeding base 109. The wire feeding slide block 112 is slidably connected to the wire feeding slide rail 111. The wire feeding slide block 112 is fixedly connected to the telescopic end of the wire feeding cylinder 110. Symmetrical wire feeding devices are rotatably connected inside the wire feeding slide block 112. The tensioning wheel 114 and the wire feeding follower shaft 116 are rotatably mounted on the wire feeding slide 112. The drive wheel 115 is mounted on the wire feeding follower shaft 116, the wire feeding follower gear 117 is mounted on the upper end of the wire feeding follower shaft 116, the wire feeding servo motor 119 is mounted on the top of the wire feeding slide 112, the wire feeding transmission gear 118 is connected to the output end of the wire feeding servo motor 119, the wire feeding transmission gear 118 is meshed with the wire feeding follower gear 117, and the rubber toothed belt 120 is meshed with the drive wheel 115 and the tensioning wheel 114. Opening and closing permanent magnets 113 are installed on both sides of the wire feeding slide 112 located on one side of the wire clamp 105. The wire clamp 105 includes a wire clamping channel 121, a wire clamping base 122, a wire clamping connecting rod 123, and a compression base. 125. A wire clamping slide plate 127 and a metal suction plate 128 are provided. The wire clamping channel 121 is provided on the lifting conveyor frame 103. The wire clamping base 122 is provided in the wire clamping channel 121. The extrusion base 125 is slidably provided in the wire clamping channel 121. Symmetrical wire clamping connecting rods 123 are connected to the extrusion base 125. The wire clamping connecting rods 123 are slidably connected to the wire clamping base 122. The end of the wire clamping connecting rods 123 is rotatably connected to the extrusion wheel 124. The wire clamping slide plate 127 is slidably provided in the wire clamping channel 121. The metal suction plate 128 is provided on the wire clamping slide plate 127. An extrusion spring 126 is provided between the wire clamping base 122 and the extrusion base 125. A return spring 129 is provided between the wire clamping slide plate 127 and the inner wall of the wire clamping channel 121.A symmetrical pulley seat 130 is slidably connected inside the pulley clamp 106. A pressing pulley 132 is rotatably connected to the pulley seat 130. A pulley spring 131 connects the pulley seat 130 to the inner wall of the pulley clamp 106. A wire cutting machine 133 is installed on the wire laying platform 101. The wire cutting machine 133 includes a knife holder 134, a flat cutter 135, a bevel cutter 136, and a wire cutting cylinder 137. The knife holder 134 is located on the wire laying platform 101, the flat cutter 135 is located on the knife holder 134, the wire cutting cylinder 137 is located on the knife holder 134, and the bevel cutter 136 is located at the extension end of the wire cutting cylinder 137.
[0051] The stripping module 2 includes a stripping platform 201, a wire stripper 202, and a recovery channel 203. The stripping platform 201 is located on the ground, the wire stripper 202 is located on the stripping platform 201, and the recovery channel 203 runs through the stripping platform 201, with its upper end connected to the wire stripper 202. The wire stripper 202 includes a stripping connector 204, a waste discharge channel 205, a rotating frame 206, a cutting arm 207, a stripping roller 208, a stripping gear 209, a stripping toothed ring 210, and a stripping motor 211. The stripping connector 204 is located above the stripping platform 201, and the waste discharge channel 205 connects to the stripping connector 204. The rotating frame 206 is rotatably connected to the wire stripping joint 204. The wire cutting arm 207 is rotatably mounted on the rotating frame 206. A connecting spring 213 is connected between the wire cutting arms 207. A wire stripping knife 212 is provided on the inner side of the wire cutting arm 207. The stripping roller 208 is rotatably mounted on the rotating frame 206. The stripping gear 209 is located at the end of the stripping roller 208. The stripping tooth ring 210 is located on the wire stripping joint 204. The stripping gear 209 and the stripping tooth ring 210 are meshed and connected. The wire stripping motor 211 is located on the side wall of the waste discharge channel 205. The rotating frame 206 is connected to the output end of the wire stripping motor 211.
[0052] The crimping module 3 includes a crimping platform 301, a crimping chamber 302, a bottom pressure plate 303, a sliding pressure plate 304, and a crimping hydraulic arm 307. The crimping platform 301 is located on the ground, the crimping chamber 302 is located on the crimping platform 301, the bottom pressure plate 303 is located inside the crimping chamber 302, and the sliding pressure plate 304 is slidably located inside the crimping chamber 302. The bottom of the sliding pressure plate 304 is provided with pressing teeth 305 and cutting teeth 306, and the top of the crimping chamber 302 is provided with a crimping hydraulic arm 307. The telescopic end of the crimping hydraulic arm 307 is fixedly connected to the sliding pressure plate 304.
[0053] The connection module 4 includes a terminal channel 401 and a connection platform 402. The connection platform 402 is located on the ground, and the terminal channel 401 is located on the connection platform 402.
[0054] The conveying mechanism 5 includes an island platform 501, a conveying turntable 502, an island main shaft 504, a conveying gear ring 505, a conveying gear 506, a conveying motor 507, and a top platform 508. The island platform 501 is located on the ground, and the island main shaft 504 is located above the island platform 501. The conveying turntable 502 is rotatably connected to the island main shaft 504. Four sets of conveyors 503 are arranged around the conveying turntable 502. The conveying gear ring 505 is located at the bottom of the conveying turntable 502. The conveying motor 507 is located on the island main shaft 504, and the conveying gear 506... 6 is located at the output end of the conveyor motor 507. The conveyor gear 506 meshes with the conveyor gear ring 505. The top platform 508 is fixedly connected to the top of the ring main shaft 504. The top of the top platform 508 is provided with three sets of docking air rods 509 arranged in a ring. The top of the top platform 508 is provided with a transferor 510. The transferor 510 includes a rotary motor 511, a sliding shaft 512, a transfer cylinder 513, a transfer base 514, a synchronous push arm 515, a rotary joint 516, and a magnetic clamp 517. The transfer base 514 is located on the top platform 507. Above 8, a rotating motor 511 is mounted on a transfer base 514, a transfer cylinder 513 is mounted on the transfer base 514, a sliding shaft 512 is splinedly connected to the output end of the rotating motor 511, a synchronous push arm 515 is fixedly connected to the telescopic end of the transfer cylinder 513, the sliding shaft 512 is rotatably connected to the synchronous push arm 515, a rotary joint 516 is located at the lower end of the sliding shaft 512, and a magnetic clamp 517 is located at the bottom of the rotary joint 516; the transporter 503 includes a sliding spring 518, a transport base 519, a sliding base 520, and an upper sliding cover 5. 21. Opening and closing spring 522, magnetic base 523 and upper clamping tooth 524, transport base 519 is set on transport turntable 502, symmetrical sliding base 520 is provided above transport base 519, upper sliding cover 521 is slidably connected to sliding base 520, sliding spring 518 is connected between upper sliding cover 521 and sliding base 520, magnetic base 523 is installed above upper sliding cover 521, upper clamping tooth 524 is slidably connected to magnetic base 523, opening and closing spring 522 is connected between upper clamping tooth 524 and magnetic base 523.
[0055] In practical use, first load the wire harness onto the feeding module 1, then pass the wire harness sequentially through the pulley clamp 106 and the wire harness clamp 105 at the same horizontal height. Multiple sets of wire harnesses of different specifications can be installed from bottom to top in the same way. The wire harness can directly pass through the compression pulley 132 of the pulley clamp 106. When the wire harness passes through the wire harness clamp 105, press the compression base 125. The compression base 125 pushes the compression roller 124 outward (away from the compression base 122) through the wire clamping connecting rod 123. The compression spring 126 is compressed by the wire clamping base 122 and the compression base 125. The compression roller 124 pushes the wire clamping slide outward. Plate 127 and return spring 129 are compressed and shortened by clamping slide plate 127, and the distance between clamping roller 124 and clamping base 122 increases. At this time, the wire harness can pass through the clamping base 122 and clamping roller 124. After the wire harness passes through two sets of wire harness clamps 105 at the same height, the clamping base 125 is released, and the clamping spring 126 returns to its original extension to push the clamping rod 123, clamping roller 124 and clamping base 125 to slide inward as a whole. The clamping roller 124 and clamping base 122 are respectively close to both sides of the wire harness. The return spring 129 extends to push the clamping slide plate 127 to close to the wire harness, thus completing the fixation of the wire harness.Processing begins with the loading operation. Two sets of wire feeding devices 104 start simultaneously with identical operating steps. The wire feeding cylinder 110 extends, pushing the wire feeding slide 112 to slide, allowing the outer side of the rubber toothed belt 120 to press tightly against the side of the wire harness. In one set of wire feeding devices 104, the wire feeding slide 112 has opening and closing permanent magnets 113 on both sides. The opening and closing permanent magnets 113 press tightly against the outer walls of the two sets of wire clamps 105, attracting the metal suction plate 128. The metal suction plate 128 drives the wire clamping slide plate 127 away from the wire harness, and the return spring 129 is compressed and shortened by the wire clamping slide plate 127. At this time, the wire clamp 105 contains the wire clamping base 122 and the compression roller 127. 24. The wire harness is restricted, and the wire feeding servo motor 119 is started. The wire feeding servo motor 119 drives the wire feeding transmission gear 118 to rotate. The rotation of the wire feeding transmission gear 118 drives the wire feeding follower gear 117 to rotate. The rotation of the wire feeding follower gear 117 drives the wire feeding follower shaft 116 to rotate. The rotation of the wire feeding follower shaft 116 drives the drive wheel 115 to rotate. The rotation of the drive wheel 115 drives the rubber toothed belt 120 to rotate. The rubber toothed belts 120 of the two sets of wire feeding devices 104 drive the wire harness for feeding. The wire feeding servo motor 119 controls the feeding length of the wire harness. During feeding, the front end of the wire harness first passes through the wire cutter 133 and the magnetic base 523 on one side, and the upper clamping teeth 523 in sequence. 24. Activate the transfer cylinder 513. The transfer cylinder 513 extends and pushes the sliding shaft 512, rotary joint 516, and magnetic clamp 517 downwards together via the synchronous push arm 515. Activate the magnetic clamp 517 to hold the end of the wire harness. Activate the rotary motor 511, which drives the sliding shaft 512 to rotate. The rotation of the sliding shaft 512 drives the rotary joint 516 and magnetic clamp 517 to rotate. The magnetic clamp 517 rotates 180 degrees around the vertical axis of the sliding shaft 512, sending the end of the wire harness between the magnetic base 523 and the upper clamping teeth 524 on the other side (far wire side). Activate the magnetic base 523 on the other side (far wire side). 23. The magnetic base 523 attracts the upper clamping teeth 524, which slide downwards. The upper clamping teeth 524 and the magnetic base 523 are used to fix the front end of the wire harness. The magnetic clamp 517 releases the clamp on the wire harness. The transfer cylinder 513 retracts and resets. The rotating motor 511 drives the sliding shaft 512 to reset. After the wire harness is transported, the magnetic base 523 on one side (near the wire side) is activated. The upper clamping teeth 524 and the magnetic base 523 on this side are used to fix the rear end of the wire harness. The wire cutter 133 is activated to cut the wire harness. The wire cutting cylinder 137 is activated. The wire cutting cylinder 137 extends and pushes the oblique cutter 136. The oblique cutter 136 and the flat cutter 135 are used to cut the rear end of the wire harness.After the cutting is completed, the stripping operation begins. The conveyor motor 507 is started, which drives the conveyor gear 506 to rotate. The rotation of the conveyor gear 506 drives the conveyor gear ring 505 to rotate, which in turn drives the conveyor turntable 502 to rotate. At this time, the conveyor 503 carrying the wire harness is rotated to the processing position of the stripping module 2. The docking air rod 509, which is aligned with the stripping module 2, is activated. The docking air rod 509 extends and pushes the upper sliding cover 521 to slide. The sliding spring 518 is compressed and shortened by the sliding base 520 and the upper sliding cover 521. The upper sliding cover 521 drives the two sets of magnetic bases 523 and the upper clamping teeth 524 to slide, thus moving the front and rear of the wire harness. The wire harness is fed into the wire stripper 202. The processing steps at the front and rear ends are the same. The ends of the wire harness pass through the stripping blade 212 and the stripping roller 208 in sequence. The stripping motor 211 is started, which drives the rotating frame 206 to rotate. The rotation of the rotating frame 206 drives the cutting arm 207 to rotate. During the rotation of the cutting arm 207, the stripping blade 212 at the end of the cutting arm 207 will circumferentially cut the outer sheath of the wire harness. At the same time, since the stripping gear 209 is meshed with the stripping tooth ring 210, the rotation of the rotating frame 206 will drive the stripping roller 208 to rotate. The rotation of the stripping roller 208 will separate the circumferentially cut outer sheath from the wire harness. After the outer sheath enters the recycling channel 203 through the waste discharge channel 205, the stripping is completed, the docking air rod 509 resets, and the sliding spring 518 extends to drive the upper sliding cover 521 to reset. After the stripping operation is completed, the crimping operation is performed. The conveyor motor 507 is started, and the conveyor turntable 502 is driven to rotate, rotating the conveyor 503 carrying the wire harness to the processing position of the crimping module 3. The copper tube at the end of the wire harness is conveyed in the crimping chamber 302. The docking air rod 509, which is aligned with the crimping module 3, is started to send the front and rear ends of the wire harness into the crimping chamber 302. The end of the wire harness is inserted into the copper tube. The crimping hydraulic arm 307 is started, and the crimping hydraulic arm is activated. Arm 307 pushes the sliding pressure plate 304 downwards, using the pressing teeth 305 and the bottom pressure plate 303 to deform the copper tube, and using the cutting teeth 306 and the bottom pressure plate 303 to cut the copper tube. After completing the crimping operation, the docking air rod 509 is reset. For the connection operation, the conveyor motor 507 is started, driving the conveyor turntable 502 to rotate, rotating the conveyor 503 carrying the wire harness to the processing position of the connection module 4. The docking air rod 509, aligned with the connection module 4, is started, extending to feed the front and rear ends of the wire harness into the terminals of the terminal channel 401. The terminal channel 401 then transports the wire harness to the connected terminals.
[0056] The above is the specific workflow of this invention. This step can be repeated next time it is used.
[0057] It should be noted that, in this document, the terms “comprising,” “including,” or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such process, method, article, or apparatus.
[0058] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principles and spirit of the invention.
[0059] The present invention and its embodiments have been described above. This description is not restrictive, and the accompanying drawings are only one embodiment of the present invention; the actual structure is not limited thereto. In conclusion, if those skilled in the art are inspired by this description and design similar structures and embodiments without departing from the spirit of the invention, such designs should fall within the protection scope of the present invention.
Claims
1. An automotive wiring harness terminal processing device, characterized in that: The system includes a feeding module (1), a stripping module (2), a pressing module (3), a connecting module (4), and a conveying mechanism (5). The feeding module (1), stripping module (2), pressing module (3), and connecting module (4) are arranged sequentially around the conveying mechanism (5). The feeding module (1) includes a wire laying platform (101), a buffer slide (102), a synchronous connecting rod (108), a lifting conveyor frame (103), and a servo electric cylinder (107). The wire laying platform (101) is located on the ground. The buffer slide (102) is slidably connected to the wire laying platform (101) in the horizontal direction, and the lifting conveyor frame (103) is slidably connected to the wire laying platform (101) in the vertical direction. The cable laying platform (101) is equipped with symmetrical cable feeding devices (104), the buffer slide (102) is equipped with pulley clamps (106), the lifting conveyor frame (103) is equipped with cable clamps (105), the cable laying platform (101) is equipped with a servo electric cylinder (107), the telescopic end of the servo electric cylinder (107) is fixedly connected to the lifting conveyor frame (103), one end of the synchronous connecting rod (108) is rotatably connected to the buffer slide (102), and the other end of the synchronous connecting rod (108) is rotatably connected to the lifting conveyor frame (103); the cable feeding device (104) includes a cable feeding base (109), a cable feeding cylinder (110), a cable feeding slide rail (111), and a cable feeding slide seat (109). 112), drive wheel (115), wire feeding follower shaft (116), wire feeding follower gear (117), wire feeding transmission gear (118), wire feeding servo motor (119), and rubber toothed belt (120). The wire feeding base (109) is located on the wire laying platform (101). The wire feeding cylinder (110) is fixedly connected to the side wall of the wire feeding base (109). The wire feeding slide rail (111) is located inside the wire feeding base (109). The wire feeding slide (112) is slidably connected to the wire feeding slide rail (111). The wire feeding slide (112) is fixedly connected to the telescopic end of the wire feeding cylinder (110). Symmetrical tensioning wheels (114) are rotatably connected inside the wire feeding slide (112). The wire feeding follower shaft... (116) Rotatably mounted on the wire feeding slide (112), the drive wheel (115) is mounted on the wire feeding follower shaft (116), the wire feeding follower gear (117) is mounted on the upper end of the wire feeding follower shaft (116), the wire feeding servo motor (119) is mounted on the top of the wire feeding slide (112), the wire feeding transmission gear (118) is connected to the output end of the wire feeding servo motor (119), the wire feeding transmission gear (118) is meshed with the wire feeding follower gear (117), the rubber toothed belt (120) is meshed with the drive wheel (115) and the tension wheel (114); opening and closing permanent magnets (113) are installed on both sides of the wire feeding slide (112) located on the side of the wire clamp (105).The stripping module (2) includes a stripping platform (201), a wire stripper (202), and a recycling channel (203). The stripping platform (201) is located on the ground, the wire stripper (202) is located on the stripping platform (201), and the recycling channel (203) extends through the stripping platform (201). The upper end of the recycling channel (203) is connected to the wire stripper (202). The wire stripper (202) includes a stripping connector (204), a waste discharge channel (205), a rotating frame (206), a wire cutting arm (207), a stripping roller (208), a stripping gear (209), a stripping toothed ring (210), and a stripping motor (211). The stripping connector (204) is located above the stripping platform (201), and the waste discharge channel (205) is connected to the stripping connector (201). 4) Through connection: The rotating frame (206) is rotatably connected to the wire stripping joint (204). The wire tangent arm (207) is rotatably mounted on the rotating frame (206). A connecting spring (213) connects the wire tangent arms (207). A wire stripping knife (212) is provided on the inner side of the wire tangent arm (207). The stripping roller (208) is rotatably mounted on the rotating frame (206). The stripping gear (209) is located at the end of the stripping roller (208). The stripping toothed ring (210) is located on the wire stripping joint (204). The stripping gear (209) meshes with the stripping toothed ring (210). The wire stripping motor (211) is located on the side wall of the waste discharge channel (205). The rotating frame (206) is drively connected to the output end of the wire stripping motor (211).
2. The automotive wiring harness terminal processing device according to claim 1, characterized in that: The wire clamp (105) includes a wire clamping channel (121), a wire clamping base (122), a wire clamping connecting rod (123), a compression base (125), a wire clamping slide plate (127), and a metal suction plate (128). The wire clamping channel (121) is located on the lifting conveyor frame (103). The wire clamping base (122) is located inside the wire clamping channel (121). The compression base (125) is slidably located inside the wire clamping channel (121). Symmetrical wire clamping connecting rods (123) are connected to the compression base (125). The wire clamping connecting rods (123) are slidably connected to the wire clamping base (122). The ends of the wire clamping connecting rods (123) are rotatably connected to compression plates. The rotating wheel (124) has the wire clamping slide plate (127) slidably disposed in the wire clamping channel (121), the metal suction plate (128) disposed on the wire clamping slide plate (127), the wire clamping base (122) and the compression base (125) are provided with a compression spring (126), and the wire clamping slide plate (127) and the inner wall of the wire clamping channel (121) are provided with a return spring (129); the pulley clamp (106) is slidably connected with upper and lower symmetrical pulley seats (130), the compression pulley (132) is rotatably connected on the pulley seat (130), and the pulley seat (130) and the inner wall of the pulley clamp (106) are connected with a pulley spring (131).
3. The automotive wiring harness terminal processing device according to claim 2, characterized in that: The wire laying platform (101) is equipped with a wire cutting machine (133). The wire cutting machine (133) includes a knife holder (134), a flat cutting knife (135), a bevel cutting knife (136), and a wire cutting cylinder (137). The knife holder (134) is located on the wire laying platform (101), the flat cutting knife (135) is located on the knife holder (134), the wire cutting cylinder (137) is located on the knife holder (134), and the bevel cutting knife (136) is located at the extension end of the wire cutting cylinder (137).
4. The automotive wiring harness terminal processing device according to claim 3, characterized in that: The crimping module (3) includes a crimping platform (301), a crimping chamber (302), a bottom pressure plate (303), a sliding pressure plate (304), and a crimping hydraulic arm (307). The crimping platform (301) is located on the ground, the crimping chamber (302) is located on the crimping platform (301), the bottom pressure plate (303) is located inside the crimping chamber (302), the sliding pressure plate (304) is slidably located inside the crimping chamber (302), the bottom of the sliding pressure plate (304) is provided with pressing teeth (305) and cutting teeth (306), the top of the crimping chamber (302) is provided with a crimping hydraulic arm (307), and the telescopic end of the crimping hydraulic arm (307) is fixedly connected to the sliding pressure plate (304).
5. The automotive wiring harness terminal processing device according to claim 4, characterized in that: The connection module (4) includes a terminal channel (401) and a connection platform (402). The connection platform (402) is located on the ground, and the terminal channel (401) is located on the connection platform (402).
6. The automotive wiring harness terminal processing device according to claim 5, characterized in that: The conveying mechanism (5) includes an island platform (501), a conveying turntable (502), an island main shaft (504), a conveying gear ring (505), a conveying gear (506), a conveying motor (507), and a top platform (508). The island platform (501) is located on the ground, and the island main shaft (504) is located above the island platform (501). The conveying turntable (502) is rotatably connected to the island main shaft (504). Four sets of conveyors (503) are arranged around the conveying turntable (502). A ring (505) is located at the bottom of the conveyor turntable (502), the conveyor motor (507) is located on the main shaft (504) of the ring island, the conveyor gear (506) is located at the output end of the conveyor motor (507), the conveyor gear (506) is meshed with the conveyor gear ring (505), the top platform (508) is fixedly connected to the top of the main shaft (504) of the ring island, the top of the top platform (508) is provided with three sets of circumferentially arranged docking air rods (509), and the top of the top platform (508) is provided with a transferor (510).
7. The automotive wiring harness terminal processing device according to claim 6, characterized in that: The transferor (510) includes a rotary motor (511), a sliding shaft (512), a transfer cylinder (513), a transfer base (514), a synchronous push arm (515), a rotary joint (516), and a magnetic clamp (517). The transfer base (514) is located above the top platform (508). The rotary motor (511) is located on the transfer base (514). The transfer cylinder (513) is located on the transfer base (514). The sliding shaft (512) is spline-connected to the output end of the rotary motor (511). The synchronous push arm (515) is fixedly connected to the telescopic end of the transfer cylinder (513). The sliding shaft (512) is rotatably connected to the synchronous push arm (515). The rotary joint (516) is located at the lower end of the sliding shaft (512). The magnetic clamp (517) is located at the bottom of the rotary joint (516).
8. The automotive wiring harness terminal processing device according to claim 7, characterized in that: The transporter (503) includes a sliding spring (518), a transport base (519), a sliding base (520), an upper sliding cover (521), an opening and closing spring (522), a magnetic base (523), and an upper clamping tooth (524). The transport base (519) is located on the transport turntable (502). A symmetrical sliding base (520) is located above the transport base (519). An upper sliding cover (521) is slidably connected to the sliding base (520). A sliding spring (518) is connected between the upper sliding cover (521) and the sliding base (520). A magnetic base (523) is installed above the upper sliding cover (521). An upper clamping tooth (524) is slidably connected to the magnetic base (523). An opening and closing spring (522) is connected between the upper clamping tooth (524) and the magnetic base (523).