Jack wire crimping equipment
By designing automated jack wire crimping equipment, the problem of manual operation of jack and wire connection in the prior art is solved, and efficient and stable connection quality and production efficiency are achieved.
Patent Information
- Application Number
- CN202411587291.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2024-11-08
- Publication Date
- 2025-02-21
AI Technical Summary
The connection between the jacks and wires of existing electrical connectors mainly relies on manual operations, which leads to cumbersome production operations, time-consuming and labor-intensive, and the crimping performance cannot be guaranteed, affecting the performance and quality of the electrical connector.
A jack wire crimping equipment is designed, including a jack feeding mechanism, a wire feed transfer station, a laser wire stripping mechanism, a crimping mechanism, a crimping detection mechanism and a discharge mechanism to realize automated wire stripping and pressing Connection and detection process.
Through automated wire stripping, crimping and detection processes, the quality and production efficiency of the jack and wire connection are improved, ensuring the performance and quality of the electrical connector.
Smart Images

Figure CN119496014A_ABST
Abstract
Description
Technical Field
[0001] The invention relates to electric connector processing equipment, in particular to a socket wire crimping equipment. Background Art
[0002] With the widespread application of electrical connectors in all walks of life, the requirements for electrical connectors of various specifications and models are getting higher and higher. The electrical connection performance of electrical connectors depends to a large extent on the connection between internal pins, sockets and wires. Most of the existing patents for electrical connectors are aimed at improving the connection performance of pins and sockets. For the connection between sockets and guides, manual operation is conventionally adopted. After stripping the wires on a semi-automatic or manual stripping tool, the corresponding wires and sockets are manually plugged in. After plugging in, they are manually sent to a semi-automatic or manual closing tool for closing and crimping. The production operation is cumbersome, time-consuming and labor-intensive, and the crimping performance cannot be guaranteed, which directly affects the performance and quality of subsequent electrical connectors. Summary of the invention
[0003] The invention provides a jack wire crimping device which has a compact structure, a high degree of automation, and can take into account the stable quality of wire stripping and crimping and product detection.
[0004] The technical solution adopted by the present invention is: a socket wire crimping device, characterized in that it includes a socket feeding mechanism, a wire feeding transfer station, a laser wire stripping mechanism, a crimping mechanism, a crimping detection mechanism and a discharge mechanism respectively arranged on a workbench, the socket feeding mechanism includes a vibration plate, a socket feeding track and a socket feeding device, the vibration plate feeds the socket to one end of the socket feeding track, at least two front and rear socket sensing probes are arranged on the socket feeding track, the socket feeding device is arranged at the other end of the socket feeding track, the socket feeding device includes a feeding support chuck and a feeding clamping chuck, the horizontal height of the feeding support chuck corresponds to the other end of the socket feeding track, and the feeding support chuck is arranged on the feeding support chuck. A feeding clamping chuck is arranged on the side, and the feeding support chuck is connected to the feeding feeding cylinder and is in a feeding state toward the crimping mechanism. The feeding clamping chuck is connected to the feeding feeding cylinder via the feeding clamping cylinder and is in a corresponding feeding support chuck lifting and clamping or releasing jack clamping state; the wire feeding transfer station includes a closed-loop transfer track seat and a wire feeding rack, and the closed-loop transfer track seat is arranged on the workbench, and more than four wire feeding racks are arranged on the closed-loop transfer track seat and are respectively facing the outside of the closed-loop transfer track seat and corresponding to the laser stripping mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism. The outside of the wire feeding rack is connected to a wire outlet, and the rear end of the wire feeding rack is connected through the unwinding roller. The wire is rolled up, and the wire is unwound by the wire roll and then extended outwardly through the wire connector; the laser wire stripping mechanism comprises a laser generator and a wire stripping frame, the laser generator is connected to an upper and lower laser head respectively located above and below the position where the wire connector corresponds to the laser wire stripping mechanism releasing the wire, the upper and lower laser heads are respectively adjusted and moved perpendicularly to the wire releasing direction by a laser moving cylinder and supported on the upper and lower laser operating frames, the upper and lower laser operating frames and the wire stripping frame are supported on a workbench, the wire stripping frame supports the wire stripping operating seat along the wire releasing direction by the wire stripping feeding cylinder, a wire stripping suction pipe with an external negative pressure suction is passed through the middle of the wire stripping operating seat, and the wire stripping operating seat faces the wire corresponding to the laser wire stripping mechanism station The feed rack is connected to the upper and lower wire stripping knife seats respectively through a bidirectional cylinder, and the upper and lower wire stripping knife seats are provided with upper and lower wire stripping knives with opposite cutting edges, and the cutting edges of the upper and lower wire stripping knives are connected between the wire stripping suction pipe and the wire connection head; the crimping mechanism includes a crimping feed cylinder and a casing pliers, the jaw center of the casing pliers corresponds to the center of the jack feed track and the wire connection head, and the two pliers legs of the casing pliers are respectively supported and connected to the crimping feed cylinder through two crimping operation cylinders, and are in a state of feeding the wire connection head of the wire feed rack corresponding to the crimping mechanism station with the crimping feed cylinder, and the casing pliers jaws are sleeved to the front end position of the wire connection head to release the wire; the crimping detection mechanism is a CCD visual detection station;The unloading mechanism includes a cutting mechanism, a unloading linear guide rail and an unloading pneumatic chuck. The cutting mechanism is located outside the wire feeding rack wire connection head of the corresponding unloading mechanism in the direction of the wire connection head of the wire feeding rack. The unloading linear guide rail is arranged on the workbench outside the cutting mechanism along the guide direction of the wire connection head of the wire feeding rack of the corresponding unloading mechanism. The unloading linear guide rail is used to move and install the unloading pneumatic chuck. The unloading pneumatic chuck clamps the corresponding wire connection head to connect the wire. The cutting mechanism is driven by a bidirectional cylinder to cut the fixed-length wire connected by the unloading pneumatic chuck on both sides. A defective product collection tank and a finished product collection tank are respectively arranged below the unloading pneumatic chuck along the direction of the unloading linear guide rail. ;
[0005] Furthermore, the jack feeding mechanism also includes a jack direction detection mechanism, a jack reversing mechanism and a jack loading track. The jack reversing mechanism includes a reversing linear guide and a reversing support head. The reversing linear guide is arranged on the workbench and vertically movably supports the reversing rotary cylinder. The reversing rotary cylinder is connected to the reversing support head upward. A reversing groove is arranged on the upper end of the reversing support head. One end of the reversing groove is horizontally connected to the other end of the jack feeding track. The jack loading track is horizontally parallel to the jack feeding track within the moving range of the reversing linear guide. The other end of the reversing groove moves with the reversing linear guide and corresponds to one end of the jack loading track. A jack loading device is arranged on the other end of the jack loading track. A jack direction detection mechanism is arranged above the reversing groove, and the jack direction detection mechanism is a CCD visual detection head.
[0006] Furthermore, a notch is provided on the cutting edge of the upper and lower wire stripping knives corresponding to the axial center position of the wire released from the wire connector, the depth of the notch is greater than the radius of the inner core wire of the wire and smaller than the radius of the entire conductor, and the width of the notch is greater than the radius of the inner core wire of the wire and smaller than the diameter of the entire wire.
[0007] Furthermore, a wire stripping detection mechanism is provided between the laser wire stripping mechanism and the crimping mechanism. The wire stripping detection mechanism includes a wire stripping detection frame and a wire stripping detection probe. The wire stripping detection frame is supported on a workbench. Two wire stripping detection heads are arranged on the wire stripping detection frame. The two wire stripping detection heads correspond to the upper and lower ends of the external wire heads of the wire connection head at the wire feeding transfer station on the laser wire stripping mechanism station.
[0008] Furthermore, the CCD visual inspection station includes a crimping inspection frame and a CCD visual inspection head. The crimping inspection frame is supported on a workbench. The CCD visual inspection head is connected to the crimping inspection frame and is arranged above and / or below the front end position of the wire outlet of the wire feeder of the corresponding crimping inspection mechanism station.
[0009] Furthermore, a rotary clamping cylinder is arranged on the inner side of the closed-loop transfer track seat corresponding to the crimping detection mechanism. The rotary clamping cylinder is arranged on the workbench and is in a feeding state along the wire releasing direction of the wire connection head of the wire feeding rack of the corresponding crimping detection mechanism. The rotary clamping cylinder is connected to the rotating working rack for feeding. A rotary working cylinder is arranged on the rotating working rack. The rotary working cylinder is transmission-connected to the rotary clamping joint connected to the crimping detection mechanism on the rotating working rack. A suspended feeding rotating seat that can rotate in circles is arranged in the wire feeding rack. The feeding rotating seat can rotate forward to connect the wire connection head, and can rotate backward to connect the output shaft to the unwinding seat backward. The unwinding roller is arranged on the unwinding seat, and a clamping interface is arranged backward on the rear end of the unwinding seat. The clamping joint is clamped into and out of the clamping interface along a direction perpendicular to the closed-loop transfer track seat.
[0010] Furthermore, the wire feeding rack is provided with a suspended feeding rotating seat that can rotate in a circle. The feeding rotating seat can rotate forward to connect the wire outlet head, and can rotate backward to connect the outlet shaft to the unwinding seat backward. The unwinding roller is arranged on the unwinding seat, and one or more guide tensioning pulleys are arranged on the unwinding seat and / or the feeding rotating seat to guide the tensioned wire along the wire unwinding direction.
[0011] Furthermore, a closing pliers is provided on the side of the casing pliers facing the closed-loop transfer track seat, and the closing pliers and the casing pliers are integrally controlled for contraction and expansion, and the jaw structure of the closing pliers is the same as the jaw structure of the casing pliers, and the maximum aperture of the jaw structure of the closing pliers after closing is greater than the wire diameter.
[0012] Furthermore, the closed-loop transfer track seat comprises a front transfer track, a rear transfer track and a side transfer guide rail, the front and rear transfer tracks are arranged in parallel, the front side of the front transfer track corresponds to the laser stripping mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism, the front and rear transfer tracks are connected on both sides through the transfer guide rails on both sides, a transfer linear guide rail is arranged in the front transfer track, and five driven synchronous reciprocating forward and backward shifting block assemblies are arranged on the transfer linear guide rail, and the rear four respectively correspond to the laser stripping mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism. The shift block assembly includes a shift block seat and a shift block head. The shift block head is hinged on the side of the shift block seat that is facing the direction of the unloading mechanism by the laser wire stripping mechanism. A torsion spring is passed through the hinge axis between the shift block head and the shift block seat. The torsion springs respectively abut the shift block head and the shift block seat. A limiting step facing downward and opening toward the shift block seat is provided below the shift block head on one side facing the shift block seat. The torsion spring elastically abuts the shift block head in a state of crimping the upper step surface on the inner side of the limiting step and the upper end surface of the shift block seat. The side of the shift block head facing away from the shift block seat corresponds to the wire feeding rack. An inward-inclined inclined A side transfer seat is arranged on the side transfer guide rail, and a side transfer track is arranged inwardly on the upper end of the side transfer seat, and the side transfer track corresponds to the front and rear transfer tracks in a state where a movable wire feeder is guided between the side transfer track and the front transfer track, and between the side transfer track and the rear transfer track; a rear transfer conveyor belt supporting and conveying the wire feeder is arranged in the rear transfer track, and a pulling cylinder is arranged on one side of the corresponding unloading mechanism of the rear transfer track, and the pulling cylinder is extended outwardly to connect the pulling rod corresponding to the wire feeder that is fed from the side transfer seat into the rear transfer track. The rear transfer track is provided with a rear transfer position probe on one side of the corresponding laser wire stripping mechanism and a pushing and lifting cylinder corresponding to the wire feeder is provided on the outside. The pushing and lifting cylinder is lifted and lowered up and down and connected to the pushing cylinder. The pushing cylinder is extended outward to connect the pushing rod corresponding to the wire feeder that is sent from the rear transfer track into the side transfer seat; the front transfer track is provided with a pulling cylinder on one side of the corresponding laser wire stripping mechanism. The pulling cylinder is extended inward to connect the pulling rod corresponding to the wire feeder that is sent from the side transfer seat through the first shifting block assembly into the front transfer track.
[0013] Furthermore, four locking through holes are respectively provided on the side of the front transfer track not facing the laser wire stripping mechanism, corresponding to the laser wire stripping mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism. The front transfer track outside the four locking through holes is externally connected to four locking mechanisms. The locking mechanism includes a locking seat, a locking cylinder and a locking head. The locking seat is externally connected to the front transfer track, and a locking cylinder is provided on the locking seat. The locking cylinder is connected to the locking head that is telescoped through the locking through hole toward the closed-loop transfer track, and a locking opening that can be inserted into the locking head is provided on the side of the wire feeding rack facing the locking through hole.
[0014] During operation, the wire coil is connected to the unwinding roller of the unwinding seat behind the wire feeding rack, and the wire coil is unwound from the feeding rotating seat to the rear output shaft, guided and tensioned on the feeding rotating seat, and the wire connection head is sent out to send the wire outward; the transfer linear guide operation of the closed-loop transfer track drives the shifting block assembly to move along the laser stripping mechanism toward the unloading mechanism, and the shifting block head of the shifting block assembly pushes the wire feeding rack to move. After any wire feeding rack corresponds to the laser stripping mechanism, the upper and lower laser heads on the upper and lower laser operating racks are adjusted and moved perpendicular to the wire release direction by the laser moving cylinder, and the outer layer of the wire is laser cut for the part that needs to be removed at the front end of the wire. After the laser cutting is completed, the stripping feeding cylinder is controlled to drive the stripping rack to feed toward the front end of the wire, and at the same time, the two-way cylinder is controlled to move toward the center through the upper and lower stripping knives. The seat drives the upper and lower wire stripping knives to close the switch at the corresponding laser cutting position to complete the cutting and separation. Combined with the negative pressure suction of the wire stripping suction tube, the outer layer of the separated wire is sucked and collected outside to realize the laser wire stripping operation; then, the transfer linear guide operation in the front transfer track of the closed-loop transfer track is controlled to drive the shift block assembly to move along the unloading mechanism toward the laser wire stripping mechanism. The shift block head of the shift block assembly overcomes the force of the torsion spring and is blocked by the previous wire feed rack and pressed down to pass. After passing, the shift block head is reset under the action of the torsion spring and abuts against the previous wire feed rack. The five wire feed racks corresponding to the laser stripping mechanism, the wire stripping detection mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism can be pushed in sequence according to the above process to complete the laser wire stripping operation on the wire feed rack corresponding to the laser stripping mechanism. At the same time, the subsequent wire stripping detection mechanism completes the laser wire stripping detection, the crimping structure completes the socket docking guide and crimping, the crimping detection mechanism completes the crimping detection, and the unloading mechanism completes the wire unloading. When the wire feeder that has completed the laser wire stripping operation moves toward the wire stripping detection mechanism, the subsequent wire feeders move backward in sequence, and the wire feeder corresponding to the unloading mechanism is dialed into the transfer track on the inner side of the transfer seat on the side of the transfer guide rail at the end of the front transfer track through the dial block assembly, and the transfer guide rail moves backward to the corresponding position on one side of the rear transfer track, and the wire feeder is pulled into the rear transfer track through the pulling cylinder through the pulling rod and transported to the other side position on the rear transfer conveyor belt of the rear transfer track, and the pushing cylinder is lifted by pushing the lifting cylinder and the wire feeder is pushed into the side of that side by the pushing cylinder through the pushing rod. The wire feeder is moved to the transfer rail and sent to the front end of the front transfer rail along with the side transfer rail. When the shift block assembly in front of the wire feeder at the corresponding station of the laser wire stripping mechanism is sequentially sent backward, a shift block assembly in front of the corresponding shift block assembly of the wire feeder extends to the front of the wire feeder in the side transfer rail and sends it to the position of the laser wire stripping mechanism. When the shift block assembly is reset on the transfer linear guide rail, it is always pressed against the wire feeder. After the shift block head of the shift block assembly passes through the wire feeder and is reset, the six wire feeders in the closed-loop transfer rail can be driven by the six shift block assemblies to ensure that the positions corresponding to the laser wire stripping mechanism, the wire stripping detection mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism always correspond to the wire feeder that has completed the corresponding operation, thereby completing the automated cycle operation.In the wire stripping detection mechanism, the wire stripping detection probe CCD visual detection head is used to monitor whether there is an unremoved outer layer of the wire at the front end of the wire of the required stripping length, and the wire stripping detection structure on the workstation is recorded. If the wire is not stripped or the stripping is incomplete, the wire feeder of the workstation moves backward in sequence but does not complete the crimping operation and crimping detection, and controls the unloading linear guide rail on the unloading mechanism to feed the unloading pneumatic chuck to clamp, cut and unload to the defective collection tank. If the wire stripping is complete, the wire feeder moves backward to the crimping mechanism position for crimping operation; during the crimping operation, the crimping feed cylinder drives the crimping operation cylinder and the casing clamp to feed toward the front end of the wire after stripping, and the jaws of the closing clamp close the loose inner core wire of the wire and feed it into the jaws of the casing clamp. At the same time, the jack that needs to be plugged is placed in the vibration disk of the jack feeding mechanism, and the jack is fed with the vibration disk to one end of the jack feeding track, and the front and rear jack sensing probes sense the jack. The jack in the hole feeding track meets the feeding control of the vibration plate. When the jack is sent to the other end of the jack feeding track, it is directly sent into the reversing groove of the reversing support head of the jack reversing mechanism. The CCD visual detection head detects the direction of the jack. When the direction of the jack is wrong, the reversing rotary cylinder rotates and reverses. After the direction of the jack is correct, the reversing linear guide drives the reversing support head to correspond to one end of the jack feeding track and continuously pushes the jack in the jack feeding track. The jack with the correct direction is sent from the other end of the jack feeding track to the feeding support chuck in the jack feeding device, and is pressed down and clamped by the feeding clamping chuck. The jack is driven by the feeding feeding cylinder to feed toward the crimping mechanism, and the corresponding sleeve of the jack is sent onto the inner core wire of the wire in the casing jaws. The feeding support chuck and the feeding clamping chuck retract and reset, and then the crimping operation cylinder is controlled to pull the clamp legs of the casing clamp to close the casing clamp jaws to complete the crimping operation of the wire and the jack.The wire feeding rack that has completed the crimping operation is sent to the crimping detection mechanism, and the CCD visual inspection head of the crimping detection mechanism detects the crimping status of the wire and the socket. At this time, the rotary clamping cylinder drives the rotary working rack to feed toward the rear end of the wire feeding rack, so that the rotary clamping connector on the rotary working rack is clamped into the clamping interface at the rear end of the wire feeding rack, and then the rotary working cylinder is controlled to drive the feeding rotary seat to rotate through the rotary clamping connector, thereby driving the wire connection head and the wire connection head passing through the wire connection head to complete the rotation of the crimped socket. The visual inspection is completed by rotating more than one circle. If the visual inspection finds that the crimping is incomplete, such as incomplete crimping at multiple points on the crimping circle or insufficient insertion guide depth, the unloading mechanism will be used later. The wire is sent to the defective collection tank. After visual inspection, the wire feeder moves back to the unloading structure for unloading. The unloading mechanism controls the unloading linear guide to feed the unloading pneumatic chuck to clamp the front end of the wire and move back to pull out the required wire length. The bidirectional cylinder is controlled at the cutting mechanism position to drive the cutting knife to cut the wire. The unloading pneumatic chuck clamps the wire crimped by the socket to the finished product collection tank and releases it. The finished product collection tank completes the collection. The cutting mechanism position is aligned with the front end of the wire working on the laser stripping mechanism, thereby ensuring that the wire after each unloading extends out of the wire connector to a fixed length. The cutting operation can be completed by controlling the unloading pneumatic chuck to clamp and pull the length to meet the required cutting length. ;
[0015] In the laser wire stripping mechanism, notches are provided on the cutting edges of the upper and lower wire stripping knives, which can ensure that the outer layer of the wire is effectively cut off without damaging the inner core wire, and at the same time facilitate the suction of the cut outer layer of the wire by negative pressure; when the wire feeder is fed along with the shifting block assembly, at the workstations corresponding to the laser wire stripping mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism, the locking opening on the wire feeder is pushed by the locking cylinder of the locking mechanism to pass through the locking through hole and clamp into the locking opening, thereby ensuring the positioning of the wire feeder at each workstation, which is conducive to ensuring the stability and accuracy of the laser wire stripping operation, crimping operation, crimping detection operation and unloading operation. BRIEF DESCRIPTION OF THE DRAWINGS
[0016] Figure 1 It is a schematic diagram of the structure of the present invention from a top view; Figure 2 for Figure 1 Schematic diagram of the laser wire stripping mechanism in the A direction; Figure 3 for Figure 2 H-direction view; Figure 4 for Figure 1 Schematic diagram of the wire stripping detection mechanism in the middle B direction; Figure 5 for Figure 1 Schematic diagram of the crimping mechanism in the middle C direction; Figure 6 for Figure 5 Right view of; Figure 7 for Figure 1 Schematic diagram of the jack feeding mechanism in the middle D direction; Figure 8 for Figure 7 I view of; Fig. 9 for Figure 1 Schematic diagram of the crimping detection mechanism in the middle E direction; Fig.10 for Figure 1 Schematic diagram of the unloading mechanism in the middle F direction; Fig.11 for Figure 1 Schematic diagram of the structure in the G direction; Fig.12 for Figure 1 Schematic diagram of the structure of the middle closed-loop transfer track seat; Fig.13 for Figure 1 Schematic diagram of the structure of the middle conductor feeder; Fig.14 for Figure 1 Schematic diagram of the structure of the middle shift block assembly; In the figure: workbench 1, controller 2, closed-loop transfer rail seat 3, front transfer rail 4, transfer linear guide rail 5, shift block assembly 6, shift block seat 7, shift block head 8, hinge shaft 9, torsion spring 10, limit step 11, inclined surface 12, rear transfer rail 13, locking mouth 14, left transfer rail 15, side transfer seat 16, side transfer rail 17, right transfer rail 18, pulling cylinder 19, pulling rod 20, pushing lifting cylinder 21, pushing cylinder 22, pushing rod 23, locking through hole 24, locking seat 25, lock Tightening cylinder 26, locking head 27, rotating clamping cylinder 28, rotating working frame 29, rotating working cylinder 30, rotating clamping joint 31, wire feeding frame 32, feeding rotating seat 33, guide tensioning pulley 34, wire connecting head 35, output shaft 36, unwinding seat 37, clamping interface 38, unwinding roller 39, wire reel 40, wire 41, laser stripping mechanism 42, laser generator 43, stripping frame 44, stripping feeding cylinder 45, stripping working seat 46, stripping suction pipe 47, stripping bidirectional cylinder 48, stripping Wire cutter holder 49, wire stripping knife 50, upper laser operating frame 51, lower laser operating frame 52, laser moving cylinder 53, upper laser head 54, lower laser head 55, wire stripping detection mechanism 56, wire stripping detection frame 57, wire stripping detection CCD visual detection head 58, crimping mechanism 59, casing pliers 60, crimping operation cylinder 61, crimping feed cylinder 62, closing pliers 63, jack feeding mechanism 64, vibration plate 65, jack feeding track 66, reversing linear guide 67, reversing rotary cylinder 68, reversing support head 69 , reversing groove 70, socket direction detection CCD visual inspection head 71, socket feeding rail 72, feeding support chuck 73, feeding clamping chuck 74, feeding clamping cylinder 75, feeding feed cylinder 76, crimping detection mechanism 77, crimping detection frame 78, crimping detection CCD visual inspection head 79, unloading mechanism 80, cutting feed cylinder 81, cutting two-way cylinder 82, cutting knife 83, unloading linear guide 84, unloading pneumatic chuck 85, defective collection trough 86, finished product collection trough 87, socket 88. DETAILED DESCRIPTION
[0017] The invention is further described below with reference to the accompanying drawings and embodiments.
[0018] Figure 1-14 As shown, a jack wire crimping device includes a controller 2, a closed-loop transfer track seat 3, a wire feeding rack 32, a laser stripping mechanism 42, a stripping detection mechanism 56, a crimping mechanism 59, a jack feeding mechanism 64, a crimping detection mechanism 77, and a discharge mechanism 80, all of which are arranged on a workbench 1.
[0019] like Fig.12The closed-loop transfer track seat 3 includes a front transfer track 4, a rear transfer track 13, a left transfer guide rail 15, a right transfer guide rail 19 and transfer seats 16 on both sides. The front and rear transfer tracks 4 and 13 are arranged in parallel. The front side of the front transfer track 4 corresponds to the laser stripping mechanism 42, the stripping detection mechanism 56, the crimping mechanism 59, the crimping detection mechanism 77 and the unloading mechanism 88. The front and rear transfer tracks 4 and 13 are connected on both sides through the left transfer guide rail 15 and the right transfer guide rail 19 respectively. A transfer linear guide rail 5 is arranged in the front transfer track 4. Six driven synchronous reciprocating block assemblies 6 are arranged on the transfer linear guide rail 5. The five right-side block assemblies correspond to the laser stripping mechanism, the stripping detection mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism respectively. Fig.14 In the figure, the shift block assembly 6 includes a shift block seat 7 and a shift block head 8. The shift block seat 7 is hinged with the shift block head 8 on one side of the laser wire stripping mechanism toward the unloading mechanism. A torsion spring 10 is passed through the hinge shaft 9 between the shift block head and the shift block seat. The torsion springs respectively abut the shift block head and the shift block seat. A limiting step 11 facing downward and opening toward the shift block seat is arranged below the shift block head on one side of the shift block seat. The torsion spring elastically abuts the shift block head in a state of crimping the upper step surface on the inner side of the limiting step and the upper end surface of the shift block seat. Each of the shift block heads of the five right shift block assemblies has a side facing away from the shift block seat that corresponds to a wire feed rack 32. An inward inclined surface 12 is arranged above the side of the shift block head toward the shift block seat. Side transfer seats 16 are arranged on the left and right transfer guide rails 15 and 18. Side transfer tracks 17 are arranged on the upper ends of the side transfer seats toward the inside. The side transfer tracks correspond to the front and rear transfer tracks. The movable wire feeder is guided between the side transfer track and the front transfer track, and between the side transfer track and the rear transfer track; the rear transfer track 13 is provided with a rear transfer conveyor belt supporting and conveying the wire feeder, or a similar shifting block assembly structure is used to convey the wire feeder. The rear transfer track 13 is provided with a pulling cylinder 19 on one side of the corresponding unloading mechanism, and the pulling cylinder is extended outward to connect the pulling rod 19 corresponding to the pulling wire feeder from the side transfer seat to the rear transfer track. The rear transfer track is provided with a rear transfer position probe on one side of the corresponding laser stripping mechanism and a push-lifting cylinder 21 corresponding to the wire feeder is provided externally. The push-lifting cylinder is lifted and lowered up and down and connected to the pushing cylinder 22, and the pushing cylinder is extended outward to connect the pushing rod 23 corresponding to the pushing wire feeder from the rear transfer track to the side transfer seat. A shifting block assembly on the left side is located in the left transfer guide rail 15.
[0020] like Figure 2 , 3As shown, the laser wire stripping mechanism 42 includes a laser generator 43 and a wire stripping frame 44. The laser generator 43 is connected to the upper and lower laser operating frames 51 and 52 toward the forward transfer track 4. The upper and lower laser operating frames 51 and 52 are connected to the upper and lower laser heads 54 and 55 via the laser moving cylinder 53. The upper and lower laser heads are respectively moved along the transfer linear guide rail via the laser moving cylinder; the wire stripping frame 44 is supported on the workbench 1, and the wire stripping frame 44 supports the wire stripping operating seat 46 in a direction perpendicular to the transfer linear guide rail via the wire stripping feeding cylinder 45. An external negative pressure pump is provided in the middle of the wire stripping operating seat 46 The wire stripping suction tube 47 is sucked, and the wire stripping operation seat 46 is connected to the upper and lower wire stripping knife seats 49 respectively through the wire stripping bidirectional cylinder 48 toward the wire feeding rack corresponding to the workstation of the laser wire stripping mechanism. The upper and lower wire stripping knives 50 with opposite cutting edges are arranged on the two wire stripping knife seats 49. The cutting edges of the upper and lower wire stripping knives are connected relatively between the wire stripping suction tube and the wire connecting head of the wire feeding rack at the front end. The cutting edges of the upper and lower wire stripping knives are provided with notches corresponding to the wires. The depth of the notch is greater than the radius of the inner core wire of the wire and less than the radius of the conductor as a whole. The width of the notch is greater than the radius of the inner core wire of the wire and less than the diameter of the wire as a whole.
[0021] like Figure 4 As shown, the wire stripping detection mechanism 56 includes a wire stripping detection frame 57 and a wire stripping detection CCD visual detection head 58. The wire stripping detection frame 57 is supported on the workbench 1. Two wire stripping detection CCD visual detection heads 58 are arranged on the wire stripping detection frame 57. The two wire stripping detection heads correspond to the upper and lower ends of the outer wire heads of the wire connection head at the wire feeding transfer station on the laser wire stripping mechanism station.
[0022] like Figure 1 , 5 As shown in Figures 6 and 7, the crimping mechanism 59 includes a casing clamp 60, a crimping operation cylinder 61, a crimping feed cylinder 62, and a closing clamp 63. The center of the clamp jaws of the casing clamp 60 corresponds to the center of the jack feeding mechanism 54 and the wire connector 41. The two clamp legs of the casing clamp 60 are supported and connected to the crimping feed cylinder 62 through two crimping operation cylinders 61, respectively, and are in a state where the wire connector of the wire feeding rack corresponding to the crimping mechanism station is fed by the casing clamp jaws to the front end position of the wire connector 41 released by the wire connector; the casing clamp 60 is also provided with a closing clamp 63 on the side of the closed-loop transfer track seat, and the closing and expanding of the closing clamp and the casing clamp are controlled in an integrated manner. The jaw structure of the closing clamp is the same as that of the casing clamp, and the maximum aperture after closing of the jaw structure of the closing clamp is larger than the wire diameter.
[0023] like Figure 7 , 8As shown, the jack feeding mechanism 54 includes a vibration plate 65, a jack feeding track 66, a reversing linear guide 67, a reversing rotary cylinder 68, a reversing support head 69, a reversing groove 70, a jack direction detection CCD visual detection head 71, a jack feeding track 72, a feeding support chuck 73, a feeding clamping chuck 74, a feeding clamping cylinder 75, and a feeding feed cylinder 76. The vibration plate 65 sends the jack to one end of the jack feeding track 66. At least two front and rear jack sensing probes are set on the jack feeding track. The other end of the jack feeding track 66 is connected to the reversing support head 69. The reversing support head 69 is provided with a reversing groove 70. The reversing support head 69 is supported on the reversing linear guide rail 67 through the reversing rotary cylinder 68. The reversing linear guide rail is set on the workbench. One end of the reversing groove is horizontally connected to the other end of the guide groove of the jack feeding track. The jack feeding track 72 is horizontally parallel to the jack feeding track within the moving range of the reversing linear guide rail. The reversing groove moves with the reversing linear guide rail 67. One end portion corresponds to one end of the jack feeding track 72 and corresponds to the guide groove of the jack feeding track 72. The other end of the jack feeding track 72 is externally provided with a feeding support chuck 73 and a feeding clamping chuck 74. The horizontal height of the feeding support chuck 73 corresponds to the other end of the jack feeding track. A feeding clamping chuck 74 is arranged above the feeding support chuck 73. The feeding support chuck 73 is connected to the feeding cylinder 76 to feed toward the crimping mechanism. The feeding clamping chuck 74 is connected to the feeding cylinder 76 via the feeding clamping cylinder 75 to clamp or release the jack corresponding to the lifting of the feeding support chuck. A CCD visual detection head 71 for detecting the direction of the jack is arranged above the reversing slot 70.
[0024] like Fig. 9 As shown, the crimping detection mechanism 77 includes a crimping detection frame 78 and a crimping detection CCD visual detection head 79. The crimping detection frame 78 is supported on a workbench. The crimping detection CCD visual detection head 79 is connected to the crimping detection frame 78 and is arranged above the front end position of the wire outlet of the wire feeding rack corresponding to the crimping detection mechanism workstation.
[0025] like Fig.10As shown, the unloading mechanism 80 includes a cutting feed cylinder 81, a cutting bidirectional cylinder 82, a cutting knife 83, a unloading linear guide 84, a unloading pneumatic chuck 85, a defective product collection trough 86, and a finished product collection trough 87. The cutting knife 83 is located on the outside of the wire connection direction of the wire feeding rack 32 of the corresponding unloading mechanism 80, and the unloading linear guide 84 is arranged on the outside of the cutting knife 83 along the wire connection guide direction of the wire feeding rack of the corresponding unloading mechanism and on the workbench outside the cutting mechanism. The unloading linear guide 84 is movably installed with the unloading pneumatic chuck 85, and the unloading pneumatic chuck clamps the corresponding wire connection head to connect the wire. The cutting knife 83 is driven by the cutting two-way cylinder 82 to connect the unloading pneumatic chuck to the fixed-length wire and cut the two-side cutting knife. The cutting two-way cylinder 82 is connected to the cutting feed cylinder 81 and is in a feeding state toward the wire feeding rack 32 of the corresponding unloading mechanism 80. A defective product collection groove 86 and a finished product collection groove 87 are respectively arranged below the unloading pneumatic chuck 85 along the direction of the unloading linear guide.
[0026] like Fig.11 As shown, a rotary clamping cylinder 28 is arranged inside the transfer track 4 in front of the closed-loop transfer track seat corresponding to the crimping detection mechanism 77. The rotary clamping cylinder 28 is arranged on the workbench and is in a feeding state along the wire feeding direction of the wire connection head of the wire feeding rack corresponding to the crimping detection mechanism. The rotary clamping cylinder 28 is fed and connected to the rotary working frame 29. The rotary working cylinder 30 is arranged on the rotary working frame 29. The rotary working cylinder 30 is transmission-connected to the rotary clamping joint 31 connected to the rotary working frame toward the crimping detection mechanism. Fig.11 , 12 The wire feeding frame 32 is provided with a suspended feeding rotating seat 33 that can rotate in a circle. The feeding rotating seat 33 can rotate forward to pass through the wire connection head 35. The feeding rotating seat 33 is provided with one or more guide tensioning pulleys 34 for guiding the tensioning wire 41 along the wire unwinding direction. The feeding rotating seat 33 can rotate backward to pass through the output shaft 36 and connect to the unwinding seat 37 backward. The unwinding roller 39 is provided on the unwinding seat 37. The unwinding roller 39 passes through the wire roll 40 for releasing the wire 41. The rear end of the unwinding seat 37 is provided with a card interface 38 backward. The rotating card joint 31 is perpendicular to the front transfer rail. The front transfer track 4 is provided with locking through holes 24 on the side not facing the laser wire stripping mechanism, which correspond to the positions of the laser wire stripping mechanism, the wire stripping detection mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism. The front transfer track outside the locking through holes 24 is connected to a locking seat 25. The locking seat 25 is provided with a locking cylinder 26. The locking cylinder 26 is connected to the locking head 27 that telescopes through the locking through hole 25 toward the front transfer track 4. The locking head 27 extends into the front transfer track 4 and is clamped into the locking opening 14 on the side of the wire feeding rack 32 facing the locking through hole.
[0027] The cutting knife 83 in the drawings of this embodiment is only a schematic diagram of the structure. The wire 41 with a socket 88 on the head is clamped by the unloading pneumatic chuck 85 and pulled through the upper and lower blades of the cutting knife 83, thereby completing the cutting operation by closing the upper and lower blades of the cutting knife 83. All replacements and improvements using existing shearing and cutting knife structures are within the scope of protection of this application.
Claims
1. A jack wire crimping device, characterized in that: The present invention relates to a socket feeding mechanism, a wire feeding transfer station, a laser wire stripping mechanism, a crimping mechanism, a crimping detection mechanism and a discharging mechanism which are respectively arranged on a workbench. The socket feeding mechanism comprises a vibration plate, a socket feeding track and a socket feeding device. The vibration plate feeds the socket to one end of the socket feeding track. At least two front and rear socket sensing probes are arranged on the socket feeding track. A socket feeding device is arranged at the other end of the socket feeding track. The socket feeding device comprises a feeding support chuck and a feeding clamping chuck. The horizontal height of the feeding support chuck corresponds to the other end of the socket feeding track. A feeding clamping chuck is arranged above the feeding support chuck. The feeding and transferring station comprises a closed-loop transfer track seat and a wire feeding rack, and the closed-loop transfer track seat is arranged on a workbench, and more than four wire feeding racks are arranged on the closed-loop transfer track seat and are respectively facing the outer side of the closed-loop transfer track seat, corresponding to the laser stripping mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism. The outer side of the wire feeding rack is connected with a wire outlet, and the rear end of the wire feeding rack is connected to the wire roll through the unwinding roller, and the wire The wire reel unwinds and passes through the wire connector, and then extends the wire outward; the laser wire stripping mechanism includes a laser generator and a wire stripping frame, the laser generator is connected to the upper and lower laser heads respectively located above and below the position where the wire connector corresponds to the position where the laser wire stripping mechanism releases the wire, the upper and lower laser heads are respectively adjusted and moved perpendicularly to the wire release direction by the laser moving cylinder and supported on the upper and lower laser operating frames, the upper and lower laser operating frames and the wire stripping frame are supported on the workbench, the wire stripping frame supports the wire stripping operating seat along the wire release direction by the wire stripping feeding cylinder, a wire stripping suction pipe with external negative pressure suction is passed through the middle of the wire stripping operating seat, and the wire stripping operating seat faces the corresponding laser stripping position. The wire feeding rack of the mechanism station is connected to the upper and lower wire stripping knife seats respectively through the bidirectional cylinder, and the upper and lower wire stripping knife seats are provided with upper and lower wire stripping knives with opposite cutting edges, and the cutting edges of the upper and lower wire stripping knives are connected to each other between the wire stripping suction pipe and the wire connection head; the crimping mechanism comprises a crimping feeding cylinder and a casing pliers, the jaw center of the casing pliers corresponds to the center of the jack feeding track and the wire connection head, and the two pliers legs of the casing pliers are respectively supported and connected to the crimping feeding cylinder through two crimping operation cylinders, and are fed along with the crimping feeding cylinder toward the wire connection head of the wire feeding rack of the corresponding crimping mechanism station, and the casing pliers jaws are sleeved to the wire connection head to release the front end position of the wire;The unloading mechanism includes a cutting mechanism, a unloading linear guide rail and an unloading pneumatic chuck. The cutting mechanism is located outside the wire feeding rack wire connection head of the corresponding unloading mechanism in the direction of the wire connection head of the wire feeding rack. The unloading linear guide rail is arranged on the workbench outside the cutting mechanism along the guide direction of the wire connection head of the wire feeding rack of the corresponding unloading mechanism. The unloading linear guide rail is used to move and install the unloading pneumatic chuck. The unloading pneumatic chuck clamps the corresponding wire connection head to connect the wire. The cutting mechanism is driven by a bidirectional cylinder to cut the fixed-length wire connected by the unloading pneumatic chuck on both sides. A defective product collection tank and a finished product collection tank are respectively arranged below the unloading pneumatic chuck along the direction of the unloading linear guide rail. ; 2. The jack wire crimping device according to claim 1, characterized in that: The jack feeding mechanism also includes a jack direction detection mechanism, a jack reversing mechanism and a jack loading track. The jack reversing mechanism includes a reversing linear guide and a reversing support head. The reversing linear guide is arranged on a workbench and vertically movably supports the reversing rotating cylinder. The reversing rotating cylinder is connected to the reversing support head upward. A reversing groove is arranged on the upper end of the reversing support head. One end of the reversing groove is horizontally connected to the other end of the jack feeding track. The jack loading track is horizontally parallel to the jack feeding track within the moving range of the reversing linear guide. The other end of the reversing groove moves with the reversing linear guide and corresponds to one end of the jack loading track. A jack loading device is arranged on the other end of the jack loading track. A jack direction detection mechanism is arranged above the reversing groove, and the jack direction detection mechanism is a CCD visual detection head.
3. The jack wire crimping device according to claim 1, characterized in that: The cutting edges of the upper and lower wire strippers are each provided with a notch corresponding to the axial center position of the wire released from the wire connector, the depth of the notch is greater than the radius of the inner core wire of the wire and smaller than the radius of the entire conductor, and the width of the notch is greater than the radius of the inner core wire of the wire and smaller than the diameter of the entire wire.
4. The jack wire crimping device according to claim 1, characterized in that: A wire stripping detection mechanism is also provided between the laser wire stripping mechanism and the crimping mechanism. The wire stripping detection mechanism includes a wire stripping detection frame and a wire stripping detection probe. The wire stripping detection frame is supported on a workbench. Two wire stripping detection heads are arranged on the wire stripping detection frame. The two wire stripping detection heads correspond to the upper and lower ends of the outer wire heads of the wire connection heads at the wire feeding transfer station on the laser wire stripping mechanism station.
5. The jack wire crimping device according to claim 1, characterized in that: The CCD visual inspection station includes a crimping inspection frame and a CCD visual inspection head. The crimping inspection frame is supported on a workbench. The CCD visual inspection head is connected to the crimping inspection frame and is arranged above and / or below the front end position of the wire outlet of the wire feeder corresponding to the crimping inspection mechanism station.
6. A socket wire crimping device according to claim 1 or 5, characterized in that: A rotating clamping cylinder is arranged on the inner side of the closed-loop transfer track seat corresponding to the crimping detection mechanism. The rotating clamping cylinder is arranged on the workbench and is in a feeding state along the wire releasing direction of the wire connection head of the wire feeding rack of the corresponding crimping detection mechanism. The rotating clamping cylinder is connected to the rotating working rack for feeding. A rotating working cylinder is arranged on the rotating working rack. The rotating working cylinder is transmission-connected to the rotating clamping joint connected to the crimping detection mechanism on the rotating working rack. A suspended feeding rotating seat that can rotate in a circle is arranged in the wire feeding rack. The feeding rotating seat can rotate forward to connect the wire connection head, and can rotate backward to connect the output shaft to the unwinding seat backward. The unwinding roller is arranged on the unwinding seat, and a clamping interface is arranged backward on the rear end of the unwinding seat. The clamping joint is clamped into and out of the clamping interface along a direction perpendicular to the closed-loop transfer track seat.
7. The jack wire crimping device according to claim 1, characterized in that: The wire feeding rack is provided with a suspended feeding rotating seat that can rotate in a circle. The feeding rotating seat can rotate forward to connect with the wire outlet head, and can rotate backward to connect with the outlet shaft and connect with the unwinding seat backward. The unwinding roller is arranged on the unwinding seat, and one or more guide tensioning pulleys are arranged on the unwinding seat and / or the feeding rotating seat for guiding the tensioned wire along the wire unwinding direction.
8. The jack wire crimping device according to claim 1, characterized in that: The casing pliers are also provided with a closing pliers on one side facing the closed-loop transfer track seat. The closing pliers and the casing pliers are integrally controlled for contraction and expansion. The jaw structure of the closing pliers is the same as that of the casing pliers. The maximum aperture of the jaw structure of the closing pliers after closing is greater than the conductor diameter.
9. The jack wire crimping device according to claim 1, characterized in that: The closed-loop transfer track seat comprises a front transfer track, a rear transfer track and a side transfer guide rail, the front and rear transfer tracks are arranged in parallel, the front side of the front transfer track corresponds to the laser wire stripping mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism, and the front and rear transfer tracks are respectively connected on both sides through the transfer guide rails on both sides. A transfer linear guide rail is arranged in the front transfer track, and five driven synchronous reciprocating forward and backward shifting blocks are arranged on the transfer linear guide rail, and the rear four respectively correspond to the laser wire stripping mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism. The shift block assembly comprises a shift block seat and a shift block head, and the shift block seat is hinged to the shift block head on one side of the laser wire stripping mechanism toward the unloading mechanism, and a torsion spring is passed through the hinge shaft of the shift block head and the shift block seat, and the torsion spring respectively abuts the shift block head and the shift block seat, and a limiting step facing downward and toward the shift block seat opening is arranged below the shift block head toward one side of the shift block seat, and the torsion spring elastically abuts the shift block head to present a state where the upper step surface on the inner side of the limiting step is crimped with the upper end surface of the shift block seat, and the back of the shift block head is in a state of crimping. One side of the shift block seat corresponds to the wire feeding rack, and the shift block head is provided with an inwardly inclined slope above one side of the shift block seat; a side transfer seat is arranged on the side transfer guide rail, and a side transfer track is arranged on the upper end of the side transfer seat toward the inside, and the side transfer track corresponds to the front and rear transfer tracks in a state where the movable wire feeding rack is guided between the side transfer track and the front transfer track, and between the side transfer track and the rear transfer track; a rear transfer conveyor belt for supporting and conveying the wire feeding rack is arranged in the rear transfer track, and a pulling cylinder is arranged on the side of the corresponding unloading mechanism of the rear transfer track, and the pulling cylinder is telescoped outwardly to be connected with the pulling rod corresponding to the pulling wire feeding rack sent from the side transfer seat to the rear transfer track, and a rear transfer position probe is arranged in the rear transfer track on the side of the corresponding laser stripping mechanism and a pushing and lifting cylinder corresponding to the wire feeding rack is arranged externally, and the pushing and lifting cylinder is lifted up and down and connected with the pushing cylinder, and the pushing cylinder is telescoped outwardly to be connected with the pushing rod corresponding to the pushing wire feeding rack sent from the rear transfer track to the side transfer seat.
10. A socket wire crimping device according to claim 9, characterized in that: The front transfer track is provided with four locking through holes on the side not facing the laser wire stripping mechanism, respectively corresponding to the laser wire stripping mechanism, the crimping mechanism, the crimping detection mechanism and the unloading mechanism. The front transfer track outside the four locking through holes is externally connected to the four locking mechanisms. The locking mechanism includes a locking seat, a locking cylinder and a locking head. The locking seat is externally connected to the front transfer track, and a locking cylinder is provided on the locking seat. The locking cylinder is connected to the locking head that is telescopically passed through the locking through hole toward the closed-loop transfer track. The wire feeding rack is provided with a locking opening that can be inserted into the locking head on the side facing the locking through hole.
Citation Information
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