Small bar line packing machine head and working method
The compact rod material packaging machine head addresses structural complexity and inefficiencies with a single motor drive and electromagnetic clutch system, improving precision, reducing costs, and enhancing maintenance accessibility for faster and more reliable operations.
Patent Information
- Application Number
- CN202510715622.0
- Authority / Receiving Office
- CN · China
- Patent Type
- Applications(China)
- Current Assignee / Owner
- Filing Date
- 2025-05-30
- Publication Date
- 2025-07-15
AI Technical Summary
The existing bar wire baler equipment has problems such as complex mechanical structure and high cost, multi-motor drives have increased energy consumption and failure rates, low adjustment accuracy and poor adaptability, inconvenient maintenance and low space utilization, and insufficient automation.
The single-motor drive and electromagnetic clutch collaborative control scheme is adopted to simplify wire feeding, cutters, and kink mechanisms, combined with sliding bases and linear guides, realize dynamic adjustment and rapid response, reduce energy consumption and improve automation.
It has achieved reduced equipment costs, reduced energy consumption, reduced failure rate, improved transmission efficiency, convenient maintenance and improved automation. It has short packaging cycle and fast speed, adapted to the needs of materials of different wire diameters.
Smart Images

Figure CN120308409A_ABST
Abstract
Description
Technical Field
[0001] The invention belongs to the technical field of steel rolling production packaging and bundling, and in particular relates to a small bar wire bundling machine head and a working method. Background Art
[0002] The wire baler is a key device for cutting and tying wires such as metal wires and steel wires in the process of bar production. The existing technology mainly has the following technical defects:
[0003] (1) The mechanical structure is complex and costly
[0004] Similar equipment abroad mostly uses a purely mechanical transmission structure and requires a large number of precision-matched parts. This results in a bulky overall structure of the equipment, high requirements for component processing accuracy, and high assembly and maintenance costs.
[0005] (2) Multi-motor drive leads to increased energy consumption and failure rate
[0006] In the existing technology, wire feeding, cutting, twisting and other actions need to be configured with independent servo motor drives, resulting in high power consumption and complex control logic. Taking a typical foreign model as an example, its wire feeding, cutting and twisting mechanisms require more than three servo motors to work together, which not only increases the cost of the equipment, but also easily leads to problems such as wire breakage or loose bundling due to multi-motor synchronization errors.
[0007] (3) Low adjustment accuracy and poor adaptability
[0008] Traditional equipment uses a mechanical screw to adjust the tightness of wire feeding, which is difficult to achieve dynamic adjustment and cannot meet the packaging needs of materials with different wire diameters. When the wire diameter changes, it is necessary to stop the machine and manually adjust multiple adjustment bolts, resulting in reduced production efficiency.
[0009] (4) Inconvenient maintenance and low space utilization
[0010] Existing mechanical equipment uses an integral fixed base, and the transmission gear box, clutch and other components are arranged centrally, resulting in a closed internal space of the equipment, and a large number of covers need to be removed during maintenance.
[0011] (5) Insufficient automation
[0012] Traditional equipment relies on manual intervention to complete wire guiding and position calibration, which makes it difficult to achieve online monitoring and adaptive deviation correction. When the wire deflects, it is easy to cause kink angle deviation or cutter cutting position deviation. Summary of the invention
[0013] The purpose of the present invention is to overcome the deficiencies in the prior art and provide a small bar wire baling machine head and a working method.
[0014] This small bar wire channel packing head includes: a wire storage device for temporarily storing excess wire to be packed during wire collection, a wire feeding device, a wire guiding structure for guiding the wire to be packed, a transmission system, a rotary cutting mechanism, and a sliding base; the wire storage device, the wire feeding device, the wire guiding structure, the transmission system, and the rotary cutting mechanism are fixedly arranged on the sliding base;
[0015] The wire storage device includes: a V-shaped wheel, a wire pressing bearing, a hinge, a lower guide wheel, a wire storage cover plate, a star-shaped handle, a lower guide wheel fixing plate A, a wire storage device base, a wire storage fixing pin, and a lower guide wheel fixing plate B;
[0016] The wire feeding device includes a compression spring screw, a screw positioning plate, a fixing pin, a compression spring, a wire channel wheel core, a rear guide block, a long fixing pin, a limit plate, a neutral plate, a tensioning slider, a tensioning pin, a wire channel anti-collision block, a wire channel pin, a middle guide block, and a guide block;
[0017] The wire guiding structure includes a wire channel cylinder, an upper wire channel, a lower wire channel, a front in-place block, a fixing pin shaft, a cutter, and a cylinder pin shaft;
[0018] The transmission system includes a main control servo motor, a reducer, a main transmission gear, an electromagnetic clutch gear A, an electromagnetic clutch gear B, a main transmission shaft, a shaft-mounted flange A, a shaft-mounted flange B, an electromagnetic clutch A, an electromagnetic clutch B, an electromagnetic brake A, an electromagnetic brake B, a wire feeding disk wire channel wheel, a transmission bevel gear A, a transmission bevel gear B, a connecting rod shaft, a wire biting cylinder, and a cylinder tail;
[0019] The rotary cutting mechanism includes a kinking head, a cutter cover plate, and a cutter;
[0020] The sliding base includes: a base, a linear guide rail, a bottom plate, a maintenance plug pin, a linear bearing, a lifting ring, a plug pin, a spherical plain bearing, a cylinder push seat, a cylinder base, and a cylinder.
[0021] Preferably, inside the sliding base:
[0022] The bottoms of multiple brackets are fixedly connected to the base, the tops of the multiple brackets are fixedly connected to the linear guide rail and the maintenance plug pin, the maintenance plug pin is fixedly connected to the bottom plate, a linear bearing is also arranged between the multiple brackets and the bottom plate, lifting rings are fixedly arranged on the outer sides of the multiple brackets, the plug pin fixes the spherical plain bearing, both ends of the spherical plain bearing are fixed by shaft clips, the cylinder push seat is fixedly connected to the base through the plug pin, and the upper end of the cylinder push seat is fixedly connected to the bottom plate; a cylinder base is arranged on the base, and a cylinder is fixedly arranged on the cylinder base.
[0023] Preferably, in the rotary cutting mechanism:
[0024] The driving bevel gear B is coaxially connected to the kinking head. Center holes for the wire to pass through are provided on both sides of the kinking head. An extension plate is installed on the neutral plate, and a cylinder pin shaft is fixedly provided on the extension plate. The cylinder pin shaft is fixedly connected to the wire channel cylinder, and the wire channel cylinder is connected to the upper wire channel. A wire guiding groove is provided on the upper wire channel; a wire channel anti-collision block for blocking the wire of the material to be packed from hitting the kinking head is installed on the neutral plate. A wire channel pin is installed on the wire channel anti-collision block, and the wire channel pin is fixedly connected to the lower wire channel and the front in-place block; a fixed pin shaft is fixedly installed on the neutral plate, and the fixed pin shaft is movably connected to the upper wire channel, and the fixed pin shaft serves as the rotation shaft of the upper wire channel; the upper wire channel is fixedly connected to the front in-place block through the fixed pin shaft, the front in-place block is fixedly connected to the cutter cover plate, and a cutter is installed between the front in-place block and the cutter cover plate. A wire guiding groove is provided on the lower wire channel.
[0025] Preferably: The wire channel wheel core is fixedly sleeved inside the wire feeding disc wire channel wheel through screws.
[0026] Preferably: An electromagnetic brake fixing plate A and an electromagnetic brake fixing plate B are provided on the neutral plate. The electromagnetic brake fixing plate A is used for fixedly connecting the electromagnetic brake A, and the electromagnetic brake fixing plate B is used for fixedly connecting the electromagnetic brake B.
[0027] Preferably: Packing line adjusting bolts, packing line adjusting bolts, packing line adjusting bolts and packing line adjusting bolts are provided on the lower wire channel for adjusting the packing line shaping steel balls; compression springs are installed between the packing line shaping steel balls and the packing line adjusting bolts,...
[0028] Preferably:
[0029] The speed reducer is fixed to the speed reducer fixing plate through the shaft seal cover and the shaft seal cover;
[0030] An outer seal cover, an outer seal cover, an inner seal cover and an inner seal cover are fixedly provided on the fixing plate A
[0031] The rear guiding block is connected to a plurality of long fixing pins through screws; a rear guiding cover plate is also installed on the rear guiding block;
[0032] The guiding block is connected to a plurality of fixing pins through screws and then fixed to the neutral plate by the fixing pins; a guiding block cover plate is also installed on the guiding block;
[0033] A middle guiding cover plate is also fixedly installed on the middle guiding block through screws.
[0034] Preferably: A support plate is also fixedly provided on the fixing plate A, a sensor bracket is fixedly provided on the support plate, and a sensor is provided on the sensor bracket.
[0035] The working method of this small-sized bar wire channel packing machine head includes the following steps:
[0036] In the transmission system, the speed reducer changes the power of the main control servo motor to be perpendicular to the main control servo motor and transmits the power to the main transmission gear. The main transmission gear drives the electromagnetic clutch gears A and B to rotate, thereby respectively transmitting power to the wire feeding disc track wheel and the transmission bevel gear A; the wire feeding disc track wheel transmits power to the wire feeding device, and the transmission bevel gear A transmits power to the transmission bevel gear B, and the transmission bevel gear B transmits power to the kinking head in the rotary cutting mechanism;
[0037] When feeding wire, the wire feeding disc track wheel rotates clockwise, the electromagnetic brake A disengages, the electromagnetic clutch A engages, the electromagnetic brake B engages, the electromagnetic clutch B disengages, the track cylinder operates, opening the upper track and the lower track, and closing the track after the wire of the material to be packed enters the guide grooves of the upper track and the lower track. The wire biting cross connecting plate rotates to drive the wire biting cylinder to extend and retract. The wire biting cylinder restricts the wire feeding length and tightens the wire of the material to be packed; the wire feeding device and the wire guiding structure feed and guide the wire of the material to be packed: the starting end of the wire of the material to be packed passes through the central hole on one side of the kinking head, and the compression spring and the packing wire shaping steel balls cooperate to make the wire of the material to be packed enter the guide groove in the middle of the lower track, and transition along the guide groove in the middle of the lower track to the guide groove of the upper track. The wire of the material to be packed transitions again from the guide groove of the upper track to the guide groove of the front positioning block, and then from the guide groove of the upper track to the guide groove of the front positioning block again. The wire of the material to be packed then passes through the central hole on the other side of the kinking head along the guide groove of the front positioning block, forming a closed and crossed ring;
[0038] When kinking, bundling and cutting the wire of the material to be packed: the electromagnetic brake A engages, the electromagnetic clutch A disengages, the electromagnetic brake B disengages, the electromagnetic clutch B engages, the wire biting cross connecting plate rotates, and the wire biting cylinder operates; the transmission bevel gear A drives the transmission bevel gear B to rotate, and the kinking head rotates clockwise and combines with the wire biting cylinder to kink the wire of the material to be packed. At the same time of kinking, the cutter cuts the wire of the material to be packed with a set length when the kinking head rotates, so that the wire of the material to be packed is separated from the kinking head;
[0039] When taking in wire: the wire feeding disc track wheel rotates counterclockwise, the electromagnetic brake A disengages, the electromagnetic clutch A engages, the electromagnetic brake B engages, the electromagnetic clutch B disengages, and the wire biting cylinder is closed; the wire storage device temporarily stores the redundant wire of the material to be packed, straightens the wire of the material to be packed for the first time in the groove of the V-shaped wheel, and the wire pressing bearing prevents the wire of the material to be packed from slipping out of the groove and falling off. The wire of the material to be packed is straightened for the second time through the lower guide wheel in the groove of the wire pressing bearing;
[0040] When adjusting the tightness of the wire feeding device: twist the compression spring screw rod, and the deformation of the compression spring makes the tensioning slider slide in the sliding groove of the guiding block, adjusting the width of the sliding groove of the guiding block and thus adjusting the tightness of the wire of the material to be packed when passing through the sliding groove;
[0041] When performing maintenance on the small bar wire channel packing head, the cylinder pushes the packing head, and the sliding base enables the entire packing head to slide back and forth or slide at a set angle.
[0042] The beneficial effects of the present invention are:
[0043] The present invention uses a single motor drive to replace the multi-motor architecture in the prior art, and adopts a cooperative control scheme of a main control servo motor and an electromagnetic clutch; it simplifies the requirements for three independent motors of the traditional wire feeding, cutting knife, and kinking mechanisms into a single motor power source, simplifies the mechanical structure, reduces the equipment production cost, and significantly reduces energy consumption.
[0044] Through the rapid switching between electromagnetic clutches, the present invention can respond quickly and avoid the wire breakage problem caused by the errors between multiple motors; in the present invention, the electromagnetic clutch and the electromagnetic brake share the shaft system, which can reduce the usage amount of the transmission shaft, significantly reduce the total number of parts compared with similar models, reduce the failure rate while reducing energy consumption, and can also significantly improve the transmission efficiency.
[0045] The sliding base of the present invention realizes the overall displacement adjustment through linear guide rails, which is convenient for maintenance, and also significantly reduces the size of the equipment in the axial direction, with high space utilization rate. The present invention also sets up quick-disassembly structures such as maintenance pins and cylinder push seats, which significantly shortens the maintenance time.
[0046] The present invention can complete all functions such as wire channel closing and opening, wire feeding, wire biting, wire collecting, wire shearing, and kinking with a main control servo motor, a reducer, a wire biting cylinder, and a wire channel cylinder, effectively improving the degree of automation; the present invention can complete the entire packing cycle within 3 to 5 seconds.
[0047] The present invention makes the compression spring deform by twisting the compression spring screw, and then makes the tensioning slider slide in the chute of the guide block, adjusts the width of the chute of the guide block, and further adjusts the tightness when the material wire to be packed passes through the chute, which can realize dynamic adjustment and meet the packing requirements of materials with different wire diameters.
[0048] In summary, the small bar wire channel packing head designed by the present invention has a short packing cycle, fast packing speed, low manufacturing cost, and stable and reliable operation. Description of the Drawings
[0049] Figure 1 It is a front three-dimensional view of the small bar wire channel packing head;
[0050] Figure 2 It is a reverse three-dimensional view of the small bar wire channel packing head;
[0051] Figure 3 It is a schematic diagram A of the front part components of the small bar wire channel packing head;
[0052] Figure 4 Schematic diagram B of the front part components of the compact bar wire channel packing head;
[0053] Figure 5 Schematic diagram C of the front part components of the compact bar wire channel packing head;
[0054] Figure 6 Schematic diagram D of the front part components of the compact bar wire channel packing head;
[0055] Figure 7 Front schematic diagram of the main components of the compact bar wire channel packing head;
[0056] Figure 8 Reverse schematic diagram of the main components of the compact bar wire channel packing head;
[0057] Figure 9 Schematic diagram A of some components of the drive system;
[0058] Figure 10 Schematic diagram B of some components of the drive system;
[0059] Figure 11 Schematic diagram C of some components of the drive system;
[0060] Figure 12 Schematic diagram D of some components of the drive system;
[0061] Figure 13 Schematic diagram of some components of the drive system and the rotary cutting mechanism;
[0062] Figure 14 3D view A of the sliding base;
[0063] Figure 15 3D view of the cylinder base;
[0064] Figure 16 Schematic diagram E of some components of the drive system;
[0065] Figure 17 Schematic diagram of some components of the wire guiding structure;
[0066] Figure 18 Schematic diagram of the wire biting cylinder and the kinking head;
[0067] Figure 19 Schematic diagram A of the wire feeding device;
[0068] Figure 20 Schematic diagram B of the wire feeding device;
[0069] Figure 21 Schematic diagram of the reducer fixing device;
[0070] Figure 22 It is a schematic diagram of a transmission bevel gear;
[0071] Figure 23 It is a three-dimensional view B of a sliding base;
[0072] Figure 24 It is a front structural schematic diagram of a wire storage device;
[0073] Figure 25 It is a reverse structural schematic diagram of a wire storage device;
[0074] Figure 26 It is a schematic diagram C of a wire feeding device.
[0075] Description of the attached drawing reference numerals: wire feeding spool wire guide wheel 001, kink head 002, electromagnetic brake A 003, electromagnetic clutch A 004, electromagnetic brake B 005, electromagnetic clutch B 006, wire biting horizontal connecting plate 007, rotary cutting mechanism 100, connecting rod shaft 101, fixed plate A 102, inner cover 103, outer cover 104, vertical connecting plate 105, wire biting cylinder 106, sensor bracket 107, sensor 108, support plate 109, transmission bevel gear B 110, outer cover 111, inner cover 112, cylinder tail 113, fixed plate B 114, transmission system 200, main control servo motor 201, speed reducer 202, shaft seal cover A 203, shaft seal cover B 204, electromagnetic clutch gear A 205, shaft-mounted flange A 206, main transmission shaft 207, electromagnetic brake fixed plate A 208, shaft-mounted flange B 209, electromagnetic brake fixed plate B 211, transmission bevel gear A 210, electromagnetic clutch gear B 212, main transmission gear 214, speed reducer fixed plate 215, extension plate 301, fixed pin shaft 302, cutter 303, cylinder pin shaft 304, wire guide cylinder 305, upper wire guide 306, lower wire guide 307, packing wire adjusting bolt 308, packing wire adjusting bolt 309, cutter cover plate 310, front in-place block 311, packing wire adjusting bolt 312, packing wire adjusting bolt 313, wire feeding device 400, compression spring screw 401, screw positioning plate 402, fixed pin 403, compression spring 404, guide block cover plate 405, wire guide wheel core 407, rear guide cover plate 408, rear guide block 409, long fixed pin 410, limit plate 411, neutral plate 412, tensioning slider 413, tensioning pin 414, middle guide cover plate 415, wire guide anti-collision block 416, wire guide pin 417, middle guide block 418, guide block 419, sliding base 500, linear guide 501, base plate 502, maintenance plug pin 503, linear bearing 504, lifting ring 505, base 506, plug pin 507, spherical plain bearing 508, cylinder push seat 509, cylinder base 510, cylinder 511, wire storage device 600, V-shaped wheel 601, wire pressing bearing 602, hinge 603, lower guide wheel 604, wire storage cover plate 605, star handle 606, lower guide wheel fixed plate A 607, wire storage device base 608, material line to be packed 609, wire storage fixed pin 610, lower guide wheel fixed plate B 611. Detailed implementation mode
[0076] The present invention will be further described below in conjunction with embodiments. The description of the following embodiments is only for helping to understand the present invention. It should be noted that for those of ordinary skill in the art, without departing from the principle of the present invention, several modifications can still be made to the present invention, and these improvements and modifications also fall within the protection scope of the claims of the present invention.
[0077] Embodiment 1
[0078] AsFigures 1 to 26 As shown in the figure, a small bar wire channel packing head includes: a wire storage device 600 for temporarily storing excess wire to be packed during wire collection, a wire feeding device 400, a wire guiding structure 300 for guiding the wire to be packed, a transmission system 200, a rotary cutting mechanism 100, and a sliding base 500; the wire storage device 600, the wire feeding device 400, the wire guiding structure 300, the transmission system 200, and the rotary cutting mechanism 100 are fixedly arranged on the sliding base 500;
[0079] The wire storage device 600 includes: a V-shaped wheel 601, a wire pressing bearing 602, a hinge 603, a lower guide wheel 604, a wire storage cover plate 605, a star handle 606, a lower guide wheel fixing plate A607, a wire storage device base 608, a wire storage fixing pin 610, and a lower guide wheel fixing plate B611;
[0080] The wire feeding device 400 includes a compression spring screw 401, a screw positioning plate 402, a fixing pin 403, a compression spring 404, a wire channel wheel core 407, a rear guide block 409, a long fixing pin 410, a limiting plate 411, a neutral plate 412, a tensioning slider 413, a tensioning pin 414, a wire channel anti-collision block 416, a wire channel pin 417, a middle guide block 418, and a guide block 419;
[0081] The wire guiding structure 300 includes a wire channel cylinder 305, an upper wire channel 306, a lower wire channel 307, a front in-place block 311, a fixing pin shaft 302, a cutting knife 303, and a cylinder pin shaft 304;
[0082] The transmission system 200 includes a main control servo motor 201, a speed reducer 202, a main transmission gear 214, an electromagnetic clutch gear A205, an electromagnetic clutch gear B212, a main transmission shaft 207, a shaft-mounted flange A206, a shaft-mounted flange B209, an electromagnetic clutch A004, an electromagnetic clutch B006, an electromagnetic brake A003, an electromagnetic brake B005, a wire feeding disc wire channel wheel 001, a transmission bevel gear A210, a transmission bevel gear B110, a connecting rod shaft 101, a wire biting cylinder 106, and a cylinder tail 113;
[0083] The rotary cutting mechanism 100 includes a kinking head 002, a cutting knife cover plate 310, and a cutting knife 303;
[0084] The sliding base 500 includes: a base 506, a linear guide rail 501, a bottom plate 502, a maintenance plug pin 503, a linear bearing 504, a lifting ring 505, a plug pin 507, a spherical plain bearing 508, a cylinder push seat 509, a cylinder base 510, and a cylinder 511;
[0085] Inside the sliding base 500:
[0086] The bottoms of multiple supports are fixedly connected to the base 506, the tops of the multiple supports are fixedly connected to the linear guide 501 and the maintenance plug pin 503, the maintenance plug pin 503 is fixedly connected to the bottom plate 502, linear bearings 504 are further provided between the multiple supports and the bottom plate 502, lifting rings 505 are fixedly provided on the outer sides of the multiple supports, the plug pin 507 fixes the spherical plain bearing 508, and both ends of the spherical plain bearing 508 are fixed by shaft collars. The cylinder push seat 509 is fixedly connected to the base 506 through the plug pin 507, and the upper end of the cylinder push seat 509 is fixedly connected to the bottom plate 502; a cylinder base 510 is provided on the base 506, and a cylinder 511 is fixedly provided on the cylinder base 510;
[0087] In the rotary cutting mechanism 100:
[0088] The transmission bevel gear B110 is coaxially connected to the kink head 002. Central holes for the wire to pass through are provided on both sides of the kink head 002. An extension plate 301 is installed on the neutral plate 412. A cylinder pin shaft 304 is fixedly provided on the extension plate 301. The cylinder pin shaft 304 is fixedly connected to the wire channel cylinder 305. The wire channel cylinder 305 is connected to the upper wire channel 306. A wire guide groove is provided on the upper wire channel 306; a wire channel anti-collision block 416 for blocking the wire 609 of the material to be packed from hitting the kink head 002 is installed on the neutral plate 412. A wire channel pin 417 is installed on the wire channel anti-collision block 416. The wire channel pin 417 is fixedly connected to the lower wire channel 307 and the front in-place block 311; a fixed pin shaft 302 is fixedly installed on the neutral plate 412. The fixed pin shaft 302 is movably connected to the upper wire channel 306. The fixed pin shaft 302 serves as the rotation axis of the upper wire channel 306; the upper wire channel 306 is fixedly connected to the front in-place block 311 through the fixed pin shaft 302. The front in-place block 311 is fixedly connected to the cutter cover plate 310. A cutter 303 is installed between the front in-place block 311 and the cutter cover plate 310. A wire guide groove is provided on the lower wire channel 307; wire packing adjusting bolts 308, 309, 312, and 313 for adjusting the packing wire shaping steel balls are provided on the lower wire channel 307; compression springs 404 are installed between the packing wire shaping steel balls and the wire packing adjusting bolts 308, 309, 312, 313;
[0089] Inside the wire storage device 600:
[0090] The base 608 of the wire storage device is fixed to the neutral plate 412 by the wire storage fixing pin 610. The base 608 of the wire storage device is hinged to the wire storage cover plate 605 through the hinge 603. The wire storage cover plate 605 can rotate around the hinge 603. A star handle 606 is also fixed on the wire storage cover plate 605. The star handle 606 is used to adjust the gap between the base 608 of the wire storage device and the wire storage cover plate 605. The gap between the base 608 of the wire storage device and the wire storage cover plate 605 serves as the moving space for the material line 609 to be packed. A lower guide wheel fixing plate A607 is fixed on the base 608 of the wire storage device. The lower guide wheel fixing plate A607 is coaxially fixed with a lower guide wheel 604. The lower guide wheel 604 is located on one side of the wire storage cover plate 605, and the lower guide wheel fixing plate A607 is located on one side of the base 608 of the wire storage device. A lower guide wheel fixing plate B611 is also fixed on the base 608 of the wire storage device. A V-shaped wheel 601 and a wire pressing bearing 602 are fixed on the lower guide wheel fixing plate B611 by bolts. Holes corresponding to the positions of the V-shaped wheel 601 and the wire pressing bearing 602 are opened on the wire storage cover plate 605. The V-shaped wheel 601 and the wire pressing bearing 602 pass through the lower guide wheel fixing plate B611 and the base 608 of the wire storage device and then extend into the corresponding holes opened on the wire storage cover plate 605. A wire pressing bearing 602 is installed inside the V-shaped wheel 601;
[0091] Inside the wire feeding device 400:
[0092] The rear guide block 409 is connected to a plurality of long fixing pins 410 by screws. A rear guide cover plate 408 is also installed on the rear guide block 409. The neutral plate 412 is also fixedly connected to the middle guide block 418 through a plurality of fixing pins 403. A middle guide cover plate 415 is also fixedly installed on the middle guide block 418 by screws. The guide block 419 is connected to a plurality of fixing pins 403 by screws and then fixed to the neutral plate 412 by the fixing pins 403. A chute is provided inside the guide block 419. A limiting plate 411 for adjusting the distance in cooperation with the wire channel anti-collision block 416 is also provided. The limiting plate 411 is fixedly arranged behind the neutral plate 412. The wire channel anti-collision block 416 and the limiting plate 411 are symmetrically arranged with respect to the neutral plate 412. A compression spring 404 is also provided. The compression spring 404 is coaxially connected to a compression spring screw 401 and a tensioning slider 413. The tensioning slider 413 is installed in the chute inside the guide block 419. The compression spring screw 401 is fixed to the screw positioning plate 402. The screw positioning plate 402 is threadedly connected to the compression spring screw 401. A tensioning pin 414 is installed at the bearing center of the wire channel wheel core 407 for fixing the bearing. The tensioning pin 414 is fixed to the tensioning slider 413 by an axle clip. A guide block cover plate 405 is also installed on the guide block 419;
[0093] In the transmission system 200:
[0094] The reduction gear fixing plate 215 and the neutral plate 412 are fixedly connected to the bottom plate 502. The fixing plate A102 is also fixedly connected to the bottom plate 502 and the reduction gear fixing plate 215. The shaft-mounted flange A206 and the shaft-mounted flange B209 are installed on the neutral plate 412. The electromagnetic brake fixing plate A208 and the electromagnetic brake fixing plate B211 are provided on the neutral plate 412. The electromagnetic brake fixing plate A208 is used for fixedly connecting the electromagnetic brake A003, and the electromagnetic brake fixing plate B211 is used for fixedly connecting the electromagnetic brake B005.
[0095] The reduction gear 202 is fixed to the reduction gear fixing plate 215 through the shaft seal cover A203 and the shaft seal cover B204. The reduction gear 202 is fixedly connected to the main control servo motor 201, and the reduction gear 202 is also electrically connected to the main control servo motor 201. The reduction gear 202 is coaxially connected to the main transmission gear 214, and the main transmission gear 214 meshes with the electromagnetic clutch gear A205 and the electromagnetic clutch gear B212. The main transmission shaft 207 of the electromagnetic clutch gear A205 is coaxially connected to the wire spool core 407. The wire spool core 407 is sleeved with the wire feeding spool wireway wheel 001 (the wire spool core 407 is fixedly sleeved inside the wire feeding spool wireway wheel 001 through screws). The electromagnetic clutch gear B212 is shaft-connected to the driving bevel gear A210, and the driving bevel gear A210 meshes with the driving bevel gear B110. The electromagnetic clutch gear A205 is coaxially fixedly connected to the electromagnetic clutch A004, and the electromagnetic clutch gear B212 is coaxially fixedly connected to the electromagnetic clutch B006. When the main transmission gear 214 rotates forward, it rotates in the clockwise direction. When the main transmission gear 214 rotates reversely, it rotates in the counterclockwise direction.
[0096] On the main transmission shaft 207 for connecting the electromagnetic clutch gear A205 and the electromagnetic clutch A004, there is also an electromagnetic brake A003 between the electromagnetic clutch A004 and the shaft-mounted flange A206. On the main transmission shaft 207 for connecting the electromagnetic clutch gear B212 and the electromagnetic clutch B006, there is also an electromagnetic brake B005 between the electromagnetic clutch B006 and the shaft-mounted flange B209.
[0097] The connecting rod shaft 101 and the fixing plate B114 are fixedly provided on the fixing plate A102. The cylinder tail 113 is fixedly provided on the fixing plate B114. The wire biting cylinder 106 is installed on the cylinder tail 113 and can rotate around the cylinder tail 113. The wire biting cylinder 106 is used to open or close the upper wireway 306 and the lower wireway 307. The outer cover 104, the outer cover 111, the inner cover 103, and the inner cover 112 are fixed on the fixing plate A102. The support plate 109 is also fixedly provided on the fixing plate A102. The sensor bracket 107 is fixedly provided on the support plate 109, and the sensor 108 is provided on the sensor bracket 107.
[0098] A vertical connecting plate 105 is sleeved on the connecting rod shaft 101, and the vertical connecting plate 105 can rotate around the connecting rod shaft 101. The vertical connecting plate 105 is fixedly connected to the wire biting horizontal connecting plate 007, and the wire biting horizontal connecting plate 007 is rotationally connected to the wire biting cylinder 106. The wire biting horizontal connecting plate 007 is used to limit the wire feeding length.
[0099] Embodiment 2
[0100] Based on Embodiment 1, the working method of the small bar wire channel packing head includes the following steps:
[0101] In the transmission system 200, the speed reducer 202 changes the power of the main control servo motor 201 to be perpendicular to the main control servo motor 201 and transmits this power to the main transmission gear 214. The main transmission gear 214 drives the electromagnetic clutch gear A 205 and the electromagnetic clutch gear B 212 to rotate, thereby respectively transmitting to the wire feeding disc wire channel wheel 001 and the transmission bevel gear A 210; the wire feeding disc wire channel wheel 001 transmits to the wire feeding device 400, the transmission bevel gear A 210 transmits to the transmission bevel gear B 110, and the transmission bevel gear B 110 transmits to the kinking head 002 in the rotary cutting mechanism 100;
[0102] When feeding wire, the wire feeding disc wire channel wheel 001 rotates clockwise, the electromagnetic brake A 003 disengages, the electromagnetic clutch A 004 engages, the electromagnetic brake B 005 engages, the electromagnetic clutch B 006 disengages, the wire channel cylinder 305 acts, opening the upper wire channel 306 and the lower wire channel 307. After the material wire to be packed enters the guide grooves of the upper wire channel 306 and the lower wire channel 307, the wire channels are closed. The wire biting horizontal connecting plate 007 rotates to drive the wire biting cylinder 106 to expand and contract. The wire biting cylinder 106 restricts the wire feeding length and tightens the material wire to be packed; the wire feeding device 400 and the wire guiding structure 300 feed and guide the material wire to be packed: the starting end of the material wire to be packed passes through the central hole on one side of the kinking head 002. The compression spring 404 and the packing wire shaping steel balls cooperate to make the material wire to be packed enter the guide groove in the middle of the lower wire channel 307 and transition along the guide groove in the middle of the lower wire channel 307 to the guide groove of the upper wire channel 306. The material wire to be packed then transitions from the guide groove of the upper wire channel 306 to the guide groove of the front in-place block 311 again. The material wire to be packed then transitions from the guide groove of the upper wire channel 306 to the guide groove of the front in-place block 311 again, and then the material wire to be packed passes through the central hole on the other side of the kinking head 002 along the guide groove of the front in-place block 311, forming a closed and crossed ring;
[0103] When kinking, bundling and cutting the material line to be packed: electromagnetic brake A003 engages, electromagnetic clutch A004 disengages, electromagnetic brake B005 disengages, electromagnetic clutch B006 engages, the wire-biting cross connecting plate 007 rotates, and the wire-biting cylinder 106 operates; the driving bevel gear A210 drives the driving bevel gear B110 to rotate, and the kinking head 002 rotates clockwise to cooperate with the wire-biting cylinder 106 to kink the material line to be packed. At the same time of kinking, the cutter 303 cuts the material line to be packed with a set length when the kinking head 002 rotates, so that the material line to be packed is separated from the kinking head 002;
[0104] When taking in wire: the wire guiding wheel 001 of the wire feeding disk rotates in the counterclockwise direction, electromagnetic brake A003 disengages, electromagnetic clutch A004 engages, electromagnetic brake B005 engages, electromagnetic clutch B006 disengages, and the wire-biting cylinder 106 is closed; the wire storage device 600 temporarily stores the redundant material line to be packed, and straightens the material line to be packed 609 for the first time in the groove of the V-shaped wheel 601. The wire pressing bearing 602 prevents the material line to be packed 609 from slipping out of the groove and falling off. The material line to be packed 609 is straightened for the second time in the groove of the wire pressing bearing through the lower guide wheel 604;
[0105] When adjusting the tightness of the wire feeding device 400: twist the compression spring screw 401, and the deformation of the compression spring 404 causes the tensioning slider 413 to slide in the chute of the guide block 419, so as to adjust the width of the chute of the guide block 419 and further adjust the tightness of the material line to be packed when passing through the chute;
[0106] When overhauling and maintaining the small bar wire channel packing head, the cylinder 511 pushes the packing head, and the sliding base 500 makes the whole packing head slide back and forth, or makes the whole packing head slide at a set angle.
Claims
1. A small bar wire channel packing head, characterized in that, Including: A wire storage device (600) for temporarily storing excess material wires to be packed during wire winding, a wire feeding device (400), a wire guiding structure (300) for guiding the material wires to be packed, a transmission system (200), a rotary cutting mechanism (100) and a sliding base (500); The wire storage device (600), the wire feeding device (400), the wire guiding structure (300), the transmission system (200) and the rotary cutting mechanism (100) are fixedly arranged on the sliding base (500); The wire storage device (600) includes: a V-shaped wheel (601), a wire pressing bearing (602), a hinge (603), a lower guide wheel (604), a wire storage cover plate (605), a star-shaped handle (606), a lower guide wheel fixing plate A (607), a wire storage device base (608), a wire storage fixing pin (610) and a lower guide wheel fixing plate B (611); The wire feeding device (400) includes a compression spring screw (401), a screw positioning plate (402), a fixing pin (403), a compression spring (404), a wire channel wheel core (407), a rear guide block (409), a long fixing pin (410), a limit plate (411), a neutral plate (412), a tensioning slider (413), a tensioning pin (414), a wire channel anti-collision block (416), a wire channel pin (417), a middle guide block (418) and a guide block (419); The wire guiding structure (300) includes a wire channel cylinder (305), an upper wire channel (306), a lower wire channel (307), a front in-place block (311), a fixing pin shaft (302), a cutter (303) and a cylinder pin shaft (304); The transmission system (200) includes a main control servo motor (201), a speed reducer (202), a main transmission gear (214), an electromagnetic clutch gear A (205), an electromagnetic clutch gear B (212), a main transmission shaft (207), a shaft-mounted flange A (206), a shaft-mounted flange B (209), an electromagnetic clutch A (004), an electromagnetic clutch B (006), an electromagnetic brake A (003), an electromagnetic brake B (005), a wire feeding disk wire channel wheel (001), a transmission bevel gear A (210), a transmission bevel gear B (110), a connecting rod shaft (101), a wire biting cylinder (106) and a cylinder tail (113); The rotary cutting mechanism (100) includes a kinking head (002), a cutter cover plate (310) and a cutter (303); The sliding base (500) includes: a base (506), a linear guide rail (501), a bottom plate (502), a maintenance plug pin (503), a linear bearing (504), a lifting ring (505), a plug pin (507), a spherical plain bearing (508), a cylinder push seat (509), a cylinder base (510) and a cylinder (511).
2. The small bar wire channel packing head according to claim 1, characterized in that: Inside the sliding base (500): The bottoms of multiple brackets are fixedly connected to the base (506), the tops of the multiple brackets are fixedly connected to the linear guide rail (501) and the maintenance plug pin (503), the maintenance plug pin (503) is fixedly connected to the bottom plate (502), linear bearings (504) are also arranged between the multiple brackets and the bottom plate (502), lifting rings (505) are fixedly arranged on the outer sides of the multiple brackets, the plug pin (507) fixedly connects the spherical plain bearing (508), and both ends of the spherical plain bearing (508) are fixed by shaft collars. The cylinder push seat (509) is fixedly connected to the base (506) through the plug pin (507), and the upper end of the cylinder push seat (509) is fixedly connected to the bottom plate (502); a cylinder base (510) is arranged on the base (506), and a cylinder (511) is fixedly arranged on the cylinder base (510).
3. The small bar wire channel packing head according to claim 1, characterized in that In the rotary cutting mechanism (100): The driving bevel gear B (110) is coaxially connected to the kink head (002). Central holes for the wire to pass through are arranged on both sides of the kink head (002). An extension plate (301) is installed on the neutral plate (412), a cylinder pin shaft (304) is fixedly arranged on the extension plate (301), the cylinder pin shaft (304) is fixedly connected to the wire channel cylinder (305), the wire channel cylinder (305) is connected to the upper wire channel (306), and a wire guiding groove is arranged on the upper wire channel (306); a wire channel anti-collision block (416) for blocking the wire (609) to be packed from hitting the kink head (002) is installed on the neutral plate (412), a wire channel pin (417) is installed on the wire channel anti-collision block (416), and the wire channel pin (417) is fixedly connected to the lower wire channel (307) and the front in-place block (311); a fixed pin shaft (302) is fixedly installed on the neutral plate (412), the fixed pin shaft (302) is movably connected to the upper wire channel (306), and the fixed pin shaft (302) serves as the rotation axis of the upper wire channel (306); the upper wire channel (306) is fixedly connected to the front in-place block (311) through the fixed pin shaft (302), the front in-place block (311) is fixedly connected to the cutter cover plate (310), a cutter (303) is installed between the front in-place block (311) and the cutter cover plate (310), and a wire guiding groove is arranged on the lower wire channel (307).
4. The small bar wire channel packing head according to claim 2, characterized in that: A wire channel wheel core (407) is fixedly sleeved inside the wire feeding disc wire channel wheel (001) through screws.
5. The small bar wire channel packing head according to claim 1, characterized in that: An electromagnetic brake fixing plate A (208) and an electromagnetic brake fixing plate B (211) are arranged on the neutral plate (412). The electromagnetic brake fixing plate A (208) is used for fixedly connecting the electromagnetic brake A (003), and the electromagnetic brake fixing plate B (211) is used for fixedly connecting the electromagnetic brake B (005).
6. The small bar wire channel packing head according to claim 1, characterized in that: Packing wire adjusting bolts (308), (309), (312), and (313) for adjusting the packing wire shaping steel balls are arranged on the lower wire channel (307); compression springs (404) are installed between the packing wire shaping steel balls and the packing wire adjusting bolts (308), (309), (312), and (313).
7. The small bar wire channel packing machine head according to any one of claims 1 to 6, characterized in that: The speed reducer (202) is fixed to the speed reducer fixing plate (215) through the shaft seal cover A (203) and the shaft seal cover B (204); The outer seal cover (104), the outer seal cover (111), the inner seal cover (103) and the inner seal cover (112) are fixed on the fixing plate A (102); The rear guide block (409) is connected to a plurality of long fixing pins (410) by screws; a rear guide cover plate (408) is also installed on the rear guide block (409); The guide block (419) is connected to a plurality of fixing pins (403) by screws, and then fixed to the neutral plate (412) by the fixing pins (403); a guide block cover plate (405) is also installed on the guide block (419); The middle guide block (418) is also fixedly installed with a middle guide cover plate (415) by screws.
8. The small bar wire channel packing head according to claim 3, characterized in that: A support plate (109) is also fixedly provided on the fixing plate A (102), a sensor bracket (107) is fixedly provided on the support plate (109), and a sensor (108) is provided on the sensor bracket (107).
9. A working method of the small bar wire channel packing head according to any one of claims 1 to 6 and claim 8, characterized in that, It includes the following steps: In the transmission system (200), the speed reducer (202) changes the power of the main control servo motor (201) into a direction perpendicular to the main control servo motor (201) and transmits the power to the main transmission gear (214). The main transmission gear (214) drives the electromagnetic clutch gear A (205) and the electromagnetic clutch gear B (212) to rotate, and then transmits the power to the wire feeding disc track wheel (001) and the transmission bevel gear A (210) respectively; the wire feeding disc track wheel (001) transmits the power to the wire feeding device (400), the transmission bevel gear A (210) transmits the power to the transmission bevel gear B (110), and the transmission bevel gear B (110) transmits the power to the kinking head (002) in the rotary cutting mechanism (100); When feeding the wire, the wire path wheel (001) of the wire feeding reel rotates clockwise, the electromagnetic brake A (003) disengages, the electromagnetic clutch A (004) engages, the electromagnetic brake B (005) engages, the electromagnetic clutch B (006) disengages, the wire path cylinder (305) actuates to open the upper wire path (306) and the lower wire path (307), and after the wire of the material to be packed enters the guide grooves of the upper wire path (306) and the lower wire path (307), the wire path is closed. The wire biting cross connecting plate (007) rotates to drive the wire biting cylinder (106) to extend and retract, and the wire biting cylinder (106) restricts the wire feeding length and tightens the wire of the material to be packed. The wire feeding device (400) and the wire guiding structure (300) feed and guide the wire of the material to be packed: the starting end of the wire of the material to be packed passes through the central hole on one side of the knotting head (002), and the compression spring (404) cooperates with the packing wire shaping steel balls to make the wire of the material to be packed enter the guide groove in the middle of the lower wire path (307), and transition along the guide groove in the middle of the lower wire path (307) to the guide groove of the upper wire path (306). The wire of the material to be packed then transitions again from the guide groove of the upper wire path (306) to the guide groove of the front in-place block (311), and then from the guide groove of the upper wire path (306) to the guide groove of the front in-place block (311) again. The wire of the material to be packed then passes through the central hole on the other side of the knotting head (002) along the guide groove of the front in-place block (311) to form a closed and crossed ring. When knotting, bundling and cutting the wire of the material to be packed: the electromagnetic brake A (003) engages, the electromagnetic clutch A (004) disengages, the electromagnetic brake B (005) disengages, the electromagnetic clutch B (006) engages, the wire biting cross connecting plate (007) rotates, and the wire biting cylinder (106) actuates; the driving bevel gear A (210) drives the driving bevel gear B (110) to rotate, and the knotting head (002) rotates clockwise and combines with the wire biting cylinder (106) to knot the wire of the material to be packed. While knotting, the cutter (303) cuts the wire of the material to be packed with a set length when the knotting head (002) rotates, so that the wire of the material to be packed is separated from the knotting head (002). When taking in the wire: the wire path wheel (001) of the wire feeding reel rotates counterclockwise, the electromagnetic brake A (003) disengages, the electromagnetic clutch A (004) engages, the electromagnetic brake B (005) engages, the electromagnetic clutch B (006) disengages, and the wire biting cylinder (106) is closed; the wire storage device (600) temporarily stores the redundant wire of the material to be packed, straightens the wire of the material to be packed (609) for the first time in the groove of the V-shaped wheel (601), and the wire pressing bearing (602) prevents the wire of the material to be packed (609) from slipping out and falling off from the groove. The wire of the material to be packed (609) is straightened for the second time through the lower guide wheel (604) in the groove of the wire pressing bearing. When adjusting the tightness of the wire feeding device (400): twist the compression spring screw (401), and the deformation of the compression spring (404) makes the tensioning slider (413) slide in the chute of the guiding block (419), and adjust the width of the chute of the guiding block (419) to further adjust the tightness of the wire of the material to be packed when passing through this chute. When overhauling and maintaining the small bar wire channel packing head, the cylinder (511) pushes the packing head, and the sliding base (500) makes the whole packing head slide back and forth or slide at a set angle.