Rubber-covered wire lamp processing equipment
By designing leather light processing equipment, the coordinated work of the abutment, limiting column, drive assembly, wire pulling mechanism, clamping mechanism, casing mechanism and shearing mechanism is solved, and the problem that existing equipment cannot produce new structural leather lights is achieved, achieving efficient production efficiency.
Patent Information
- Application Number
- CN202422442051.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-10-10
- Publication Date
- 2025-08-01
- Estimated Expiration
- 2034-10-10
AI Technical Summary
The existing leather wire lamp production equipment cannot effectively produce new structural leather wire lamps, resulting in low production efficiency.
A leather light processing equipment is designed, including a base, limiting column, drive assembly, wire pulling mechanism, clamping mechanism, casing mechanism and shearing mechanism. Through the coordinated work of these components, the straightening, clamping, casing and shearing operations of the light strip are realized, and the production of new structural leather lights is completed.
It improves the production efficiency of leather wire lamps and can efficiently process new structure leather wire lamps, meeting production needs.
Smart Images
Figure CN223181564U_ABST
Abstract
Description
Technical Field
[0001] The utility model relates to the technical field of strip lights, and specifically relates to a strip light processing device. Background Art
[0002] The strip light includes a main light strip, a plurality of sub-light strips and a plurality of lamp heads. When the strip light is straightened, the plurality of sub-light strips are arranged perpendicular to the main light strip and distributed along the length direction of the main light strip, and each sub-light strip is connected in series with a lamp head. Among them, two main conductors are arranged in the main light strip, and two sub-conductors are also arranged in the sub-light strip. The lamp head is connected in series on the two sub-conductors. In production, it is necessary to first break the skin of the main light strip to expose the main conductors, then connect the two sub-conductors of the sub-light strip to the two main conductors of the main light strip respectively, and then wrap them, which is relatively troublesome in production. Compared with the above strip light, a new type of strip light structure can significantly improve production efficiency, and its specific structure is as follows: two conductors are arranged in the light strip, and a plurality of lamp heads are connected in series on the two conductors. The left and right parts of the lamp head are pulled out and bent, which is equivalent to the above sub-light strip, and the other non-bent part of the light strip is equivalent to the above main light strip, and then the pulled-out sub-light strip is fixed with a sleeve. The existing strip light production equipment cannot produce the strip light with the above new structure. Summary of the Utility Model
[0003] Aiming at the deficiencies of the prior art, the purpose of the utility model is to provide a strip light processing device to solve the technical problem that the existing strip light production equipment cannot produce and process the strip light with a new structure.
[0004] To solve the above technical problem, the utility model provides a strip light processing device, which includes a base, a plurality of limit posts, a driving component, a wire pulling mechanism, a clamping mechanism, a sleeve mechanism and a cutting mechanism. The driving component is connected to the base, and the plurality of limit posts are spaced apart on the base and are driven by the driving component to intermittently move along their distribution direction. Each limit post is provided with a limit component for fixing the light strip. The wire pulling mechanism, the clamping mechanism, the sleeve mechanism and the cutting mechanism are sequentially distributed on the base along the moving direction of the limit posts;
[0005] The wire pulling mechanism includes a wire pulling component, and the wire pulling component includes a first motor and a wire pulling post. The first motor is connected to the base and drives the wire pulling post to reciprocate. The wire pulling post is vertically arranged and reciprocates between two of the limit posts along a direction perpendicular to the moving direction of the limit posts, so that two sections of light strips to be clamped are formed between the two limit posts;
[0006] The clamping mechanism includes a wire clamping component, and the wire clamping component includes a driving member and two vertically arranged clamping plates. The clamping plates are parallel to the light strip to be clamped, and the two clamping plates are distributed along the moving direction of the limit posts. The driving member is connected to the base and drives the two clamping plates to reciprocate vertically and towards each other, so that the two sections of light strips to be clamped are clamped to form a light strip to be sleeved;
[0007] The sleeve mechanism includes a tube supply assembly, a sleeve assembly, and a heating assembly. The tube supply assembly is used to supply sleeves to the sleeve assembly. The sleeve assembly includes a sixth cylinder, a seventh cylinder, and two tube clamps distributed vertically. The sixth cylinder is connected to the base and drives the seventh cylinder to reciprocate along the length direction of the strip to be sleeved. The seventh cylinder is connected to the two tube clamps and drives the two tube clamps to reciprocate vertically towards each other. On each tube clamp and on the end face facing the other tube clamp, there is a third groove, and the third groove runs through both ends of the tube clamp along the length direction of the strip to be sleeved. The two tube clamps clamp the sleeve provided by the tube supply assembly and expand the sleeve in the third groove. The heating assembly is connected to the base and is used to heat the sleeve.
[0008] The shearing mechanism includes a shearing assembly, and the shearing assembly includes a fourteenth cylinder and a shear tool. The fourteenth cylinder is connected to the base and drives the shear tool to reciprocate vertically. The shear tool is located below the strip to be sheared.
[0009] After adopting the above structure, the utility model of a processing device for coaxial cable lights has the following advantages: The strip is first fixed on a limiting post adjacent to the pulling post. Then, after each intermittent movement of the limiting post, the strip will be located on the moving path of the pulling post and be pulled out by the pulling post to form a strip to be clamped. After that, with the movement of the limiting post, the strip to be clamped moves to the clamping plate, and the clamping plate clamps the strip to be clamped to form a strip to be sleeved. Then, with the movement of the limiting post, the strip to be sleeved moves to the third groove of the tube clamp, and the tube clamp sleeves the sleeve onto the strip to be sleeved, and the heating assembly heats the sleeve to make it shrink and deform, thereby fixing the strip. Then, with the movement of the limiting post, the strip to be sheared moves to the shear tool, and the shear tool shears the strip to be sheared, dividing a whole strip into several sections of strips, completing the production and processing of the coaxial cable lights with the new structure.
[0010] As an improvement, the driving assembly includes a second motor, a chain, and two sprockets. The two sprockets are rotatably connected to the top of the base. The second motor is connected to the base and drives one of the sprockets to rotate. The chain is wound around the two sprockets. A connecting block is connected to the outside of each link of the chain, and each connecting block is connected to two limiting posts arranged at intervals. A number of limiting posts are circumferentially arranged at intervals; adopting this structure, the annular closed structure formed by the chain enables the connecting blocks and the limiting posts connected to the links to also form an annular structure. With the movement of the chain, the recycling of the limiting posts can be realized.
[0011] As an improvement, the limiting component includes a movable column and a return spring. The movable column is movably connected vertically inside the limiting column. Ring convex parts are arranged circumferentially on the outer peripheral walls of the upper and lower ends of the movable column. A return spring for driving the movable column to move downward is arranged between the ring convex part located below and the limiting column. The ring convex part located above and the top end of the limiting column are used to clamp the light strip. A second air cylinder is connected to the base platform. The second air cylinder is connected to a first driving block and drives the first driving block to move vertically back and forth. The first driving block is located below the movable columns of the two limiting columns through which a wire-pulling column passes in the middle and drives the two movable columns to move upward. A fifteenth air cylinder is connected to the base platform. The fifteenth air cylinder is connected to a second driving block and drives the second driving block to move vertically back and forth. The second driving block is located below one of the movable columns and is used to drive the movable column to move upward. The cutting tool and the second driving block are arranged in sequence along the moving direction of the limiting column. With this structure, the second air cylinder drives the two movable columns to move upward through the first driving block. Under the pulling action of the wire-pulling column on the light strip, the light strip is clamped between the ring convex part located above and the limiting column. After the wire-pulling column finishes pulling the wire, the second air cylinder resets, and the return spring also resets the movable column to fix the light strip. After the cutting tool cuts the light strip, the fifteenth air cylinder drives one movable column to move upward through the second driving block, so that the main light strip can be separated from the ring convex part and the limiting column, facilitating the feeding of the light strip.
[0012] As an improvement, the cutting mechanism further includes a wire-hooking component. The wire-hooking component includes a sixteenth air cylinder, a seventeenth air cylinder, and a wire hook. The sixteenth air cylinder is connected to the base platform and drives the seventeenth air cylinder to move vertically back and forth. The seventeenth air cylinder drives the wire hook to move horizontally back and forth perpendicular to the moving direction of the limiting column. The sixteenth air cylinder drives the wire hook to enter the U-shaped opening of the main light strip on the movable column. The seventeenth air cylinder drives the wire hook to hook the main light strip away from the movable column. The wire hook and the second driving block correspond to the same movable column. With this structure, after the movable column moves upward, the wire hook hooks the main light strip away from the movable column, preventing the main light strip from being fixed between the ring convex part and the limiting column again when the movable column resets, facilitating the feeding of the cut light strip.
[0013] As an improvement, the wire-hooking component further includes a first wire-splitting plate. The sixteenth air cylinder drives the first wire-splitting plate to move vertically back and forth. A wire-splitting part lower than the wire hook is arranged at the bottom end of the first wire-splitting plate. The width of the bottom end of the wire-splitting part gradually decreases from top to bottom. The sixteenth air cylinder drives the wire-splitting part to insert into the U-shaped opening of the main light strip on the movable column. The wire-splitting part and the wire hook correspond to the same movable column. With this structure, when the wire hook descends, the wire-splitting part of the first wire-splitting plate inserts into the U-shaped opening of the main light strip before the wire hook, thus expanding the U-shaped opening to facilitate the wire hook to enter the U-shaped opening.
[0014] As an improvement, the clamping mechanism further includes a wire-straightening assembly. The wire-straightening assembly includes a fourth motor, a fifth cylinder, two first clamping arms distributed vertically, and two first wire-straightening plates. The fourth motor is connected to the base and drives the fifth cylinder to reciprocate along the length direction of the strip to be clamped. The fifth cylinder is connected to the two first clamping arms and drives the two first clamping arms to reciprocate towards each other. Each first clamping arm is connected with a first wire-straightening plate, and the two first wire-straightening plates are distributed vertically. On each first wire-straightening plate and on the end surface facing the other first wire-straightening plate, there is a first groove. Each first groove runs through both ends of the first wire-straightening plate along the direction parallel to the strip to be clamped. The size of the first groove matches the size of a section of the strip to be clamped. After the driving assembly drives the limit post to move intermittently each time, a section of the strip to be clamped is located between the two first grooves. With this structure, before the strip to be clamped is clamped by the two clamping plates, the two first wire-straightening plates move towards each other so that a section of the strip to be clamped is located in the two first grooves, and then the two first wire-straightening plates move to straighten the section of the strip to be clamped, facilitating the subsequent sleeving operation.
[0015] As an improvement, the wire-straightening assembly further includes a second wire-straightening plate. The first clamping arm located above is connected to the second wire-straightening plate, and the first clamping arm and the second wire-straightening plate are arranged in sequence along the moving direction of the limit post. There is a second groove at the bottom end of the second wire-straightening plate. The second groove runs through both ends of the second wire-straightening plate along the direction of the strip to be clamped. The size of the second groove matches the size of two sections of the strip to be clamped. After the driving assembly drives the limit post to move intermittently each time, two sections of the strip to be clamped are located below the second groove, and the second groove and the two clamping plates correspond to the same two sections of the strip to be clamped. With this structure, the second wire-straightening plate is connected to the first clamping arm located above and moves up and down synchronously with the first wire-straightening plate located above. Before the two clamping plates clamp the strip to be clamped, the second groove pre-tightens and straightens the two sections of the strip to be clamped.
[0016] As an improvement, the tubing supply assembly includes a second turntable, an eighth cylinder, a ninth cylinder, two clamping blocks, a tubing outlet block, a tenth cylinder, and a cutting knife. The second turntable, the two clamping blocks, and the tubing outlet block are sequentially arranged on the base in the length direction of the tubing to be sleeved, approaching the tubing to be sleeved. The second turntable is rotatably connected to the base, and a flat tubing sleeve is wound on the second turntable. The eighth cylinder is connected to the base and drives the ninth cylinder to reciprocate in the length direction of the tubing to be sleeved. The two clamping blocks are distributed along the moving direction of the limiting posts. The ninth cylinder drives the two clamping blocks to reciprocate towards each other to clamp the tubing sleeve in a vertical state. The tubing outlet block is provided with a vertically arranged second through groove. Two third grooves are located between the tubing outlet block and the limiting posts. The tenth cylinder is connected to the base and drives the cutting knife to move vertically. The cutting knife moves vertically between the tubing outlet block and the two third grooves. With this structure, the second turntable conveys the tubing sleeve. The tubing sleeve is clamped by the two clamping blocks, and then the two clamping blocks move towards the tubing to be sleeved, sending the tubing sleeve out through the second through groove and clamping it by the two tubing clamps through the third grooves, and spreading the tubing sleeve, and then the cutting knife cuts the tubing sleeve to form individual tubing sleeves.
[0017] As an improvement, the tubing supply assembly further includes a limiting block, two first connecting columns, and two second connecting columns. The limiting block, the two second connecting columns, and the two first connecting columns are sequentially arranged between the second turntable and the two clamping blocks in the direction approaching the tubing to be sleeved. The limiting block is provided with a horizontally arranged first through groove for the tubing sleeve to pass through in a horizontal state. A first channel arranged vertically is formed between the two first connecting columns for the tubing sleeve to pass through in a vertical state. A second channel is formed between the two second connecting columns. The width of the second channel is greater than the width of the first channel and less than the width of the first through groove, and the width of the second channel is less than the width of the tubing sleeve. With this structure, the tubing sleeve first passes through the first through groove in a horizontal state. The horizontally arranged tubing sleeve first passes through the second channel with a slightly larger width to pre-spread the tubing sleeve, and then passes through the first channel with a smaller width to be deformed into a vertical state. The second connecting columns play a transitional role, which is beneficial to deforming the horizontally arranged tubing sleeve into a vertical state so that the tubing clamps and the third grooves can smoothly spread the tubing sleeve.
[0018] As an improvement, the sleeve mechanism further includes a sleeve auxiliary component, which includes an eleventh cylinder, a twelfth cylinder, a thirteenth cylinder and two second clamping arms. The eleventh cylinder is connected to the base and drives the twelfth cylinder to move vertically back and forth. The twelfth cylinder drives the thirteenth cylinder to move back and forth along the length direction of the strip to be sleeved. The two second clamping arms are distributed along the moving direction of the limiting column. The thirteenth cylinder drives the two second clamping arms to move back and forth towards each other and makes the two second clamping arms clamp the strip to be sleeved. With this structure, the insertion end of the strip to be sleeved may droop due to the presence of a lamp head at the insertion end, resulting in the sleeve not being able to align with the strip to be sleeved. However, by clamping the strip to be sleeved with the two second clamping arms and then moving towards the insertion end of the strip to be sleeved, the drooping insertion end can be lifted, so as to facilitate the accurate sleeving of the sleeve onto the strip to be sleeved. Description of the Drawings
[0019] Figure 1 It is a three-dimensional structural schematic diagram of the present utility model.
[0020] Figure 2 It is Figure 1 a partial enlarged view of part A in
[0021] Figure 3 It is Figure 1 a partial enlarged view of part B in
[0022] Figure 4 It is Figure 1 a partial enlarged view of part C in
[0023] Figure 5 It is a three-dimensional structural schematic diagram of the present utility model from another perspective.
[0024] Figure 6 It is Figure 5 a partial enlarged view of part D in
[0025] Figure 7 It is a three-dimensional structural schematic diagram of the tube supply component part in the present utility model.
[0026] Figure 8 It is a three-dimensional structural schematic diagram of the cutting mechanism part in the present utility model.
[0027] Figure 9 It is Figure 8 a partial enlarged view of part E in
[0028] Figure 10 It is a three-dimensional structural schematic diagram of the cutting mechanism part in the present utility model from another angle.
[0029] Figure 11 It is a three-dimensional structural schematic diagram of the wire feeding component part in the present utility model.
[0030] Figure 12This is a schematic structural diagram of the first wire-straightening plate in the present utility model.
[0031] Reference numerals: 100, wire-pulling mechanism; 200, clamping mechanism; 300, sleeve mechanism; 400, shearing mechanism; 1, base; 2, limit post; 3, driving assembly; 31, chain; 32, sprocket; 4, limiting assembly; 41, movable post; 42, return spring; 5, wire-pulling assembly; 51, first motor; 52, wire-pulling post; 6, wire-clamping assembly; 61, driving member; 62, clamping plate; 7, pipe-supplying assembly; 71, second turntable; 72, eighth cylinder; 73, ninth cylinder; 74, clamping block; 75, pipe-outlet block; 76, tenth cylinder; 77, cutting knife; 78, limit block; 79, first connecting column; 710, second connecting column; 8, sleeve assembly; 81, sixth cylinder; 82, seventh cylinder; 83, pipe clamp; 9, heating assembly; 91, heating head; 10, third groove; 11, shearing assembly; 111, fourteenth cylinder; 112, shearing tool; 12, connecting block; 13, ring convex part; 14, second cylinder; 15, first driving block; 16, fifteenth cylinder; 17, second driving block; 18, wire-hooking assembly; 181, sixteenth cylinder; 182, seventeenth cylinder; 183, first wire-splitting plate; 1831, wire-splitting part; 19, wire-straightening assembly; 191, fourth motor; 192, fifth cylinder; 193, first clamping arm; 194, first wire-straightening plate; 195, second wire-straightening plate; 196, connecting arm; 1961, first straight part; 1962, second straight part; 20, first groove; 21, second groove; 22, second through groove; 23, first through groove; 24, first channel; 25, second channel; 26, sleeve auxiliary assembly; 261, eleventh cylinder; 262, twelfth cylinder; 263, thirteenth cylinder; 264, second clamping arm; 265, reset post; 27, wire-lifting assembly; 271, eighteenth cylinder; 272, wire-lifting plate; 28, wire-releasing assembly; 281, first turntable; 282, third motor; 283, vertical frame; 284, slider; 285, guide post; 286, detection piece; 287, wire-passing wheel; 288, upper sensor; 289, lower sensor; 2810, first fixed pulley; 2811, second fixed pulley; 2812, third fixed pulley; 2813, guiding pipe; 2814, first cylinder; 2815, wire clamp; 29, positioning block; 291, positioning groove; 33, first long hole; 34, second long hole; 35, third long hole; 36, guiding plate; 37, connecting plate; 38, wire-splitting assembly; 381, nineteenth cylinder; 382, second wire-splitting plate; 39, baffle; 40, bottom plate. Detailed implementation manners
[0032] The following will make a detailed description of a processing device for leather wire lamps of the present utility model with reference to the accompanying drawings.
[0033] As Figures 1 to 12As shown in the figure, a processing device for flat cable lights includes a base 1, a number of limit posts 2, a driving assembly 3, a wire pulling mechanism 100, a clamping mechanism 200, a sleeving mechanism 300, and a cutting mechanism 400. The driving assembly 3 is connected to the base 1. A number of limit posts 2 are spaced apart on the base 1 and are driven by the driving assembly 3 to intermittently move along their distribution direction. A limit assembly 4 for fixing the light strip is provided on each limit post 2. The wire pulling mechanism 100, the clamping mechanism 200, the sleeving mechanism 300, and the cutting mechanism 400 are sequentially distributed on the base 1 along the moving direction of the limit posts 2.
[0034] As Figure 1 and Figure 2 shown in the figure, the driving assembly 3 includes a second motor, a chain 31, and two sprockets 32. The two sprockets 32 are rotatably connected to the top of the base 1. The second motor is connected to the base 1 and drives one of the sprockets 32 to rotate. The chain 31 is wound around the two sprockets 32. A connecting block 12 is connected to the outside of each link of the chain 31, so that the connecting blocks 12 are circumferentially distributed in a ring along the chain 31. Each connecting block 12 is connected to two spaced-apart limit posts 2. A number of limit posts 2 are circumferentially spaced apart, that is, a number of limit posts 2 are also circumferentially and annularly spaced apart along the chain 31. The chain 31 has a straight part and an arc part. Correspondingly, the distribution of the limit posts 2 at different positions of the chain 31 is also divided into straight-line spaced distribution and arc-separated distribution. The moving direction of the limit posts 2 in the straight-line spaced distribution is also a straight line direction, and the moving direction of the limit posts 2 in the arc-separated distribution is also an arc direction. The wire pulling operation, the clamping operation, the sleeving operation, and the cutting operation are all carried out at the limit posts 2 in the straight-line spaced distribution. That is to say, the moving direction of the limit posts 2 where the wire pulling, clamping, sleeving, and cutting operations are carried out is a straight line direction, which is the front-back direction in this embodiment. In addition, the wire pulling mechanism 100, the clamping mechanism 200, the sleeving mechanism 300, and the cutting mechanism 400 are provided at both parts of the limit posts 2 in the straight-line spaced distribution. That is to say, the production of two sets of flat cable lights is carried out simultaneously under one set of driving assembly 3, and two sleeving operations are involved in the production of each set of flat cable lights. Correspondingly, two sets of sleeving mechanisms 300 are provided.
[0035] As Figure 1 and Figure 2As shown, the wire pulling mechanism 100 includes a wire paying-off assembly 28 and a wire pulling assembly 5. The wire pulling assembly 5 includes a first motor 51 and a wire pulling column 52. The first motor 51 is connected to the base 1 and drives the wire pulling column 52 to reciprocate. Specifically, the first motor 51 realizes the reciprocating movement of the wire pulling column 52 through structures such as a lead screw and a guide rail. The moving direction of the wire pulling column 52 is perpendicular to the moving direction of the limit column 2. In this embodiment, the wire pulling column 52 moves in the left-right direction. The wire pulling column 52 is vertically arranged and moves between two of the limit columns 2. The wire paying-off assembly 28 includes a first turntable 281 around which the wire to be pulled is wound. After the plurality of limit columns 2 move intermittently once, the wire to be pulled is located on the moving path of the wire pulling column 52. The wire pulling column 52 moves to the right to pull out the wire outside.
[0036] As Figure 2 shown, a positioning block 29 is connected to the base 1 between two sprockets 32. The positioning block 29 is provided with a positioning groove 291 through which a part of the connecting block 12 passes. A plurality of connecting blocks 12 located in the positioning groove 291 are slidably connected to the positioning block 29. That is to say, for the connecting blocks 12 distributed at intervals along a straight line, a part of the connecting block 12 slides back and forth in the positioning groove 291, thereby restricting the position offset of the connecting block 12 in the left-right direction.
[0037] As Figure 2 and Figure 11 shown, the wire paying-off assembly 28 further includes a third motor 282, a vertical frame 283, a slider 284, a guide post 285, a detection piece 286, a wire passing wheel 287, an upper sensor 288, a lower sensor 289, a first fixed pulley 2810, a second fixed pulley 2811, a third fixed pulley 2812, a hollow guide tube 2813, a first air cylinder 2814 and a wire clamp 2815. The first turntable 281 is rotatably connected to the vertical frame 283 and the rotation axis is horizontally arranged. The third motor 282 is connected to the vertical frame 283 and drives the first turntable 281 to rotate. The guide post 285 is vertically connected to the vertical frame 283. The wire passing wheel 287 is slidably connected to the guide post 285 along the vertical direction through the slider 284. The detection piece 286 is connected to the slider 284. The wire passing wheel 287 is rotatably connected to the slider 284. The rotation axis of the wire passing wheel 287 is parallel to the rotation axis of the first turntable 281. The wire to be pulled on the first turntable 281 extends downward around the wire passing wheel 287 and then extends upward to the limit column 2. Both the upper sensor 288 and the lower sensor 289 are connected to the vertical frame 283. The upper sensor 288 is used to detect the upward position of the detection piece 286, and the lower sensor 289 is used to detect the downward position of the detection piece 286. Both the upper sensor 288 and the lower sensor 289 are metal proximity switches, and both the upper sensor 288 and the lower sensor 289 are electrically connected to the third motor 282.
[0038] In addition, the upright frame 283 is located on the front side of the base 1. The first fixed pulley 2810 and the second fixed pulley 2811 are both rotatably connected to the upright frame 283 and their rotation axes are parallel to the rotation axis of the first turntable 281. Both the first fixed pulley 2810 and the second fixed pulley 2811 are higher than the wire passing pulley 287, that is, higher than the maximum height of the wire passing pulley 287. The third fixed pulley 2812 is rotatably connected to the base 1 and its rotation axis is vertically arranged. The wire to be pulled of the light strip on the first turntable 281 sequentially winds around the first fixed pulley 2810, the wire passing pulley 287, the second fixed pulley 2811, and the third fixed pulley 2812 and then extends to the limiting post 2. Specifically, the wire to be pulled of the light strip first leads out from the first turntable 281 and winds upward around the first fixed pulley 2810, then winds downward around the wire passing pulley 287, then winds upward around the second fixed pulley 2811, and then winds around the third fixed pulley 2812 in the front-back direction. After winding around the third fixed pulley 2812, the direction becomes the left-right direction; the guiding pipe 2813 is arranged between the third fixed pulley 2812 and the limiting post 2. The length direction of the guiding pipe 2813 is arranged perpendicular to the moving direction of the limiting post 2. The length direction of the guiding pipe 2813 is the left-right direction. The wire to be pulled of the light strip extends to the limiting post 2 through the guiding pipe 2813 after winding around the third fixed pulley 2812. The first air cylinder 2814 is connected to the upright frame 283 and drives the wire clamp 2815 to clamp or loosen the wire to be pulled of the light strip. The wire clamp 2815 is located between the second fixed pulley 2811 and the third fixed pulley 2812.
[0039] As Figure 2 and Figure 6 shown, a limiting component 4 for fixing the light strip is provided on each limiting post 2. The limiting component 4 includes a movable post 41 and a return spring 42. The movable post 41 is movably connected vertically in the limiting post 2. And in this embodiment, the limiting posts 2 are all connected to the connecting block 12. Therefore, the movable post 41 is also vertically movably connected to the connecting block 12. The upper and lower ends of the movable post 41 are respectively exposed above the limiting post 2 and below the connecting block 12. Ring convex parts 13 are provided on the outer peripheral walls of the upper and lower ends of the movable post 41 along the circumferential direction. A return spring 42 for driving the movable post 41 to move downward is provided between the ring convex part 13 located below and the limiting post 2. Specifically, the return spring 42 abuts between the connecting block 12 and the ring convex part 13 located below. The ring convex part 13 located above and the top end of the limiting post 2 are used to clamp the light strip. A second air cylinder 14 is connected to the base 1. The second air cylinder 14 is connected to a first driving block 15 and drives the first driving block 15 to move vertically back and forth. The first driving block 15 is located below the movable posts 41 of the two limiting posts 2 through which the wire pulling post 52 passes through in the middle and drives the two movable posts 41 to move upward.
[0040] In the initial state, the leading end of the cable-pulling belt to be processed is fixed to the rear side of the limiting post 2 in the left-right direction under the guiding action of the guiding tube 2813. The threading cable-pulling post 52 passes through the space between the limiting post 2 and the limiting post 2 located behind it; the driving assembly 3 drives the chain 31 to move, and the moving distance is the center distance between two adjacent limiting posts 2. The connecting block 12 at the leading end of the cable-pulling belt to be processed moves backward, so that the leading end part of the cable-pulling belt to be processed is arranged in the front-back direction and located on the moving path of the cable-pulling post 52. At this time, the cable-pulling post 52 is located on the left side of this part of the belt, and the second cylinder 14 drives the first driving block 15 and the two movable posts 41 to move upward. Then, the cable-pulling post 52 moves to the right to pull this part of the belt out to the outside. After the second cylinder 14 resets, the belt can be clamped by the annular convex part 13 and the limiting post 2; then the above actions are cycled. After each intermittent movement of the limiting post 2, the cable-pulling belt to be processed is located on the moving path of the cable-pulling post 52 and is thus pulled out by the cable-pulling post 52 to form the belt to be clamped, which can be used for the production of a new type of leather wire lamp. In addition, a twentieth cylinder is also connected to the base 1. The twentieth cylinder drives the partition plate to move left and right. The partition plate is located behind the rear limiting post 2 among the two limiting posts 2 through which the cable-pulling post 52 passes in the middle. When the movable post 41 of this limiting post 2 rises, the twentieth cylinder drives the partition plate to be located behind it to prevent the belt from slipping out between the annular convex part 13 and the limiting post 2. After the movable post 41 descends, the twentieth cylinder drives the partition plate to reset so that the partition plate leaves the moving path of the limiting post 2.
[0041] There are two sections of belts to be clamped between every two adjacent limiting posts 2. The clamping mechanism 200 includes a wire clamping assembly 6. As Figure 6 shown, the wire clamping assembly 6 includes a driving member 61 and two vertically arranged clamping plates 62. The clamping plates 62 are parallel to the belt to be clamped. The two clamping plates 62 are distributed along the moving direction of the limiting post 2, that is, the clamping plates 62 are distributed in the front-back direction. The driving member 61 is connected to the base 1 and drives the two clamping plates 62 to move reciprocally in the vertical direction and reciprocally towards each other. The so-called reciprocating movement towards each other means that the two clamping plates 62 move towards each other and move away from each other, that is, one of the two clamping plates 62 moves forward and the other moves backward to move away from or close to each other; it should be noted that since the length direction of the belt to be clamped is not uniform, the clamping plates 62 being parallel to the belt to be clamped means being parallel to the ideal direction of the belt to be clamped, and the ideal direction of the belt to be clamped is the left-right direction, that is to say, the clamping plates 62 themselves are arranged along the left-right direction. After the driving assembly 3 drives the limiting post 2 to move intermittently each time, the two sections of belts to be clamped are located above the two clamping plates 62. The driving member 61 is composed of a cylinder that drives the clamping plate 62 to move up and down and a cylinder that drives the clamping plate 62 to move towards each other; each time the driving assembly 3 drives the connecting block 12 and the limiting post 2 to move, the moving distance is the center distance between the two limiting posts 2, and the two sections of belts to be clamped located on the front side can be moved backward to the upper part between the two clamping plates 62.
[0042] In addition, asFigure 2 and Figure 6 As shown in Figure 6 , the clamping mechanism 200 further includes a wire-straightening assembly 19. The wire-straightening assembly 19 includes a fourth motor 191, a fifth cylinder 192, two first clamping arms 193 distributed vertically, two first wire-straightening plates 194, a second wire-straightening plate 195, and a connecting arm 196. The fourth motor 191 is connected to the base 1 and drives the fifth cylinder 192 to reciprocate along the length direction of the strip to be clamped. Specifically, the fourth motor 191 realizes the linear drive of the fifth cylinder 192 through a lead screw guide rail. The length directions of the two first clamping arms 193 are both arranged in the left-right direction. The fifth cylinder 192 is connected to the two first clamping arms 193 and drives the two first clamping arms 193 to reciprocate towards each other, that is, the two first clamping arms 193 approach or move away from each other, one upward and one downward. A first wire-straightening plate 194 is connected to each first clamping arm 193. Specifically, the first wire-straightening plate 194 is connected to the left end face of the first clamping arm 193. The two first wire-straightening plates 194 are distributed vertically, and as Figure 12 shown in Figure 12 , a first long hole 33 is provided on each first wire-straightening plate 194 along the vertical direction. The fixing bolt is threadedly connected to the first clamping arm 193 through the first long hole 33. A first groove 20 is provided on the end face of each first wire-straightening plate 194 facing the other first wire-straightening plate 194. Each first groove 20 penetrates through both ends of the first wire-straightening plate 194 along the direction parallel to the strip to be clamped, that is, the left-right direction. The size of the first groove 20 matches the size of a section of the strip to be clamped. Specifically, when the two first wire-straightening plates 194 are abutted against each other, a section of the strip to be clamped is exactly accommodated in the two first grooves 20. After the driving assembly 3 drives the limit post 2 to move intermittently each time, a section of the strip to be clamped is located between the two first grooves 20. The first clamping arm 193 and the first wire-straightening plate 194 are located on the front side of the clamping plate 62.
[0043] As Figure 6As shown in the figure, the upper first clamping arm 193 is connected to the second wire-straightening plate 195. Specifically, the connecting arm 196 includes a first straight portion 1961 and a second straight portion 1962. One end of the first straight portion 1961 is connected to the upper first clamping arm 193. The other end of the first straight portion 1961 extends in the moving direction of the limit post 2 and is connected to one end of the second straight portion 1962. The second straight portion 1962 is perpendicular to the first straight portion 1961. The other end of the second straight portion 1962 is connected to the second wire-straightening plate 195. That is to say, the first straight portion 1961 is arranged in the front-back direction, and the second straight portion 1962 is arranged in the left-right direction. Moreover, the second wire-straightening plate 195 is connected to the bottom end of the other end of the second straight portion 1962. A second long hole 34 is provided on the first straight portion 1961 along the length direction of the first straight portion 1961. A fixing bolt passes through the second long hole 34 and is threadedly connected to the first clamping arm 193. A third long hole 35 is provided on the second straight portion 1962 along the length direction of the second straight portion 1962. A fixing bolt passes through the third long hole 35 and is threadedly connected to the second wire-straightening plate 195.
[0044] As Figure 6 shown in the figure, the first clamping arm 193 and the second wire-straightening plate 195 are sequentially distributed along the moving direction of the limit post 2. That is to say, the second wire-straightening plate 195 is located behind the first clamping arm 193. A second groove 21 is provided at the bottom end of the second wire-straightening plate 195. The second groove 21 penetrates through both ends of the second wire-straightening plate 195 along the direction parallel to the strip to be clamped, that is, the left-right direction. The size of the second groove 21 matches the size of the two strips to be clamped. Since the two strips to be clamped are separated at this time, the size of the second groove 21 is based on the two separated strips to be clamped and can accommodate the two strips to be clamped. After the driving assembly 3 drives the limit post 2 to move intermittently each time, the two strips to be clamped are located below the second groove 21, and the second groove 21 and the two clamping plates 62 correspond to the same two strips to be clamped.
[0045] One of the strips to be clamped, in this embodiment, the front strip is first wire-straightened by the two first wire-straightening plates 194, and then as the limit post 2 moves, the two strips to be clamped are wire-straightened by the second wire-straightening plate 195. Then, the driving member 61 drives the two clamping plates 62 to rise, so that the strip to be clamped is located between the two clamping plates 62. Then, the driving member 61 drives the two clamping plates 62 to move towards each other to clamp the strip to be clamped to form a strip to be sleeved. After clamping, the driving member 61 drives the two clamping plates 62 to move away from each other and reset downward. As the driving assembly 3 drives the limit post 2 to move, two new strips to be clamped are moved above the two clamping plates 62. Repeating the above process can complete the clamping of the strip, thereby producing a new type of leather strip light.
[0046] The light strip bends backward along the front - rear direction around a limiting post 2, then bends to the right and then to the left, and then bends backward around the second limiting post 2. In this way, two sections of light strips to be sleeved can be formed between the two limiting posts 2. This form of light strip is formed by a wire - pulling mechanism 100. The right end of the light strip to be sleeved, that is, the sleeving end, is provided with a lamp head. The sleeve is sleeved onto the light strip to be sleeved from the right to the left from the sleeving end. The materials used for the light strip and the sleeve are both prior arts and will not be elaborated here.
[0047] As Figure 3 , Figure 4 and Figure 7 shown, the sleeve mechanism 300 includes a tube - supplying component 7, a sleeve - sleeving component 8, and a heating component 9. The tube - supplying component 7 is used to supply sleeves to the sleeve - sleeving component 8. The tube - supplying component 7 includes a second turntable 71, an eighth cylinder 72, a ninth cylinder 73, two clamping blocks 74, a tube - discharging block 75, a tenth cylinder 76, a cutting knife 77, a limiting block 78, two first connecting columns 79, and two second connecting columns 710. The second turntable 71, the two clamping blocks 74, and the tube - discharging block 75 are sequentially arranged on the base 1 along the length direction of the light strip to be sleeved, that is, the second turntable 71, the two clamping blocks 74, and the tube - discharging block 75 are sequentially arranged on the base 1 from right to left. And the whole tube - supplying component 7 is located on the right side of the light strip to be sleeved. Among them, the second turntable 71 is rotatably connected to the base 1, and a flat sleeve belt is wound on the second turntable 71. The eighth cylinder 72 is connected to the base 1 and drives the ninth cylinder 73 to reciprocate along the length direction of the light strip to be sleeved, that is, to reciprocate along the left - right direction. The two clamping blocks 74 are distributed along the moving direction of the limiting post 2, that is, along the front - rear direction. The ninth cylinder 73 drives the two clamping blocks 74 to reciprocate towards each other to clamp the sleeve belt in a vertical state, that is, the ninth cylinder 73 drives the two clamping blocks 74, one forward and one backward, to move away from or close to each other, and when the two clamping blocks 74 approach each other, they clamp the sleeve belt. The tube - discharging block 75 is provided with a vertically - arranged second through - groove 22. The so - called vertically - arranged means that the height of the second through - groove 22 is greater than its width, and the second through - groove 22 runs through the left and right ends of the tube - discharging block 75 along the left - right direction. The sleeve belt passes between the two clamping blocks 74 and passes through the second through - groove 22 and exits from the left end of the second through - groove 22. As Figure 5 shown, the tenth cylinder 76 is connected to the base 1 and drives the cutting knife 77 to move vertically. The cutting knife 77 is arranged at the left end of the tube - discharging block 75 and is in contact with the left end face of the tube - discharging block 75. After the sleeve belt extends out from the second through - groove 22, the tenth cylinder 76 drives the cutting knife 77 to rise to cut the sleeve belt to form a sleeve.
[0048] As Figure 4As shown, the limiting block 78 and two first connecting columns 79 are sequentially arranged between the second turntable 71 and two clamping blocks 74 in the direction approaching the strip to be sleeved, that is to say, the limiting block 78 and two first connecting columns 79 are sequentially arranged between the second turntable 71 and two clamping blocks 74 from right to left. The limiting block 78 is provided with a first through groove 23 arranged horizontally. The so-called horizontal arrangement means that the width of the first through groove 23 is greater than its height, and the first through groove 23 also runs through the left and right ends of the limiting block 78 in the left-right direction. The first through groove 23 allows the sleeved strip to pass through in a horizontal state. A first channel 24 arranged vertically is formed between the two first connecting columns 79. The first channel 24 allows the sleeved strip to pass through in a vertical state.
[0049] In addition, two second connecting columns 710 are arranged between the limiting block 78 and two first connecting columns 79. A second channel 25 is formed between the two second connecting columns 710. The width of the second channel 25 is greater than the width of the first channel 24 and less than the width of the first through groove 23. The width of the second channel 25 is less than the width of the sleeved strip. And an arc groove is arranged in the middle of the two second connecting columns 710, which is beneficial to the deformation of the sleeved strip. After the sleeved strip extends out from the second turntable 71, it sequentially passes through the first through groove 23, the second channel 25, the first channel 24, between the two clamping blocks 74 and the second through groove 22 from right to left.
[0050] As Figure 3 shown, the sleeve assembly 8 includes a sixth cylinder 81, a seventh cylinder 82 and two pipe clamps 83 distributed up and down. The sixth cylinder 81 is connected to the base 1 and drives the seventh cylinder 82 to reciprocate along the length direction of the strip to be sleeved, that is, to reciprocate in the left-right direction. The seventh cylinder 82 is connected to the two pipe clamps 83 and drives the two pipe clamps 83 to reciprocate in the up-and-down direction, that is, the seventh cylinder 82 drives the two pipe clamps 83 to move up and down so that the two pipe clamps 83 approach or move away from each other. A third groove 10 is provided on the end face of each pipe clamp 83 facing the other pipe clamp 83. The third groove 10 runs through both ends of the pipe clamp 83 along the length direction of the strip to be sleeved, that is, in the left-right direction. The two pipe clamps 83 clamp the sleeve provided by the pipe assembly 7 and expand the sleeve in the third groove 10. In this embodiment, both of the two pipe clamps 83 are L-shaped, and a protrusion is arranged on the facing end faces of the pipe clamps 83 to form the third groove 10. For example, a protrusion is arranged on the lower end face of the upper pipe clamp 83, and its third groove 10 is arranged on the lower end face of the protrusion. Similarly, a protrusion is arranged on the upper end face of the lower pipe clamp 83, and its third groove 10 is arranged on the upper end face of the protrusion; And as Figure 3 and Figure 7As shown, two third grooves 10 are located between the outlet pipe block 75 and the limit post 2. The cutting knife 77 moves vertically between the outlet pipe block 75 and the two third grooves 10. The two third grooves 10 are located on the left side of the outlet pipe block 75, and the positions of the two third grooves 10 exactly correspond to the left end of the second through groove 22. First, the clamping block 74 clamps the sleeve tape, and then the eighth cylinder 72 drives the two clamping blocks 74 to move leftward so that the sleeve tape extends out from the left end of the second through groove 22. The extended sleeve tape is clamped in the two third grooves 10 by the two pipe clamps 83, and then the cutting knife 77 cuts the sleeve tape to form a sleeve.
[0051] In addition, the cross-section of the third groove 10 is triangular, and the maximum distance between the two third grooves 10 when the two pipe clamps 83 are in contact is less than the longitudinal height of the sleeve tape. Therefore, when the pipe clamps 83 clamp the sleeve, the sleeve can be expanded into a circular shape. Then the pipe clamps 83 clamp the sleeve and move it leftward and sleeved onto the sleeve-to-be lamp strip. After each intermittent movement of the limit post 2 driven by the driving assembly 3, the sleeve-to-be lamp strip is located between the two third grooves 10. Specifically, it is located on the left side between the two third grooves 10. The heating assembly 9 is connected to the base 1 and is used to heat the sleeve. As Figure 3 shown, the heating assembly 9 includes two heating heads 91 connected to the base 1. The sleeve on the lamp strip moves between the two heating heads 91. After the sleeve is sleeved on the lamp strip, the limit post 2 moves backward, moving the new sleeve-to-be lamp strip between the third grooves 10, and at the same time moving the lamp strip behind the sleeve backward between the two heating heads 91. The sleeve corresponds to the position between the two heating heads 91, and the heating heads 91 cause the sleeve to be heated and shrink and deform.
[0052] As Figure 3As shown, the sleeve mechanism 300 further includes a sleeve auxiliary assembly 26. The sleeve auxiliary assembly 26 is located on the left side of the limit post 2. The sleeve auxiliary assembly 26 includes an eleventh cylinder 261, a twelfth cylinder 262, a thirteenth cylinder 263, and two second clamping arms 264. The eleventh cylinder 261 is connected to the base 1 and drives the twelfth cylinder 262 to reciprocate vertically. The twelfth cylinder 262 drives the thirteenth cylinder 263 to reciprocate along the length direction of the strip to be sleeved, that is, move left and right. The two second clamping arms 264 are distributed along the moving direction of the limit post 2, that is, distributed along the front and back directions. The thirteenth cylinder 263 drives the two second clamping arms 264 to reciprocate towards each other and makes the two second clamping arms 264 clamp the strip to be sleeved. When the piston rod of the twelfth cylinder 262 extends, the second clamping arm 264 clamps the strip to be sleeved and moves away from the limit post 2. The sleeve auxiliary assembly 26 further includes a reset post 265. The reset post 265 is connected to the piston rod of the twelfth cylinder 262. When the piston rod of the twelfth cylinder 262 extends, the reset post 265 is located on the moving path of one of the pipe clamps 83 when it moves along the length direction of the strip to be sleeved. Specifically, during the sleeve operation, the eleventh cylinder 261 drives the twelfth cylinder 262, the thirteenth cylinder 263, and the two second clamping arms 264 to move downward, so that the strip to be sleeved is located between the two second clamping arms 264. Then the two second clamping arms 264 clamp the strip to be sleeved. The piston rod of the twelfth cylinder 262 extends to drive the two second clamping arms 264 to move to the right, so that the two second clamping arms 264 move to near the insertion end of the strip to be sleeved and expose the insertion end. At this time, the pipe clamp 83 clamps the sleeve and moves to the left to sleeve the sleeve onto the insertion end. The pipe clamp 83 located above abuts against the reset post 265. During the process of sleeving the sleeve to the left, the piston rod of the twelfth cylinder 262 retracts to the left, and the two second clamping arms 264 move to the left synchronously until the sleeve operation is completed. By repeating the above process, it can be used to produce a new type of leather strip light.
[0053] As Figures 8 to 10 shown, a fifteenth cylinder 16 is connected to the base 1. The fifteenth cylinder 16 is connected to a second driving block 17 and drives the second driving block 17 to reciprocate vertically. The second driving block 17 is located below one of the movable posts 41 and is used to drive the movable post 41 to move upward.
[0054] As Figure 8 and Figure 9 shown, the main strip is wound around each limit post 2 in a U shape, so that there is a sub-strip between every two adjacent limit posts 2. That is, the main strip is wound around in a U shape between the upper annular convex part 13 and the top of the limit post 2. The upper annular convex part 13 and the top of the limit post 2 are used to clamp the main strip. A part of the several sub-strips are strips to be cut, and several strips to be cut are distributed at equal intervals. Specifically, as Figure 9As shown, the light strip bends backward around a movable post 41 in the front-rear direction, then bends to the right and then to the left, and then bends backward around the second movable post 41. In this way, a U-shaped main light strip is formed on the movable post 41, and the sub-light strip is also U-shaped and connects two sections of the main light strip and is located between the two movable posts 41. Among them, no sleeve is provided on the sub-light strip that is the light strip to be cut, so as to facilitate cutting.
[0055] As Figure 8 shown, the cutting assembly 11 includes a fourteenth cylinder 111 and a cutting tool 112. The fourteenth cylinder 111 is connected to the base 1 and drives the cutting tool 112 to reciprocate vertically. The cutting tool 112 is located below the sub-light strip. The driving assembly 3 is electrically connected to the cutting assembly 11. The cutting tool 112 is a pneumatic scissors. The cutting tool 112 and the second driving block 17 are arranged in sequence along the moving direction of the limiting post 2. It should be noted that the sequential arrangement along the moving direction of the limiting post 2 involved in the present invention means that there is a front-rear positional difference between the two, and does not mean that the line connecting the two is parallel to the moving direction of the limiting post 2. That is to say, the cutting tool 112 is located on the front side of the second driving block 17. After the cutting tool 112 cuts the sub-light strip, the second driving block 17 drives the movable post 41 to move upward. The cutting tool 112 cuts one of the two sections of the sub-light strip.
[0056] As Figure 8 shown, the cutting mechanism 400 further includes a wire separating assembly 38. The wire separating assembly 38 includes a nineteenth cylinder 381 and a second wire separating plate 382. The nineteenth cylinder 381 is connected to the base 1 and drives the second wire separating plate 382 to reciprocate between the two limiting posts 2 in a direction perpendicular to the moving direction of the limiting posts 2 and separates the light strip to be cut between the two limiting posts 2. The second wire separating plate 382 and the cutting tool 112 correspond to the same light strip to be cut. That is to say, the wire separating assembly 38 is distributed on the left side of the limiting post 2. The second wire separating plate 382 is inserted from left to right between the two sections of the light strip to be cut to separate them, and then the cutting tool 112 cuts one of the light strips.
[0057] As Figures 8 to 10As shown, the cutting mechanism 400 further includes a wire-hooking assembly 18. The wire-hooking assembly 18 includes a sixteenth cylinder 181, a seventeenth cylinder 182, a wire hook, and a first wire-splitting plate 183. Except that the first wire-splitting plate 183 is located above the light strip, the other parts of the wire-hooking assembly 18 are located on the left side of the limit post 2. The sixteenth cylinder 181 is connected to the base 1 and drives the seventeenth cylinder 182 to move vertically back and forth. The seventeenth cylinder 182 drives the wire hook to move horizontally back and forth perpendicular to the moving direction of the limit post 2, that is, to move in the left-right direction. The sixteenth cylinder 181 drives the wire hook to enter the U-shaped opening of the main light strip on the movable post 41. The seventeenth cylinder 182 drives the wire hook to hook the main light strip away from the movable post 41. The wire hook and the second driving block 17 correspond to the same movable post 41. The sixteenth cylinder 181 drives the first wire-splitting plate 183 to move vertically back and forth. The bottom end of the first wire-splitting plate 183 is provided with a wire-splitting part 1831 that is lower than the wire hook. The width of the bottom end of the wire-splitting part 1831 gradually decreases from top to bottom. The sixteenth cylinder 181 drives the wire-splitting part 1831 to insert into the U-shaped opening of the main light strip on the movable post 41. The wire-splitting part 1831 and the wire hook correspond to the same movable post 41. Specifically, after the second driving block 17 causes the movable post 41 to rise, the wire hook and the first wire-splitting plate 183 descend simultaneously, and the wire-splitting part 1831 of the first wire-splitting plate 183 inserts into the U-shaped opening of the main light strip before the wire hook, causing the U-shaped opening to open. Then the wire hook inserts into the U-shaped opening, and then the wire hook moves to the left to hook the main light strip away from the limit post 2 to the left.
[0058] In addition, the cutting mechanism 400 further includes a wire-lifting assembly 27. The wire-lifting assembly 27 includes an eighteenth cylinder 271 and a wire-lifting plate 272. The wire hook and the wire-lifting plate 272 are arranged in sequence along the moving direction of the limit post 2. That is to say, the wire-lifting assembly 27 is located behind the wire-hooking assembly 18, and the wire-lifting plate 272 is located behind the wire hook. The sixteenth cylinder 181 drives the eighteenth cylinder 271 to move vertically back and forth. The eighteenth cylinder 271 drives the wire-lifting plate 272 to move horizontally back and forth perpendicular to the moving direction of the limit post 2 and makes the wire-lifting plate 272 located below the main light strip hooked out by the wire hook. That is to say, for the main light strip that has been hooked out by the wire hook, the wire-lifting plate 272 moves to the right so that the wire-lifting plate 272 is located below these main light strips. As the sixteenth cylinder 181 lifts the wire hook and the first wire-splitting plate 183, the wire-lifting plate 272 is lifted synchronously, making the main light strip hooked out by the wire hook higher than the limit post 2 and the movable post 41. In addition, a baffle 39 is connected to the wire-lifting plate 272, which plays a role in limiting the light strip when the wire-lifting plate 272 moves to the right to prevent the light strip from shifting to the left.
[0059] As Figure 10As shown, a bottom plate 40 is connected to the base 1, and the cut light strip is located on the bottom plate 40. The bottom plate 40 prevents the cut light strip from falling directly. The base 1 is provided with a material receiving bin, which is located below the moving path of the cut light strip. Specifically, the material receiving bin is located at the rear side of the bottom plate 40. A guiding plate 36 is connected to the base 1. The guiding plate 36 is inclined towards the material receiving bin along the moving direction of the limiting post 2. The guiding plate 36 is located on the left side of the limiting post 2 and is specifically connected to the positioning block 29. The guiding plate 36 is inclined from front to back towards the right side. After the light strip is cut, since not all the limiting components 4 release the fixing effect on the light strip at the same time, the cut light strip will still move backward. At this time, the guiding plate 36 prevents the cut light strip from shifting to the left and leaving above the material receiving bin. Until all the limiting components 4 release the fixing effect on the light strip, the cut light strip also moves backward, leaves the bottom plate 40, and falls into the material receiving bin, which can be used to produce a new structure of coaxial cable lights.
[0060] As Figure 8 and Figure 10 shown, a connecting plate 37 is connected to the base 1. The connecting plate 37 is located between the cutting tool 112 and the first wire dividing plate 183. A wire blocking steel wire is connected to the connecting plate 37. The cutting tool 112 and the wire blocking steel wire are arranged in sequence along the moving direction of the limiting post 2. The wire blocking steel wire is located above the cut light strip to prevent the light strip from rising.
[0061] The embodiments of the present invention have been described in detail above with reference to the accompanying drawings. However, the present invention is not limited to the above-mentioned one embodiment. All other embodiments obtained by those skilled in the art without creative efforts fall within the protection scope of the present invention.
Claims
1. A processing device for a flat cable lamp, characterized in that, It includes a base (1), a number of limit posts (2), a driving component (3), a wire-pulling mechanism (100), a clamping mechanism (200), a sleeve mechanism (300) and a shearing mechanism (400). The driving component (3) is connected to the base (1). A number of the limit posts (2) are distributed at intervals on the base (1) and are driven by the driving component (3) to intermittently move along their distribution direction. A limit component (4) for fixing the light strip is provided on each of the limit posts (2). The wire-pulling mechanism (100), the clamping mechanism (200), the sleeve mechanism (300) and the shearing mechanism (400) are sequentially distributed on the base (1) along the moving direction of the limit posts (2). The wire-pulling mechanism (100) includes a wire-pulling component (5). The wire-pulling component (5) includes a first motor (51) and a wire-pulling post (52). The first motor (51) is connected to the base (1) and drives the wire-pulling post (52) to reciprocate. The wire-pulling post (52) is vertically arranged and reciprocates between two of the limit posts (2) along a direction perpendicular to the moving direction of the limit posts (2) so that two sections of the light strip to be clamped are formed between the two limit posts (2). The clamping mechanism (200) includes a wire-clamping component (6). The wire-clamping component (6) includes a driving member (61) and two vertically arranged clamping plates (62). The clamping plates (62) are parallel to the light strip to be clamped. The two clamping plates (62) are distributed along the moving direction of the limit posts (2). The driving member (61) is connected to the base (1) and drives the two clamping plates (62) to reciprocate vertically and towards each other so that the two sections of the light strip to be clamped are clamped to form a light strip to be sleeved. The sleeve mechanism (300) includes a tube-supplying component (7), a sleeve component (8) and a heating component (9). The tube-supplying component (7) is used to supply sleeves to the sleeve component (8). The sleeve component (8) includes a sixth cylinder (81), a seventh cylinder (82) and two tube clamps (83) distributed vertically. The sixth cylinder (81) is connected to the base (1) and drives the seventh cylinder (82) to reciprocate along the length direction of the light strip to be sleeved. The seventh cylinder (82) is connected to the two tube clamps (83) and drives the two tube clamps (83) to reciprocate towards each other vertically. A third groove (10) is provided on the end face of each tube clamp (83) facing the other tube clamp (83). The third groove (10) penetrates through both ends of the tube clamp (83) along the length direction of the light strip to be sleeved. The two tube clamps (83) clamp the sleeves provided by the tube-supplying component (7) and expand the sleeves in the third groove (10). The heating component (9) is connected to the base (1) and is used to heat the sleeves. The shearing mechanism (400) includes a shearing assembly (11), the shearing assembly (11) includes a fourteenth cylinder (111) and a cutting tool (112), the fourteenth cylinder (111) is connected to the base (1) and drives the cutting tool (112) to reciprocate vertically, and the cutting tool (112) is located below the strip light to be sheared.
2. The processing equipment for the leather wire lamp according to claim 1, characterized in that, The driving assembly (3) includes a second motor, a chain (31) and two sprockets (32). The two sprockets (32) are rotatably connected to the top of the base (1). The second motor is connected to the base (1) and drives one of the sprockets (32) to rotate. The chain (31) is wound around the two sprockets (32). A connecting block (12) is connected to the outside of each link of the chain (31). Each connecting block (12) is connected to two spaced-apart limiting posts (2). A number of the limiting posts (2) are circumferentially spaced apart.
3. The processing equipment for fiber optic strip lights according to claim 1, characterized in that, The limiting assembly (4) includes a movable column (41) and a return spring (42). The movable column (41) is vertically movably connected within the limiting post (2). Circumferential convex portions (13) are provided on the outer peripheral walls of the upper and lower ends of the movable column (41). A return spring (42) for driving the movable column (41) to move downward is provided between the lower convex portion (13) and the limiting post (2). The upper convex portion (13) and the top of the limiting post (2) are used to clamp the strip light. A second cylinder (14) is connected to the base (1). The second cylinder (14) is connected to a first driving block (15) and drives the first driving block (15) to reciprocate vertically. The first driving block (15) is located below the movable columns (41) of the two limiting posts (2) through which the wire-pulling post (52) passes through and drives the two movable columns (41) to move upward. A fifteenth cylinder (16) is connected to the base (1). The fifteenth cylinder (16) is connected to a second driving block (17) and drives the second driving block (17) to reciprocate vertically. The second driving block (17) is located below one of the movable columns (41) and is used to drive the movable column (41) to move upward. The cutting tool (112) and the second driving block (17) are arranged in sequence along the moving direction of the limiting post (2).
4. The processing equipment for the leather wire lamp according to claim 3, characterized in that, The cutting mechanism (400) further includes a wire hooking assembly (18). The wire hooking assembly (18) includes a sixteenth cylinder (181), a seventeenth cylinder (182), and a wire hook. The sixteenth cylinder (181) is connected to the base (1) and drives the seventeenth cylinder (182) to reciprocate vertically. The seventeenth cylinder (182) drives the wire hook to reciprocate horizontally perpendicular to the moving direction of the limiting post (2). The sixteenth cylinder (181) drives the wire hook to enter the U-shaped opening of the main light strip on the movable post (41). The seventeenth cylinder (182) drives the wire hook to hook the main light strip away from the movable post (41). The wire hook and the second driving block (17) correspond to the same movable post (41).
5. The processing equipment for the leather wire lamp according to claim 4, characterized in that, The wire hooking assembly (18) further includes a first wire splitting board (183). The sixteenth cylinder (181) drives the first wire splitting board (183) to reciprocate vertically. A wire splitting portion (1831) lower than the wire hook is provided at the bottom end of the first wire splitting board (183). The width of the bottom end of the wire splitting portion (1831) gradually decreases from top to bottom. The sixteenth cylinder (181) drives the wire splitting portion (1831) to insert into the U-shaped opening of the main light strip on the movable post (41). The wire splitting portion (1831) and the wire hook correspond to the same movable post (41).
6. The processing equipment for the optical fiber ribbon lamp according to claim 1, characterized in that, The clamping mechanism (200) further includes a wire straightening assembly (19). The wire straightening assembly (19) includes a fourth motor (191), a fifth cylinder (192), two first clamping arms (193) distributed vertically, and two first wire straightening boards (194). The fourth motor (191) is connected to the base (1) and drives the fifth cylinder (192) to reciprocate along the length direction of the light strip to be clamped. The fifth cylinder (192) is connected to the two first clamping arms (193) and drives the two first clamping arms (193) to reciprocate towards each other. One first wire straightening board (194) is connected to each first clamping arm (193). The two first wire straightening boards (194) are distributed vertically. A first groove (20) is provided on the end surface of each first wire straightening board (194) facing the other first wire straightening board (194). Each first groove (20) penetrates through both ends of the first wire straightening board (194) along the direction parallel to the light strip to be clamped. The size of the first groove (20) matches the size of a section of the light strip to be clamped. After the driving assembly (3) drives the limiting post (2) to move intermittently each time, a section of the light strip to be clamped is located between the two first grooves (20).
7. The processing equipment for the ribbon lamp according to claim 6, characterized in that, The wire-straightening component (19) further includes a second wire-straightening plate (195). The first clamping arm (193) located above is connected to the second wire-straightening plate (195). The first clamping arm (193) and the second wire-straightening plate (195) are sequentially distributed along the moving direction of the limiting column (2). A second groove (21) is provided at the bottom end of the second wire-straightening plate (195). The second groove (21) penetrates through both ends of the second wire-straightening plate (195) along the direction of the lamp strip to be clamped. The size of the second groove (21) matches the size of the two sections of the lamp strip to be clamped. After the driving component (3) drives the limiting column (2) to move intermittently each time, the two sections of the lamp strip to be clamped are located below the second groove (21), and the second groove (21) and the two clamping plates (62) correspond to the same two sections of the lamp strip to be clamped.
8. The processing equipment for the leather wire lamp according to claim 1, characterized in that, The pipe-supplying component (7) includes a second turntable (71), an eighth cylinder (72), a ninth cylinder (73), two clamping blocks (74), a pipe-outlet block (75), a tenth cylinder (76) and a cutting knife (77). The second turntable (71), the two clamping blocks (74) and the pipe-outlet block (75) are sequentially arranged on the base (1) along the length direction of the lamp strip to be sleeved towards the direction close to the lamp strip to be sleeved. The second turntable (71) is rotatably connected to the base (1). A flat sleeve strip is wound on the second turntable (71). The eighth cylinder (72) is connected to the base (1) and drives the ninth cylinder (73) to reciprocate along the length direction of the lamp strip to be sleeved. The two clamping blocks (74) are distributed along the moving direction of the limiting column (2). The ninth cylinder (73) drives the two clamping blocks (74) to move towards and away from each other reciprocally to clamp the sleeve strip in a vertical state. A vertically arranged second through groove (22) is provided on the pipe-outlet block (75). The two third grooves (10) are located between the pipe-outlet block (75) and the limiting column (2). The tenth cylinder (76) is connected to the base (1) and drives the cutting knife (77) to move vertically. The cutting knife (77) moves vertically between the pipe-outlet block (75) and the two third grooves (10).
9. The processing equipment for the optical fiber ribbon lamp according to claim 8, characterized in that, The supply pipe assembly (7) further includes a limit block (78), two first connecting columns (79), and two second connecting columns (710). The limit block (78), the two second connecting columns (710), and the two first connecting columns (79) are sequentially arranged between the second turntable (71) and the two clamping blocks (74) in the direction approaching the light strip to be sleeved. The limit block (78) is provided with a first through groove (23) arranged horizontally, and the first through groove (23) allows the sleeved strip to pass through in a horizontal state. A first channel (24) arranged vertically is formed between the two first connecting columns (79), and the first channel (24) allows the sleeved strip to pass through in a vertical state. A second channel (25) is formed between the two second connecting columns (710). The width of the second channel (25) is greater than the width of the first channel (24) and less than the width of the first through groove (23), and the width of the second channel (25) is less than the width of the sleeved strip.
10. The processing equipment for the leather wire lamp according to claim 1, characterized in that, The sleeving mechanism (300) further includes a sleeving auxiliary assembly (26). The sleeving auxiliary assembly (26) includes an eleventh cylinder (261), a twelfth cylinder (262), a thirteenth cylinder (263), and two second clamping arms (264). The eleventh cylinder (261) is connected to the base (1) and drives the twelfth cylinder (262) to reciprocate vertically. The twelfth cylinder (262) drives the thirteenth cylinder (263) to reciprocate along the length direction of the light strip to be sleeved. The two second clamping arms (264) are distributed along the moving direction of the limit column (2). The thirteenth cylinder (263) drives the two second clamping arms (264) to reciprocate towards each other and clamps the light strip to be sleeved.