A multi-station multi-variety glass fiber drawing machine with staggered arrangement
By setting up two sets of upper and lower head components on the glass fiber drawing machine and arranging them on opposite sides, the problem of low efficiency of existing equipment has been solved, and efficient multi-variety production and capacity improvement have been achieved.
Patent Information
- Application Number
- CN202522177451.9
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-10-15
- Publication Date
- 2026-08-25
- Estimated Expiration
- 2035-10-15
AI Technical Summary
Existing glass fiber drawing machines are mainly single-head structures, which have low efficiency, and the spinneret configuration of dual-head drawing machines makes it difficult to significantly increase production capacity.
Design a multi-station, multi-variety glass fiber drawing machine with opposite-side arrangement. It is equipped with two sets of upper and lower machine head components. Through a flipping mechanism, a wire blocking mechanism, a arranging mechanism, and an automatic wire feeding mechanism, the upper and lower machine head components are arranged on opposite sides, each corresponding to a spinneret for drawing. By increasing the number of spinnerets, two sets of yarns can be drawn simultaneously without interference.
It improves production efficiency, increases yarn weight, extends drawing time, and can simultaneously draw two different types of yarn to meet the needs of multi-variety production. It also achieves various production conditions such as single-draw, double-draw, and triple-draw through the grooved drum mechanism.
Smart Images
Figure CN224677983U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the technical field of glass fiber drawing machines, and in particular to a multi-station, multi-variety glass fiber drawing machine with different side arrangement. Background Technology
[0002] In the field of new materials, glass fiber, due to its core properties such as high strength, corrosion resistance, and excellent insulation, has been widely used in key industries such as electronics and information, aerospace, building materials, and transportation, and its market demand shows a trend of continuous growth and diversification. A glass fiber drawing machine is a mechanical device that draws molten glass into fiber filaments at high speed and winds them into fiber rolls according to a certain pattern.
[0003] Currently, the mainstream glass fiber drawing machines on the market are mainly of the single-head structure, with the core being a fixed configuration of "single impeller + single spinneret". Each time, only one impeller can be driven to complete the drawing operation, resulting in low efficiency. To match the drawing capacity of the single impeller, the design flow rate of the corresponding spinneret is generally small, leading to low overall production capacity.
[0004] To improve the efficiency of single-head drawing machines, some companies have begun to introduce dual-head wire drawing machines. By arranging two sets of heads on the upper and lower parts of the machine frame, two impellers can be used to draw wire simultaneously, theoretically increasing drawing efficiency. However, this type of equipment mainly uses a "multi-head + single-stencil" configuration. The upper and lower sets of heads share the same glass melt supply from the same stencil, and the glass melt output from the stencil is distributed to the two sets of heads only through a flow-dividing structure. Although this can increase the flow rate of the stencil, the effect is not significant and it is difficult to substantially increase production capacity. Utility Model Content
[0005] To address the aforementioned problems, this utility model provides a multi-station, multi-variety glass fiber drawing machine with staggered opposite sides.
[0006] The above-mentioned technical objective of this utility model is achieved through the following technical solution: a multi-station, multi-variety glass fiber drawing machine with arranging and arranging on opposite sides, comprising a frame, a base plate provided on the side of the frame, two mounting holes provided on the base plate, a turntable provided in each of the two mounting holes, a head assembly provided on the turntable, two sets of flipping mechanisms provided in the frame for driving the two turntables to rotate respectively, arranging mechanisms provided on the frame on the sides of the upper and lower head assemblies, the two arranging mechanisms being arranged on opposite sides, two sets of wire-blocking mechanisms provided on the frame corresponding to the upper and lower head assemblies respectively, a transverse sliding groove provided at the lower part of the base plate, an automatic wire-drawing and loading mechanism slidably arranged in the transverse sliding groove, the automatic wire-drawing and loading mechanism being used to cooperate with the upper and lower head assemblies for loading.
[0007] Furthermore, the turntable has two through holes symmetrically arranged at its center, and the head assembly includes two main shaft mechanisms disposed within the two through holes, with an impeller mechanism disposed at the outer end of each main shaft mechanism.
[0008] Furthermore, the substrate has two horizontally arranged transverse grooves at the position corresponding to the arrangement mechanism. A fixed plate is provided on the inner side of the substrate between the two transverse grooves. The arrangement mechanism includes a transverse plate that is slidably disposed on the fixed plate. The transverse plate is provided with a transverse axis and a support axis. The transverse axis and the support axis pass through the two transverse grooves from the inside to the outside and are provided with a support arm at one end located on the outside of the substrate. A groove cylinder mechanism is provided on the support arm.
[0009] Furthermore, the slotted cylinder mechanism includes a bracket and a cable tray box mounted on the support arm. One end of the cable tray box is fixed to the support arm by clamping, and the other end is connected to the bracket at the end away from the support arm via an angle adjustment plate. A camshaft coaxially arranged with the transverse axis is rotatably mounted inside the cable tray box. A cable tray motor is mounted on the transverse plate corresponding to the position of the transverse axis. A transmission shaft is connected to the output shaft of the cable tray motor via a coupling. The transmission shaft passes through the transverse axis and the support arm and is connected to the camshaft. Several double helical grooves are spaced apart on the camshaft. A long strip-shaped notch along the length of the machine head assembly is opened on the side of the cable tray box adjacent to the corresponding head assembly. An upper guide rail and a lower guide rail are respectively mounted on the upper and lower sides of the notch on the cable tray box. Several cable tray shuttles are slidably mounted between the upper and lower guide rails. Several cable tray shuttles correspond one-to-one with several double helical grooves and form a sliding fit. A carbon rod is also rotatably mounted below the cable tray shuttles in the cable tray box.
[0010] Furthermore, the fixed plate is provided with two horizontal slide rails spaced vertically, and a slider is slidably mounted on the horizontal slide rails. The horizontal moving plate is fixedly connected to the slider. A horizontal rack is also provided on the fixed plate between the two horizontal slide rails. A horizontal moving motor is provided on the horizontal moving plate. The output shaft of the horizontal moving motor passes through the horizontal moving plate and has a gear at its end. The gear meshes with the horizontal rack.
[0011] Furthermore, the wire-blocking mechanism includes a rodless cylinder fixedly installed in the frame and a fixed sleeve installed on the base plate. A clamping block is provided on the slide of the rodless cylinder. A waterproof lubricating sleeve is provided at the front end of the fixed sleeve. A supporting copper sleeve is provided inside the waterproof lubricating sleeve. A sealing ring is provided at the front end of the supporting copper sleeve. A wire-blocking rod parallel to the head assembly is slidably installed inside the supporting copper sleeve. One end of the wire-blocking rod is located inside the frame and fixedly connected to the clamping block, and the other end is located outside the frame and is provided with a wire-blocking frame. A wire-blocking plate is provided on the wire-blocking frame, and the wire-blocking plate extends directly above the corresponding arranging mechanism.
[0012] Furthermore, an S-plate is provided on the turntable between the two main spindle mechanisms, and a baffle plate is obliquely arranged on the base plate between the upper and lower machine head assemblies. The highest end of the baffle plate is located below the arrangement mechanism corresponding to the upper machine head device, and the lowest end is located above the S-plate on the lower turntable.
[0013] Furthermore, a swing cylinder is provided on the side of the lower plate of the baffle plate away from the base plate. The output axis of the swing cylinder extends outward from the baffle plate and is provided with a swing rod. A swing wire hook is provided at the end of the swing rod away from the swing cylinder.
[0014] Furthermore, the automatic yarn feeding mechanism includes a sliding sleeve slidably disposed in a transverse sliding groove. A sliding seat is disposed on the sliding sleeve within the frame. Horizontal slide rails are disposed on the inner side of the base plate on the upper and lower sides of the transverse sliding groove. The sliding seat is slidably disposed on the two horizontal slide rails by a slider. A drive cylinder for driving the sliding seat to slide is also disposed within the frame. A mounting frame is disposed at the outer end of the sliding sleeve. A traction plate is disposed on the mounting frame. A traction groove is formed on the traction plate. The traction groove extends to the side of the traction plate away from the base plate, and both sides of the groove wall are curved. A traction roller group is disposed on the mounting frame below the traction groove. A drive motor is disposed at the inner end of the sliding sleeve within the frame. A transmission sleeve is rotatably disposed within the sliding sleeve. The inner end of the transmission sleeve is connected to the output shaft of the drive motor, and the outer end is connected to the traction roller group. Two sets of yarn swing rods are rotatably disposed on the lower plate of the traction plate. A rotating component for driving the yarn swing rods to rotate is disposed on the upper plate of the traction plate. The two sets of yarn swing rods are used to guide the yarn when the two sets of machine head components are loaded onto the machine.
[0015] In summary, this utility model has the following beneficial effects:
[0016] 1. In this application, two sets of upper and lower die head assemblies are set up, and a flipping mechanism, a wire blocking mechanism, a arranging mechanism, and an automatic wire feeding mechanism are provided. The arranging mechanisms corresponding to the upper and lower die head assemblies are arranged on opposite sides, so that the working positions of the upper and lower die head assemblies are distributed on different sides. In this way, the upper and lower die head assemblies can each correspond to a spinneret for wire drawing. Thus, one wire drawing machine can correspond to two spinnerets, thereby increasing the number of spinnerets in each production line and thus increasing the production capacity.
[0017] 2. In this application, the automatic yarn feeding mechanism slides horizontally to cooperate with the two sets of head assemblies for feeding. This allows the upper and lower sets of head assemblies to work separately, so that the two sets of yarns can be drawn simultaneously without interference. It can be adapted to high-flow spindles, increase the weight of the yarn bundle, thereby extending the drawing time and improving work efficiency. Furthermore, by controlling the different rotation speeds of the two sets of head assemblies, two different types of yarn can be drawn simultaneously to meet the needs of multi-variety production.
[0018] 3. In this application, a grooved cylinder mechanism is set up. The transmission shaft and camshaft are driven by the wire drawing motor to rotate and drive several wire drawing shuttles to reciprocate. The wire drawing is performed in conjunction with the rotation of the impeller mechanism. By setting the number of wire drawing shuttles and double helical grooves on the camshaft, one-part drawing, two-part drawing, three-part drawing or even multi-part drawing can be achieved to meet the production needs of different working conditions. Attached Figure Description
[0019] Figure 1 This is a schematic diagram of the overall structure of an embodiment of the present utility model;
[0020] Figure 2 This is a front structural diagram of an embodiment of the present utility model;
[0021] Figure 3 This is a front structural schematic diagram of another arrangement of the present utility model;
[0022] Figure 4 This is a schematic diagram of the front structure of the substrate for implementing this utility model;
[0023] Figure 5 yes Figure 1 A magnified structural diagram of part A;
[0024] Figure 6 This is a schematic diagram of the arrangement mechanism according to an embodiment of the present utility model;
[0025] Figure 7 This is a schematic diagram of the camshaft structure according to an embodiment of the present invention;
[0026] Figure 8 This is a schematic diagram of the wire-blocking mechanism according to an embodiment of the present invention;
[0027] Figure 9 This is a cross-sectional structural diagram of the fixing sleeve and the waterproof lubrication sleeve according to an embodiment of the present invention;
[0028] Figure 10 This is a schematic diagram of the drive section of the automatic wire feeding mechanism inside the frame of this utility model embodiment.
[0029] In the diagram: 10. Frame; 11. Base plate; 12. Mounting hole; 13. Turntable; 131. Through hole; 132. S-plate; 14. Transverse sliding groove; 15. Transverse moving groove; 16. Fixing plate; 161. Transverse slide rail; 162. Transverse rack; 17. Water baffle; 18. Horizontal slide rail; 20. Tilting mechanism; 30. Arrangement mechanism; 31. Transverse moving plate; 311. Transverse moving motor; 312. Gear; 32. Transverse moving shaft; 33. Support shaft; 34. Support arm; 35. Slotted cylinder mechanism; 351. Bracket; 352. Cable tray; 353. Camshaft; 354. Cable moving motor; 355. Drive shaft; 356. Double helical groove; 357. Upper guide rail; 358. 359. Lower guide rail; 36. Wire shuttle; 47. Carbon rod; 48. Wire blocking mechanism; 49. Rodless cylinder; 40. Fixed sleeve; 41. Clamping block; 42. Waterproof lubricating sleeve; 43. Supporting copper sleeve; 44. Sealing ring; 45. Wire blocking rod; 46. Wire blocking frame; 47. Wire blocking plate; 58. Automatic wire feeding mechanism; 59. Sliding sleeve; 50. Transmission sleeve; 51. Sliding seat; 52. Drive cylinder; 53. Mounting bracket; 54. Traction plate; 55. Traction groove; 56. Traction roller group; 57. Drive motor; 58. Yarn swing rod; 59. Rotating assembly; 60. Main shaft mechanism; 70. Impeller mechanism; 81. Swing cylinder; 82. Swing rod; 83. Wire swing hook. Detailed Implementation
[0030] The technical solutions in the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, and not all embodiments. All other embodiments obtained by those skilled in the art based on the embodiments of this application without creative effort are within the scope of protection of this application.
[0031] like Figure 1-10 As shown in the illustration, this application discloses a multi-station, multi-variety glass fiber drawing machine with symmetrical arrangement, including a frame 10. A base plate 11 is provided on the side of the frame 10, and two mounting holes 12 are provided on the base plate 11. A turntable 13 is provided in each of the two mounting holes 12, and a machine head assembly is provided on the turntable 13. By setting up the two sets of machine head assemblies, the two sets of machine head assemblies can work separately, so that two sets of yarns can be drawn simultaneously without interference. It can be adapted to high-flow spools, increasing the weight of the yarn bundle, thereby extending the drawing time and improving work efficiency. In addition, by controlling the different rotation speeds of the two sets of machine head assemblies, two different varieties of yarn can be drawn simultaneously to meet the needs of multi-variety production.
[0032] The head assembly includes two main shaft mechanisms 60, with an impeller mechanism 70 located at the outer end of each main shaft mechanism 60. The main shaft mechanisms 60 drive the impeller mechanisms 70 to rotate, and the impeller mechanisms 70 are used to mount yarn bobbins and perform yarn drawing. Two through holes 131 are symmetrically formed on the turntable 13, and the two main shaft mechanisms 60 are respectively disposed within the two through holes 131. Two sets of tilting mechanisms 20 are installed inside the frame to drive the rotation of the two turntables 13. The tilting mechanisms 20 drive the turntables 13 to rotate, causing the two main shaft mechanisms 60 and the impeller mechanisms 70 to tilt and switch positions, thus switching between the working position and the standby position.
[0033] The frame 10 has a arranging mechanism 30 on each side of the upper and lower head assembly. The frame 10 also has two sets of wire-blocking mechanisms 40 corresponding to the upper and lower head assemblies. A transverse sliding groove 14 is provided at the lower part of the base plate 11, within which an automatic wire-drawing and loading mechanism 50 is slidably arranged. The automatic wire-drawing and loading mechanism 50 is used to load the upper and lower head assemblies onto the machine, while the arranging mechanism 30 and the wire-blocking mechanism 40 are used to draw the wire in conjunction with the corresponding head assembly.
[0034] In specific configuration, the upper and lower arrangement mechanisms 30 are arranged on opposite sides. That is, the upper arrangement mechanism 30 is located on the left side of the corresponding head assembly and the lower arrangement mechanism 30 is located on the right side of the corresponding head assembly, or the upper arrangement mechanism 30 is located on the right side of the corresponding head assembly and the lower arrangement mechanism 30 is located on the left side of the corresponding head assembly. By arranging the upper and lower arrangement mechanisms 30 on opposite sides, the working positions of the upper and lower head assemblies are distributed on different sides. This allows the upper and lower head assemblies to each correspond to a spinneret for wire drawing. In this way, one wire drawing machine can correspond to two spinnerets, thereby increasing the number of spinnerets on each production line and thus increasing production capacity.
[0035] Specifically, the base plate 11 has two horizontally arranged transverse grooves 15 at the position corresponding to the arrangement mechanism 30. A fixing plate 16 is provided on the inner side of the base plate 11 between the two transverse grooves 15. Two transverse slide rails 161 are arranged vertically and vertically on the fixing plate 16, and a slider is slidably arranged on the transverse slide rails 161. The arrangement mechanism 30 includes a transverse plate 31 fixedly connected to the slider. The transverse plate 31 slides laterally on the fixing plate 16 through the sliding engagement between the slider and the transverse slide rails 161. A transverse rack 162 is also provided on the fixing plate 16 between the two transverse slide rails 161. A transverse motor 311 is provided on the transverse plate 31. The output shaft of the transverse motor 311 passes through the transverse plate 31 and has a gear 312 at its end. The gear 312 meshes with the transverse rack 162. The transverse motor 311 drives the gear 312 to rotate, and with the cooperation of the transverse rack 162, the transverse plate 31 slides on the fixed plate 16 along the transverse slide rail 161, moving closer to or away from the corresponding head assembly.
[0036] The transverse plate 31 is provided with a transverse axis 32 and a support axis 33. The transverse axis 32 and the support axis 33 pass through two transverse grooves 15 from the inside to the outside and are provided with a support arm 34 at one end located on the outside of the base plate 11. The support arm 34 is provided with a groove cylinder mechanism 35. The slotted cylinder mechanism 35 includes a bracket 351 and a cable box 352 mounted on a support arm 34. One end of the cable box 352 is fixed to the support arm 34 by clamping, and the other end is connected to the bracket 351 at the end away from the support arm 34 via an angle adjustment plate. A camshaft 353, coaxially arranged with the transverse axis 32, is rotatably mounted inside the cable box 352. A cable motor 354 is mounted on the transverse plate 31 at the position corresponding to the transverse axis 32. A transmission shaft 355 is connected to the output shaft of the cable motor 354 via a coupling. The transmission shaft 355 passes through the transverse axis 32 and the support arm 34 and is connected to the camshaft 353, thereby driving the transmission shaft 355 to rotate the camshaft 353 through the cable motor 354.
[0037] A long, narrow notch extending along the length of the head assembly is provided on one side of the yarn guide box 352 near the corresponding head assembly. An upper guide rail 357 and a lower guide rail 358 are respectively located on the upper and lower sides of the notch on the yarn guide box 352. Several yarn guide shuttles 359 are slidably arranged between the upper and lower guide rails 357 and 358. Several double helical grooves 356 are spaced apart on the camshaft 353. Each double helical groove 356 consists of two intersecting helical grooves that connect at their ends and are rounded. Each yarn guide shuttle 359 corresponds one-to-one with a double helical groove 356 and forms a sliding fit; that is, one end of each yarn guide shuttle 359 is slidably positioned within the double helical groove 356 in the yarn guide box 352. Thus, when the camshaft 353 rotates, it drives the yarn guide shuttle 359 to reciprocate within the double helical groove 356. A carbon rod 36 is also rotatably mounted below the yarn guide shuttles 359 in the yarn guide box 352 to guide the yarn. The number of wire guide shuttles 359 and double spiral grooves 356 can be set according to the on-site production needs, enabling production conditions of one-part pulling, two-part pulling, three-part pulling, or even multiple-part pulling.
[0038] The wire-blocking mechanism 40 includes a rodless cylinder 41 fixedly installed in the frame 10 and a fixed sleeve 42 installed on the base plate 11. A clamping block 43 is provided on the slide of the rodless cylinder 41. A waterproof lubricating sleeve 44 is provided at the front end of the fixed sleeve 42. A supporting copper sleeve 45 is provided inside the waterproof lubricating sleeve 44. A sealing ring 46 is provided at the front end of the supporting copper sleeve 45. A wire-blocking rod 47 parallel to the head assembly is slidably installed inside the supporting copper sleeve 45. One end of the wire-blocking rod 47 is located inside the frame 10 and fixedly connected to the clamping block 43. The other end is located outside the frame 10 and is provided with a wire-blocking frame 48. A wire-blocking plate 49 is provided on the wire-blocking frame 48. The wire-blocking plate 49 extends directly above the corresponding arranging mechanism 30. The copper sleeve 45 provides support for the front end of the guide rod 47. The rodless cylinder 41 then drives the guide rod 47 and the guide frame 48 to reciprocate. At the start of yarn drawing and before bobbin changing, the guide plate 49 on the guide frame 48 pushes the yarn to the winding ring position of the impeller mechanism 70 for loading and bobbin changing. A lubrication hole can also be provided on the inner end face of the rear end of the fixed sleeve 42. During loading and bobbin changing, grease can be added through the lubrication hole to ensure smoother reciprocating movement of the guide rod 47. Simultaneously, the sealing ring 46 cleans any dirt adhering to the guide rod 47. The waterproof lubrication sleeve 44 and the fixed sleeve 42 are connected by a screw-tightening design. If the copper sleeve 45 or the sealing ring 46 is damaged, the waterproof lubrication sleeve 44 can be easily disassembled by loosening the screw, saving time, reducing maintenance time, and improving production efficiency.
[0039] The automatic wire feeding mechanism 50 includes a sliding sleeve 51 slidably disposed within a transverse sliding groove 14. A sliding seat 52 is disposed on the sliding sleeve 51 within the frame 10. Horizontal slide rails 18 are disposed on the inner side surface of the base plate 11 on the upper and lower sides of the transverse sliding groove 14. The sliding seat 52 is slidably disposed on the two horizontal slide rails 18 via a slider. A drive cylinder 53 is also disposed within the frame 10 to drive the sliding seat 52 to slide. The drive cylinder 53 drives the sliding seat 52 to slide on the horizontal slide rails 18, thereby causing the sliding sleeve 51 to slide within the transverse sliding groove 14, realizing the horizontal sliding of the automatic wire feeding mechanism 50, so as to feed the two sets of head assemblies onto the machine respectively.
[0040] A mounting bracket 54 is provided at the outer end of the sliding sleeve 51. A traction plate 55 is provided on the mounting bracket 54. A traction groove 551 is provided on the traction plate 55. The traction groove 551 extends to the side of the traction plate 55 away from the base plate 11, and both sides of the groove wall of the traction groove 551 are curved. In this way, the traction groove 551 can correspond to the yarn on both sides and provide a guiding path for the yarn on both sides. Two sets of yarn swinging rods 58 are rotatably arranged on the lower plate surface of the traction plate 55. A rotating assembly 59 is provided on the upper plate surface of the traction plate 55 to drive the yarn swinging rods 58 to rotate. The two sets of yarn swinging rods 58 are used to guide the yarn when the two sets of machine head assemblies are mounted, so as to guide the yarn on both sides into the traction groove 551 respectively. A traction roller group 56 is provided on the mounting frame 54 below the traction groove 551. A drive motor 57 is provided inside the frame 10 at the inner end of the sliding sleeve 51. A transmission sleeve 511 is rotatably provided inside the sliding sleeve 51. The inner end of the transmission sleeve 511 is connected to the output shaft of the drive motor 57, and the outer end is connected to the traction roller group 56. The drive motor 57 drives the transmission sleeve 511 to drive the traction roller group 56 to rotate, which is used to wind yarn and assist the machine head device in loading the machine.
[0041] An S-plate 132 is positioned on the turntable 13 between the two main shaft mechanisms 60. A baffle plate 17 is obliquely arranged on the base plate 11 between the upper and lower machine head assemblies. The highest point of the baffle plate 17 is below the arrangement mechanism 30 corresponding to the upper machine head device, and the lowest point is above the S-plate 132 on the lower turntable 13. The baffle plate 17 guides the water dripping from the upper grooved cylinder mechanism 35 to the lower S-plate 132 and drains it away, preventing the water from dripping onto the lower yarn and causing contamination.
[0042] A swing cylinder 80 is provided on the side of the lower plate of the baffle plate 17 away from the base plate 11. The output axis of the swing cylinder 80 extends outward from the baffle plate 17 and is provided with a swing rod 81. A swing hook 82 is provided at the end of the swing rod 81 away from the swing cylinder 80. When the upper head assembly completes the roller coaster, the swing cylinder 80 drives the swing rod 81 and the swing hook 82 to move in the yarn direction, so that the swing hook 82 strikes the taut yarn between the upper head assembly and the automatic yarn feeding mechanism 50, causing the yarn to break and thus severing the yarn connection between the upper head assembly and the automatic yarn feeding mechanism 50.
[0043] The above description is merely a preferred embodiment of this utility model. The protection scope of this utility model is not limited to the above embodiments. All technical solutions falling within the scope of this utility model's concept are protected. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principle of this utility model should also be considered within the protection scope of this utility model.
Claims
1. A multi-station, multi-variety glass fiber drawing machine with staggered opposite sides, characterized in that: The system includes a frame (10), a base plate (11) on the side of the frame (10), two mounting holes (12) on the base plate (11), a turntable (13) in each of the two mounting holes (12), a head assembly on the turntable (13), two sets of flipping mechanisms (20) for driving the two turntables (13) to rotate in the frame (10), a arranging mechanism (30) on the side of the two sets of head assemblies on the frame (10) and the two sets of arranging mechanisms (30) are arranged on opposite sides, and two sets of wire-blocking mechanisms (40) are also provided on the frame (10) corresponding to the two sets of head assemblies, and a transverse sliding groove (14) is provided at the bottom of the base plate (11), an automatic wire-drawing and loading mechanism (50) is slidably arranged in the transverse sliding groove (14), and the automatic wire-drawing and loading mechanism (50) is used to cooperate with the two sets of head assemblies to load the wire onto the machine.
2. The multi-station, multi-variety glass fiber drawing machine with staggered opposite sides according to claim 1, characterized in that: The turntable (13) has two through holes (131) symmetrically arranged in the center. The machine head assembly includes two main shaft mechanisms (60) arranged in the two through holes (131). An impeller mechanism (70) is arranged at the outer end of the main shaft mechanism (60).
3. The multi-station, multi-variety glass fiber drawing machine with staggered opposite sides as described in claim 1, characterized in that: The substrate (11) has two horizontally arranged transverse grooves (15) at the position corresponding to the arrangement mechanism (30). A fixing plate (16) is provided on the inner side of the substrate (11) between the two transverse grooves (15). The arrangement mechanism (30) includes a transverse plate (31) that is slidably arranged on the fixing plate (16). A transverse shaft (32) and a support shaft (33) are provided on the transverse plate (31). The transverse shaft (32) and the support shaft (33) pass through the two transverse grooves (15) from the inside to the outside and are provided with a support arm (34) at one end located on the outside of the substrate (11). A slotted cylinder mechanism (35) is provided on the support arm (34).
4. A multi-station, multi-variety glass fiber drawing machine with staggered opposite sides as described in claim 3, characterized in that: The slotted cylinder mechanism (35) includes a bracket (351) and a cable tray (352) mounted on a support arm (34). One end of the cable tray (352) is fixed to the support arm (34) by clamping, and the other end is connected to the bracket (351) away from the support arm (34) via an angle adjustment plate. A camshaft (353) coaxially arranged with the transverse axis (32) is rotatably mounted inside the cable tray (352). A cable motor (354) is mounted on the transverse plate (31) at a position corresponding to the transverse axis (32). A drive shaft (355) is connected to the output shaft of the cable motor (354) via a coupling. The drive shaft (355) passes through the transverse axis (32) and the support arm (34). Connected to the camshaft (353), the camshaft (353) is provided with several segments of double helical grooves (356) at intervals. The wiring box (352) is provided with a long strip-shaped notch along the length direction of the head assembly on the side adjacent to the corresponding head assembly. The wiring box (352) is provided with an upper guide rail (357) and a lower guide rail (358) on the upper and lower sides of the notch, respectively. Several wiring shuttles (359) are slidably arranged between the upper guide rail (357) and the lower guide rail (358). The several wiring shuttles (359) correspond one-to-one with the several double helical grooves (356) and form a sliding fit. The wiring box (352) is also rotatably arranged with a carbon rod (36) below the wiring shuttles (359).
5. A multi-station, multi-variety glass fiber drawing machine with staggered opposite sides as described in claim 3, characterized in that: The fixed plate (16) is provided with two horizontal slide rails (161) spaced vertically. A slider is slidably provided on the horizontal slide rails (161). The transverse plate (31) is fixedly connected to the slider. A transverse rack (162) is also provided on the fixed plate (16) between the two horizontal slide rails (161). A transverse motor (311) is provided on the transverse plate (31). The output shaft of the transverse motor (311) passes through the transverse plate (31) and a gear (312) is provided at its end. The gear (312) meshes with the transverse rack (162).
6. A multi-station, multi-variety glass fiber drawing machine with staggered opposite sides as described in claim 1, characterized in that: The wire-blocking mechanism (40) includes a rodless cylinder (41) fixedly installed in the frame (10) and a fixed sleeve (42) installed on the base plate (11). A clamping block (43) is provided on the slide of the rodless cylinder (41). A waterproof lubricating sleeve (44) is provided at the front end of the fixed sleeve (42). A supporting copper sleeve (45) is provided inside the waterproof lubricating sleeve (44). A sealing ring (46) is provided at the front end of the supporting copper sleeve (45). A wire-blocking rod (47) parallel to the head assembly is slidably installed inside the supporting copper sleeve (45). One end of the wire-blocking rod (47) is located inside the frame (10) and fixedly connected to the clamping block (43). The other end is located outside the frame (10) and is provided with a wire-blocking frame (48). A wire-blocking plate (49) is provided on the wire-blocking frame (48). The wire-blocking plate (49) extends to the top of the corresponding arranging mechanism (30).
7. A multi-station, multi-variety glass fiber drawing machine with staggered opposite sides as described in claim 1, characterized in that: An S-plate (132) is provided on the turntable (13) between the two main shaft mechanisms (60). A baffle plate (17) is obliquely arranged on the base plate (11) between the upper and lower sets of machine head assemblies. The highest end of the baffle plate (17) is located below the arrangement mechanism (30) corresponding to the upper machine head device, and the lowest end is located above the S-plate (132) on the lower turntable (13).
8. A multi-station, multi-variety glass fiber drawing machine with staggered opposite sides as described in claim 7, characterized in that: A swing cylinder (80) is provided on the side of the lower plate of the baffle plate (17) away from the base plate (11). The output axis of the swing cylinder (80) extends outward from the baffle plate (17) and is provided with a swing rod (81). A swing wire hook (82) is provided at the end of the swing rod (81) away from the swing cylinder (80).
9. A multi-station, multi-variety glass fiber drawing machine according to claim 1, characterized in that: The automatic wire feeding mechanism (50) includes a sliding sleeve (51) slidably disposed in a transverse sliding groove (14). A sliding seat (52) is disposed on the sliding sleeve (51) within the frame (10). Horizontal slide rails (18) are disposed on the inner side of the base plate (11) on the upper and lower sides of the transverse sliding groove (14). The sliding seat (52) is slidably disposed on the two horizontal slide rails (18) by a slider. A drive cylinder (53) for driving the sliding seat (52) to slide is also disposed within the frame (10). A mounting bracket (54) is disposed at the outer end of the sliding sleeve (51). A traction plate (55) is disposed on the mounting bracket (54). A traction groove (551) is opened on the traction plate (55), and the traction groove (551) extends to the traction plate (55). The side away from the substrate (11) and the two sides of the traction groove (551) are curved. The mounting frame (54) is provided with a traction roller group (56) below the traction groove (551). The inner end of the sliding sleeve (51) is provided with a drive motor (57) inside the frame (10). The sliding sleeve (51) is rotatably provided with a transmission sleeve (511). The inner end of the transmission sleeve (511) is connected to the output shaft of the drive motor (57), and the outer end is connected to the traction roller group (56). The lower plate of the traction plate (55) is rotatably provided with two sets of yarn swing rods (58). The upper plate of the traction plate (55) is provided with a rotating component (59) for driving the yarn swing rods (58) to rotate. The two sets of yarn swing rods (58) are respectively used for yarn guidance when the two sets of machine head components are mounted.