Secondary forming coating mechanism for carbon fiber spokes

Abstract

The utility model relates to the technical field of carbon fiber spokes, and discloses a carbon fiber spoke secondary forming coating mechanism which comprises an equipment bottom plate, a movable motor is fixedly connected in the equipment bottom plate, and a movable lead screw, a lower coating plate, a coating motor and an upper coating plate are connected to one end of the movable motor in an inserted mode. The device is reasonable in structure, carbon fiber filaments are put into the lower groove formed in the upper surface of the lower cladding plate, epoxy resin can be sprayed into the upper groove where the carbon fiber filaments are placed through the spray head, the brush moves downwards through the supply hydraulic device, the carbon fiber filaments in the lower groove can be straightened out, and therefore the carbon fiber filaments can be straightened out. The carbon fiber spokes can be wrapped for the second time, meanwhile, the carbon fiber filaments are evenly distributed when the carbon fiber filaments wrapped for the second time are straightened out, epoxy resin can be sprayed to the interior of the lower groove where the carbon fiber filaments are placed through a spray head, and angle yarn in the angle yarn box is evenly discharged; the surfaces of the carbon fiber spokes can be wrapped by angle yarns, so that the stability of the carbon fiber spokes and connecting pieces is enhanced.

Description

Technical Field

[0001] The utility model relates to the technical field of carbon fiber spokes, in particular to a carbon fiber spoke secondary molding and covering mechanism. Background Art

[0002] Carbon fiber spokes are lightweight, high-strength, and high-rigidity spokes suitable for hub supports of various bicycles.

[0003] A carbon fiber spoke is disclosed in the Chinese utility model patent application disclosure CN220500374U. Although the device adopts a stepped inverted buckle design to improve the adhesion between the metal parts and the carbon fiber, making the carbon fiber spokes more stable when connecting the cap head and the tooth cap, improving its strength, and thus extending its service life during use, the existing device does not solve the problem that after the carbon fiber spokes are formed, the carbon fiber filaments at the openings are unevenly distributed due to the formed socket structure, thereby affecting the mechanical strength of the two ends of the formed carbon fiber spokes. The carbon fiber spokes have poor stability when docking with the first connecting member and the second connecting member, and the two ends of the carbon fiber spokes are prone to loosening and falling off. The surface of the carbon fiber spokes is prone to residual burrs after being coated. Therefore, we propose a new device to solve the above problems. Utility Model Content

[0004] (1) Technical problems solved

[0005] In view of the shortcomings of the existing technology, the utility model provides a carbon fiber spoke secondary molding and covering mechanism, which solves the problems of easy falling off of the two ends of the carbon fiber spokes and poor stability caused by uneven distribution of carbon fiber filaments.

[0006] (2) Technical solution

[0007] To achieve the above objectives, the present invention is implemented through the following technical solutions: a carbon fiber spoke secondary molding covering mechanism, including an equipment base plate, the interior of the equipment base plate is fixedly connected to a mobile motor, one end of the mobile motor is plugged with a mobile screw, the surface thread of the mobile screw passes through a lower covering plate, the interior of the lower covering plate is fixedly connected to a covering motor, one end of the covering motor is plugged with an upper covering plate, the lower surface of the lower covering plate is fixedly connected to a vacuum pump, the upper surface of the equipment base plate is fixedly connected to a fixed hydraulic device, one end of the fixed hydraulic device is plugged with a carbon fiber box, the interior of the carbon fiber box The top of the equipment is fixedly connected to the right motor, one end of the right motor is connected to the right feeding structure, the upper surface of the carbon fiber box is fixedly connected to the supply hydraulic device, one end of the supply hydraulic device is connected to a brush, the upper surface of the equipment bottom plate is fixedly connected to the epoxy resin box, the interior of the epoxy resin box is fixedly connected to the lifting hydraulic device, one end of the lifting hydraulic device is connected to a push plate, one side of the epoxy resin box is connected to a hose, one end of the hose is connected to an angle yarn box, the lower surface of the angle yarn box is fixedly connected to a nozzle, the interior of the angle yarn box is fixedly connected to the left motor, one end of the left motor is connected to the left feeding structure.

[0008] Optionally, a sliding groove is provided on the upper surface of the equipment base plate, and the equipment base plate is slidably connected to the lower covering plate through the sliding groove.

[0009] Optionally, a fixing hole is opened inside the lower cladding plate, and the lower cladding plate is rotatably connected to the upper cladding plate through the fixing hole.

[0010] Optionally, a plurality of holes are provided on the upper surface of the lower cladding plate, and the holes are adapted to fit the vacuum pump, and the vacuum pump is located on the lower surface of the lower cladding plate near the right side.

[0011] Optionally, a pipeline is provided inside the angle yarn box, and the hose is adapted to the nozzle by passing through the pipeline.

[0012] Optionally, a bracket is fixedly connected to the upper surface of the base plate of the equipment, a supporting hydraulic device is fixedly connected to the lower surface of the bracket, a docking seat is plugged into one end of the supporting hydraulic device, a docking motor is fixedly connected to the inside of the docking seat, a turntable is plugged into one end of the docking motor, a docking hole is provided on the lower surface of the docking seat, and the docking seat is rotatably connected to the turntable through the docking hole.

[0013] Optionally, a front clamp is fixedly connected to the lower surface of the turntable, a clamp motor is fixedly connected to the interior of the front clamp, a clamp screw is plugged into one end of the clamp motor, a rear clamp is threaded through the surface of the clamp screw, a limit rod is provided on the back of the front clamp, a limit slot is provided on the front of the rear clamp, and the limit rod is slidably connected to the limit slot.

[0014] Optionally, a connecting hydraulic device is fixedly connected to the upper surface of the equipment base plate, and the connecting hydraulic device is located on the upper surface of the equipment base plate near the left side, and one end of the connecting hydraulic device is plugged into a grinding structure.

[0015] In summary, the technical effects and advantages of the utility model are:

[0016] 1. The utility model has a reasonable structure. The right feeding structure is rotated by the right motor, and the carbon fiber filaments can be put into the lower groove opened on the upper surface of the lower covering plate, and the epoxy resin can be discharged through the nozzle. The epoxy resin can be sprayed on the upper groove after the carbon fiber filaments are placed, and the brush is moved downward by the hydraulic device to straighten the carbon fiber filaments inside the lower groove. The carbon fiber spokes are placed in the lower groove of the lower covering plate, and the upper covering plate is rotated to the right by the covering motor to close the lower covering plate, and the carbon fiber spokes are covered with the carbon fiber filaments and epoxy resin by the vacuum pump, which solves the problem that the carbon fiber filaments at the opening of the carbon fiber spokes after molding due to the molding jack structure are unevenly distributed, thereby affecting the mechanical strength of the two ends of the molded carbon fiber spokes, and achieves the effect of uniform distribution of the carbon fiber filaments when the carbon fiber spokes are secondary coated and the secondary coated carbon fiber filaments are straightened, thereby greatly enhancing the mechanical strength of the carbon fiber spokes.

[0017] 2. In the utility model, epoxy resin can be discharged through the nozzle, and epoxy resin can be sprayed on the inside of the lower groove after the carbon fiber yarn is placed. The left feeding structure is rotated by the left motor to evenly discharge the angle yarn inside the angle yarn box. The upper covering plate is rotated to the right by the covering motor to close the lower covering plate. The angle yarn and epoxy resin can then be used to cover the carbon fiber spokes through the vacuum pump. This solves the problem that the carbon fiber spokes have poor stability when docking with the first connector and the second connector, and the two ends of the carbon fiber spokes are prone to loosening and falling off. The angle yarn can be used to cover the surface of the carbon fiber spokes to enhance the stability and safety of the connectors, which greatly enhances the safety of the spokes. To ensure the stability and safety of the carbon fiber spokes, the upper covering plate is rotated to the left by the covering motor to separate the upper and lower covering plates, and the docking seat is moved downward by the supporting hydraulic device. At the same time, the clamp motor drives the clamp screw to rotate to move the rear clamp forward. As the rear clamp moves forward and closes with the front clamp, the carbon fiber spokes can be clamped and fixed. The polishing structure is moved to the right by connecting the hydraulic device and passes through the carbon fiber spokes, so that one end surface of the carbon fiber spoke can be polished, which solves the problem of burrs remaining on the surface of the carbon fiber spokes after covering, and achieves the effect of polishing the burrs on the surface of the covered carbon fiber spokes, greatly enhancing the aesthetics of the carbon fiber spokes. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] Figure 1This is a schematic diagram of the structure of the utility model;

[0019] Figure 2 This is an exploded schematic diagram of the bottom plate structure of the utility model equipment;

[0020] Figure 3 This is an explosion diagram of the carbon fiber box structure of the utility model;

[0021] Figure 4 This is an exploded schematic diagram of the support structure of the utility model.

[0022] In the figure: 1. Equipment base plate; 2. Moving motor; 3. Moving screw; 4. Lower cladding plate; 5. Clamping motor; 6. Upper cladding plate; 7. Vacuum pump; 8. Fixed hydraulic device; 9. Carbon fiber yarn box; 10. Right motor; 11. Right feeding structure; 12. Supply hydraulic device; 13. Brush; 14. Epoxy resin box; 15. Lifting hydraulic device; 16. Push plate; 17. Hose; 18. Angle yarn box; 19. Nozzle; 20. Left motor; 21. Left feeding structure; 22. Bracket; 23. Support hydraulic device; 24. Docking seat; 25. Docking motor; 26. Turntable; 27. Front clamp; 28. Clamp motor; 29. ​​Clamp screw; 30. Rear clamp; 31. Connecting hydraulic device; 32. Grinding structure. DETAILED DESCRIPTION

[0023] The following will be combined with the drawings in the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the embodiments described are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without making creative efforts are within the scope of protection of the present invention.

[0024] Example: Reference Figures 1-4The carbon fiber spoke secondary molding covering mechanism shown in the figure includes an equipment base plate 1, a movable motor 2 is fixedly connected to the interior of the equipment base plate 1, a movable lead screw 3 is plugged into one end of the movable motor 2, a lower covering plate 4 is threaded on the surface of the movable lead screw 3, a covering motor 5 is fixedly connected to the interior of the lower covering plate 4, an upper covering plate 6 is plugged into one end of the covering motor 5, a vacuum pump 7 is fixedly connected to the lower surface of the lower covering plate 4, a fixed hydraulic device 8 is fixedly connected to the upper surface of the equipment base plate 1, a carbon fiber box 9 is plugged into one end of the fixed hydraulic device 8, a right motor 10 is fixedly connected to the interior of the carbon fiber box 9, and one end of the right motor 10 is plugged into There is a right feeding structure 11, the upper surface of the carbon fiber box 9 is fixedly connected to the supply hydraulic device 12, one end of the supply hydraulic device 12 is plugged with a brush 13, the upper surface of the equipment base plate 1 is fixedly connected to the epoxy resin box 14, the inside of the epoxy resin box 14 is fixedly connected to the lifting hydraulic device 15, one end of the lifting hydraulic device 15 is plugged with a push plate 16, one side of the epoxy resin box 14 is plugged with a hose 17, one end of the hose 17 is plugged with an angle yarn box 18, the lower surface of the angle yarn box 18 is fixedly connected with a nozzle 19, the inside of the angle yarn box 18 is fixedly connected to the left motor 20, and one end of the left motor 20 is plugged with a left feeding structure 21.

[0025] As a preferred implementation in this embodiment, Figure 1-Figure 3As shown, the interior of the equipment base plate 1 is fixedly connected to a moving motor 2, one end of the moving motor 2 is plugged with a moving screw 3, the surface thread of the moving screw 3 passes through a lower cladding plate 4, the upper surface of the lower cladding plate 4 is provided with a lower groove, the upper surface of the equipment base plate 1 is provided with a slide groove, the equipment base plate 1 is slidably connected to the lower cladding plate 4 through the slide groove, the interior of the lower cladding plate 4 is fixedly connected to a cladding motor 5, one end of the cladding motor 5 is plugged with an upper cladding plate 6, the upper surface of the upper cladding plate 6 is provided with an upper groove, the interior of the lower cladding plate 4 is provided with a fixing hole, the lower cladding plate 4 is rotatably connected to the upper cladding plate 6 through the fixing hole, the lower surface of the lower cladding plate 4 is fixedly connected to a vacuum pump 7, the upper surface of the lower plate 4 is provided with a plurality of holes, and the holes and the vacuum pump 7 are adapted to each other. The vacuum pump 7 is located on the lower surface of the lower cladding plate 4 near the right side. The upper surface of the equipment base plate 1 is fixedly connected to a fixed hydraulic device 8. One end of the fixed hydraulic device 8 is plugged into a carbon fiber box 9. The interior of the carbon fiber box 9 is fixedly connected to a right motor 10. One end of the right motor 10 is plugged into a right feeding structure 11. The upper surface of the carbon fiber box 9 is fixedly connected to a supply hydraulic device 12. One end of the supply hydraulic device 12 is plugged into a brush 13. The upper surface of the equipment base plate 1 is fixedly connected to an epoxy resin box 14. The interior of the epoxy resin box 14 is fixedly connected to a lifting hydraulic device 15. One end of the lifting hydraulic device 15 is plugged into a push plate 16. A hose 17 is plugged into one side of the epoxy resin box 14. One end of the hose 17 is plugged into an angle yarn box 18 The lower surface of the angle yarn box 18 is fixedly connected with a nozzle 19, and a pipeline is opened inside the angle yarn box 18. The hose 17 is adapted to the nozzle 19 by passing through the pipeline. The interior of the angle yarn box 18 is fixedly connected to the left motor 20, and one end of the left motor 20 is plugged with a left feeding structure 21. During use, the right feeding structure 11 is rotated by the right motor 10, and the carbon fiber filaments inside the carbon fiber box 9 can be evenly discharged. The carbon fiber box 9 is moved left and right by the fixed hydraulic device 8, and the carbon fiber filaments can be put into the lower groove opened on the upper surface of the lower cladding plate 4. After the insertion, the moving motor 2 drives the moving screw 3 to move the lower cladding plate 4 forward until the upper groove opened on the upper surface of the upper cladding plate 6 moves to the bottom of the carbon fiber box 9. The right feeding structure 11 is rotated by the right motor 10, and the carbon fiber filaments inside the carbon fiber box 9 can be evenly discharged. The carbon fiber box 9 is moved left and right by the fixed hydraulic device 8, and the carbon fiber filaments can be put into the upper groove opened on the upper surface of the upper cladding plate 6. After the placement is completed, the push plate 16 is moved downward by the lifting hydraulic device 15, and the epoxy resin inside the epoxy resin box 14 can be squeezed into the inside of the nozzle 19 through the hose 17, and then the epoxy resin can be discharged through the nozzle 19. The carbon fiber box 9 and the nozzle 19 are moved left and right by the fixed hydraulic device 8, and the epoxy resin can be sprayed on the inside of the upper groove after the carbon fiber filaments are placed. After the inside of the upper groove is sprayed evenly, the moving motor 2 drives the moving screw 3 to move the lower cladding plate 4 backward.Until the lower groove on the upper surface of the lower cladding plate 4 moves to just below the nozzle 19, the epoxy resin is discharged through the nozzle 19, and then the carbon fiber box 9 and the nozzle 19 are moved left and right by the fixed hydraulic device 8, and the epoxy resin can be sprayed on the inside of the lower groove after the carbon fiber filaments are placed. After the inside of the lower groove is sprayed evenly, the brush 13 is moved downward by the supply hydraulic device 12, and at the same time, the brush 13 is moved to the left by the fixed hydraulic device 8, so that the carbon fiber filaments inside the lower groove can be straightened. After the carbon fiber filaments inside the lower groove are straightened, the brush 13 is moved upward by the supply hydraulic device 12, and then the moving motor 2 drives the moving screw 3 to move the lower cladding plate 4 forward until the upper groove on the upper surface of the upper cladding plate 6 moves to just below the brush 13, and the brush 13 is moved downward by the supply hydraulic device 12. By fixing the hydraulic device 8 to move the brush 13 to the left, the carbon fiber filaments inside the upper groove can be straightened. After the carbon fiber filaments inside the upper groove are straightened, the carbon fiber filament box 9 is moved rightward back to its initial position by the fixed hydraulic device 8, and the carbon fiber spoke is placed into the lower groove of the lower covering plate 4. The upper covering plate 6 is then rotated to the right by the covering motor 5 to close the lower covering plate 4. The carbon fiber spokes are then covered with carbon fiber filaments and epoxy resin by the vacuum pump 7. This solves the problem of uneven distribution of carbon fiber filaments at the opening of the carbon fiber spokes due to the forming socket structure after the carbon fiber spokes are formed, thereby affecting the mechanical strength of the two ends of the formed carbon fiber spokes. It achieves the effect of evenly distributing the carbon fiber filaments when the carbon fiber spokes are secondary covered and the secondary covered carbon fiber filaments are straightened, greatly enhancing the mechanical strength of the carbon fiber spokes.

[0026] like Figure 4As shown, in this embodiment, the upper surface of the equipment base plate 1 is fixedly connected to a bracket 22, the lower surface of the bracket 22 is fixedly connected to a supporting hydraulic device 23, one end of the supporting hydraulic device 23 is plugged with a docking seat 24, the interior of the docking seat 24 is fixedly connected to a docking motor 25, one end of the docking motor 25 is plugged with a turntable 26, a docking hole is provided on the lower surface of the docking seat 24, the docking seat 24 is rotatably connected to the turntable 26 through the docking hole, a front clamp 27 is fixedly connected to the lower surface of the turntable 26, the interior of the front clamp 27 is fixedly connected to a clamp motor 28, one end of the clamp motor 28 is plugged with a clamp lead screw 29, the surface thread of the clamp lead screw 29 is penetrated by a rear clamp 30, a limit rod is provided on the back of the front clamp 27, and a limit position is provided on the front of the rear clamp 30 Slot, the limit rod is slidably connected to the limit slot, the upper surface of the equipment base plate 1 is fixedly connected with a connecting hydraulic device 31, the connecting hydraulic device 31 is located on the upper surface of the equipment base plate 1 near the left side, one end of the connecting hydraulic device 31 is plugged with a grinding structure 32, the upper surface of the equipment base plate 1 is provided with a driving slot, the interior of the driving slot is provided with a driver, the driver model is DM556, the driver is a digital two-phase stepper motor driver based on a 32-bit motor-specific processor, which can set the subdivision within 400 to 51200 and any current value within the rated current, which can meet the application needs of most occasions, the driver is integrated with the motor parameter automatic recognition function, which can recognize 57 / 60 motors of different specifications, automatically generate the optimal operating parameters, the best The performance of the motor is brought into play to the maximum extent, and the motor runs smoothly, with low vibration, low noise and high output. During use, the upper cladding plate 6 is rotated to the left by the cladding motor 5 to separate the upper cladding plate 6 and the lower cladding plate 4, and then the carbon fiber spokes are taken out, and the push plate 16 is moved downward by the lifting hydraulic device 15, so that the epoxy resin inside the epoxy resin box 14 can be squeezed into the inside of the nozzle 19 through the hose 17, and then the epoxy resin can be discharged through the nozzle 19, and then the carbon fiber box 9 and the nozzle 19 are moved left and right by the fixed hydraulic device 8, and the epoxy resin can be sprayed on the inside of the lower groove after the carbon fiber is placed. After the inside of the lower groove is sprayed evenly, the moving motor 2 drives the moving screw 3 to move the lower cladding plate 4 forward until the upper surface of the upper cladding plate 6 is opened. The groove moves to just below the nozzle 19, and the epoxy resin is discharged through the nozzle 19. The carbon fiber box 9 and the nozzle 19 are then moved left and right by the fixed hydraulic device 8, and the epoxy resin can be sprayed on the inside of the upper groove after the carbon fiber yarn is placed. After the inside of the upper groove is evenly sprayed, the left feeding structure 21 is rotated by the left motor 20, and the angle yarn inside the angle yarn box 18 can be evenly discharged. The angle yarn box 18 is moved left and right by the fixed hydraulic device 8, and the angle yarn can be put into the upper groove opened on the upper surface of the upper cladding plate 6. After the yarn is put in, the moving motor 2 drives the moving screw 3 to move the lower cladding plate 4 backward until the lower groove opened on the upper surface of the lower cladding plate 4 moves to just below the angle yarn box 18, and the left feeding structure 21 is rotated by the left motor 20.The angle yarn inside the angle yarn box 18 can be discharged evenly, and the angle yarn box 18 can be moved left and right by the fixed hydraulic device 8, so that the angle yarn can be put into the lower groove opened on the upper surface of the lower covering plate 4, and then the angle yarn box 18 can be moved right back to the initial position by the fixed hydraulic device 8, and the carbon fiber spokes can be put into the lower groove of the lower covering plate 4, and then the upper covering plate 6 can be rotated to the right by the covering motor 5 to close the lower covering plate 4, and then the carbon fiber spokes can be covered with the angle yarn and epoxy resin by the vacuum pump 7, which solves the problem that the carbon fiber spokes have poor stability when docking with the first connecting member and the second connecting member, and the two ends of the carbon fiber spokes are prone to loosening and falling off, and achieves the effect of using angle yarn to cover the surface of the carbon fiber spokes to enhance its stability and safety with the connecting members, which greatly enhances the stability and safety of the carbon fiber spokes. After the carbon fiber spokes are covered, the upper covering plate 6 is rotated to the left by the covering motor 5 to separate the upper covering plate 6 and the lower covering plate 4, and then the vacuum pump 7 is used. The supporting hydraulic device 23 causes the docking seat 24 to move downward, and at the same time, the clamp motor 28 drives the clamp lead screw 29 to rotate, thereby moving the rear clamp 30 forward. As the rear clamp 30 moves forward and closes with the front clamp 27, the carbon fiber spoke can be clamped and fixed. The supporting hydraulic device 23 then causes the carbon fiber spoke to move upward, and the connecting hydraulic device 31 causes the grinding structure 32 to move rightward, penetrating the carbon fiber spoke, thereby polishing the surface of one end of the carbon fiber spoke. After polishing the surface of one end of the carbon fiber spoke, the docking motor 25 drives the turntable 26 to rotate 180 degrees, thereby swapping the positions of the two ends of the carbon fiber spoke. The grinding structure 32 is then connected to the hydraulic device 31 to move rightward, penetrating the carbon fiber spoke, thereby polishing the surface of the other end of the carbon fiber spoke. This solves the problem of burrs remaining on the surface of the carbon fiber spoke after coating, achieves the effect of polishing the burrs on the surface of the coated carbon fiber spoke, and greatly enhances the aesthetics of the carbon fiber spoke.

[0027] This utility works as follows:

[0028] During use, the right feeding structure 11 is rotated by the right motor 10, so that the carbon fiber filaments inside the carbon fiber box 9 can be evenly discharged, and the carbon fiber box 9 is moved left and right by the fixed hydraulic device 8, so that the carbon fiber filaments can be put into the lower groove opened on the upper surface of the lower cladding plate 4. After the insertion, the moving motor 2 drives the moving screw 3 to move the lower cladding plate 4 forward until the upper groove opened on the upper surface of the upper cladding plate 6 moves to the bottom of the carbon fiber box 9. The right feeding structure 11 is rotated by the right motor 10, so that the carbon fiber filaments inside the carbon fiber box 9 can be evenly discharged, and the carbon fiber box 9 is moved left and right by the fixed hydraulic device 8, so that the carbon fiber filaments can be put into the upper groove opened on the upper surface of the upper cladding plate 6. After the placement is completed, the lifting hydraulic The device 15 moves the push plate 16 downward, and the epoxy resin inside the epoxy resin box 14 can be squeezed into the inside of the nozzle 19 through the hose 17, and then the epoxy resin can be discharged through the nozzle 19, and then the carbon fiber box 9 and the nozzle 19 are moved left and right by the fixed hydraulic device 8, and the epoxy resin can be sprayed on the inside of the upper groove after the carbon fiber is placed. After the interior of the upper groove is sprayed evenly, the moving motor 2 drives the moving screw 3 to move the lower cladding plate 4 backward until the lower groove opened on the upper surface of the lower cladding plate 4 moves to just below the nozzle 19, and the epoxy resin is discharged through the nozzle 19, and then the carbon fiber box 9 and the nozzle 19 are moved left and right by the fixed hydraulic device 8, and the epoxy resin can be sprayed on the inside of the lower groove after the carbon fiber is placed. After the interior of the lower groove is sprayed evenly, , the brush 13 is moved downward by supplying hydraulic device 12, and the brush 13 is moved to the left by fixing hydraulic device 8, so that the carbon fiber filaments inside the lower groove can be straightened. After the carbon fiber filaments inside the lower groove are straightened, the brush 13 is moved upward by supplying hydraulic device 12, and then the moving screw 3 is driven by moving motor 2 to move the lower cladding plate 4 forward until the upper groove opened on the upper surface of the upper cladding plate 6 moves to just below the brush 13, and the brush 13 is moved downward by supplying hydraulic device 12, and the brush 13 is moved to the left by fixing hydraulic device 8, so that the carbon fiber filaments inside the upper groove can be straightened. After the carbon fiber filaments inside the upper groove are straightened, the carbon fiber box 9 is moved rightward back to its initial position by fixing hydraulic device 8, and the carbon fiber spokes are placed The carbon fiber spokes are then covered with carbon fiber filaments and epoxy resin by the vacuum pump 7, thereby solving the problem that the carbon fiber spokes are unevenly distributed at the openings due to the formed socket structure after the carbon fiber spokes are formed, thereby affecting the mechanical strength of the two ends of the formed carbon fiber spokes. The carbon fiber spokes can be covered for the second time and the carbon fiber filaments can be straightened out, thereby greatly enhancing the mechanical strength of the carbon fiber spokes. The upper covering plate 6 is rotated to the left by the covering motor 5 to separate the upper covering plate 6 and the lower covering plate 4. The carbon fiber spokes are then taken out and the push plate 16 is moved downward by the lifting hydraulic device 15.The epoxy resin inside the epoxy resin box 14 can be squeezed into the inside of the nozzle 19 through the hose 17, and then the epoxy resin can be discharged through the nozzle 19, and then the carbon fiber box 9 and the nozzle 19 can be moved left and right by the fixed hydraulic device 8, and the epoxy resin can be sprayed on the inside of the lower groove after the carbon fiber is placed. After the inside of the lower groove is sprayed evenly, the moving motor 2 drives the moving screw 3 to move the lower cladding plate 4 forward until the upper groove opened on the upper surface of the upper cladding plate 6 moves to just below the nozzle 19, and the epoxy resin is discharged through the nozzle 19, and then the carbon fiber box 9 and the nozzle 19 can be moved left and right by the fixed hydraulic device 8, and the epoxy resin can be sprayed on the inside of the upper groove after the carbon fiber is placed. After the inside of the upper groove is sprayed evenly, the left feeding structure is moved by the left motor 20. 21 rotates, and the angle yarn inside the angle yarn box 18 can be discharged evenly. The angle yarn box 18 is moved left and right by fixing the hydraulic device 8, and the angle yarn can be put into the upper groove opened on the upper surface of the upper covering plate 6. After putting in, the moving motor 2 drives the moving screw 3 to move the lower covering plate 4 backward until the lower groove opened on the upper surface of the lower covering plate 4 moves to just below the angle yarn box 18. The left feeding structure 21 is rotated by the left motor 20, and the angle yarn inside the angle yarn box 18 can be discharged evenly. The angle yarn box 18 is moved left and right by fixing the hydraulic device 8, and the angle yarn can be put into the lower groove opened on the upper surface of the lower covering plate 4. The angle yarn box 18 is then moved to the right by fixing the hydraulic device 8 to return to its initial position, and the carbon fiber spokes are placed The lower groove of the lower covering plate 4 is inside the upper covering plate 6, and the covering motor 5 is used to rotate the upper covering plate 6 to the right to close the lower covering plate 4, and then the vacuum pump 7 can be used to cover the carbon fiber spokes with angle yarn and epoxy resin, which solves the problem that the carbon fiber spokes have poor stability when docking with the first connector and the second connector, and the two ends of the carbon fiber spokes are prone to loosening and falling off, and achieves the effect of using angle yarn to cover the surface of the carbon fiber spokes to enhance its stability and safety with the connector, greatly enhancing the stability and safety of the carbon fiber spokes. After the carbon fiber spokes are coated, the covering motor 5 is used to rotate the upper covering plate 6 to the left to separate the upper covering plate 6 and the lower covering plate 4, and then the supporting hydraulic device 23 is used to move the docking seat 24 downward, and at the same time, the clamp motor 28 is used The clamp screw 29 is driven to rotate so that the rear clamp 30 moves forward. Since the rear clamp 30 moves forward and closes with the front clamp 27, the carbon fiber spoke can be clamped and fixed. Then, the carbon fiber spoke is moved upward by supporting the hydraulic device 23. The polishing structure 32 is moved to the right by connecting the hydraulic device 31 and penetrates the carbon fiber spoke, so that the surface of one end of the carbon fiber spoke can be polished. After the surface of one end of the carbon fiber spoke is polished, the turntable 26 is driven to rotate 180 degrees by the docking motor 25 to swap the positions of the two ends of the carbon fiber spoke. Then, the polishing structure 32 is moved to the right by connecting the hydraulic device 31 and penetrates the carbon fiber spoke, so that the surface of the other end of the carbon fiber spoke can be polished, which solves the problem that burrs are easily left on the surface of the carbon fiber spoke after being covered.The burrs on the surface of the coated carbon fiber spokes can be polished, greatly enhancing the aesthetics of the carbon fiber spokes.

[0029] The electrical components mentioned in this article are all connected to the external main controller DM556 and 220V AC power, and the main controller can be a conventional known device that plays a control role such as a computer.

[0030] Finally, it should be noted that the above is only a preferred embodiment of the present invention and is not intended to limit the present invention. Although the present invention has been described in detail with reference to the aforementioned embodiments, those skilled in the art can still modify the technical solutions described in the aforementioned embodiments or make equivalent replacements for some of the technical features therein. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principles of the present invention should be included in the scope of protection of the present invention.

Claims

1. A carbon fiber spoke secondary molding and covering mechanism, comprising a device base plate (1), characterized in that: The interior of the equipment bottom plate (1) is fixedly connected to a moving motor (2), one end of the moving motor (2) is plugged with a moving lead screw (3), the surface thread of the moving lead screw (3) penetrates a lower covering plate (4), the interior of the lower covering plate (4) is fixedly connected to a covering motor (5), one end of the covering motor (5) is plugged with an upper covering plate (6), the lower surface of the lower covering plate (4) is fixedly connected to a vacuum pump (7), the upper surface of the equipment bottom plate (1) is fixedly connected to a fixed hydraulic device (8), one end of the fixed hydraulic device (8) is plugged with a carbon fiber box (9), the interior of the carbon fiber box (9) is fixedly connected to a right motor (10), one end of the right motor (10) is plugged with a right feeding structure (11), the carbon fiber The upper surface of the yarn box (9) is fixedly connected to a supply hydraulic device (12), one end of which is plugged with a brush (13), the upper surface of the equipment bottom plate (1) is fixedly connected to an epoxy resin box (14), the interior of the epoxy resin box (14) is fixedly connected to a lifting hydraulic device (15), one end of which is plugged with a push plate (16), one side of the epoxy resin box (14) is plugged with a hose (17), one end of the hose (17) is plugged with an angle yarn box (18), the lower surface of the angle yarn box (18) is fixedly connected to a nozzle (19), the interior of the angle yarn box (18) is fixedly connected to a left motor (20), and one end of the left motor (20) is plugged with a left feed structure (21).

2. The carbon fiber spoke secondary molding and covering mechanism according to claim 1, characterized in that: A sliding groove is provided on the upper surface of the equipment base plate (1), and the equipment base plate (1) is slidably connected to the lower covering plate (4) via the sliding groove.

3. The carbon fiber spoke secondary molding and covering mechanism according to claim 1, characterized in that: A fixing hole is provided inside the lower cladding plate (4), and the lower cladding plate (4) is rotatably connected to the upper cladding plate (6) through the fixing hole.

4. The carbon fiber spoke secondary molding and covering mechanism according to claim 1, characterized in that: The upper surface of the lower cladding plate (4) is provided with a plurality of holes, the holes being adapted to the vacuum pump (7), and the vacuum pump (7) being located on the lower surface of the lower cladding plate (4) near the right side.

5. The carbon fiber spoke secondary molding and covering mechanism according to claim 1, characterized in that: A pipeline is provided inside the angle yarn box (18), and the hose (17) is adapted to the nozzle (19) by passing through the pipeline.

6. The carbon fiber spoke secondary molding and covering mechanism according to claim 1, characterized in that: The upper surface of the equipment base plate (1) is fixedly connected to a bracket (22), the lower surface of the bracket (22) is fixedly connected to a supporting hydraulic device (23), one end of the supporting hydraulic device (23) is plugged into a docking seat (24), the interior of the docking seat (24) is fixedly connected to a docking motor (25), one end of the docking motor (25) is plugged into a turntable (26), a docking hole is opened on the lower surface of the docking seat (24), and the docking seat (24) is rotatably connected to the turntable (26) through the docking hole.

7. The carbon fiber spoke secondary molding and covering mechanism according to claim 6, characterized in that: The lower surface of the turntable (26) is fixedly connected to a front clamp (27), the interior of the front clamp (27) is fixedly connected to a clamp motor (28), one end of the clamp motor (28) is plugged with a clamp lead screw (29), the surface thread of the clamp lead screw (29) passes through a rear clamp (30), a limiting rod is provided on the back of the front clamp (27), and a limiting slot is provided on the front of the rear clamp (30), and the limiting rod is slidably connected to the limiting slot.

8. The carbon fiber spoke secondary molding and covering mechanism according to claim 1, characterized in that: A connecting hydraulic device (31) is fixedly connected to the upper surface of the equipment base plate (1), and the connecting hydraulic device (31) is located near the left side of the upper surface of the equipment base plate (1). A grinding structure (32) is plugged into one end of the connecting hydraulic device (31).

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