An auxiliary tool for rewinding reelless 3D printing filament products.

Abstract

This utility model relates to the field of 3D printing technology and discloses an auxiliary tool for winding 3D printing filament discless products. It includes a disc A and a disc B. Disc A has a cross-shaped groove, and disc B has a cross-shaped protrusion that matches the groove. Both discs A and B have coaxially arranged mounting holes, chip clearance positions, and steps. Discs A and B are made of 3D printing filament. This utility model solves the problems of disc synchronization difference and slippage by matching the cross-shaped groove of disc A with the cross-shaped protrusion of disc B, preventing chip displacement and eliminating the need for manual correction. The chip clearance positions with cross-shaped grooves on the discs effectively protect the chips and prevent physical damage caused by filament pressure during winding. The auxiliary tool is made of 3D printing filament material, reducing the risk of filament scratches. The disc thickness is consistent with the filament tray, allowing for mode switching without parameter adjustment, simplifying operation and ensuring production continuity.

Description

Technical Field

[0001] This utility model belongs to the field of 3D printing technology, specifically, it relates to an auxiliary tool for winding up 3D printing filament consumables without a reel. Background Technology

[0002] The winding process of 3D printing filaments is a crucial step in the 3D printing industry chain. Reelless winding, as a flexible and efficient method, is widely used in the production and processing of various 3D printing filaments. During reelless winding, specialized auxiliary tools are required to achieve orderly winding of the filament while protecting the chips on the inner spool of the paper, ensuring the quality and stability of the finished product. These auxiliary tools must be compatible with existing winding machines to achieve rapid assembly and stable operation, meeting the needs of large-scale production.

[0003] However, the inner and outer discs of the current winding aids on the market lack positioning structures, resulting in poor synchronization and easy slippage during winding, which leads to chip displacement and requires manual correction, affecting production efficiency. Furthermore, the chips lack protective structures, making them susceptible to physical damage from pressure on the wire. In addition, the winding aids are made of metal, which can easily scratch the wire. The thickness of the tools differs from that of the reel winding fixture, requiring adjustment of equipment parameters during mode switching, making operation complex and affecting production continuity.

[0004] In view of this, this utility model is hereby proposed. Utility Model Content

[0005] To address the problems of current market-available winding aids, such as the lack of positioning structures in the inner and outer discs, poor synchronization during winding, easy slippage leading to chip displacement requiring manual correction and impacting production efficiency, the lack of chip protection structures allowing the cable to easily compress and damage the chip, the use of metal materials in the winding aids which easily scratch the cable, the difference in thickness between the tool and the reel winding fixture, the need to adjust equipment parameters during mode switching, complex operation, and disruption of production continuity, the basic concept of this utility model is as follows: An auxiliary tool for winding 3D printing filament reels includes a disk A and a disk B. Disk A has a cross-shaped groove, and disk B has a cross-shaped protrusion that matches the cross-shaped groove. Both disks A and B have coaxially arranged mounting holes, chip clearance positions, and steps. Both disks A and B are made of 3D printing filament.

[0006] In a preferred embodiment of this utility model, the cross groove is formed in the center region of the end face of disk A, and the cross groove extends radially along disk A.

[0007] In a preferred embodiment of this utility model, the cross protrusion is provided in the center area of ​​the end face of disk B, the cross protrusion extends radially along disk B, and the height of the cross protrusion is adapted to the depth of the cross groove.

[0008] In a preferred embodiment of this utility model, the end face of the A disk with the cross groove is provided with a circular groove, the circular groove is coaxially arranged with the assembly hole, and the diameter of the circular groove is larger than the diameter of the assembly hole.

[0009] In a preferred embodiment of this utility model, the end face of the B disk with the cross protrusion is provided with a circular groove, the circular groove is coaxially arranged with the assembly hole, and the diameter of the circular groove is larger than the diameter of the assembly hole.

[0010] In a preferred embodiment of this utility model, four chip clearance slots are provided on both disks A and B. The four chip clearance slots are evenly distributed along the circumference of disks A and B, and the chip clearance slots are cross-shaped grooves.

[0011] In a preferred embodiment of this utility model, the sidewalls of disks A and B are integrally connected with four steps, which are evenly distributed along the circumference of disks A and B, and the four steps are vertically protruding around the corresponding disk bodies.

[0012] In a preferred embodiment of this utility model, the thickness of the A disk and the B disk is the same as the thickness of the 3D printing filament material disk, the mounting holes penetrate through the thickness direction of the A disk and the B disk respectively, and the diameter of the mounting holes is adapted to the mounting shaft diameter of the winding machine mold position.

[0013] Compared with the prior art, the present invention has the following advantages: This invention solves the problems of disc synchronization difference and slippage by matching the cross groove of disc A with the cross protrusion of disc B, avoiding chip displacement and eliminating the need for manual correction. The chip clearance space with cross-shaped groove structure on the disc provides effective protection for the chip and prevents physical damage caused by the pressure of the filament during winding. The auxiliary tool is made of 3D printing consumable material, reducing the risk of filament scratches. The disc thickness is consistent with the material tray, and mode switching can be achieved without parameter adjustment, simplifying operation and ensuring production continuity.

[0014] The specific embodiments of this utility model will be described in further detail below with reference to the accompanying drawings. Attached Figure Description

[0015] In the attached diagram: Figure 1 A 3D model of an auxiliary tool for winding up a reelless filament product for 3D printing; Figure 2 An exploded view of an auxiliary tool for winding up reelless 3D printing filament products; Figure 3 A 3D diagram of disk A, which is an auxiliary tool for winding up a reelless filament product in 3D printing; Figure 4 A 3D diagram of disk B, which is an auxiliary tool for winding up a reelless 3D printing filament consumable.

[0016] In the diagram: 1. Disk A; 11. Cross groove; 2. Disk B; 21. Cross protrusion; 3. Circular groove; 4. Step; 5. Chip clearance space; 6. Assembly hole. Detailed Implementation

[0017] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the technical solutions in the embodiments will be clearly and completely described below with reference to the accompanying drawings. The following embodiments are used to illustrate this utility model.

[0018] like Figures 1 to 4 As shown, an auxiliary tool for winding discless 3D printing filament products includes a disc A 1 and a disc B 2. Disc A 1 has a cross groove 11, and disc B 2 has a cross protrusion 21, which is adapted to the cross groove 11. Both disc A 1 and disc B 2 have coaxially arranged mounting holes 6, chip clearance positions 5, and steps 4. Discs A 1 and B 2 are made of 3D printing filament. In this configuration, the cross groove 11 and the cross protrusion 21 are adapted to achieve the positioning of discs A 1 and B 2. The mounting holes 6 provide a foundation for the installation of both discs with the winding machine mold position. The chip clearance positions 5 are used to accommodate chips. The steps 4 can protect the inner shaft of the paper. The material of the 3D printing filament can reduce the risk of filament scratches. All components work together to meet the auxiliary needs of winding discless products.

[0019] like Figures 1 to 4 As shown, in a specific embodiment, the cross groove 11 is formed in the center area of ​​the end face of disk A 1, and the cross groove 11 extends radially along disk A 1. In this configuration, placing the cross groove 11 at the center of the end face of disk A 1 and extending radially enables more uniform force distribution and precise positioning when subsequently docking with the cross protrusion 21 of disk B 2, ensuring that disk A 1 and disk B 2 remain coaxial and synchronized during rotation.

[0020] like Figures 1 to 4 As shown, a cross-shaped protrusion 21 is further provided in the center area of ​​the end face of disk B 2. The cross-shaped protrusion 21 extends radially along disk B 2, and the height of the cross-shaped protrusion 21 is adapted to the depth of the cross-shaped groove 11. In this configuration, the cross-shaped protrusion 21 and the cross-shaped groove 11 are correspondingly opened in the center area of ​​the two disks and extend radially. With the matching height and depth, disk A 1 and disk B 2 can be tightly fitted together, avoiding relative slippage during winding and ensuring synchronous operation of the inner and outer disks.

[0021] like Figures 1 to 4 As shown, furthermore, the end face of disk A1 with the cross groove 11 has a circular groove 3. The circular groove 3 is coaxially arranged with the mounting hole 6, and the diameter of the circular groove 3 is larger than the diameter of the mounting hole 6. In this arrangement, the circular groove 3 is coaxial with the mounting hole 6 and has a larger diameter, which can accommodate the head of the fastener. When disk A1 is connected to the winding machine mold position through the mounting hole 6, the fastener can fit against the bottom of the circular groove 3, improving the flatness and stability of disk A1 after installation.

[0022] like Figures 1 to 4 As shown, furthermore, the end face of disk B 2 with the cross protrusion 21 has a circular groove 3. The circular groove 3 is coaxially arranged with the mounting hole 6, and the diameter of the circular groove 3 is larger than the diameter of the mounting hole 6. In this arrangement, corresponding to the circular groove 3 structure of disk A 1, the circular groove 3 on disk B 2 cooperates with the mounting hole 6, which can not only provide installation space for fasteners, but also ensure the firmness of the connection between disk B 2 and the winding machine mold position, while maintaining the structural consistency of the two disks after assembly.

[0023] like Figures 1 to 4 As shown, furthermore, four chip clearance positions 5 are provided on both disks A1 and B2. These four chip clearance positions 5 are evenly distributed along the circumference of disks A1 and B2, and are cross-shaped grooves. In this configuration, the four cross-shaped groove chip clearance positions 5 are evenly distributed along the circumference of the disk body, corresponding to the chip mounting positions on the inner shaft of the paper. The cross-shaped grooves effectively limit the movement of the chips, preventing them from shifting during the winding process.

[0024] like Figures 1 to 4 As shown, furthermore, four steps 4 are integrally connected to the side walls of both disk A1 and disk B2. The four steps 4 are evenly distributed along the circumference of disk A1 and disk B2, and are vertically protruding around the corresponding disk body. In this configuration, the four steps 4 are evenly distributed along the circumference of the disk body's side wall and are vertically protruding, which can support the inner shaft of the paper during the winding process, preventing the inner shaft of the paper from being damaged due to concentrated force. At the same time, the integrally connected structure ensures the load-bearing stability of the steps 4.

[0025] like Figures 1 to 4 As shown, the thickness of disks A1 and B2 is consistent with the thickness of the 3D printing filament material disk. The mounting holes 6 penetrate the thickness direction of disks A1 and B2 respectively, and the diameter of the mounting holes 6 matches the mounting shaft diameter of the winding machine mold position. In this setup, the disk thickness is consistent with the material disk, eliminating the need to adjust equipment parameters when switching between disk-based and diskless winding. The mounting holes 6 penetrating the disks, with their matching diameter to the mounting shaft diameter, ensure that disks A1 and B2 can be stably mounted on the winding machine mold position.

[0026] The implementation principle of the auxiliary tool for winding 3D printing filament discless products in this embodiment is as follows: When the auxiliary tool for winding 3D printing filament discless products is working, disk A1 and disk B2 are first installed on the mold position of the winding machine through their respective coaxially opened assembly holes 6. The diameter of the assembly hole 6 is adapted to the mounting shaft diameter of the winding machine mold position, ensuring that disk A1 and disk B2 are stably assembled and rotate coaxially with the mounting shaft of the winding machine.

[0027] During installation, the radially extending cross groove 11 on the center area of ​​the end face of disk A1 matches the radially extending cross protrusion 21 on the center area of ​​the end face of disk B2, thus positioning disks A1 and B2 and preventing relative sliding during winding, ensuring synchronous operation of the inner and outer disks. Both the end face of disk A1 with the cross groove 11 and the end face of disk B2 with the cross protrusion 21 have circular grooves 3 coaxial with the mounting holes 6, and the diameter of the circular grooves 3 is larger than the diameter of the mounting holes 6. This, combined with fasteners, further enhances the stability of the connection between disks A1 and B2 and the winding machine mold.

[0028] Both disks A1 and B2 have four cross-shaped slots 5 evenly spaced along the circumference. Before winding, the chips are placed in the corresponding chip clearance slots 5. The cross-shaped slots can limit the chips and prevent the winding line from directly pressing on the chips during the winding process.

[0029] Both disk A1 and disk B2 have four steps 4 evenly distributed along the circumference on their side walls. These steps 4 are vertically protruding around the corresponding disk body and can support the inner shaft of the paper during winding, preventing the inner shaft of the paper from being damaged.

[0030] Furthermore, the thickness of disks A1 and B2 is consistent with the thickness of the 3D printing filament material disk, so that there is no need to adjust the winding machine cable clamp parameters when switching between disked and diskless winding. Combined with the fact that disks A1 and B2 are made of 3D printing filament, the risk of the filament being scratched during the winding process is reduced, ultimately achieving stable winding of diskless products.

Claims

1. An auxiliary tool for 3D printing filament consumable off-the-disk product winding, comprising an A-disk (1) and a B-disk (2), characterized in that, The A disk (1) has a cross groove (11), and the B disk (2) has a cross protrusion (21). The cross protrusion (21) is adapted to the cross groove (11). The A disk (1) and the B disk (2) both have coaxially arranged assembly holes (6). The A disk (1) and the B disk (2) both have chip clearance positions (5). The A disk (1) and the B disk (2) both have steps (4). The A disk (1) and the B disk (2) are made of 3D printing consumables.

2. The auxiliary tool for 3D printing filament consumable reel-to-reel product according to claim 1, wherein, The cross groove (11) is formed in the center region of the end face of disk A (1), and the cross groove (11) extends radially along disk A (1).

3. The auxiliary tool for rewinding 3D printing filament reels according to claim 1, characterized in that, The cross protrusion (21) is provided in the center area of ​​the end face of disk B (2). The cross protrusion (21) extends radially along disk B (2), and the height of the cross protrusion (21) is adapted to the depth of the cross groove (11).

4. The auxiliary tool for rewinding 3D printing filament reels according to claim 1, characterized in that, The A disk (1) has a cross groove (11) on its end face and a circular groove (3) is provided. The circular groove (3) is coaxially arranged with the assembly hole (6) and the diameter of the circular groove (3) is larger than the diameter of the assembly hole (6).

5. The auxiliary tool for rewinding 3D printing filament reels according to claim 1, characterized in that, The B disk (2) has a circular groove (3) on the end face of the cross protrusion (21). The circular groove (3) is coaxially arranged with the assembly hole (6), and the diameter of the circular groove (3) is larger than the diameter of the assembly hole (6).

6. The auxiliary tool for rewinding 3D printing filament reels according to claim 1, characterized in that, Four chip clearance slots (5) are provided on the disks of disk A (1) and disk B (2). The four chip clearance slots (5) are evenly distributed along the circumference of disk A (1) and disk B (2), and the chip clearance slots (5) are cross-shaped grooves.

7. The auxiliary tool for rewinding 3D printing filament reels according to claim 1, characterized in that, The sidewalls of disk A (1) and disk B (2) are integrally connected with four steps (4). The four steps (4) are evenly distributed along the circumference of disk A (1) and disk B (2), and the four steps (4) are vertically protruding around the corresponding disk body.

8. The auxiliary tool for rewinding 3D printing filament reels according to claim 1, characterized in that, The thickness of disks A (1) and B (2) is the same as the thickness of the 3D printing filament material disk. The assembly hole (6) passes through the thickness direction of disks A (1) and B (2) respectively, and the diameter of the assembly hole (6) is adapted to the mounting shaft diameter of the winding machine mold position.

Images