A segment end interconnection type winding device

By designing an interconnected winding device for the ends of tube segments, and utilizing a combination structure of a central shaft, a fixed truncated cone, a movable truncated cone, unit tube segments, and interconnected hooks and grooves, the problems of difficult separation of rolled edge waste and insufficient structural strength were solved, thus achieving both strength assurance and efficient resource utilization.

CN224429852UActive Publication Date: 2026-06-30薛厚章

Patent Information

Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
薛厚章
Filing Date
2025-07-11
Publication Date
2026-06-30

AI Technical Summary

Technical Problem

In existing technologies, the rolled waste is difficult to separate after it gets tangled on paper tubes or plastic tubes, resulting in resource waste, and the structural strength is affected when the number of curved components increases.

Method used

Design a segment end interconnected winding device, which adopts a combination structure of central shaft, fixed truncated cone, movable truncated cone, unit segment, elastic ring, interconnecting hook and interconnecting groove to realize the annular distribution and limiting of unit segments, ensure structural strength, and facilitate the separation of rolled edge waste.

Benefits of technology

This effectively ensures the structural strength of the unit segments, simplifies the separation process of edge-rolling waste, reduces resource waste, and improves the secondary utilization efficiency of edge-rolling waste.

✦ Generated by Eureka AI based on patent content.

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Abstract

This utility model belongs to the field of coil technology, specifically relating to a coil device for interconnecting the ends of tube segments, comprising: a central shaft; a fixed truncated cone; a movable truncated cone; a unit tube segment, one end of which abuts against the conical surface of the central truncated cone, and the other end of which abuts against the conical surface of the movable truncated cone; both ends of the unit tube segment are provided with interconnecting hooks and interconnecting grooves; the interconnecting hooks extend laterally into the interconnecting grooves of adjacent unit tube segments; the interconnecting hooks can move in the interconnecting grooves to change the distance between adjacent unit tube segments; several unit tube segments are arranged in a ring around the central shaft; an elastic ring connects all the unit tube segments and brings the unit tube segments together towards the central shaft. In this design, since the interconnecting grooves and interconnecting hooks are located at the ends of the unit tube segments, through grooves are not formed on the unit tube segments. Even when the number of unit tube segments increases and the width becomes narrower, the structural strength of the unit tube segments can still be guaranteed, and the assembly difficulty is reduced; at the same time, the mutual cooperation of the interconnecting grooves and interconnecting hooks can also be used to achieve limiting.
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Description

Technical Field

[0001] This utility model belongs to the field of coil technology, specifically relating to a coil device for interconnecting the ends of tube segments. Background Technology

[0002] Roll materials are used in a wide range of fields, such as die-cutting, slitting, laminating, rewinding, printing, bonding, labeling, winding, automatic packaging sealing, and sealing equipment for milk tea machines, all of which require the collection of rolled edges or waste. Currently, in production, paper tubes or plastic tubes are used to collect rolled edge waste, which is then wrapped around the tubes. However, this method makes it inconvenient to separate the rolled edge waste, affecting its secondary utilization and resulting in resource waste.

[0003] In the prior art, CN111517172B discloses an expansion device. In this design, the expansion tube body includes two or more arc-shaped components, and the positioning of the expansion tube body during expansion and contraction is achieved between adjacent arc-shaped components through movable blocks and movable grooves. In actual production, as the number of arc-shaped components increases, the width of the arc-shaped components also becomes narrower. Furthermore, the movable groove, being a through-groove structure, affects the structural strength of the arc-shaped components.

[0004] Therefore, it is necessary to design a segment end interconnection winding device that has reliable structural strength and can achieve limiting. Utility Model Content

[0005] To address the aforementioned problems in the existing technology, this solution provides a segment end interconnection type winding device.

[0006] The technical solution adopted in this utility model is as follows:

[0007] A segment end interconnection type winding device, comprising:

[0008] Central axis;

[0009] The fixed truncated cone is coaxially fixed on the central axis;

[0010] The movable cone is coaxially mounted on the central axis and can slide along the central axis, with the small end of the movable cone facing the small end of the fixed cone.

[0011] The unit tube segment has one end abutting against the conical surface of the intermediate truncated cone and the other end abutting against the conical surface of the movable truncated cone; both ends of the unit tube segment are provided with interconnecting hooks and interconnecting grooves; the interconnecting hooks extend laterally into the interconnecting grooves of adjacent unit tube segments; the interconnecting hooks can move in the interconnecting grooves to change the distance between adjacent unit tube segments; several unit tube segments are arranged in a ring around the central axis.

[0012] The elastic ring connects all the unit segments and brings them together towards the central axis.

[0013] As an alternative or supplement to the above structure: the interconnecting hook is L-shaped or T-shaped, and the shape of the interconnecting groove matches the interconnecting hook and its movement path.

[0014] As an alternative or supplement to the above structure: the unit tube is an integrally formed structure and is elongated; the interconnecting hook is integrally connected to the unit tube, the interconnecting hook is located at the end edge of the unit tube and extends to the end of the adjacent unit tube.

[0015] As an alternative or supplement to the above structure: the interconnecting groove is a groove structure formed on the end face of the unit tube segment.

[0016] As an alternative or supplement to the above structure: the interconnecting hook is L-shaped, the interconnecting hook includes a hook head and a hook shank, the hook head is connected to the end of the hook shank away from the unit tube segment, and the hook shank is arc-shaped.

[0017] As an alternative or supplement to the above structure: the unit segment is a multi-component combination structure, including a long strip-shaped segment body, with end connecting blocks detachably connected to both ends of the segment body, the interconnecting hook is located on the side of the end connecting block, and the two are integrated, with the interconnecting hook extending to the end connecting block of the adjacent unit segment.

[0018] As an alternative or supplement to the above structure: the interconnecting groove is a groove structure formed on the end face of the end connecting block, and the interconnecting groove is located at the end of the end connecting block facing the tube body.

[0019] As an alternative or supplement to the above structure: the interconnecting hook is T-shaped, the interconnecting hook includes a hook head and a hook shank, the hook head is connected to the end of the hook shank away from the unit tube segment, and the hook shank is arc-shaped.

[0020] The beneficial effects of this utility model are as follows:

[0021] 1. In this solution, since the interconnecting grooves and interconnecting hooks are located at the ends of the unit tube segments, they will not form through grooves on the unit tube segments. Even when the number of unit tube segments increases and the width becomes narrower, the structural strength of the unit tube segments can still be guaranteed. At the same time, the mutual cooperation of the interconnecting grooves and interconnecting hooks can also be used to achieve limiting.

[0022] 2. At the same time, since the interconnecting grooves and interconnecting hooks are located at the ends of the unit segments, the assembly difficulty when connecting the interconnecting grooves and interconnecting hooks is reduced. No through grooves are set on the unit segments, which effectively ensures the structural strength when the unit segments are made of aluminum alloy or plastic materials. Attached Figure Description

[0023] To more clearly illustrate the technical solutions in the embodiments of this scheme or the prior art, the accompanying drawings used in the description of the embodiments or the prior art will be briefly introduced below.

[0024] Figure 1 This is a schematic diagram of a segment end interconnection type winding device;

[0025] Figure 2 yes Figure 1 Diagram showing the connection structure of the interconnecting groove and interconnecting hook in the interconnected winding device at the end of the tube sheet;

[0026] Figure 3 This is a schematic diagram of another type of segment end interconnection type winding device;

[0027] Figure 4 This is an exploded structural diagram of a single-unit tunnel segment;

[0028] Figure 5 This is a diagram showing the mating structure of the two end connecting blocks.

[0029] In the figure: 1-Central axis; 2-Modible cone; 3-Unit segment; 31-Interconnecting hook; 32-Segment body; 33-End connecting block; 34-Interconnecting groove; 35-Arc groove; 36-Hook; 4-Fixed cone; 5-Clamping hoop. Detailed Implementation

[0030] The technical solutions in this embodiment will be clearly and completely described below with reference to the accompanying drawings. The described embodiments are only a part of the embodiments, not all of them. All other embodiments obtained by those skilled in the art based on the embodiments in this solution without creative effort are within the protection scope of this solution.

[0031] Example 1

[0032] like Figures 1 to 2 As shown, this embodiment designs a segment end interconnected winding device, including a central shaft 1, a movable cone 2, a unit segment 3, a fixed cone 4, an elastic ring, and other components.

[0033] The central shaft 1 adopts a circular long rod structure, and keyways can be set on the side wall of the central shaft 1. The central shaft 1 can be a solid shaft or a hollow tube.

[0034] The fixed cone 4 has a conical structure. Several grooves are provided on the conical surface of the fixed cone 4. The extension line of the grooves is located on the center line of the fixed cone 4. The number of grooves is equal to or less than the number of unit tube segments 3. The small end of the fixed cone 4 faces the unit tube segment 3. The fixed cone 4 is coaxially fixed on the central shaft 1. The fixed cone 4 can be fixed by key connection.

[0035] The movable cone 2 has a conical structure and is coaxially mounted on the central axis 1. It can slide along the central axis 1. Several grooves are provided on the conical surface of the movable cone 2. The extension line of the grooves is located on the center line of the movable cone 2. The number of grooves is equal to or less than the number of unit tube segments 3. The small end of the movable cone 2 faces the unit tube segment 3, that is, the small end of the movable cone 2 faces the small end of the fixed cone 4.

[0036] Each unit segment 3 is elongated, and several unit segments 3 are arranged around the outer periphery of the central axis 1, forming a ring around the central axis 1. One end of each unit segment 3 abuts against the conical surface of the central truncated cone, and the other end abuts against the conical surface of the movable truncated cone 2. Inner protrusions are provided at both ends of each unit segment 3, and these protrusions slide into grooves on the conical surfaces of the fixed truncated cone 4 and the movable truncated cone 2, respectively. This allows the ends of the unit segments 3 to slide along the grooves, thereby continuously converging or expanding.

[0037] Interconnecting hooks 31 and interconnecting grooves 34 are provided at both ends of each unit tube segment 3. The interconnecting hooks 31 can be L-shaped or T-shaped, and the shape of the interconnecting grooves 34 matches the interconnecting hooks 31 and their movement paths, thereby restricting the relative movement between unit tube segments 3 by utilizing the interaction between the interconnecting grooves 34 and the interconnecting hooks 31. The interconnecting hooks 31 extend laterally into the interconnecting grooves 34 of adjacent unit tube segments 3; the interconnecting hooks 31 can move within the interconnecting grooves 34 to change the distance between adjacent unit tube segments 3; several unit tube segments 3 are arranged in a ring around the central axis 1. The extension direction of the interconnecting hooks 31 is the same as the ring distribution direction of the unit tube segments 3.

[0038] The elastic ring can be a spring ring or an elastic rubber ring. The elastic ring connects all the unit tube segments 3 and brings the unit tube segments 3 together towards the central axis 1. Hooks 36 are provided on the inner side of both ends of the unit tube segments 3. The elastic ring is hooked onto the hooks 36, thereby providing a radial pulling force that brings the unit tube segments 3 together inward.

[0039] A clamp 5 is fitted onto the central shaft 1. After the position of the clamp 5 is fixed, the clamp 5 abuts against the end face of the movable cone 2 to restrict the movement of the movable cone 2.

[0040] like Figure 1 and Figure 2 As shown, each unit tube segment 3 can adopt an integrally formed structure; that is: the inner protrusion is located at the end of the corresponding unit tube segment 3 and is connected to the corresponding unit tube segment 3 as a whole; the interconnecting hook 31 is set as a whole with the corresponding unit tube segment 3, the interconnecting hook 31 is located at the end edge of the unit tube segment 3 and extends to the end of the adjacent unit tube segment 3; the hook 36 is also set as a whole with the unit tube segment 3; the interconnecting groove 34 is a groove structure formed on the end face of the unit tube segment 3.

[0041] like Figure 2 As shown, when the interconnecting hook 31 is L-shaped, the interconnecting hook 31 includes a hook head and a hook shank. The end of the hook head is connected to the end of the hook shank away from the unit tube segment 3, and the hook shank is arc-shaped. The interconnecting hooks 31 at both ends of the unit tube segment 3 have the same orientation.

[0042] Example 2

[0043] like Figure 3-5 As shown, this embodiment designs a segment end interconnected winding device, including a central shaft 1, a movable cone 2, a unit segment 3, a fixed cone 4, an elastic ring, and other components.

[0044] The central shaft 1 adopts a circular long rod structure, and keyways can be set on the side wall of the central shaft 1. The central shaft 1 can be a solid shaft or a hollow tube.

[0045] The fixed cone 4 has a conical structure. Several grooves are provided on the conical surface of the fixed cone 4. The extension line of the grooves is located on the center line of the fixed cone 4. The number of grooves is equal to or less than the number of unit tube segments 3. The small end of the fixed cone 4 faces the unit tube segment 3. The fixed cone 4 is coaxially fixed on the central shaft 1. The fixed cone 4 can be fixed by key connection.

[0046] The movable cone 2 has a conical structure and is coaxially mounted on the central axis 1. It can slide along the central axis 1. Several grooves are provided on the conical surface of the movable cone 2. The extension line of the grooves is located on the center line of the movable cone 2. The number of grooves is equal to or less than the number of unit tube segments 3. The small end of the movable cone 2 faces the unit tube segment 3, that is, the small end of the movable cone 2 faces the small end of the fixed cone 4.

[0047] Each unit segment 3 is elongated, with several unit segments 3 arranged around the outer periphery of the central axis 1, forming a ring around the central axis 1. One end of each unit segment 3 abuts against the conical surface of the central truncated cone 4, and the other end abuts against the conical surface of the movable truncated cone 2. Some unit segments 3 have inner protrusions at both ends, which slide in engagement with grooves on the conical surfaces of the fixed truncated cone 4 and the movable truncated cone 2, respectively. Other unit segments 3 have curved inclined surfaces at both ends, which engage with the conical surfaces of the fixed truncated cone 4 and the movable truncated cone 2, respectively. This allows the ends of the unit segments 3 to slide along the grooves, thus continuously converging or expanding.

[0048] Interconnecting hooks 31 and interconnecting grooves 34 are provided at both ends of each unit tube segment 3. The interconnecting hooks 31 can be L-shaped or T-shaped, and the shape of the interconnecting grooves 34 matches the interconnecting hooks 31 and their movement paths, thereby restricting the relative movement between unit tube segments 3 by utilizing the interaction between the interconnecting grooves 34 and the interconnecting hooks 31. The interconnecting hooks 31 extend laterally into the interconnecting grooves 34 of adjacent unit tube segments 3; the interconnecting hooks 31 can move within the interconnecting grooves 34 to change the distance between adjacent unit tube segments 3; several unit tube segments 3 are arranged in a ring around the central axis 1. The extension direction of the interconnecting hooks 31 is the same as the ring distribution direction of the unit tube segments 3.

[0049] The elastic ring can be a spring ring or an elastic rubber ring. The elastic ring connects all the unit tube segments 3 and brings the unit tube segments 3 together towards the central axis 1. Hooks 36 are provided on the inner side of both ends of the unit tube segments 3. The elastic ring is hooked onto the hooks 36, thereby providing a radial pulling force that brings the unit tube segments 3 together inward.

[0050] A clamp 5 is fitted onto the central shaft 1. After the position of the clamp 5 is fixed, the clamp 5 abuts against the end face of the movable cone 2 to restrict the movement of the movable cone 2.

[0051] like Figure 3-5 As shown, each unit segment 3 is a multi-component combination structure, and each unit segment 3 includes components such as the segment body 32 and the end connecting block 33.

[0052] The main body 32 of the tube segment is elongated and has threaded holes at both ends.

[0053] An end connecting block 33 is provided at the end of the segment body 32. An arc groove 35 and a screw hole are provided on the end connecting block 33. The arc groove 35 is used for the installation of the elastic ring, and the screw hole is used for the bolt to pass through so as to fix the bolt between the end connecting block 33 and the segment body 32. An end connecting block 33 is detachably connected to each end of the segment body 32.

[0054] The interconnecting hook 31 is located on the side of the end connecting block 33 and the two are integrated. The interconnecting hook 31 extends towards the end connecting block 33 of the adjacent unit segment 3. The interconnecting groove 34 is a groove structure formed on the end face of the end connecting block 33. The interconnecting groove 34 is located at the end of the end connecting block 33 facing the segment body 32.

[0055] The unit segment 3 has an inner protrusion, which is located on the end connecting block 33 at the end of the unit segment 3.

[0056] The interconnecting hook 31 is T-shaped and includes a hook head and a hook shank. The middle part of the hook head is vertically connected to the end of the hook shank away from the unit tube segment 3. The hook shank is arc-shaped. The interconnecting hooks 31 at both ends of the unit tube segment 3 are oriented in opposite directions.

[0057] The above embodiments are merely illustrative examples for clear explanation and are not intended to limit the implementation; it is neither necessary nor possible to exhaustively list all possible implementations. However, obvious variations or modifications derived therefrom remain within the scope of this technology.

Claims

1. A pipe end interconnection coiled tubing apparatus, characterized by: include: Central axis (1); The fixed cone (4) is coaxially fixed on the central shaft (1); The movable cone (2) is coaxially mounted on the central axis (1) and can slide along the central axis (1). The small end of the movable cone (2) faces the small end of the fixed cone (4). The unit tube segment (3) has one end abutting against the conical surface of the intermediate truncated cone and the other end abutting against the conical surface of the movable truncated cone (2); both ends of the unit tube segment (3) are provided with interconnecting hooks (31) and interconnecting grooves (34); the interconnecting hooks (31) extend laterally into the interconnecting grooves (34) of the adjacent unit tube segments (3); the interconnecting hooks (31) can move in the interconnecting grooves (34) to change the distance between adjacent unit tube segments (3); several unit tube segments (3) are arranged in a ring around the central axis (1); The elastic ring connects all the unit segments (3) and brings the unit segments (3) together toward the central axis (1).

2. The pipe sheet end interconnection coiled tubing apparatus of claim 1, wherein: The interconnecting hook (31) is L-shaped or T-shaped, and the shape of the interconnecting groove (34) matches the interconnecting hook (31) and its movement path.

3. A pipe joint end interconnection coiled tubing apparatus according to claim 1 or 2 wherein: The unit tube segment (3) is an integrally formed structure and is long and narrow; the interconnecting hook (31) is integrated with the unit tube segment (3), the interconnecting hook (31) is located at the end edge of the unit tube segment (3) and extends to the end of the adjacent unit tube segment (3).

4. The pipe sheet end interconnection coiled tubing apparatus of claim 3, wherein: The interconnecting groove (34) is a groove structure formed on the end face of the unit tube segment (3).

5. The pipe sheet end interconnection coiled tubing apparatus of claim 4, wherein: The interconnecting hook (31) is L-shaped and includes a hook head and a hook shank. The hook head is connected to the end of the hook shank away from the unit tube segment (3), and the hook shank is arc-shaped.

6. The pipe sheet end interconnection roll good device according to claim 1 or 2, characterized by: The unit segment (3) is a multi-component structure and includes a long strip-shaped segment body (32). End connecting blocks (33) are detachably connected to both ends of the segment body (32). The interconnecting hook (31) is located on the side of the end connecting block (33) and the two are connected as one. The interconnecting hook (31) extends to the end connecting block (33) of the adjacent unit segment (3).

7. The segment end interconnection type winding device according to claim 6, characterized in that: The interconnecting groove (34) is a groove structure formed on the end face of the end connecting block (33), and the interconnecting groove (34) is located at the end of the end connecting block (33) facing the tube body (32).

8. The pipe sheet end interconnection coiled tubing apparatus of claim 7, wherein: The interconnecting hook (31) is T-shaped and includes a hook head and a hook shank. The hook head is connected to the end of the hook shank away from the unit tube segment (3), and the hook shank is arc-shaped.