Braided wire

Abstract

The utility model provides a braided wire, and relates to the technical field of braided wires. The utility model relates to a square braided wire which comprises twelve strands of fiber wires, each strand of fiber wire is tightly braided and twisted with the other eleven strands of fiber wires into a whole, the twelve strands of fiber wires are mutually twisted to form a square braided wire structure, and the braided wire structure comprises a first structural area, a second structural area, a third structural area and a fourth structural area. The first structural area and the third structural area are symmetrically distributed, the second structural area and the fourth structural area are symmetrically distributed, and a connecting line of the first structural area and the third structural area is perpendicular to a connecting line of the second structural area and the fourth structural area. The braided structure of the braided wire is square, the inherent idea that the braided structure of the fish wire is circular is broken, the gap between the braided wires is reduced, the braided wires are more compact, and the wear resistance and the tensile strength of the fish wire are improved.

Description

Technical Field

[0001] This utility model relates to the field of braided yarn technology, and in particular to a braided yarn. Background Technology

[0002] Fishing is increasingly becoming a popular outdoor activity, primarily involving using a fishing rod to catch fish from the water. The fishing line is the line attached to the fishing rod. There are many types of fishing lines, including nylon line, carbon fiber line, steel wire line, braided line, synthetic line, ceramic line, and so on.

[0003] Among them, braided yarn refers to a mesh yarn made of multiple strands of yarn. Existing braided yarn, such as that made using a 12-strand circular braiding machine, produces a circular structure after weaving. The center of this circular braided structure is hollow, which makes the braided yarn not tight enough. Utility Model Content

[0004] This utility model addresses the problems of the prior art by providing a braided line with a square braided structure, which reduces the gaps in the middle of the braid, making the braided line tighter and increasing the abrasion resistance and tensile strength of the fishing line.

[0005] Therefore, the technical solution of this utility model is a braided yarn comprising twelve fiber strands, each fiber strand being tightly woven and twisted together with another eleven fiber strands. The twelve fiber strands are twisted together to form a square braided yarn structure. The braided yarn structure includes a first structural area, a second structural area, a third structural area, and a fourth structural area. The first and third structural areas are symmetrically distributed, as are the second and fourth structural areas. The line connecting the first and third structural areas is perpendicular to the line connecting the second and fourth structural areas.

[0006] Furthermore, the first and third structural zones are woven with six-strand fiber threads, and the second and fourth structural zones are woven with another six-strand fiber threads.

[0007] Furthermore, the six fiber strands in the first and third structural regions are divided into two groups, each group consisting of three fiber strands, with the two groups of fiber strands symmetrically intersecting each other;

[0008] Furthermore, the six fiber strands in the first and third structural regions are divided into two groups, with three fiber strands in each group arranged alternately in the upper and lower sections.

[0009] Furthermore, the six fiber strands in the second and fourth structural regions are divided into two groups, each group consisting of three fiber strands, with the two groups of fiber strands symmetrically intersecting each other;

[0010] Furthermore, the six fiber strands in the second and fourth structural regions are divided into two groups, with three fiber strands in each group distributed alternately in the upper and lower parts.

[0011] Furthermore, the six fiber strands in the first and third structural zones are twisted together with the other six fiber strands in the second and fourth structural zones.

[0012] Furthermore, the fiber thread is made of ultra-high molecular weight polyethylene fiber thread.

[0013] Furthermore, the braided yarn is braided using a multi-ring braiding track groove, which includes four circular ring grooves.

[0014] Furthermore, the four circular grooves of the multi-ring woven track groove are connected tangentially in sequence, and two adjacent circular grooves are connected at the point of tangency.

[0015] The beneficial effects of this invention are that the braided yarn comprises twelve fiber strands, which are sequentially twisted together to form a square braided yarn structure. Each fiber strand is tightly woven and twisted together with the other eleven fiber strands. This braided yarn structure includes four structural zones: the first and third structural zones are symmetrically distributed, as are the second and fourth structural zones. The line connecting the first and third structural zones is perpendicular to the line connecting the second and fourth structural zones. This braided yarn structure reduces the gaps in the braided yarn, making the braided yarn tighter and increasing its abrasion resistance and tensile strength. Attached Figure Description

[0016] Figure 1 This is a schematic diagram of the overall structure of this utility model;

[0017] Figure 2 yes Figure 1 The main view;

[0018] Figure 3 yes Figure 1 Top view;

[0019] Figure 4 This is a schematic diagram of the overall structure of this utility model from another angle;

[0020] Figure 5 yes Figure 4 The main view;

[0021] Figure 6 yes Figure 4 Top view;

[0022] Figure 7 yes Figure 4 A sectional view;

[0023] Figure 8 This is a schematic diagram of the structure of a multi-ring woven track groove;

[0024] Figure 9 This is a schematic diagram of the braided circuit.

[0025] Explanation of symbols in the diagram:

[0026] 1. First structural area; 2. Second structural area; 3. Third structural area; 4. Fourth structural area; 5. Multi-ring woven track groove; 51. First circular ring groove; 52. Second circular ring groove; 53. Third circular ring groove; 54. Fourth circular ring groove. Detailed Implementation

[0027] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0028] As is well known, the cross-sectional structure of a rope is circular, and the cross-sectional structure of braided fishing lines is also circular. Traditional braided lines are woven using a 12-strand circular braiding machine, resulting in a hollow structure in the center of the woven line. This hollow structure leads to insufficient tightness in the braid, affecting the line's abrasion resistance and tensile strength. Furthermore, when a circular braided line is under stress, the hollow structure causes the line to flatten, altering its shape and usability. This application aims to solve the technical problem of insufficient tightness in braided lines due to their hollow structure, and to improve the abrasion resistance and tensile strength of fishing lines. It creatively invents a new type of braided line, breaking away from the conventional circular braided structure. This new braided line is square, reducing the gaps in the center and making the line tighter, thus increasing its abrasion resistance and tensile strength.

[0029] like Figures 1-7 As shown, this utility model provides a braided yarn comprising twelve strands of fiber yarn, preferably ultra-high molecular weight polyethylene fiber yarn. Ultra-high molecular weight polyethylene fiber, also known as high-strength and high-modulus polyethylene fiber, is currently the fiber with the highest specific strength and specific modulus in the world. It is a fiber spun from polyethylene with a molecular weight of 1 million to 5 million. This fiber has good impact resistance and high specific energy absorption.

[0030] Twelve fiber threads are twisted together to form a square braided structure. Each fiber thread is tightly woven and twisted together with the other eleven fiber threads. The braided structure includes four structural zones: the first structural zone 1, the second structural zone 2, the third structural zone 3, and the fourth structural zone 4. The first structural zone 1 and the third structural zone 3 are symmetrically distributed around the center point of the braided thread, and the second structural zone 2 and the fourth structural zone 4 are symmetrically distributed around the center point of the braided thread. The line connecting the first structural zone 1 and the third structural zone 3 is perpendicular to the line connecting the second structural zone 2 and the fourth structural zone 4.

[0031] In the twelve-strand fiber yarn, the first structural region 1 and the third structural region 3 are woven with six-strand fiber yarns. These six-strand fiber yarns are divided into two groups, each group consisting of three-strand fiber yarns. The two groups of fiber yarns are symmetrically distributed and intersected. The three-strand fiber yarns in each group are arranged alternately in the upper and lower parts, and the gaps are used to twist together the other six-strand fiber yarns. The second structural region 2 and the fourth structural region 4 are woven with another six-strand fiber yarns. These other six-strand fiber yarns are also divided into two groups, each group consisting of three-strand fiber yarns. The two groups of fiber yarns are symmetrically distributed and intersected. The three-strand fiber yarns in each group are arranged alternately in the upper and lower parts, and the gaps are used to twist together the six-strand fiber yarns in the first structural region 1 and the third structural region 3.

[0032] The braiding structure of this utility model breaks away from the conventional idea that fishing line braiding structures are circular. The braided line consists of twelve fiber strands, which are twisted together in sequence to form a square braided line structure. This reduces the gaps in the middle of the braided line, making the braided line tighter and increasing the line's abrasion resistance and tensile strength.

[0033] like Figure 8 As shown, the braided yarn of this utility model is braided using a multi-ring braiding track groove 5. The four circular grooves of the multi-ring braiding track groove 5 are connected tangentially in sequence, and two adjacent circular grooves are connected at the tangent point. That is, the first circular groove 51 is tangential and connected to the second circular groove 52 and the fourth circular groove 54 respectively; the second circular groove 52 is tangential and connected to the first circular groove 51 and the third circular groove 53 respectively; the third circular groove 53 is tangential and connected to the second circular groove 52 and the fourth circular groove 54 respectively; and the fourth circular groove 54 is tangential and connected to the first circular groove 51 and the third circular groove 53 respectively. The line connecting the centers of the four circular grooves forms a square, and the side length of the square is equal to the diameter of the circular groove.

[0034] The braiding method of this utility model is to use the multi-ring braiding track groove 5 described above for braiding. Each circular ring groove is provided with a feeding turntable, and each feeding turntable is equipped with 3 spindles.

[0035] Since the four circular grooves of the multi-ring braided track groove 5 are connected tangentially in sequence, and two adjacent circular grooves are connected at the tangent point, the spindle installed on the feeding turntable above the first circular groove 51 slides clockwise along the first circular groove 51. When the spindle moves to the tangent point between the first circular groove 51 and the second circular groove 52, the spindle switches to the second circular groove 52 to continue sliding. When the spindle moves to the tangent point between the second circular groove 52 and the third circular groove 53, the spindle switches to the third circular groove 53 to continue sliding. When the spindle moves to the tangent point between the third circular groove 53 and the fourth circular groove 54, the spindle switches to the fourth circular groove 54 to continue sliding. When the spindle moves to the tangent point between the fourth circular groove 54 and the first circular groove 51, the spindle returns to the first circular groove 52 to slide.

[0036] That is, a set of spindles are installed on the feeding turntable above the first circular annular groove 51 and the third circular annular groove 51, and the set of spindles moves clockwise along the above path.

[0037] At this time, another set of spindles is installed on the feeding turntable above the second circular annular groove 52 and the fourth circular annular groove 54. The direction of movement is counterclockwise sliding. The movement path is as follows: the spindle installed on the feeding turntable above the second circular annular groove 52 slides counterclockwise along the second circular annular groove 52. When the spindle moves to the tangent point between the first circular annular groove 51 and the second circular annular groove 52, the spindle switches to the first circular annular groove 51 and continues to slide. When the spindle moves to the tangent point between the first circular annular groove 51 and the fourth circular annular groove 54, the spindle switches to the fourth circular annular groove 54 and continues to slide. When the spindle moves to the tangent point between the third circular annular groove 53 and the fourth circular annular groove 54, the spindle switches to the third circular annular groove 53 and continues to slide. When the spindle moves to the tangent point between the third circular annular groove 53 and the second circular annular groove 52, the spindle returns to the second circular annular groove 52 and slides again.

[0038] Similarly, the two sets of spindles can also move in opposite directions. Specifically, a set of spindles is installed on the feeding turntable above the first circular groove 51 and the third circular groove 53, and this set of spindles slides counterclockwise along the multi-ring braided track groove 5; another set of spindles is installed on the feeding turntable above the second circular groove 52 and the fourth circular groove 54, and this set of spindles slides clockwise along the multi-ring braided track groove 5.

[0039] In conclusion, as follows: Figures 8-9As shown, the braiding method of this utility model is as follows: the four circular grooves of the multi-ring braiding track groove 5 are connected tangentially in sequence, and two adjacent circular grooves are connected at the tangent point. The multiple spindles installed on the four feeding turntables on the multi-ring braiding track groove 5 are divided into two groups. The multiple spindles installed on the two feeding turntables located on one diagonal are the first group, and the multiple spindles installed on the two feeding turntables located on the other diagonal are the second group. If the first group of spindles slides clockwise along the multi-ring braiding track groove 5, the second group of spindles slides counterclockwise along the multi-ring braiding track groove 5. If the first group of spindles slides counterclockwise along the multi-ring braiding track groove 5, the second group of spindles slides clockwise along the multi-ring braiding track groove 5.

[0040] However, the above description is only a specific embodiment of this utility model and should not be construed as limiting the scope of implementation of this utility model. Therefore, any substitution of equivalent components or equivalent changes and modifications made in accordance with the scope of protection of this utility model should still fall within the scope of the claims of this utility model.

Claims

1. A braided yarn, characterized in that, It includes twelve fiber threads, each of which is tightly woven and twisted together with another eleven fiber threads. The twelve fiber threads are twisted together to form a square braided structure. The braided structure includes a first structural area, a second structural area, a third structural area, and a fourth structural area. The first and third structural areas are symmetrically distributed, as are the second and fourth structural areas. The line connecting the first and third structural areas is perpendicular to the line connecting the second and fourth structural areas.

2. The braided yarn according to claim 1, characterized in that, The first and third structural regions are woven with six-strand fiber yarns, and the second and fourth structural regions are woven with another six-strand fiber yarns.

3. The braided yarn according to claim 2, characterized in that, The six fiber strands in the first and third structural regions are divided into two groups, each group consisting of three fiber strands, and the two groups of fiber strands are symmetrically distributed and intersected.

4. A braided yarn according to claim 2, characterized in that, The six fiber strands in the first and third structural regions are divided into two groups, with three fiber strands in each group arranged alternately in a vertical sequence.

5. A braided yarn according to claim 2, characterized in that, The six fiber strands in the second and fourth structural regions are divided into two groups, each group consisting of three fiber strands, and the two groups of fiber strands are symmetrically distributed and intersected.

6. A braided yarn according to claim 2, characterized in that, The six fiber strands in the second and fourth structural regions are divided into two groups, with three fiber strands in each group arranged alternately in the upper and lower parts.

7. A braided yarn according to claim 2, characterized in that, The six fiber strands in the first and third structural regions are twisted together with the other six fiber strands in the second and fourth structural regions.

8. A braided yarn according to claim 1, characterized in that, The fiber thread is ultra-high molecular weight polyethylene fiber thread.

9. A braided yarn according to claim 1, characterized in that, The braided thread is woven using a multi-ring braided track groove, which includes four circular ring grooves.

10. A braided yarn according to claim 9, characterized in that, The four circular grooves of the multi-ring woven track groove are connected tangentially in sequence, and two adjacent circular grooves are connected at the tangent point.

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