Mesh swimsuit fabric

By setting up tightly arranged diamond-shaped through holes in the swimsuit fabric and utilizing the multi-directional stretching ability of spandex fiber, the existing swimsuit fabric is not breathable and easy to absorb, achieving higher breathability and elasticity, reducing the resistance and skin burden during swimming.

CN223017123UActive Publication Date: 2025-06-24SHAOXING YILU TEXTILE TECHNOLOGY CO LTD
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Patent Information

Application Number
CN202422293946.3
Authority / Receiving Office
CN · China
Patent Type
Utility models(China)
Current Assignee / Owner
Filing Date
2024-09-20
Publication Date
2025-06-24
Estimated Expiration
2034-09-20

AI Technical Summary

Technical Problem

Existing swimsuit fabrics are both not breathable and prone to water when swimming, resulting in increased resistance and long-term wear can cause skin problems.

Method used

Mesh swimsuit fabric is used, and the elasticity of the fabric is increased by setting closely arranged diamond-shaped through holes in the fabric, and the multi-directional stretching ability of spandex fiber is used to improve the elasticity of the fabric.

Benefits of technology

It improves the breathability and elasticity of the fabric, reduces the resistance and skin burden during swimming, and avoids the phenomenon of water filling.

✦ Generated by Eureka AI based on patent content.

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Abstract

The mesh swimsuit fabric comprises a first fabric area and a second fabric area, the second fabric area is distributed in an inclined grid shape, the first fabric area is located in grids of the second fabric area, and the first fabric area comprises a through hole in the center of the first fabric area. By adopting the weaving density of the swimsuit fabric, the swimsuit fabric can be tightly attached to the human body, the through holes are formed in the fabric, the air permeability can be improved when the swimsuit fabric is worn in swimming, and due to the fact that the through holes are tightly arranged and arranged in a large number, the situation that the skin of the human body feels uncomfortable due to stuffiness when the swimsuit fabric is worn for a long time is avoided. The fabric is tightly attached to the human body, so that resistance during swimming is reduced, the fabric is distributed in a rhombus shape, spandex fibers are added to the fabric, the fabric can be stretched at multiple angles, the elasticity of the fabric is improved, and swimming can be stretched to a larger extent.
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Description

Technical Field

[0001] The utility model relates to the field of fabrics, and more specifically, to a mesh swimsuit fabric. Background Art

[0002] Existing swimsuits need to reduce the resistance during swimming, so the fabrics used are relatively closely fitted to the human body. However, wearing them for a long time during swimming will cause the fabrics to be less breathable, thus triggering skin problems. If the swimsuit is loose, it will be prone to water accumulation when worn due to being too large or too loose, thus increasing the resistance during swimming. Moreover, since the fabrics become less elastic after being closely fitted, the clothing will rupture when stretched too much, thus affecting the user. Content of the Utility Model

[0003] The purpose of the utility model is to overcome the above-mentioned deficiencies of the prior art, and provide a mesh swimsuit fabric. By adopting the knitting density of the swimsuit fabric, the fabric can be closely fitted to the human body as a swimsuit fabric, but the fabric forms through holes, which can increase the air permeability when worn for swimming. And because the through holes are closely arranged and there are many of them, the human skin will not feel uncomfortable due to stuffiness when worn for a long time. And because the fabric is relatively closely fitted to the human body, the resistance during swimming is reduced. Moreover, the fabric forms a diamond arrangement, and spandex fibers are added to the fabric, enabling the fabric to be stretched in multiple angles, thereby increasing the elasticity of the fabric and allowing a greater degree of stretching during swimming.

[0004] In order to achieve the above purpose, the utility model adopts the following technical solutions:

[0005] The utility model discloses a mesh swimsuit fabric, which includes a first fabric area and a second fabric area. The second fabric area is distributed in a diagonal grid pattern, and the first fabric area is located within the grid of the second fabric area. The first fabric area includes a through hole at its center.

[0006] Further, both the first fabric area and the second fabric area are diamond-shaped, and the second fabric area is distributed in a diagonal grid pattern with a 35-degree included angle.

[0007] Further, the first fabric area further includes at least one through hole arranged along at least one of its diagonals.

[0008] Further, two through holes are arranged on each of the two diagonals of the first fabric area, and each through hole is located at the included angle of the second fabric area.

[0009] Further, the two through holes on each diagonal of the first fabric area are symmetrically distributed with respect to the through hole at the center.

[0010] Further, the fabric is woven with 70D / 24F nylon semi-dull fiber and 70D spandex fiber in a cycle of 36 vertical rows and 18 horizontal rows.

[0011] Further, in one cycle, with the weaving of vertical rows 19 - 24 and horizontal row 10 as the center, the second fabric area has an X-shaped structure. One of the X-shaped structures is formed by weaving vertical rows 1 - 6 and horizontal row 1 to vertical row 35 - vertical row 6 and horizontal row 18 of the next cycle. The through holes are formed by weaving vertical rows 2 - 5 and horizontal rows 4 - 6, horizontal rows 9 - 11, horizontal rows 14 - 16, vertical rows 12 - 15, vertical rows 28 - 31 and horizontal rows 9 - 11. The rest of the weaving with the horizontal rows is the first fabric area.

[0012] Further, the diameter of the through holes is 1 mm - 2 mm.

[0013] Further, the fabric is woven with a warp density of 32 cpc and a weft density of 20 wpi, forming a gram weight of 210 g / m².

[0014] The beneficial effects of the present utility model are:

[0015] A swimsuit fabric with through holes is formed by weaving. The through holes are arranged relatively closely but have a small diameter. Thus, without affecting swimming, the air permeability of the fabric is increased, so that the fabric will not cause skin burden even when worn for a long time. The diamond arrangement formed by weaving combined with spandex fiber enables the fabric to be stretched in multiple angles, increasing the fabric elasticity, so that the fabric not only increases the air permeability during swimming, but also can be stretched to a greater extent during swimming. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 It is a schematic structural diagram of a mesh swimsuit fabric in this embodiment;

[0017] Figure 2 It is a weaving diagram of a mesh swimsuit fabric in this embodiment.

[0018] Reference numerals: First fabric area 100, Second fabric area 200, Through hole 300. DETAILED DESCRIPTION OF THE EMBODIMENTS

[0019] Next, the technical solutions in the embodiments of the present utility model will be clearly and completely described in conjunction with the drawings in the embodiments of the present utility model. Obviously, the described embodiments are only a part of the embodiments of the present utility model, rather than all the embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without making creative efforts belong to the scope of protection of the present utility model.

[0020] Such asFigure 1 As shown in Figure 2, a mesh swimwear fabric includes a first fabric area 100 and a second fabric area 200. The second fabric area 200 is distributed in a diagonal grid pattern. The fabric is woven with 70D / 24F polyamide semi-dull fiber and 70D spandex fiber in a cycle of 36 vertical rows and 18 horizontal rows. In one cycle, with the vertical rows 19 - 24 and the horizontal row 10 as the center, the second fabric area 200 forms an X-shaped structure. One of the X-shaped structures is woven from vertical rows 1 - 6 and horizontal row 1 and woven to vertical rows 3 - 8 and horizontal row 2, vertical rows 3 - 8 and horizontal row 2 are woven and woven to vertical rows 5 - 10 and horizontal row 3, vertical rows 5 - 10 and horizontal row 3 are woven and woven to vertical rows 7 - 12 and horizontal row 4, vertical rows 7 - 12 and horizontal row 4 are woven and woven to vertical rows 9 - 14 and horizontal row 5, vertical rows 9 - 14 and horizontal row 5 are woven and woven to vertical rows 11 - 16 and horizontal row 6, vertical rows 11 - 16 and horizontal row 6 are woven and woven to vertical rows 13 - 18 and horizontal row 7, vertical rows 13 - 18 and horizontal row 7 are woven and woven to vertical rows 15 - 20 and horizontal row 8, vertical rows 15 - 20 and horizontal row 8 are woven and woven to vertical rows 17 - 22 and horizontal row 9, vertical rows 17 - 22 and horizontal row 9 are woven and woven to vertical rows 19 - 24 and horizontal row 10, vertical rows 19 - 24 and horizontal row 10 are woven and woven to vertical rows 21 - 26 and horizontal row 11, vertical rows 21 - 26 and horizontal row 11 are woven and woven to vertical rows 23 - 28 and horizontal row 12, vertical rows 23 - 28 and horizontal row 12 are woven and woven to vertical rows 25 - 30 and horizontal row 13, vertical rows 25 - 30 and horizontal row 13 are woven and woven to vertical rows 27 - 32 and horizontal row 14, vertical rows 27 - 32 and horizontal row 14 are woven and woven to vertical rows 29 - 34 and horizontal row 15, vertical rows 29 - 34 and horizontal row 15 are woven and woven to vertical rows 31 - 36 and horizontal row 16, vertical rows 31 - 36 and horizontal row 16 are woven and woven to vertical rows 33 - vertical row 2 of the next cycle and horizontal row 17, vertical rows 33 - vertical row 2 of the next cycle and horizontal row 17 are woven and woven to vertical rows 35 - vertical row 4 of the next cycle and horizontal row 18. The other of the X-shaped structures is opposite to the one with vertical rows 19 - 24 and horizontal row 10 as the center. The second fabric area 200 forms a rhombus with the X-shaped structure, so that the fabric fibers cross. Because the fibers are polyamide semi-dull fiber and spandex fiber, the multi-directional stretching of the spandex fiber is relatively large due to the formed crossing, and the fabric coils will not easily come loose. Therefore, the elasticity of the woven second fabric area 200 is relatively large. When a person wears it, the fabric can fit the body more closely, thus reducing the resistance during swimming, and the stability of the fabric structure is better.

[0021] The first fabric area 100 is located within the grid of the second fabric area 200. The through holes 300 are formed by knitting the longitudinal rows 2 - 5 and the transverse rows 4 - 16. The longitudinal rows 12 - 15, the longitudinal rows 28 - 31 and the transverse rows 9 - 11 are knitted to form. The longitudinal rows 2 - 5 and the transverse rows 9 - 11 are knitted, and the rest of the knitting with the transverse rows are all for the first fabric area 100. Since the second fabric area 200 is knitted into a rhombus due to the X-shaped structure, the first fabric area 100 is also knitted into a rhombus. The first fabric area 100 is knitted by polyamide semi-dull fiber and spandex fiber, enabling the first fabric area 100 to be stretched in multiple directions along with the second fabric area 200. And because of the rhombus knitting within the second fabric area 200, the loops between the first fabric area 100 and the second fabric area 200 are wound around each other, thus making the structure of the first fabric area 100 more stable. Combining with the elasticity of the spandex fiber, the first fabric area 100 closely adheres to the human body following the second fabric area 200, thereby reducing the resistance during swimming. And because the polyamide fiber does not absorb water, and the area of the first fabric area 100 is larger than that of the second fabric area 200, the fabric will not increase the swimming resistance due to water absorption during wearing, nor will it be impossible to take off due to water absorption of the fabric.

[0022] The first fabric area 100 includes a through hole 300 at its center. The through hole 300 at the center is formed by knitting of vertical rows 2 - 5 and horizontal rows 9 - 11. The first fabric area 100 also includes at least one through hole 300 disposed along at least one of its diagonals. In this embodiment, two through holes 300 are provided along each of the two diagonals of the first fabric area 100. On the vertical diagonal of the first fabric area 100, the two through holes 300 are respectively formed by knitting of vertical rows 2 - 5 and horizontal rows 4 - 6, horizontal rows 15 - 16. On the horizontal diagonal of the first fabric area 100, the two through holes 300 are respectively formed by knitting of horizontal rows 9 - 11 and vertical rows 12 - 15, vertical rows 28 - 31. Since the second fabric area 200 is distributed in an inclined grid at an angle of 35 degrees, the through hole 300 formed by knitting of vertical rows 2 - 5 and horizontal rows 4 - 6, horizontal rows 15 - 16 is located at the vertical included angle of the second fabric area 200, and the through hole 300 formed by knitting of horizontal rows 9 - 11 and vertical rows 12 - 15, vertical rows 28 - 31 is located at the horizontal included angle of the second fabric area 200, so that the two through holes 300 on each diagonal of the first fabric area 100 are symmetrically distributed with respect to the through hole 300 at the center. Since the first fabric area 100 and the second fabric area 200 closely fit the human body, an airtight phenomenon will occur when worn for a long time. Therefore, through holes 300 are provided in the first fabric area 100. Due to the existence of the through holes 300, the air permeability of the fabric increases when wearing and swimming, so that there will be no stuffy feeling caused by wearing for a long time and no skin problems will occur, thus reducing the resistance during swimming. And because of the arrangement of the through holes 300 and the nylon fiber used in the fabric, the fabric will not become bulky, so that the weight of the fabric can be reduced and the swimming resistance can be reduced. At the same time, the through holes 300 can also quickly drain water out of the body and there will be no water pocketing phenomenon.

[0023] The diameter of the through hole 300 is 1 mm - 2 mm. Preferably, the diameter of the through hole 300 is 1.5 mm. If the diameter of the through hole 300 is less than 1 mm, because the through hole 300 is too small, water will enter the fabric during swimming and cannot be quickly drained, thus increasing the swimming resistance. If the diameter of the through hole 300 is greater than 2 mm, because the through hole 300 is too large, the through hole 300 is likely to be unable to protect privacy due to the stretching of the elasticity. Therefore, the diameter of the through hole 300 is preferably 1.5 mm. And because the through holes 300 are arranged relatively closely and there are many small through holes, the breathable area is increased, so that the air permeability of the fabric is increased but the privacy protection is not affected.

[0024] The fabric is woven with a warp density of 32 cpc and a weft density of 20 wpi, forming a gram weight of 210 g / m². It is made of 70D / 24F semi-dull polyamide fiber and 70D spandex fiber. The fabric is relatively tight. Due to the structure formed by the fabric and the weaving of spandex fiber, the first fabric area 100 and the second fabric area 200 are woven into a diamond shape. The multi-directional stretching of the diamond shape makes the elasticity of the fabric not cause the clothing fabric to rupture due to excessive stretching. Therefore, the fabric can fit the human body more closely and has greater elasticity. The presence of the through holes 300 does not affect the breathability of the fabric even when it is in close contact with the human body. And because the diameter of the through holes 300 is small enough and the gram weight is light, it can reduce its own weight during swimming, thus reducing the resistance during swimming. Also, due to the non-absorbent property of polyamide fiber, the fabric will not fit more closely to the human body due to water absorption after swimming, making it impossible to take off.

[0025] The above are only the preferred embodiments of the present invention. The protection scope of the present invention is not limited to the above embodiments. All technical solutions falling within the concept of the present invention belong to the protection scope of the present invention. It should be noted that for those of ordinary skill in the art, without departing from the principle of the present invention, several improvements and refinements should also be regarded as within the protection scope of the present invention.

Claims

1. A mesh swimwear fabric, characterized in that: The invention comprises a first fabric area (100) and a second fabric area (200), wherein the second fabric area (200) is distributed in an oblique grid shape, the first fabric area (100) is located within the grid of the second fabric area (200), and the first fabric area (100) comprises a through hole (300) at its center.

2. A mesh swimwear fabric according to claim 1, characterized in that: The first fabric area (100) and the second fabric area (200) are both rhombus-shaped, and the second fabric area (200) is distributed in an oblique grid at an angle of 35 degrees.

3. The mesh swimwear fabric according to claim 1, characterized in that: The first fabric area (100) further comprises at least one through hole (300) arranged along at least one of its diagonals.

4. The mesh swimwear fabric according to claim 3, characterized in that: The first fabric area (100) is provided with two through holes (300) respectively along its two diagonals, and each of the through holes (300) is located at an angle of the second fabric area (200).

5. The mesh swimwear fabric according to claim 4, characterized in that: The two through holes (300) on each diagonal line of the first fabric area (100) are symmetrically distributed with respect to the central through hole (300).

6. The mesh swimwear fabric according to claim 1, characterized in that: The fabric is woven with 70D / 24F nylon semi-dull fiber and 70D spandex fiber in a cycle of 36 longitudinal rows and 18 horizontal rows.

7. A mesh swimwear fabric according to claim 6, characterized in that: In one cycle, the second fabric area (200) is in an X-shaped structure with wales 19 to wales 24 and course 10 as the center, one of the X-shaped structures is formed by weaving wales 1 to wales 6 and course 1 to wales 35 - wales 6 and course 18 of the next cycle, the through holes (300) are formed by weaving wales 2 to wales 5 and courses 4 to course 6, courses 9 to course 11, courses 14 to course 16, wales 12 to wales 15, wales 28 to wales 31 and courses 9 to course 11, and the rest of the wales and course weaving are all formed by the first fabric area (100).

8. The mesh swimwear fabric according to claim 1, characterized in that: The diameter of the through hole (300) is 1 mm to 2 mm.

9. The mesh swimwear fabric according to claim 1, characterized in that: The fabric is woven with a longitudinal density of 32 cpc and a transverse density of 20 wpi, resulting in a gram weight of 210 g / m^2.