A non-slip fabric

Abstract

The utility model discloses an anti -skidding fabric, including first area, second area and third area, first area, second area and third area are in the field shape arrangement, and including a first area, two second areas and a third area in each field shape arrangement, first area and third area are diagonally arranged, two second areas are diagonally arranged, first area is higher than second area, and second area is higher than third area. The utility model one first area, two second areas and a third area are in the field shape arrangement, two second areas are diagonally arranged, and first area and third area are also diagonally arranged, and the configuration of the thickness of yarn makes the fabric form high -low three -dimensional structure, and the roughness of fabric surface is increased to make the anti -skidding effect of fabric is better than flat fabric or single convex structure, compared with the fabric of the surface with anti -skidding coating keeps softness and breathability, and compared with the fabric of the surface with raising increases wear resistance.

Description

Technical Field

[0001] This utility model relates to the field of fabrics, and more specifically, to an anti-slip fabric. Background Technology

[0002] Traditional anti-slip fabrics often use anti-slip coatings such as PVC on the fabric surface. However, the coating can make the fabric feel stiff and not breathable. Some fabrics use surface napping or brushing processes, but because the nap is light, the anti-slip effect of the fabric is limited and the nap is easy to break after repeated friction, which makes the fabric not wear-resistant. Utility Model Content

[0003] The purpose of this invention is to overcome the shortcomings of the prior art and provide an anti-slip fabric. This fabric is formed by interlacing warp and weft yarns to create a first, second, and third region. The first region, two second regions, and the third region are arranged in a grid pattern. The two second regions are diagonally positioned, as are the first and third regions. By varying the yarn count, the first region is higher than the second region, and the second region is higher than the third region, thus creating a three-dimensional structure with high, medium, and low points. This increases the surface roughness and coefficient of friction, resulting in a superior anti-slip effect compared to flat fabrics or single raised structures. The diagonal arrangement ensures that the anti-slip properties are not limited in different directions. Compared to fabrics with anti-slip coatings, it maintains softness and breathability, while also increasing abrasion resistance compared to fabrics with napped surfaces.

[0004] To achieve the above objectives, the present invention adopts the following technical solution: an anti-slip fabric, comprising a first region, a second region, and a third region, wherein the first region, the second region, and the third region are arranged in a grid pattern, and each grid pattern includes one first region, two second regions, and one third region, wherein the first region and the third region are diagonally arranged, the two second regions are diagonally arranged, the first region is higher than the second region, and the second region is higher than the third region.

[0005] The present invention is further configured such that the first region, the second region, and the third region have equal lengths along the fabric length direction, and the first region, the second region, and the third region have equal widths along the fabric width direction.

[0006] The present invention is further configured such that the warp and weft yarns of the first region are both 16-count yarns, the warp yarns of the second region located on both sides of the first region along the fabric length direction are 16-count yarns, and the weft yarns are 40-count yarns, the warp yarns of the second region located on both sides of the first region along the fabric width direction are 40-count yarns, and the weft yarns are 16-count yarns, and the warp and weft yarns of the third region are both 40-count yarns.

[0007] The present invention is further configured such that the fabric is woven with 56 warp yarns and 56 weft yarns to form a weave cycle, 28 warp yarns and 28 weft yarns to form the first region, 28 warp yarns and 28 weft yarns to form the second region, and 28 warp yarns and 28 weft yarns to form the third region.

[0008] The present invention is further configured such that the first region and the third region both adopt a plain weave structure, and the second region adopts a twill weave structure.

[0009] The present invention is further configured such that, along the length of the fabric, the second regions located on both sides of the first region adopt a three-up-one-down twill weave, and along the width of the fabric, the second regions located on both sides of the first region adopt a one-up-three-down twill weave.

[0010] The present invention is further configured such that the warp and weft yarns of the first region are both made of cotton fiber, the warp yarns of the second region located on both sides of the first region along the fabric length direction are made of cotton fiber and the weft yarns are made of polyester fiber, the warp yarns of the second region located on both sides of the first region along the fabric width direction are made of polyester fiber and the weft yarns are made of cotton fiber, and the warp and weft yarns of the third region are both made of polyester fiber.

[0011] In summary, this utility model has the following beneficial effects:

[0012] The fabric is constructed by arranging the first, second, and third zones in a grid pattern, with one first zone diagonally opposite to one third zone, and two second zones diagonally opposite each other. Furthermore, the yarn count is varied so that the first zone is higher than the second zone, and the second zone is higher than the third zone, creating a three-dimensional structure with high, medium, and low layers. This increases the surface roughness of the fabric, thereby enhancing its anti-slip properties. The diagonal arrangement also ensures that the fabric's anti-slip properties are unrestricted in different directions. This fabric structure replaces anti-slip coatings and napping processes, maintaining breathability while increasing abrasion resistance. Attached Figure Description

[0013] Figure 1 This is a structural schematic diagram of an anti-slip fabric in this embodiment;

[0014] Figure 2 for Figure 1 A sectional view along the A-A direction;

[0015] Figure 3 for Figure 1 A cross-sectional view along the B-B direction;

[0016] Figure 4 for Figure 1 Enlarged view of point C in the middle;

[0017] Figure 5 This is a weave diagram of an anti-slip fabric in this embodiment.

[0018] Appendix label: Region 1, Region 2, Region 3. Detailed Implementation

[0019] 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.

[0020] like Figure 1 — Figure 5 As shown, this embodiment discloses an anti-slip fabric. The fabric is formed by interlacing 56 warp yarns and 56 weft yarns to form a weave cycle. In one weave cycle, the 1st to 28th warp yarns interlaced with the 1st to 28th weft yarns to form a first region 1, the 1st to 28th warp yarns interlaced with the 29th to 56th weft yarns to form a second region 2, the 29th to 56th warp yarns interlaced with the 1st to 28th weft yarns to form a second region 2, and the 29th to 56th warp yarns interlaced with the 29th to 56th weft yarns to form a third region 3. Since the area where the 1st to 28th warp yarns interlaced with the 29th to 56th weft yarns interlaced is the second region 2, and the area where the 29th to 56th warp yarns interlaced with the 1st to 28th weft yarns interlaced is also the second region 2, the fabric includes a first region 1, a second region 2, and a third region 3 in one weave cycle. In one weave cycle, there is one first region 1, two second regions 2, and one third region 3.

[0021] In Zone 1, warp yarns 1-28 and weft yarns 1-28 are both made of 16-count yarn, and Zone 1 uses a plain weave. Along the fabric length, in Zone 2 located on either side of Zone 1, warp yarns 1-28 are made of 16-count yarn, and weft yarns 29-56 are made of 40-count yarn. Along the fabric width, in Zone 2 located on either side of Zone 1, warp yarns 29-56 are made of 40-count yarn, and weft yarns 1-28 are made of 16-count yarn. Along the fabric length, Zone 2 located on either side of Zone 1 uses a 3-up-1-down twill weave, and along the fabric width, Zone 2 located on either side of Zone 1 uses a 1-up-3-down twill weave. In Zone 3, warp yarns 29-56 and weft yarns 29-56 both use 40-count yarn, and Zone 3 uses a plain weave. Because Zone 1 uses coarser warp and weft yarns (2.5 times coarser than Zone 3), and both Zone 1 and Zone 3 use plain weave, Zone 1 is higher than Zone 3. Along the fabric length, in Zone 2, located on either side of Zone 1, warp yarns 1-28 use 16-count yarn, and Zone 2 uses a 3-up-1-down twill weave. In the second region 2, located on either side of region 1, the warp yarns are 2.5 times thicker than the weft yarns. Along the fabric length, the warp yarns in the second region 2 have more weft yarn intersections on the warp yarns. In contrast, the warp and weft yarn intersections in region 1 are both 16-count roving, while those in region 3 are both 40-count roving. Therefore, region 1 is higher than region 2, and region 2 is higher than region 3. Similarly, along the fabric width, the 29th to 56th warp yarns in the second region 2, located on either side of region 1, use 40-count yarns, and the 1st to 28th weft yarns use 16-count yarns. Furthermore, along the fabric width, the second region 2 on either side of region 1 uses a 1 / 3 twill weave. In the first region 1, the weft yarns of the second region 2 are 2.5 times thicker than the warp yarns. Along the fabric width, the weft yarns of the second region 2 on both sides of the first region 1 have more weft points on the warp yarns. In contrast, the warp and weft weft points of the first region 1 are both 16-count rovings, while the warp and weft weft points of the third region 3 are both 40-count fine yarns. Therefore, the first region 1 is higher than the second region 2, and the second region 2 is higher than the third region 3. This creates a three-dimensional structure with high, medium, and low dimensions, increasing the surface roughness and coefficient of friction. It also significantly increases the unevenness of the contact surface and the effective friction area. When the fabric comes into contact with the surface of an external object, it can provide anti-slip properties in different directions, whether it is parallel or perpendicular to the force applied.

[0022] Because the first region 1 is located at the intersection of warp yarns 1-28 and weft yarns 1-28, and the third region 3 is located at the intersection of warp yarns 29-56 and weft yarns 29-56, in one weave cycle, the first region 1 and the third region 3 are diagonally arranged. The second region 2, which is arranged along the fabric width direction with the first region 1, is located at the intersection of warp yarns 29-56 and weft yarns 1-28. The second region 2, which is arranged along the fabric length direction with the first region 1, is located at the intersection of warp yarns 1-28 and weft yarns 29-56. Therefore, in one weave cycle, the two second regions 2 are diagonally arranged, thus creating a grid-like arrangement of the first region 1, second region 2, and third region 3, and combining... The first region 1 is higher than the second region 2, and the second region 2 is higher than the third region 3. Along the length of the fabric, one column alternates between the first region 1 and the second region 2, and another column alternates between the second region 2 and the third region 3. Similarly, along the width of the fabric, one column alternates between the first region 1 and the second region 2, and another column alternates between the second region 2 and the third region 3. Therefore, by using different heights in each column, the fabric has anti-slip properties in different directions, so that the anti-slip properties of the fabric are not directional. Furthermore, the diagonal arrangement makes the fabric more evenly distributed when under stress. In addition, the roving height is the highest in the first region 1 and the filament height is the lowest in the third region 3, thereby avoiding premature wear caused by stress concentration.

[0023] Because Region 1 is formed by 28 warp yarns and 28 weft yarns, Region 2 is formed by 28 warp yarns and 28 weft yarns, and Region 3 is also formed by 28 warp yarns and 28 weft yarns, Regions 1, 2, and 3 are equal in length along the fabric length direction and equal in width along the fabric width direction. Regions 1 and 3 both use a plain weave, while Region 2 uses a twill weave. Therefore, the fabric uses a warp density of 106 yarns / inch and a weft density of 98 yarns / inch, thus ensuring that Regions 1, 2, and 3 are equal in length along the fabric length direction and equal in width along the fabric width direction. Regions 1 and 3 both use a plain weave, while Region 2 uses a twill weave. The length and width of Region 2 and Region 3 can be kept consistent, thus making the fabric structure more stable. Both the warp and weft yarns of Region 1 are made of cotton fiber. Along the length of the fabric, the warp yarns of Region 2, located on both sides of Region 1, are made of cotton fiber, and the weft yarns are made of polyester fiber. Along the width of the fabric, the warp yarns of Region 2, located on both sides of Region 1, are made of polyester fiber, and the weft yarns are made of cotton fiber. Both the warp and weft yarns of Region 3 are made of polyester fiber. Therefore, the fabric not only maintains softness and breathability compared to fabrics with anti-slip coatings, but also increases abrasion resistance compared to fabrics with napped surfaces.

[0024] The above description is merely a preferred embodiment of this utility model. The protection scope of this utility model is not limited to the above embodiments. All technical solutions falling within the scope of this utility model's concept are protected by this utility model. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principle of this utility model should also be considered within the protection scope of this utility model.

Claims

1. An anti-slip fabric, characterized in that, It includes a first region (1), a second region (2) and a third region (3). The first region (1), the second region (2) and the third region (3) are arranged in a grid pattern, and each grid pattern includes one first region (1), two second regions (2) and one third region (3). The first region (1) and the third region (3) are diagonally arranged, and the two second regions (2) are diagonally arranged. The first region (1) is higher than the second region (2), and the second region (2) is higher than the third region (3).

2. The anti-slip fabric according to claim 1, characterized in that, The first region (1), the second region (2), and the third region (3) are of equal length along the fabric length direction, and the first region (1), the second region (2), and the third region (3) are of equal width along the fabric width direction.

3. The anti-slip fabric according to claim 1, characterized in that, The warp and weft yarns of the first region (1) are both 16-count yarns. Along the length of the fabric, the warp yarns of the second region (2) located on both sides of the first region (1) are 16-count yarns, and the weft yarns are 40-count yarns. Along the width of the fabric, the warp yarns of the second region (2) located on both sides of the first region (1) are 40-count yarns, and the weft yarns are 16-count yarns. The warp and weft yarns of the third region (3) are both 40-count yarns.

4. The anti-slip fabric according to claim 1, characterized in that, The fabric is woven with 56 warp yarns and 56 weft yarns to form a weave cycle, 28 warp yarns and 28 weft yarns to form the first region (1), 28 warp yarns and 28 weft yarns to form the second region (2), and 28 warp yarns and 28 weft yarns to form the third region (3).

5. The anti-slip fabric according to claim 1, characterized in that, The first region (1) and the third region (3) are both made of plain weave, while the second region (2) is made of twill weave.

6. The anti-slip fabric according to claim 1, characterized in that, Along the length of the fabric, the second region (2) located on both sides of the first region (1) adopts a three-up-one-down twill weave, and along the width of the fabric, the second region (2) located on both sides of the first region (1) adopts a one-up-three-down twill weave.

7. The anti-slip fabric according to claim 1, characterized in that, The warp and weft yarns of the first region (1) are both made of cotton fiber. Along the length of the fabric, the warp yarns of the second region (2) located on both sides of the first region (1) are made of cotton fiber and the weft yarns are made of polyester fiber. Along the width of the fabric, the warp yarns of the second region (2) located on both sides of the first region (1) are made of polyester fiber and the weft yarns are made of cotton fiber. The warp and weft yarns of the third region (3) are both made of polyester fiber.

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