Stain-resistant antiskid polyester fabric

Abstract

The utility model discloses a stain-resistant anti-slip polyester fabric, relates to the technical field of polyester fabrics, and aims to solve the problem that part of polyester fabrics are poor in moisture dissipation and anti-slip effect. According to the key points of the technical scheme, the anti-slip mat comprises anti-slip layers which are fixedly connected with one another, the anti-slip layers are provided with a plurality of grooves, the grooves are V-shaped, a plurality of antibacterial parts are fixedly connected in the grooves, the antibacterial parts are fixedly connected with a plurality of moisture guiding balls, and the moisture guiding balls are provided with cracks. The anti-slip performance of the whole fabric is improved, bacteria breeding in the anti-slip layer and the grooves is inhibited through the anti-bacterial pieces, the moisture guiding balls can be positioned, and the anti-bacterial pieces can stably achieve the anti-bacterial effect for a long time. According to the utility model, the moisture dissipation performance of the polyester fabric is improved by utilizing the characteristic of good quick-drying property of the polyester profiled fiber with the cross-shaped cross section.

Description

Technical Field

[0001] The utility model relates to the technical field of polyester fabrics, and more specifically to a stain-resistant and non-slip polyester fabric. Background Art

[0002] Socks are a kind of clothing worn on the feet, which play the role of protecting the feet. Socks are divided into cotton socks, wool socks, silk socks and various chemical fiber socks according to their raw materials. There are long socks, middle-tube socks, boat socks, etc. according to their shapes. There are also many styles and varieties such as flat mouth, cuffs, with heels, without heels, jacquard, and woven.

[0003] One of the sock styles that is popular among young people is boat socks. Boat socks are so short that they cannot be seen after wearing shoes or only the edges of the socks can be seen. The sock opening is below the ankle. If the socks do not have good moisture dissipation properties, the sweat from the feet will keep the socks damp for a long time and become dirty and breed bacteria. They need to be changed frequently to keep clean. During daily walking, the socks will slip off due to poor anti-slip properties at the sock opening, causing discomfort. Slipping and stacking socks will not only hurt the feet, but the loss of sock protection will also rub the heels. Polyester fabric is a common material for making sock openings, so a new structure is proposed to solve the problem of poor moisture dissipation and anti-slip properties of some polyester fabrics. Utility Model Content

[0004] In view of the shortcomings of the prior art, the purpose of the utility model is to provide a stain-resistant and non-slip polyester fabric to solve the problem that some polyester fabrics have poor moisture dissipation and non-slip effects.

[0005] The above technical purpose of the utility model is achieved through the following technical scheme: a stain-resistant and non-slip polyester fabric, including an anti-slip layer, the anti-slip layer is provided with a plurality of grooves, the grooves are V-shaped, a plurality of antibacterial parts are fixedly connected in the grooves, a plurality of moisture-conducting balls are fixedly connected on the side of the antibacterial parts away from the anti-slip layer, and a Y-shaped crack is provided on the side of the moisture-conducting balls away from the antibacterial parts.

[0006] The utility model is further configured as follows: the antibacterial component is located at the bending part of the groove, a positioning groove is provided on the side of the antibacterial component away from the anti-slip layer, and the moisture-conducting ball is located in the positioning groove.

[0007] The utility model is further configured such that: the sum of the thickness of the antibacterial element and the diameter of the moisture-conducting ball is greater than the depth of the groove.

[0008] The utility model is further configured as follows: the antibacterial component is woven from a plurality of antibacterial yarns.

[0009] The utility model is further configured as follows: the moisture-conducting ball is formed by kneading a plurality of polyester ultra-fine fibers.

[0010] The utility model is further configured as follows: the anti-skid layer is woven from anti-skid yarns.

[0011] The utility model is further configured as follows: the anti-slip yarn is formed by twisting a plurality of first strands and a second strand, the first strand is formed by twisting a plurality of polyester fibers, the second strand is formed by twisting a plurality of nylon shaped fibers, and the cross-section of the nylon shaped fibers is configured as a cross.

[0012] The utility model is further configured as follows: the antibacterial yarn comprises a plurality of antibacterial core yarns and a moisture-conducting covering yarn, the antibacterial core yarn is formed by twisting a plurality of ramie fibers, the moisture-conducting covering yarn is formed by twisting a plurality of polyester shaped fibers, the cross-sectional shape of the polyester shaped fibers is a cross, and the moisture-conducting covering yarn is spirally wound around the outer side of the antibacterial core yarn.

[0013] In summary, the utility model has the following beneficial effects:

[0014] The roughness of the surface of the anti-slip layer is increased by opening grooves and moisture-conducting balls on the anti-slip layer, thereby improving the overall anti-slip property of the fabric. A crack is opened on the moisture-conducting ball to provide a space for the moisture-conducting ball to make way when it encounters external friction, thereby reducing the wear on the moisture-conducting ball. The antibacterial parts are used to inhibit the growth of bacteria in the anti-slip layer and the grooves, and can also position the moisture-conducting balls. The antibacterial parts can exert a long-term and stable antibacterial effect. The quick-drying properties of polyester shaped fibers with a cross-shaped cross-section are used to improve the moisture dissipation performance of polyester fabrics, thereby improving the stain resistance of the fabric. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 It is a schematic diagram of the structure of the utility model;

[0016] Figure 2 It is a cross-sectional view of the utility model;

[0017] Figure 3 This is a slice diagram of the anti-slip yarn;

[0018] Figure 4 This is a cross-section of the antibacterial yarn.

[0019] In the figure: 1, anti-slip layer; 11, anti-slip yarn; 111, first strand; 112, second strand; 2, groove; 3, antibacterial part; 31, antibacterial yarn; 311, antibacterial core yarn; 312, moisture-conducting coating yarn; 4, moisture-conducting ball; 5, positioning groove. DETAILED DESCRIPTION

[0020] The utility model is described in detail below in conjunction with the accompanying drawings and embodiments.

[0021] Example:

[0022] like Figure 1 and Figure 2 As shown, the stain-resistant and non-slip polyester fabric comprises an anti-slip layer 1, and the anti-slip layer 1 is provided with a plurality of grooves 2, and the grooves 2 are V-shaped. The V-shaped grooves 2 can enhance the anti-slip performance of the anti-slip layer 1, and rub against the inner wall of the shoe during daily walking to prevent the sock opening from sliding down. A plurality of square antibacterial parts 3 are fixedly connected in the grooves 2, and the antibacterial parts 3 are woven from a plurality of antibacterial yarns 31. The antibacterial parts 3 are located at the bending part of the grooves 2. The antibacterial parts 3 can enhance the antibacterial performance of the anti-slip layer 1 and reduce the possibility of bacteria growing on the fabric. The antibacterial parts 3 are provided with circular positioning grooves 5, and a plurality of moisture-guiding balls 4 are bonded in the positioning grooves 5. The positioning grooves 5 can reinforce the moisture-guiding balls 4, and the moisture-guiding balls 4 can also improve the stability of the antibacterial parts 3. A Y-shaped crack is provided on the side of the moisture-guiding balls 4 away from the antibacterial parts 3, which provides a space for making way when the moisture-guiding balls 4 encounter external friction. The occurrence of wear and fall of the moisture-conducting ball 4 during the use of the fabric is reduced, and the stability of the fabric is improved. The moisture-conducting ball 4 is kneaded by a number of polyester ultrafine fibers. The fibers used to weave the anti-slip layer 1 and the antibacterial component 3 are coarse, and the fibers used to knead the moisture-conducting ball 4 are fine. Due to the difference in fiber capillaries in the anti-slip layer 1, the antibacterial component 3 and the moisture-conducting ball 4, a differential capillary effect can be formed at the contact point of the antibacterial component 3 and the moisture-conducting ball 4, thereby enhancing the unilateral moisture conduction ability, accelerating the liquid in the anti-slip layer 1 to be conducted to the moisture-conducting ball 4, and then accelerating the volatilization of the liquid, reducing the time that the anti-slip layer 1 is in a wet state, thereby improving the stain resistance of the fabric. The sum of the thickness of the antibacterial component 3 and the diameter of the moisture-conducting ball 4 is greater than the depth of the groove 2, so that the moisture-conducting ball 4 protrudes from the anti-slip layer 1, thereby increasing the roughness of the anti-slip layer 1 and improving the overall wear resistance and anti-slip effect of the fabric.

[0023] like Figure 1 and Figure 3 As shown, the anti-slip layer 1 is woven from an anti-slip yarn 11, which is twisted through a plurality of first strands 111 and a second strand 112, wherein the first strand 111 is formed by twisting a plurality of polyester fibers, and the second strand 112 is formed by twisting a plurality of nylon shaped fibers, wherein the cross section of the nylon shaped fibers is set to a cross shape, which accelerates the diffusion of sweat and further improves the moisture permeability, quick-drying and comfort of the anti-slip layer 1.

[0024] like Figure 1 and Figure 4As shown, the antibacterial yarn 31 includes a plurality of antibacterial core yarns 311 and a moisture-conducting coated yarn 312. The antibacterial core yarn 311 is formed by twisting a plurality of ramie fibers, and the moisture-conducting coated yarn 312 is formed by twisting a plurality of polyester special-shaped fibers. The moisture-conducting coated yarn 312 is spirally wound around the outer side of the antibacterial core yarn 311, and the cross-sectional shape of the polyester special-shaped fiber is a cross. The antibacterial, breathable, cool, antiseptic and mildew-proof characteristics of the ramie fiber are utilized to enhance the overall moisture dissipation and antibacterial and mildew-proof properties of the antibacterial yarn 31. The high structural strength and good elasticity of the polyester fiber are utilized to enhance the stability of the antibacterial component 3 structure. At the same time, the long grooves on the surface of the polyester special-shaped fiber are utilized to enhance the overall breathability and quick-drying comfort of the antibacterial component 3.

[0025] like Figure 1-Figure 4 As shown, when the fabric needs to be made, firstly, a plurality of polyester fibers and nylon shaped fibers are respectively put into a twisting machine to form a first strand 111 and a second strand 112, and then twisted to form an anti-slip yarn 11, and then the anti-slip yarn 11 is woven by an air jet loom to form an anti-slip layer 1, a plurality of ramie fibers are put into a twisting machine and twisted to form an antibacterial core yarn 311, a plurality of polyester shaped fibers are put into a twisting machine and twisted to form a moisture-conducting coated yarn 312, and the antibacterial core yarn 311 and the moisture-conducting coated yarn 312 are spirally wound through a spindle spinning process to form an antibacterial layer 1. The antibacterial yarn 31 is then woven into a stand-by fabric by a jet loom, the stand-by fabric is cut into a plurality of square antibacterial pieces 3 by a cutting machine, the antibacterial pieces 3 are sewed to the bending part of the groove 2 on the anti-slip layer 1 by a sewing machine, and a hot press is used to hot-press the antibacterial piece 3 to form a positioning groove 5, the polyester microfiber is put into a cutting machine and cut into staple fibers, and the cut polyester microfiber is put into an automatic wool ball machine and rubbed to form moisture-conducting balls 4, and the moisture-conducting balls 4 are bonded to the positioning groove 5 by a glue dispenser to finally form the fabric.

[0026] The above is only a preferred embodiment of the present invention. The protection scope of the present invention is not limited to the above embodiments. All technical solutions under the concept of the present invention belong to the protection scope of the present invention. It should be pointed out that for ordinary technicians in this technical field, some improvements and modifications without departing from the principle of the present invention should also be regarded as the protection scope of the present invention.

Claims

1. A stain-resistant and non-slip polyester fabric, comprising a non-slip layer (1), characterized in that: The anti-slip layer (1) is provided with a plurality of grooves (2), the grooves (2) are in a V shape, a plurality of antibacterial components (3) are fixedly connected in the grooves (2), a plurality of moisture-conducting balls (4) are fixedly connected on a side of the antibacterial components (3) away from the anti-slip layer, and a Y-shaped crack is provided on a side of the moisture-conducting balls (4) away from the antibacterial components.

2. The stain-resistant and non-slip polyester fabric according to claim 1, characterized in that: The antibacterial component (3) is located at the bend of the groove (2); a positioning groove (5) is provided on the side of the antibacterial component (3) away from the anti-slip layer; and the moisture-conducting ball (4) is located in the positioning groove (5).

3. The stain-resistant and non-slip polyester fabric according to claim 1, characterized in that: The sum of the thickness of the antibacterial element (3) and the diameter of the moisture-conducting ball (4) is greater than the depth of the groove (2).

4. The stain-resistant and non-slip polyester fabric according to claim 3, characterized in that: The antibacterial component (3) is woven from a plurality of antibacterial yarns (31).

5. The stain-resistant and non-slip polyester fabric according to claim 2, characterized in that: The moisture-conducting ball (4) is formed by kneading a number of polyester ultra-fine fibers.

6. The stain-resistant and non-slip polyester fabric according to claim 1, characterized in that: The anti-slip layer (1) is woven from anti-slip yarns (11).

7. The stain-resistant and non-slip polyester fabric according to claim 6, characterized in that: The anti-slip yarn (11) is formed by twisting a plurality of first strands (111) and a second strand (112), wherein the first strand (111) is formed by twisting a plurality of polyester fibers, and the second strand (112) is formed by twisting a plurality of nylon shaped fibers, wherein the cross-section of the nylon shaped fibers is arranged to be cross-shaped.

8. The stain-resistant and non-slip polyester fabric according to claim 4, characterized in that: The antibacterial yarn (31) comprises a plurality of antibacterial core yarns (311) and a moisture-conducting covering yarn (312). The antibacterial core yarn (311) is formed by twisting a plurality of ramie fibers, and the moisture-conducting covering yarn (312) is formed by twisting a plurality of polyester shaped fibers. The cross-sectional shape of the polyester shaped fibers is a cross. The moisture-conducting covering yarn (312) is spirally wound around the outer side of the antibacterial core yarn (311).

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