CN221660298U - Antibacterial moisture-conducting nylon low-elasticity fabric - Google Patents

Abstract

The utility model discloses an antibacterial and moisture-conducting nylon low-elastic fabric, comprising a composite nylon fabric layer, a bamboo charcoal fiber fabric layer and an antibacterial polypropylene fabric layer; the nylon fabric layer is interwoven with warp yarn and weft yarn, the warp yarn is nylon low-elastic yarn and special-shaped cross-section nylon filament twisted together, and the weft yarn is nylon low-elastic yarn and antibacterial nylon filament twisted together; the surface of the special-shaped cross-section nylon filament has grooves arranged along the length direction; the antibacterial polypropylene fabric layer is interwoven with antibacterial polypropylene core-spun yarn; the antibacterial polypropylene core-spun yarn comprises a core yarn and a coating fiber layer; the core yarn is antibacterial nylon filament, and the coating fiber layer is antibacterial polypropylene fiber. The antibacterial polypropylene fabric and the bamboo charcoal fiber fabric layer can provide good antibacterial effect for the fabric. And the nylon yarn with special-shaped cross-section used in the nylon fabric layer makes the fabric have a moisture-conducting effect. The bamboo charcoal fiber fabric layer has a certain moisture absorption effect, and can absorb the moisture guided by the nylon fabric layer.

Description

A kind of antibacterial moisture-conducting nylon low-elastic fabric

Technical Field

The utility model relates to an antibacterial and moisture-conducting nylon low-elastic fabric, belonging to the technical field of textile fabrics.

Background Art

As people's living standards improve, their requirements for clothing fabrics are getting higher and higher. They are not limited to the requirements of shielding and keeping warm, but also require existing textiles and clothing to have more functionality. People are paying more and more attention to health. Clothing is the first line of defense to prevent external bacteria and viruses from invading the human body. If clothing fabrics have good antibacterial and antibacterial effects, they can play an important role in people's health. Nylon low-elastic fabric is a kind of fabric raw material for clothing fabrics. How to improve its antibacterial and antibacterial effects has become a problem to be solved.

Utility Model Content

The utility model aims to provide an antibacterial and moisture-conducting nylon low-elastic fabric, which has good antibacterial and antimicrobial effects and moisture-conducting effects.

In order to solve the above technical problems, the purpose of the utility model is achieved as follows:

The utility model relates to an antibacterial and moisture-conducting nylon low-elastic fabric, comprising a composite nylon fabric layer, a bamboo charcoal fiber fabric layer and an antibacterial polypropylene fabric layer;

The nylon fabric layer is interwoven with warp yarns and weft yarns, wherein the warp yarns are formed by twisting nylon low-elastic yarns and nylon filaments with special-shaped cross-sections, and the weft yarns are formed by twisting nylon low-elastic yarns and antibacterial nylon filaments; the surface of the nylon filaments with special-shaped cross-sections has grooves arranged along the length direction;

The antibacterial polypropylene fabric layer is interwoven with antibacterial polypropylene core-spun yarn; the antibacterial polypropylene core-spun yarn comprises a core yarn and a covering fiber layer; the core yarn is antibacterial nylon filament, and the covering fiber layer is antibacterial polypropylene fiber.

On the basis of the above scheme and as a preferred scheme of the above scheme: the fineness of the nylon low-elastic yarn is 70D.

On the basis of the above scheme and as a preferred scheme of the above scheme: the cross-section of the special-shaped cross-section nylon filament is Y-shaped, cross-shaped or five-pointed star-shaped.

On the basis of the above scheme and as a preferred scheme of the above scheme: the bamboo charcoal fiber fabric layer is interwoven with bamboo charcoal antibacterial composite yarn, and the bamboo charcoal antibacterial composite yarn includes parallel-twisted bamboo charcoal fiber yarn and silver-loaded cotton fiber yarn.

On the basis of the above solution and as a preferred solution of the above solution: a PTFE microporous membrane is compounded on the side of the antibacterial polypropylene fabric layer away from the bamboo charcoal fiber layer.

The beneficial effects of the utility model are as follows: the antibacterial and moisture-conducting nylon low-elastic fabric involved in the utility model, the antibacterial polypropylene fabric and the bamboo charcoal fiber fabric layer used can provide good antibacterial effect for the fabric. And the nylon yarn with a special-shaped cross-section used in the nylon fabric layer makes the fabric have a moisture-conducting effect. The bamboo charcoal fiber fabric layer has a certain moisture absorption effect, which can absorb the moisture conducted by the nylon fabric layer, so that the nylon fabric layer remains dry.

BRIEF DESCRIPTION OF THE DRAWINGS

FIG1 is a schematic structural diagram of an antibacterial and moisture-conducting nylon low-elastic fabric according to Embodiment 1;

FIG. 2 is a schematic structural diagram of the antibacterial and moisture-conducting nylon low-elastic fabric involved in Example 2.

The markings in the figure are as follows: 1-nylon fabric layer; 2-bamboo charcoal fiber fabric layer; 3-antibacterial polypropylene fabric layer; 4-PTFE microporous membrane.

DETAILED DESCRIPTION

The utility model is further described below in conjunction with the accompanying drawings and specific embodiments.

Embodiment 1

The present embodiment is described in detail in conjunction with Figure 1. The antibacterial and moisture-conducting nylon low-elastic fabric involved in the present embodiment is characterized in that it includes a composite nylon fabric layer 1, a bamboo charcoal fiber fabric layer 2 and an antibacterial polypropylene fabric layer 3. The fabric layers are composited with a hot melt adhesive mesh.

The nylon fabric layer 1 is interwoven with warp yarn and weft yarn, wherein the warp yarn is formed by twisting nylon low-elastic yarn and special-shaped cross-section nylon filament, and the weft yarn is formed by twisting nylon low-elastic yarn and antibacterial nylon filament; the surface of the special-shaped cross-section nylon filament has grooves arranged along the length direction. The special-shaped cross-section nylon filament can play a moisture-conducting effect, and the grooves on its surface can guide the moisture on its surface through the wicking effect. The bamboo charcoal fiber fabric layer 2 has good hygroscopicity and can absorb the moisture guided by the nylon fabric layer 1, so that the nylon fabric layer 1 remains dry, thereby improving the wearing comfort.

Furthermore, the bamboo charcoal fiber fabric layer 2 is interwoven with bamboo charcoal antibacterial composite yarns, and the bamboo charcoal antibacterial composite yarns include bamboo charcoal fiber yarns and silver-loaded cotton fiber yarns twisted in parallel. The cotton fiber surface used in the silver-loaded cotton fiber yarns is attached with nano silver ions, which can provide a good antibacterial effect. In addition, the bamboo charcoal fiber and the cotton fiber have a good moisture absorption effect.

The antibacterial polypropylene fabric layer 3 is interwoven with antibacterial polypropylene core-spun yarn; the antibacterial polypropylene core-spun yarn includes a core yarn and a covering fiber layer; the core yarn is antibacterial nylon filament, and the covering fiber layer is antibacterial polypropylene fiber. Polypropylene fiber has good wear resistance, which can improve the wear resistance of the antibacterial moisture-conducting nylon low-elastic fabric involved in this embodiment and improve the service life of the clothing made of the fabric.

Furthermore, the fineness of the nylon low-elastic yarn used in the nylon fabric layer 1 and the antibacterial polypropylene fabric layer 3 is 70D.

Furthermore, the cross section of the nylon filament with special cross section is Y-shaped, cross-shaped or five-pointed star-shaped. In this embodiment, the Y-shaped is selected.

The antibacterial moisture-conducting nylon low-elastic fabric involved in this embodiment is composed of three layers of fabric, which can be used for autumn clothing and has a certain warmth retention. However, when people wear clothing made of this fabric while walking or doing other exercises, they will sweat, and the moisture-conducting effect of this fabric can make the surface of the nylon fabric layer 1 close to the user dry, thereby improving the wearing comfort of the clothing made of this fabric.

Embodiment 2

In conjunction with Figure 2, this embodiment is described in detail. The antibacterial and moisture-conducting nylon low-elastic fabric involved in this embodiment is different from that in the first embodiment in that: the side of the nylon fabric layer 1 away from the bamboo charcoal fiber fabric layer 2 is compounded with a PTFE microporous membrane 4. The PTFE microporous membrane has a waterproof and breathable effect, so that the clothing prepared by the fabric has a good waterproof effect, so that it can have a rainproof effect on rainy days, preventing the user from getting wet, thereby causing the user to have symptoms such as colds, and can provide good protection for the user.

The preferred specific embodiments of the utility model are described in detail above. It should be understood that ordinary technicians in this field can make many modifications and changes based on the concept of the utility model without creative work. Therefore, all technical solutions that can be obtained by technicians in this technical field based on the concept of the utility model through logical analysis, reasoning or limited experiments on the basis of the existing technology should be within the scope of protection determined by the claims.

Claims (5)

1. An antibacterial and moisture-conducting nylon low-elastic fabric, characterized in that it comprises a composite nylon fabric layer (1), a bamboo charcoal fiber fabric layer (2) and an antibacterial polypropylene fabric layer (3); The nylon fabric layer (1) is formed by interweaving warp yarns and weft yarns, wherein the warp yarns are formed by twisting nylon low-elastic yarns and nylon filaments with special-shaped cross-sections, and the weft yarns are formed by twisting nylon low-elastic yarns and antibacterial nylon filaments; the surface of the nylon filaments with special-shaped cross-sections has grooves arranged along the length direction; The antibacterial polypropylene fabric layer (3) is formed by interweaving antibacterial polypropylene core-spun yarn; the antibacterial polypropylene core-spun yarn comprises a core yarn and a covering fiber layer; the core yarn is antibacterial nylon filament, and the covering fiber layer is antibacterial polypropylene fiber. 2. According to the antibacterial and moisture-conducting nylon low-elastic fabric of claim 1, it is characterized in that the fineness of the nylon low-elastic yarn is 70D. 3. According to the antibacterial and moisture-conducting nylon low-elastic fabric of claim 1, it is characterized in that the cross-section of the special-shaped cross-section nylon filament is Y-shaped, cross-shaped or five-pointed star-shaped. 4. According to the antibacterial and moisture-conducting nylon low-elastic fabric of claim 1, the bamboo charcoal fiber fabric layer (2) is interwoven with bamboo charcoal antibacterial composite yarn, and the bamboo charcoal antibacterial composite yarn includes parallel-twisted bamboo charcoal fiber yarn and silver-loaded cotton fiber yarn. 5. The antibacterial and moisture-conducting nylon low-elastic fabric according to claim 1, characterized in that a PTFE microporous membrane (4) is compounded on the side of the nylon fabric layer (1) away from the bamboo charcoal fiber fabric layer (2).