Quick-dry antibacterial oxford fabric

Abstract

The utility model discloses a quick-dry antibacterial oxford fabric, which relates to the technical field of textile fabrics, and is characterized in that a plurality of grooves I are symmetrically formed in the end surface, close to an inner layer, of an outer layer along the length direction of the inner layer, and a plurality of antibacterial pieces are arranged between the inner layer and the outer layer; a plurality of ventilation spaces are defined by the adjacent antibacterial parts, the inner side wall of the first groove and the inner layer, a plurality of ventilation holes communicated with the ventilation spaces are formed in the inner layer and the outer layer in a penetrating mode, and a plurality of pits are formed in the end face, away from the outer layer, of the inner layer. The oxford fabric made by blending the polyester profiled fibers and the linen fibers has a good ventilation effect, the ventilation holes, the ventilation grooves, the ventilation spaces and the pits which are communicated with one another enhance the ventilation effect inside and outside the oxford fabric, and bacteria breeding caused by the fact that the oxford fabric is in a warm and humid environment for a long time is avoided; the antibacterial pieces made of the ramie fibers are additionally arranged in the oxford fabric, so that the effect of inhibiting bacterium breeding is further enhanced.

Description

Technical Field

[0001] This utility model relates to the field of textile fabric technology, and more specifically, to quick-drying antibacterial Oxford cloth. Background Technology

[0002] Oxford cloth, also known as Oxford weave, is a textile fabric with high abrasion resistance. It is usually woven from high-strength polyester or nylon fibers and is widely used in the production of outdoor sportswear.

[0003] However, polyester and nylon fibers are chemical fibers with relatively poor breathability, which makes Oxford cloth feel stuffy when worn in summer. The sweat absorbed by the Oxford cloth cannot be dissipated in time, causing the Oxford cloth to be in a warm and humid environment for a long time, which makes it easy for bacteria to grow and affects the comfort and cleanliness of wearing it.

[0004] Therefore, a new solution is needed to address this problem. Utility Model Content

[0005] In view of the shortcomings of the existing technology, the purpose of this utility model is to provide quick-drying antibacterial Oxford cloth to solve the problem that Oxford cloth made of chemical fibers is prone to bacterial growth when worn in a warm and humid environment for a long time.

[0006] The above-mentioned technical objective of this utility model is achieved through the following technical solution: The quick-drying antibacterial Oxford cloth includes an inner layer and an outer layer that are fixedly connected to each other. The outer layer has a plurality of grooves symmetrically formed along the length of the inner layer on the end face near the inner layer. A plurality of antibacterial elements are provided between the inner layer and the outer layer. A plurality of adjacent antibacterial elements, the inner sidewall of the grooves, and the inner layer enclose a plurality of breathable spaces. A plurality of breathable holes are formed through the inner layer and the outer layer and are respectively connected to the plurality of breathable spaces. A plurality of recesses are formed on the end face of the inner layer away from the outer layer and are connected to the breathable holes on the inner layer.

[0007] The present invention is further configured such that: the inner layer and the outer layer are provided with a plurality of grooves symmetrically arranged along the width direction of the inner layer on their respective end faces that are close to each other, and the grooves on the inner layer and the grooves on the outer layer are the same size and symmetrically arranged vertically.

[0008] The present invention is further configured such that: the cross-sectional shape of the second groove on the inner layer and the second groove on the outer layer when they abut each other is the same as the cross-sectional shape of the antibacterial component, and the peripheral wall of the antibacterial component abuts against the inner wall of the second groove on the inner layer and the inner wall of the second groove on the outer layer.

[0009] The present invention is further configured such that: the first groove and the second groove on the outer layer are perpendicularly intersecting and interconnected, the depth of the second groove is less than the depth of the first groove, and the top surface of the antibacterial components and the inner peripheral wall of the first groove form a plurality of ventilation grooves.

[0010] The present invention is further configured such that: several adjacent air-permeable spaces are interconnected by several air-permeable grooves, and several air-permeable holes on the inner layer and several air-permeable holes on the outer layer are arranged in an array between several adjacent antibacterial components.

[0011] The present invention is further configured such that: both the inner layer and the outer layer are made of breathable yarn and woven with a perforated structure, and the plurality of breathable holes on the inner layer and the plurality of breathable holes on the outer layer are integrally formed by the perforated structure weaving method.

[0012] The present invention is further configured such that: the breathable yarn is formed by twisting a first strand and a second strand, wherein the first strand is formed by twisting polyester shaped fibers with a triangular cross section, and the second strand is formed by twisting flax fibers.

[0013] The present invention is further configured such that: the antibacterial component is cut from a fabric woven with antibacterial yarn and plain weave, the antibacterial yarn is formed by spirally winding a third strand around a first strand and twisting it, and the third strand is formed by twisting ramie fibers.

[0014] In summary, this utility model has the following beneficial effects: the Oxford cloth made by blending polyester profiled fibers with flax fibers has good overall breathability, avoiding stuffiness when wearing it. The air circulation between the inside and outside of the Oxford cloth is enhanced by several interconnected ventilation holes, ventilation grooves, ventilation spaces and recesses, which improves the moisture dissipation effect inside the Oxford cloth and prevents bacteria from growing in the Oxford cloth in a warm and humid environment for a long time. Ramie fibers have good antibacterial effect, and the antibacterial effect of adding several antibacterial parts made of ramie fibers inside the Oxford cloth is further enhanced. Attached Figure Description

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

[0016] Figure 2 for Figure 1 Enlarged view of point A in the middle;

[0017] Figure 3 This is an exploded view of the present invention;

[0018] Figure 4 A cross-section of breathable yarn;

[0019] Figure 5 This is a cross-section of the antibacterial yarn.

[0020] In the diagram: 1. Inner layer; 2. Outer layer; 3. Groove 1; 4. Antibacterial component; 5. Breathable space; 6. Breathable hole; 7. Recess; 8. Groove 2; 9. Ventilation groove; 10. Breathable yarn; 11. Polyester profiled fiber; 12. Flax fiber; 13. Antibacterial yarn; 14. Ramie fiber. Detailed Implementation

[0021] The present invention will now be described in detail with reference to the accompanying drawings and embodiments.

[0022] Example: Quick-drying antibacterial Oxford cloth, such as Figure 1 and Figure 4 As shown, it includes an inner layer 1 and an outer layer 2, which are sewn together by a sewing machine. Both the inner layer 1 and the outer layer 2 are woven by feeding breathable yarn 10 into an air-jet loom and using a perforated weave. The breathable yarn 10 is formed by twisting a first strand and a second strand of yarn by a twisting machine. The first strand is formed by twisting polyester profiled fiber 11 with a triangular cross-section by a twisting machine, and the second strand is formed by twisting flax fiber 12 by a twisting machine. The polyester profiled fiber 11 with a triangular cross-section is spun through a spinneret, which increases the porosity inside the polyester profiled fiber 11 and improves its breathability. The flax fiber 12 is known as "natural air conditioning" and has strong breathability. Thus, the inner layer 1 and the outer layer 2 woven by the first strand and the second strand have good breathability and prevent the Oxford cloth from feeling stuffy when worn.

[0023] like Figures 1-3 As shown, the outer layer 2 has several grooves 3 symmetrically formed on its end face near the inner layer 1 along the length of the inner layer 1. The end faces of the inner layer 1 and the outer layer 2 that are close to each other have several grooves 8 symmetrically formed on their widths along the inner layer 1. The grooves 8 on the inner layer 1 and the grooves 8 on the outer layer 2 are the same size and symmetrically arranged vertically. The grooves 3 and 8 on the outer layer 2 are formed together by hot pressing. The hot press plate on the hot press used to process the outer layer 2 has a grid-shaped protrusion. The end face of the inner layer 1 away from the outer layer 2 has several recesses 7 symmetrically formed on its length along the inner layer 1. The grooves 8 and recesses 7 on both sides of the inner layer 1 are formed together by hot pressing. The hot press used to process the inner layer 1 consists of two hot press plates that work together to press. One hot press plate is wavy, and the other has several long strip protrusions. The recesses 7 reduce the friction area between the inner layer 1 and the skin, increase the air circulation between the inner layer 1 and the skin, and prevent the inner layer 1 from sticking to the skin surface due to sweat and causing discomfort.

[0024] like Figures 1-5As shown, a number of antibacterial elements 4 are symmetrically arranged along the width direction of the inner layer 1 between the inner layer 1 and the outer layer 2. The cross-sectional shape of the groove 2 8 on the inner layer 1 and the groove 2 8 on the outer layer 2 when they abut each other is the same as the cross-sectional shape of the antibacterial element 4, so that the peripheral wall of the antibacterial element 4 abuts against the inner wall of the groove 2 8 on the inner layer 1 and the inner wall of the groove 2 8 on the outer layer 2. The antibacterial element 4 is made by feeding the antibacterial yarn 13 into an air-jet loom and weaving it into fabric using a plain weave method, and then cutting it with a cutting machine. The antibacterial yarn 13 includes a third strand and a first strand. The antibacterial yarn 13 is made by spirally winding the third strand around the first strand and twisting it using a spinning process. The third strand is made by twisting ramie fiber 14 using a twisting machine. Ramie fiber 14 has good breathability and antibacterial effect. By adding a number of antibacterial elements 4 to the Oxford cloth, it has a certain antibacterial property, which improves the cleanliness of the Oxford cloth when worn.

[0025] like Figure 1 and Figure 2 As shown, both the inner layer 1 and the outer layer 2 have several arrayed square ventilation holes 6. The ventilation holes 6 on the inner layer 1 and the outer layer 2 are integrally formed by weaving the perforated structure. The ventilation holes 6 further enhance the air permeability of the inner layer 1 and the outer layer 2. Several adjacent antibacterial elements 4, the inner sidewall of the groove 3, and the end face of the inner layer 1 near the outer layer 2 enclose several ventilation spaces 5. The ventilation holes 6 on the inner layer 1 and the outer layer 2 are the same size and symmetrically arranged vertically. The ventilation holes 6 on the inner layer 1 and the outer layer 2 are arrayed between several adjacent antibacterial elements 4, so that the ventilation holes 6 on the inner layer 1 and the ventilation holes 6 on the outer layer 2 are respectively connected to the ventilation spaces 5.

[0026] like Figures 1-3 As shown, groove 3 intersects perpendicularly with groove 8 on outer layer 2 and is interconnected. The depth of groove 8 is less than the depth of groove 3, so that the top surface of several antibacterial components 4 and the inner peripheral wall of groove 3 form several ventilation grooves 9. The ventilation grooves 9 connect two adjacent ventilation spaces 5. The ventilation holes 6 on inner layer 1 are located above the recesses 7, so that the recesses 7 are interconnected with the ventilation holes 6 on inner layer 1. The interconnected ventilation holes 6, ventilation grooves 9, ventilation spaces 5 and recesses 7 enhance the air circulation effect inside and outside the Oxford cloth, improve the moisture dissipation effect inside the Oxford cloth, and prevent the Oxford cloth from being in a warm and humid environment for a long time and thus preventing the growth of bacteria.

[0027] 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. 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. A quick-drying antibacterial Oxford cloth, comprising an inner layer (1) and an outer layer (2) fixedly connected to each other, characterized in that: The outer layer (2) has several grooves (3) symmetrically formed on the end face near the inner layer (1) along the length of the inner layer (1). Several antibacterial components (4) are provided between the inner layer (1) and the outer layer (2). Several adjacent antibacterial components (4), the inner sidewall of the groove (3), and the inner layer (1) form several air-permeable spaces (5). Several air-permeable holes (6) are formed through the inner layer (1) and the outer layer (2) and are respectively connected to the several air-permeable spaces (5). Several recesses (7) are formed on the end face of the inner layer (1) away from the outer layer (2) and are connected to the air-permeable holes (6) on the inner layer (1).

2. The quick-drying antibacterial Oxford cloth according to claim 1, characterized in that: The inner layer (1) and the outer layer (2) are provided with a number of grooves (8) symmetrically arranged along the width direction of the inner layer (1) on their respective end faces. The grooves (8) on the inner layer (1) and the grooves (8) on the outer layer (2) are the same size and are arranged symmetrically up and down.

3. The quick-drying antibacterial Oxford cloth according to claim 2, characterized in that: When the groove 2 (8) on the inner layer (1) and the groove 2 (8) on the outer layer (2) abut each other, the cross-sectional shape is the same as that of the antibacterial component (4). The peripheral wall of the antibacterial component (4) abuts against the inner wall of the groove 2 (8) on the inner layer (1) and the inner wall of the groove 2 (8) on the outer layer (2).

4. The quick-drying antibacterial Oxford cloth according to claim 3, characterized in that: The first groove (3) intersects perpendicularly with the second groove (8) on the outer layer (2) and is interconnected. The depth of the second groove (8) is less than the depth of the first groove (3). The top surface of the antibacterial components (4) and the inner peripheral wall of the first groove (3) form several ventilation grooves (9).

5. The quick-drying antibacterial Oxford cloth according to claim 4, characterized in that: Several adjacent air-permeable spaces (5) are interconnected by several air-permeable grooves (9), and several air-permeable holes (6) on the inner layer (1) and several air-permeable holes (6) on the outer layer (2) are arranged in an array between several adjacent antibacterial components (4).

6. The quick-drying antibacterial Oxford cloth according to claim 5, characterized in that: Both the inner layer (1) and the outer layer (2) are made by weaving breathable yarn (10) with a perforated structure. The perforated holes (6) on the inner layer (1) and the perforated holes (6) on the outer layer (2) are integrally formed by weaving with a perforated structure.

7. The quick-drying antibacterial Oxford cloth according to claim 6, characterized in that: The breathable yarn (10) is made by twisting a first strand and a second strand. The first strand is made by twisting a polyester profiled fiber (11) with a triangular cross section, and the second strand is made by twisting a flax fiber (12).

8. The quick-drying antibacterial Oxford cloth according to claim 7, characterized in that: The antibacterial component (4) is cut from a fabric woven with antibacterial yarn (13) and plain weave. The antibacterial yarn (13) is formed by spirally winding a third strand around a first strand and twisting it. The third strand is formed by twisting ramie fiber (14).

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