Comfortable antistatic oxford fabric

Abstract

The utility model discloses a comfortable anti-static oxford fabric, relates to the technical field of oxford fabrics, and aims to solve the problem that part of the oxford fabrics are poor in anti-static performance. According to the key points of the technical scheme, the comfortable anti-static mattress comprises a comfortable inner layer and an anti-static outer layer which are fixedly connected with each other, the section of the comfortable inner layer is wavy, a plurality of supporting pieces are fixedly connected to the side, away from the anti-static outer layer, of the comfortable inner layer, and the supporting pieces are close to the wave trough position of the comfortable inner layer and are symmetrical with the wave trough position as the central axis; the side, close to the comfortable inner layer, of the antistatic outer layer is fixedly connected with a plurality of antistatic balls, the antistatic performance of the fabric is enhanced through the antistatic balls, and the wavy comfortable inner layer can effectively reduce friction with the body surface of a user, so that generation of static electricity is reduced; the supporting piece not only can support the wave-shaped structure, but also can further reduce the contact area with the skin. According to the utility model, the copper ion fibers have better conductivity, so that the overall antistatic capability of the oxford fabric is ensured.

Description

Technical Field

[0001] The utility model relates to the technical field of Oxford fabrics, and more specifically, relates to comfortable antistatic Oxford fabrics. Background Art

[0002] Oxford fabric is a versatile and widely used fabric with good structural strength, shape retention, easy washing and quick drying.

[0003] When the fabric is in use, it will constantly rub against the user's body surface. As the number of frictions increases, electric charges will be generated and accumulated between the fabric and the user's body surface. Due to the poor air permeability of Oxford fabric, the charges accumulated inside the fabric cannot be discharged. When static electricity accumulates too much, the clothes will absorb particles such as dust and bacteria, which will not only affect the comfort of the fabric when used, but also affect human health. Therefore, a new structure is proposed to solve the problem of poor anti-static performance of some Oxford fabrics. Utility Model Content

[0004] In view of the shortcomings of the prior art, the purpose of the utility model is to provide a comfortable antistatic Oxford fabric to solve the problem that some Oxford fabrics have poor antistatic performance.

[0005] The above technical purpose of the utility model is achieved through the following technical solutions: comfortable antistatic Oxford fabric, including a comfortable inner layer and an antistatic outer layer fixedly connected to each other, the cross-sectional shape of the comfortable inner layer is set to be wavy, and a plurality of supporting members are fixedly connected to the side of the comfortable inner layer away from the antistatic outer layer, the supporting members are close to the trough position of the comfortable inner layer and are symmetrical with the trough position as the central axis, and a plurality of antistatic balls are fixedly connected to the side of the antistatic outer layer close to the comfortable inner layer.

[0006] The utility model is further configured as follows: a plurality of grooves are provided on one side of the antistatic outer layer close to the comfortable inner layer, and the antistatic balls are fixed in the grooves.

[0007] The utility model is further configured as follows: the support member is hemispherical, and the support member is formed by kneading a plurality of cotton fibers and nylon fibers.

[0008] The utility model is further configured as follows: the antistatic ball is formed by kneading a plurality of copper ion fibers and nylon fibers.

[0009] The utility model is further configured as follows: the weaving density of the antistatic outer layer is less than the weaving density of the comfortable inner layer.

[0010] The utility model is further configured as follows: the comfortable inner layer is woven from comfortable yarns, and the antistatic outer layer is woven from antistatic yarns.

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

[0012] The utility model is further configured as follows: the antistatic yarn comprises a core yarn and a covering yarn, the core yarn is formed by twisting a plurality of copper ion fibers, the covering yarn is formed by twisting a plurality of nylon fibers, and the covering yarn is spirally wound around the outer side of the core yarn.

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

[0014] The antistatic properties of the fabric are enhanced by antistatic balls and conductive cavities are added. The conductivity of air is poor, and the charge inside the Oxford fabric is released into the conductive cavity, thereby reducing the charge accumulated on the fabric. The wavy comfortable inner layer can effectively reduce the friction with the user's body surface and thus reduce the generation of static electricity. The support can not only support the wavy structure but also further reduce the contact area with the skin. The touch of the support and the skin is also more comfortable. BRIEF DESCRIPTION OF THE DRAWINGS

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

[0016] Figure 2 This is a schematic diagram of the structure of the comfort inner layer;

[0017] Figure 3 Slice diagram for comfort yarn;

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

[0019] In the figure: 1. Comfort inner layer; 11. Comfort yarn; 111. First strand; 112. Second strand; 2. Antistatic outer layer; 21. Antistatic yarn; 211. Core yarn; 212. Covering yarn; 3. Support member; 4. Antistatic ball; 5. 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 1As shown, the comfortable antistatic Oxford fabric comprises a comfortable inner layer 1 and an antistatic outer layer 2 which are fixedly connected to each other by sewing yarns. The weaving density of the antistatic outer layer 2 is less than that of the comfortable inner layer 1. By setting the weaving density, the channel for the outside air to flow through the antistatic outer layer 2 is increased, the channel for the charge release inside the fabric is increased, and the antistatic performance of the fabric when used is enhanced. The cross-sectional shape of the comfortable inner layer 1 is set to be wavy. The wavy comfortable inner layer 1 can not only reduce the contact area between the fabric and the user's body surface, thereby reducing the phenomenon of static electricity generated by friction between the comfortable inner layer 1 and the user's body surface, but also increase the contact area between the fabric and the air, so that the charge in the fabric can be better released into the air, and the wavy setting can make the comfortable inner layer 1 have bulges, thereby improving the overall elasticity and touch of the fabric, making people feel softer and more comfortable when touching the fabric, thereby improving the comfort of the fabric.

[0023] like Figure 1-Figure 2 As shown, a plurality of support members 3 are bonded to the side of the comfortable inner layer 1 away from the antistatic outer layer 2. The support members 3 are close to the trough position of the comfortable inner layer 1 and are symmetrical with the trough position as the central axis. The support members 3 are hemispherical and are formed by kneading a plurality of cotton fibers and nylon fibers. The nylon fibers have good wear resistance and can extend the service life of the support members 3. The cotton fibers are comfortable, soft and have good moisture absorption and moisturizing properties. The static electricity generated inside the Oxford fabric due to excessive dryness is reduced by setting the cotton fibers. The support members 3 further reduce the contact area between the comfortable inner layer 1 and the user's body surface, and at the same time support the wavy structure of the comfortable inner layer 1, thereby reducing the large-area contact between the comfortable inner layer 1 and the skin due to extrusion deformation and the like. The support members 3 feel comfortable when in contact with the skin and have a massage feeling. A plurality of grooves 5 are formed by hot pressing on the side of the antistatic outer layer 2 close to the comfortable inner layer 1. A plurality of antistatic balls 4 are bonded in the groove 5. The antistatic balls 4 are formed by kneading a plurality of copper ion fibers and nylon fibers. The provision of the groove 5 is helpful for positioning the antistatic balls 4, simplifies the process of connecting the antistatic balls 4 with the antistatic outer layer 2, and improves the structural stability of the antistatic balls 4. When the antistatic outer layer 2 is covered on the comfortable inner layer 1, the gravity of the antistatic balls 4 is greater than the gravity of the rest of the antistatic outer layer 2. The antistatic outer layer 2 falls downward with the antistatic balls 4 under the action of the gravity of the antistatic balls 4, thereby ensuring the stability of the fabric during use. The antistatic balls 4 support the comfortable inner layer 1 and the antistatic outer layer 2 to form a conductive cavity, providing space for external air to remain between the comfortable inner layer 1 and the antistatic outer layer 2. The conductivity of the air is poor, so that the charge of the comfortable inner layer 1 can be released in the conductive cavity, thereby enhancing the antistatic performance of the fabric during use by reducing the amount of charge inside the fabric.

[0024] like Figure 1 and Figure 3As shown, the comfortable inner layer 1 is woven from a comfortable yarn 11, which is twisted by a plurality of first strands 111 and a second strand 112. The first strand 111 is formed by twisting a plurality of cotton fibers, and the second strand 112 is formed by twisting a plurality of nylon shaped fibers. The cross-section of the nylon shaped fibers is set to be Y-shaped. The cotton fibers are fluffy and porous and have good moisture absorption, which can improve the overall comfort and antistatic properties of the Oxford fabric. The nylon shaped fibers with a Y-shaped cross-section can increase the channels for air circulation in the comfortable inner layer 1, thereby enhancing the air permeability of the comfortable inner layer 1, accelerating the discharge of charges on the fabric, and reducing charge accumulation, thereby improving the antistatic properties and comfort effect of the comfortable inner layer 1.

[0025] like Figure 1 and Figure 4 As shown, the antistatic outer layer 2 is woven by antistatic yarn 21, and the antistatic yarn 21 includes a core yarn 211 and a covering yarn 212. The core yarn 211 is twisted by a plurality of copper ion fibers, and the covering yarn 212 is twisted by a plurality of nylon fibers. The covering yarn 212 is spirally wound on the outside of the core yarn 211. The copper ion fiber has good conductivity, so that the static electricity on the Oxford fabric can be easily dissipated. The copper ion fiber not only has good antistatic ability but also has certain antibacterial properties, so that bacteria are not easy to breed on the antistatic outer layer 2, thereby ensuring the overall antibacterial properties of the Oxford fabric.

[0026] like Figure 1-Figure 4As shown, when the fabric needs to be made, firstly, a plurality of cotton 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 a comfortable yarn 11, and then the comfortable yarn 11 is woven into a comfortable inner layer 1 by a jet loom, and the comfortable inner layer 1 is pleated by a pleating machine to form a wavy cross-section, and a plurality of cotton fibers and nylon fibers are put into a cutting machine to cut into short fibers, and then the cut short fibers are put into an automatic wool ball machine and rubbed to form a ball, and then a cutting knife is used to cut a hemispherical support member 3, and the support member 3 is bonded to the trough position near the comfortable inner layer 1 by a dispensing machine and symmetrically with the trough position as the central axis, and a plurality of copper ion fibers are put into a twisting machine and twisted to form a core yarn 211, and a plurality of nylon fibers are put into a twisting machine and twisted to form a coated yarn 212, and the core yarn 211 and the coated yarn 212 are spirally wound by a spindle spinning process. The antistatic yarn 21 is wound around and then woven into an antistatic outer layer 2 by a jet loom; a plurality of grooves 5 are formed by hot pressing on the side of the antistatic outer layer 2 close to the comfortable inner layer 1 by a hot press; the end face of the antistatic outer layer 2 having the grooves 5 is placed upward; a plurality of copper ion fibers and nylon fibers are put into a cutting machine and cut into staple fibers; the cut staple fibers are then put into an automatic wool ball machine and rubbed to form antistatic balls 4; a dispensing machine is used to apply glue in the grooves 5; the antistatic balls 4 are sprinkled on the antistatic outer layer 2, so that some of the antistatic balls 4 are bonded to the grooves 5 under the action of the glue; the fabric is then shaken to shake off the antistatic balls 4 that are not bonded to the antistatic outer layer 2; the end face of the comfortable inner layer 1 on the side away from the support 3 is facing the antistatic outer layer 2; the antistatic outer layer 2 and the comfortable inner layer 1 are sewed together by a sewing machine to finally form the fabric.

[0027] 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 comfortable antistatic Oxford fabric, comprising a comfortable inner layer (1) and an antistatic outer layer (2) fixedly connected to each other, characterized in that: The cross-sectional shape of the comfortable inner layer (1) is set to be wavy, and a plurality of support members (3) are fixedly connected to the side of the comfortable inner layer (1) away from the antistatic outer layer (2), and the support members (3) are close to the trough position of the comfortable inner layer (1) and are symmetrical with the trough position as the central axis, and a plurality of antistatic balls (4) are fixedly connected to the side of the antistatic outer layer (2) close to the comfortable inner layer (1).

2. The comfortable antistatic Oxford fabric according to claim 1, characterized in that: A plurality of grooves (5) are provided on a side of the antistatic outer layer (2) close to the comfortable inner layer (1), and the antistatic balls (4) are fixed in the grooves (5).

3. The comfortable antistatic Oxford fabric according to claim 1, characterized in that: The support member (3) is hemispherical.

4. The comfortable antistatic Oxford fabric according to claim 1, characterized in that: The weaving density of the antistatic outer layer (2) is smaller than the weaving density of the comfortable inner layer (1).

5. The comfortable antistatic Oxford fabric according to claim 4, characterized in that: The comfortable inner layer (1) is woven from comfortable yarn (11), and the antistatic outer layer (2) is woven from antistatic yarn (21).

6. The comfortable antistatic Oxford fabric according to claim 5, characterized in that: The comfort 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 cotton 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 be Y-shaped.

7. The comfortable antistatic Oxford fabric according to claim 5, characterized in that: The antistatic yarn (21) comprises a core yarn (211) and a covering yarn (212), wherein the core yarn (211) is formed by twisting a plurality of copper ion fibers, and the covering yarn (212) is formed by twisting a plurality of nylon fibers, and the covering yarn (212) is spirally wound around the outer side of the core yarn (211).

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