Antistatic printed cloth

Abstract

The utility model discloses an anti -static printed cloth relates to printed cloth technical field, the utility model discloses from inside to outside includes conductive layer and printed layer in proper order, the one side of conductive layer is away from printed layer and is densely covered with several convex network, the conductive layer and convex network are integrative forming structure, the conductive layer is through several conductive yarn warp -weft and is woven, the one side of conductive layer towards printed layer is densely covered with several conductive pile, printed layer is densely covered with several conductive holes, the conductive pile can extend into the conductive hole, and the setting of through the structure has guaranteed the anti -static effect of whole printed cloth.

Description

Technical Field

[0001] This utility model relates to a printed fabric, and more specifically, to an antistatic printed fabric. Background Technology

[0002] Printed fabric is a type of textile that uses specific techniques to create patterns on fabric. Its core characteristics include the diversity of techniques, cultural symbolism, and wide range of applications.

[0003] Existing printed fabrics have poor antistatic properties, especially fabrics made of chemical fibers, which are prone to pilling after prolonged use, affecting their appearance and making them uncomfortable to use.

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

[0005] To solve the above-mentioned technical problems, this utility model provides an antistatic printed fabric, which ensures the antistatic effect of the entire printed fabric through structural design.

[0006] The technical solution of this utility model is: an antistatic printed fabric, which includes a conductive layer and a printed layer from the inside out. The conductive layer has a number of raised meshes densely distributed on the side away from the printed layer. The conductive layer and the raised meshes are integrally formed. The conductive layer is woven by a number of conductive yarns. The conductive layer has a number of conductive fibers densely distributed on the side facing the printed layer. The printed layer has a number of conductive holes densely distributed on it. The conductive fibers can extend into the conductive holes.

[0007] The present invention is further configured such that the conductive layer is a plain weave, the convex mesh is a variable mesh weave, the convex mesh has 1 warp thread, and the convex mesh has 3 traction weft threads.

[0008] The present invention is further configured such that the variable mesh organization is 11 pages with the warp float being floating and the weft float being sinking. The variable mesh organization, from left to right and from bottom to top, has the following organizational cycle: sinking-floating ...

[0009] The present invention is further configured such that the conductive yarn includes a core layer and a covering layer covering the outside of the core layer, wherein the core layer is formed by twisting several nylon fibers.

[0010] The present invention is further configured such that the coating layer is wound around the outside of the core layer by cupro fiber and ice silk fiber.

[0011] The present invention is further configured such that the printed layer is formed by weaving several antistatic yarns to form a satin weave, wherein the antistatic yarns are formed by twisting several ice silk fibers and several cotton fibers.

[0012] The beneficial technical effects of this utility model are:

[0013] By setting a conductive layer and a printing layer, since the printing layer is densely covered with conductive holes and the conductive layer is densely covered with conductive fibers, when the two are bonded together, the conductive fibers are prevented from entering the conductive holes, making the conductive fibers closer to the external environment, thus better ensuring the conductivity of the conductive layer. In addition, both the printing layer and the conductive layer are covered with ice silk fibers, which are relatively soft, ensuring the overall softness of the printed fabric and making it more comfortable to use. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the structure of this utility model;

[0015] Figure 2 This is an organizational diagram of the modified mesh structure of this utility model.

[0016] In the diagram, 1 is the conductive layer; 2 is the printed layer; 3 is the raised mesh; 4 is the conductive velvet; and 5 is the conductive hole. Detailed Implementation

[0017] In order to better understand the technical means of this utility model and to implement it in accordance with the contents of the specification, the specific embodiments of this utility model will be further described in detail below with reference to the accompanying drawings and examples. The following examples are used to illustrate this utility model, but are not intended to limit the scope of this utility model.

[0018] An antistatic printed fabric, such as Figure 1 and Figure 2 As shown, the structure includes a conductive layer 1 and a printed layer 2 from the inside out. The conductive layer 1 has several raised meshes 3 densely distributed on the side away from the printed layer 2. The conductive layer 1 and the raised meshes 3 are integrally formed. The conductive layer 1 is woven from several conductive yarns. The conductive layer 1 has several conductive fibers 4 densely distributed on the side facing the printed layer 2. The printed layer 2 has several conductive holes 5 densely distributed on it. The conductive fibers 4 can extend into the conductive holes 5.

[0019] A certain amount of nylon is placed into a twisting machine and twisted to form a core layer. Cuprammonium fiber and ice silk fiber, along with the prepared core layer, are placed into a spinning machine, so that the cuprammonium fiber and ice silk fiber are wound around the outside of the core layer in a spinning manner to form a coating layer, thereby obtaining the entire conductive yarn. Nylon has good elasticity, which ensures the strength of the overall conductive yarn. Cuprammonium fiber has good conductivity and antibacterial effect, and ice silk has a good moisture absorption and quick-drying effect.

[0020] One conductive yarn is used as the mesh warp, and three conductive yarns are used as the traction weft. Several other conductive yarns are fed into a water-jet loom in a plain weave pattern. To make the mesh warp more prominent, the mesh warp and the plain weave warp are threaded into the same reed tooth during reed insertion. This forms a conductive layer 1, with one side of the conductive layer 1 integrally forming a raised mesh 3. The raised mesh 3 is a variable mesh structure, consisting of 11 heddles with the warp floats being "float" and the weft floats being "sink." The variable mesh structure repeats from left to right and from bottom to top as follows: sink-float ... The varying mesh structure allows the conductive layer 1 and the raised mesh 3 to form an integral structure, ensuring the integrity of the conductive layer 1. After obtaining the complete conductive layer 1, it is placed in a napping machine, causing the surface of the conductive layer 1 to form a pile. Since the conductive layer 1 is made of conductive yarn, the pile is conductive pile 4.

[0021] Take a number of ice silk fibers and a number of cotton fibers and put them into a twisting machine to twist them into antistatic yarn. Ice silk has a good antistatic effect. Put a number of antistatic yarns into a loom and weave them in a satin weave to form a printed layer 2. The surface of the satin weave is relatively smooth and more comfortable to contact with the body surface. Print the corresponding pattern on one side of the printed layer 2 through the printing equipment to obtain a complete printed layer 2. Then use a laser punching machine to open through holes on the printed layer 2 to form dense conductive holes 5.

[0022] The side of conductive layer 1 without the raised mesh 3 is attached to the printed layer 2 and then sewn together. Since the printed layer 2 is densely covered with conductive holes 5 and the conductive layer 1 is densely covered with conductive fibers 4, the conductive fibers 4 are prevented from entering the conductive holes 5 during the attachment process. This allows the conductive fibers 4 to be closer to the external environment, thus better ensuring the conductivity of the conductive layer 1. Furthermore, both the printed layer 2 and the conductive layer 1 are covered with ice silk fibers, which are soft and ensure the overall softness of the printed fabric, making it more comfortable to use. When made into clothing, the conductive layer 1, due to the ice silk fibers, ensures the overall... The comfort of the clothing and the design of the raised mesh 3 reduce the contact area between the conductive layer 1 and the body surface, ensuring breathability. When made into a duvet cover, the printed layer 2 is on the outside, and the conductive layer 1 is in contact with the duvet core. Due to the design of the raised mesh 3, the roughness between the duvet core and the conductive fabric is increased, which can have a good anti-slip effect, thereby preventing the duvet core from shifting. Furthermore, due to the weight of the duvet core, when it is covered with the body, the duvet core will extend into the raised mesh 3, thereby increasing the contact area between the conductive layer 1 and the duvet core, thus enabling better conductivity and ensuring the anti-static effect of the printed fabric after being made into a duvet cover.

[0023] The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. It should be noted that for those skilled in the art, several improvements and modifications can be made without departing from the technical principles of the present utility model, and these improvements and modifications should also be considered within the protection scope of the present utility model.

Claims

1. An antistatic printed fabric, characterized in that: From the inside out, it includes a conductive layer (1) and a printed layer (2). The conductive layer (1) has several raised meshes (3) densely distributed on the side away from the printed layer (2). The conductive layer (1) and the raised meshes (3) are integrally formed. The conductive layer (1) is woven from several conductive yarns. The conductive layer (1) has several conductive fibers (4) densely distributed on the side facing the printed layer (2). The printed layer (2) has several conductive holes (5) densely distributed on it. The conductive fibers (4) can extend into the conductive holes (5).

2. The antistatic printed fabric according to claim 1, characterized in that: The conductive layer (1) is plain weave, the convex mesh (3) is variable mesh weave, the convex mesh (3) has 1 warp thread and 3 weft threads.

3. The antistatic printed fabric according to claim 2, characterized in that: The changing mesh organization is 11 pages long with the warp floating point as floating and the weft floating point as sinking. The changing mesh organization from left to right and from bottom to top is organized in the following cycle: sinking-floating-sinking-floating-sinking-floating-sinking-sinking-sinking-sinking-floating ...

4. The antistatic printed fabric according to claim 1, characterized in that: The conductive yarn includes a core layer and a covering layer covering the outside of the core layer, wherein the core layer is formed by twisting several nylon fibers.

5. The antistatic printed fabric according to claim 4, characterized in that: The coating layer is wrapped around the outside of the core layer by cupro fiber and ice silk fiber.

6. The antistatic printed fabric according to claim 1, characterized in that: The printed layer (2) is formed by weaving several antistatic yarns to form a satin weave, wherein the antistatic yarns are formed by twisting several ice silk fibers and several cotton fibers.

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