Antistatic mite removing shawl

Abstract

The utility model discloses a kind of anti-static mite-removing scarves, including inner layer, middle layer, outer layer and several mite-removing modules, the inner layer adopts the anti-static layer that can conduct charge, middle layer and inner layer are attached and static electricity is exported passageway is arranged in middle layer, the left and right ends of middle layer are provided with the release contact connected with static electricity export passageway, outer layer and middle layer are attached and outer layer adopts wear-resistant fabric, several mite-removing modules are left and right direction equidistance and are arranged between middle layer and outer layer, mite-removing module is detachably fixed on outer layer.The utility model forms the directional conduction path of charge by inner layer, static electricity export passageway and release contact, and charge is quickly released, and simultaneously through the mite-removing module of detachable replacement, the purpose of long-acting mite-removing is realized.

Description

Technical Field

[0001] This utility model relates to the field of scarves, specifically to an antistatic and mite-removing scarf. Background Technology

[0002] Scarves, worn close to the skin in autumn and winter, are in direct contact with the neck skin for extended periods. This makes them highly susceptible to static electricity due to friction, which can accumulate dander, sweat, and dust, creating a suitable environment for mite breeding. Commercially available scarves typically employ a multi-layered composite structure, achieving anti-static and mite-repellent functions through an anti-static layer and a mite-repellent layer. However, the anti-static layer of existing scarves lacks a directional charge conduction path, and the charge is dispersed throughout the fabric, making it difficult to release quickly. This still presents a significant risk of attracting dust and hair, as well as the risk of electric shock. The mite-repellent layer achieves mite removal through impregnation with antibacterial agents (such as silver ions and chlorhexidine), but the mite-repellent ingredients do not bond firmly to the fabric, and the mite-repellent rate decreases after multiple washes, failing to provide long-lasting mite removal. Utility Model Content

[0003] The purpose of this invention is to provide an antistatic mite-removing scarf. This scarf rapidly releases charge through a directional conduction path formed by the inner layer, static discharge path, and release contacts, while achieving long-lasting mite removal through a detachable and replaceable mite-removing module.

[0004] The technical solution adopted by this utility model to solve the above problems is:

[0005] An antistatic mite-removing scarf includes an inner layer, a middle layer, an outer layer, and several mite-removing modules. The inner layer is made of an antistatic layer that can conduct electric charge. The middle layer is attached to the inner layer and has an electric static discharge path. The left and right ends of the middle layer are provided with release contacts connected to the electric static discharge path. The outer layer is attached to the middle layer and is made of abrasion-resistant fabric. Several mite-removing modules are arranged at equal intervals in the left and right direction between the middle layer and the outer layer. The mite-removing modules are detachably fixed to the outer layer.

[0006] In the above technical solution, preferably, the electrostatic discharge path includes several conductive wires, the middle layer adopts a double-layer non-woven fabric stacked structure, the conductive wires are sandwiched between the double-layer non-woven fabrics, and the left and right ends of the conductive wires are respectively fixedly connected to two release contacts.

[0007] In the above technical solution, preferably, the release contact is a metal block, and the outer surface of the release contact is covered with conductive silicone.

[0008] In the above technical solution, preferably, the conductive wire is wavy.

[0009] In the above technical solution, preferably, the mite removal module includes a sheet-like carrier, and the inner side of the outer layer has pockets of the same number as the mite removal module sewn on it. The pockets have openings on either the top or bottom side via invisible zippers, and Velcro fasteners that can be glued together are provided inside the pockets and on the sheet-like carrier.

[0010] In the above technical solution, preferably, the inner layer is made of graphene-modified fiber and spandex woven by plain knitting process.

[0011] In the above technical solution, preferably, the outer layer is made of antistatic processed chiffon yarn, and the outer surface of the outer layer is coated with a nano-silica coating.

[0012] Compared with the prior art, this utility model has the following advantages and effects:

[0013] This invention utilizes an inner layer, an electrostatic discharge path, and release contacts to form a directional charge conduction path. When worn, the inner layer adheres to the skin and clothing. During daily activities, the release contacts naturally contact or are manually activated by the wearer to contact other conductors. Charges on the body and clothing are released into the environment sequentially through the inner layer, the electrostatic discharge path, and the release contacts, thus achieving rapid release of charges on the inner layer and reducing the risk of dust and hair attraction and electric shock. Furthermore, by detachably fixing the mite removal module between the middle and outer layers, the module can be replaced after a period of use and multiple washes, achieving long-lasting mite removal. Attached Figure Description

[0014] Figure 1 This is a schematic diagram of the layered structure of the antistatic and mite-removing scarf according to an embodiment of this utility model.

[0015] Figure 2 yes Figure 1 Enlarged view of a portion of the location.

[0016] Figure 3 yes Figure 1 Top view of the middle layer.

[0017] Figure 4 yes Figure 1 A bottom view of the middle and outer layers.

[0018] Figure 5 yes Figure 4 A top view of the mite removal module.

[0019] The components include: inner layer 1, middle layer 2, static electricity discharge path 21, release contact 22, conductive wire 23, non-woven fabric 24, outer layer 3, pocket 31, invisible zipper 32, mite removal module 4, sheet carrier 41, and Velcro 42. Detailed Implementation

[0020] The present invention will be further described in detail below with reference to the accompanying drawings and through embodiments. The following embodiments are explanations of the present invention, but the present invention is not limited to the following embodiments.

[0021] See Figures 1-5 This embodiment of an antistatic mite-removing scarf includes an inner layer 1, a middle layer 2, an outer layer 3, and several mite-removing modules 4. The inner layer 1 is an antistatic layer that can conduct electric charge. The middle layer 2 is attached to the inner layer 1 and has an electric static discharge path 21. The left and right ends of the middle layer 2 are provided with release contacts 22 connected to the electric static discharge path 21. The outer layer 3 is attached to the middle layer 2 and is made of abrasion-resistant fabric. Several mite-removing modules 4 are equally spaced in the left and right direction between the middle layer 2 and the outer layer 3. The mite-removing modules 4 are detachably fixed to the outer layer 3.

[0022] This invention forms a directional charge conduction path through the inner layer 1, the electrostatic discharge path 21, and the release contact 22. When worn, the inner layer 1 fits in close contact with the skin and clothing. During daily activities, the release contact 22 naturally contacts or is manually activated by the wearer to contact other conductors. The charge on the body and clothing can be released into the environment through the inner layer 1, the electrostatic discharge path 21, and the release contact 22 in sequence, thereby achieving rapid release of the charge on the inner layer 1 and reducing the risk of dust and hair adsorption and electric shock. At the same time, by detachably fixing the mite removal module 4 between the middle layer 2 and the outer layer 3, the mite removal module 4 can be replaced after a period of use and multiple washes, achieving the purpose of long-term mite removal.

[0023] See Figure 2 , Figure 3 The electrostatic discharge path 21 includes several conductive wires 23. The middle layer 2 adopts a double-layer non-woven fabric 24 stacked structure. The conductive wires 23 are sandwiched between the double-layer non-woven fabric 24. The left and right ends of the conductive wires 23 are fixedly connected to two release contacts 22 respectively.

[0024] The conductive wire 23 and the inner layer 1 are separated from each other by the non-woven fabric 24 of the middle layer 2 and do not come into contact. When there is a charge on the inner layer 1 (assuming it is a negative charge), the conductive wire 23 is relatively close to the inner layer 1. Through electrostatic induction, an equal amount of positive charge is induced on the side of the conductive wire 23 closer to the inner layer 1, and an equal amount of negative charge is induced on the side of the conductive wire 23 farther from the inner layer 1. Through direct contact with the release contact 22, the negative charge on the conductive wire 23 is released into the environment, leaving only the positive charge close to the inner layer 1. An electrostatic attraction is formed between the negative charge of the inner layer 1 and the positive charge of the conductive wire 23, driving the charge of the inner layer 1 to migrate and accumulate at the interface where the inner layer 1 and the middle layer 2 meet. The negative charge of the inner layer 1 accumulated at the interface and the positive charge of the conductive wire 23 can be neutralized through the tunneling effect and air ionization, thereby eliminating the charge on the inner layer 1 and achieving the effect of eliminating static electricity.

[0025] The non-woven fabric 24 separates the conductive wire 23 from the inner layer 1, preventing the hard conductive wire 23 from directly contacting the inner layer 1 and causing wear to the inner layer 1. At the same time, the non-woven fabric 24 has a certain thickness and elasticity, which can reduce the discomfort caused to human skin by the burrs at the joint end of the conductive wire 23, and also protect the conductive wire 23, thus improving the lifespan of the antistatic effect of this scarf.

[0026] See Figure 3 The release contact 22 is made of metal, and the outer surface of the release contact 22 is covered with conductive silicone.

[0027] The conductive silicone, while ensuring its function of conducting electric charge, also reduces wear and tear on the release contact 22 from collisions with other objects in the environment. This is especially beneficial when washing the scarf in a washing machine, reducing damage caused by frequent impacts between the release contact 22 and the inner wall of the washing machine. The metal block used for the release contact 22 provides a certain counterweight (approximately 5g), allowing the scarf's left and right ends to hang down when worn, reducing friction with clothing and hair, thus minimizing static electricity generation. It also facilitates contact between the release contact 22 and conductors in the surrounding environment to release electric charge.

[0028] See Figure 3 The conductive wire 23 is wavy.

[0029] When the scarf is stretched or rubbed, the contact area of ​​the conductive wire 23 increases with deformation, improving the charge conduction efficiency. Moreover, compared with the traditional straight conductive wire 23, which is prone to breakage due to wrinkles, the wavy conductive wire 23 can be stretched laterally to a certain extent, reducing the risk of breakage of the conductive wire 23.

[0030] See Figure 4 , Figure 5The mite removal module 4 includes a sheet-like carrier 41. The inner side of the outer layer 3 is sewn with the same number of pockets 31 as the mite removal module 4. The pockets 31 have openings on either the top or bottom side via invisible zippers 32. The pockets 31 and the sheet-like carrier 41 are provided with Velcro 42 that can be glued and fixed to each other.

[0031] In this scarf, the sheet-like carrier 41 can be made of polyurethane open-pore sponge with non-woven fabric layers on both the inner and outer sides of the sponge. By injecting an anti-mite agent (such as tea tree oil) into the pores within the sheet-like carrier 41, the anti-mite agent is slowly released, extending the duration of the anti-mite effect. The non-woven fabric layers facilitate the sewing of Velcro 42, and the sheet-like carrier 41 is fixed inside the pocket 31 by the Velcro 42 and the pocket 31 is sealed by an invisible zipper 32, improving the convenience of replacing the sheet-like carrier 41.

[0032] The inner layer 1 is made of graphene-modified fiber and spandex through a plain knitting process.

[0033] Graphene-modified fibers have good electrical conductivity, enabling them to effectively conduct electrical charges from the human body and clothing. Blending graphene-modified fibers with spandex can improve the skin-friendliness of the inner layer 1 and reduce irritation to the skin.

[0034] The outer layer 3 is made of antistatic processed chiffon yarn, and the outer surface of the outer layer 3 is coated with a nano-silica coating.

[0035] The antistatic treatment on the chiffon yarn reduces frictional static electricity generation, decreasing the accumulation of static electricity on the scarf's surface and indirectly reducing the electrostatic load on the conductive fibers 23. The nano-silica coating improves the abrasion resistance of the outer layer 3, extending the scarf's lifespan.

[0036] The above description in this specification is merely illustrative of the present invention. Those skilled in the art to which this invention pertains may make various modifications or additions to the described specific embodiments or use similar methods to replace them, as long as they do not depart from the content of this specification or exceed the scope defined in the claims, all of which shall fall within the protection scope of this invention.

Claims

1. An antistatic and mite-removing scarf, characterized in that: It includes an inner layer, a middle layer, an outer layer, and several mite-removing modules. The inner layer is an antistatic layer that can conduct electric charge. The middle layer is attached to the inner layer and has an electric static discharge path. The left and right ends of the middle layer are provided with release contacts connected to the electric static discharge path. The outer layer is attached to the middle layer and is made of wear-resistant fabric. Several mite-removing modules are equally spaced in the left and right direction between the middle layer and the outer layer. The mite-removing modules are detachably fixed to the outer layer.

2. The antistatic and mite-removing scarf according to claim 1, characterized in that: The electrostatic discharge path includes several conductive wires. The middle layer adopts a double-layer non-woven fabric stacked structure, with the conductive wires sandwiched between the double-layer non-woven fabric. The left and right ends of the conductive wires are respectively fixedly connected to two release contacts.

3. The antistatic and mite-removing scarf according to claim 1, characterized in that: The release contact is made of a metal block, and the outer surface of the release contact is covered with conductive silicone.

4. The antistatic and mite-removing scarf according to claim 2, characterized in that: The conductive wire is wavy.

5. The antistatic and mite-removing scarf according to claim 1, characterized in that: The mite removal module includes a sheet-like carrier, with the same number of pockets sewn onto the inner side of the outer layer as the mite removal module. The pockets have openings on either the top or bottom side via invisible zippers, and Velcro fasteners that can be attached to each other are provided inside the pockets and on the sheet-like carrier.

6. The antistatic and mite-removing scarf according to claim 1, characterized in that: The inner layer is made of graphene-modified fiber and spandex through a plain knitting process.

7. The antistatic and mite-removing scarf according to claim 1, characterized in that: The outer layer is made of antistatic processed chiffon yarn, and the outer surface of the outer layer is coated with a nano-silica coating.

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