Anti-siphon fabric structure

Abstract

The utility model discloses an anti-siphon fabric structure, and particularly relates to the technical field of anti-siphon fabrics, the anti-siphon fabric structure comprises a fabric assembly, the fabric assembly comprises a base cloth, the top and the bottom of the base cloth are fixedly bonded with reinforced tensile layers, the superfine outer walls of the two reinforced tensile layers are fixedly bonded with superfine fiber waterproof layers, and the superfine fiber waterproof layers are arranged on the top and the bottom of the base cloth. Wear-resistant layers are fixedly adhered to the outer walls of the two superfine fiber waterproof layers, and the outer walls of the two reinforced tensile layers are of screen cloth structures. The fabric assembly is composed of the base cloth, the reinforced tensile layer, the superfine fiber waterproof layers and the wear-resistant layer, the reinforced tensile layer is of a screen cloth structure formed through the warp knitting technology, the structure is stable, the tensile strength is high, the tensile strength of the fabric assembly can be improved, and the two superfine fiber waterproof layers are made through the warp knitting technology as well; a large amount of fluoride-free water-repellent agent with water-repellent and anti-siphon performance can be absorbed, and the fluoride-free water-repellent agent forms a waterproof film in a large amount of superfine fiber micropores, so that the waterproof and anti-siphon effects are achieved on the outer side of the fabric assembly.

Description

Technical Field

[0001] The utility model relates to the technical field of anti-siphon fabrics, in particular to an anti-siphon fabric structure. Background Art

[0002] Fabrics are widely used, such as clothing, outdoor tents, curtains, umbrellas, car covers, etc. Most fabrics on the market can only achieve static water resistance. After completing a certain number of dynamic bending tests, their water absorption rate tends to increase, and the waterproof performance is difficult to meet the use requirements. Therefore, the anti-siphon performance of the fabric is particularly important.

[0003] For example, the prior art publication number is CN214027565U, which is an anti-siphoning electrostatic high-performance composite ultra-fiber material. The utility model greatly improves the hydrophobic properties of the material by setting a hydrophobic layer, thereby improving the anti-siphoning effect of the material. At the same time, by setting a silver-plated metal fiber layer, the silver-plated metal fiber layer has excellent conductive properties, which can quickly conduct the charge on the material to the outside world.

[0004] However, the following problems still exist when the above-mentioned materials are used in tents: since the tents are exposed to the outside world for a long time, the tent fabrics are easily affected by collision and friction of objects, and the anti-siphon and wear resistance of the above-mentioned fabrics are relatively low, thus resulting in a short service life of the tent. Based on this, the utility model provides an anti-siphon fabric structure with good anti-siphon effect, high tensile strength and high wear resistance. Utility Model Content

[0005] In order to overcome the above-mentioned defects of the prior art, the utility model provides an anti-siphon fabric structure. By adopting a mesh structure formed by a warp knitting process as a reinforced tensile layer, the structure is stable and the tensile strength is high, so the tensile strength of the fabric component can be improved. The two ultrafine fiber waterproof layers are also made by warp knitting process, which can absorb a large amount of fluorine-free water-repellent agent with water-proof and anti-siphon properties. The fluorine-free water-repellent agent forms a waterproof film in a large number of ultrafine fiber micropores, which plays a waterproof and anti-siphon role on the outside of the fabric component to solve the problems arising from the above-mentioned background technology.

[0006] To achieve the above-mentioned purpose, the utility model provides the following technical solutions: an anti-siphon fabric structure, including a fabric component, the fabric component including a base fabric, the top and bottom of the base fabric are fixedly bonded with a reinforced tensile layer, the ultra-fine outer walls of the two reinforced tensile layers are fixedly bonded with a superfine fiber waterproof layer, the outer walls of the two superfine fiber waterproof layers are fixedly bonded with a wear-resistant layer, the outer walls of the two reinforced tensile layers are both mesh structures, the mesh structure is fixedly bonded to the top and bottom of the base fabric, the mesh structure is composed of a plurality of first warps and a plurality of first wefts, which are used to improve the tensile strength of the fabric component, and the two superfine fiber waterproof layers are composed of a plurality of second warps and a plurality of second wefts, which are used to improve the tensile resistance and strength of the superfine fiber waterproof layer.

[0007] In a preferred embodiment, each second warp and each second weft are ultrafine fibers, which can absorb a large amount of fluorine-free water-repellent agent, and the fluorine-free water-repellent agent forms a waterproof film in a large number of fiber micropores, thereby improving the anti-siphoning property of the ultrafine fiber waterproof layer.

[0008] In a preferred embodiment, the wear-resistant layer is a multi-knot warp knitted monofilament mesh, which is made by a multi-knot warp knitting process. The multi-knot warp knitted monofilament mesh is made of monofilament fiber. The multi-knot warp knitted monofilament mesh has only a single strand, so it has high wear resistance and strength. The multi-knot monofilament fiber forms a stable multi-layer wear-resistant structure during the weaving process, thereby improving the wear resistance and strength of the wear-resistant layer.

[0009] In a preferred embodiment, the surface of the multi-comb warp knitted monofilament mesh is evenly sprayed with a water-based nano thermal insulation flame retardant coating. Specifically, the water-based nano thermal insulation flame retardant coating is a BL-F water-based nano thermal insulation flame retardant coating. The BL-F water-based nano thermal insulation flame retardant coating is composed of a nano infrared blocking slurry, nano graphene oxide, a polymer additive and an elastic rubber resin, and has excellent waterproofness, flexibility, flame retardancy and thermal insulation.

[0010] In a preferred embodiment, the plurality of first warp threads and the plurality of first weft threads are both made by warp knitting technology, so as to improve the elasticity and tensile strength of the reinforced tensile layer, thereby improving the tensile strength of the fabric component.

[0011] In a preferred embodiment, the plurality of second warp threads and the plurality of second weft threads are both made by warp knitting technology, so as to improve the elasticity and tensile strength of the ultrafine fiber waterproof layer.

[0012] Technical effects and advantages of the utility model:

[0013] 1. The utility model comprises a fabric component through a base fabric, a reinforced tensile-resistant layer, a microfiber waterproof layer and a wear-resistant layer. The reinforced tensile-resistant layer is a mesh structure and is formed by a warp knitting process, so that the mesh structure has a stable warp and weft structure and high tensile strength, thereby improving the tensile strength of the fabric component. The two microfiber waterproof layers are also made by a warp knitting process. The microfiber has high water absorption and can absorb a large amount of fluorine-free water-repellent. The fluorine-free water-repellent has water-repellent and anti-siphoning properties, and forms a waterproof film in a large number of micro-pores of the microfibers, which plays a waterproof and anti-siphoning role on the outside of the fabric component.

[0014] 2. The wear-resistant layer is a multi-knot warp-knitted monofilament mesh. The multi-knot warp-knitted monofilament mesh is made of monofilament fiber and a multi-knot warp-knitting process, and the monofilament fiber is a single strand, so it has high wear resistance and strength, so that the multi-knot monofilament fiber forms a stable multi-layer wear-resistant structure during the weaving process, which can play a wear-resistant role on the outside of the ultra-fine fiber waterproof layer, thereby improving the wear resistance of the fabric component, and the surface of the multi-knot warp-knitted monofilament mesh is evenly sprayed with a water-based nano-insulating flame-retardant coating, which has excellent waterproofness, flexibility, flame retardancy and thermal insulation, thereby improving the waterproofness, flame retardancy and thermal insulation of the fabric component. BRIEF DESCRIPTION OF THE DRAWINGS

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

[0016] Figure 2 It is a cross-sectional view of the overall structure of the utility model;

[0017] Figure 3 This is a structural diagram of the reinforced tensile layer of the utility model;

[0018] Figure 4 This is a structural diagram of the ultra-fine fiber waterproof layer of the utility model;

[0019] Figure 5 It is a partial enlarged view of the utility model.

[0020] The accompanying drawings are marked as follows: 1. fabric component; 2. water-based nano thermal insulation flame retardant coating;

[0021] 101. base fabric; 102. reinforced tensile layer; 103. ultrafine fiber waterproof layer; 104. wear-resistant layer;

[0022] 1021, first meridian; 1022, first latitude;

[0023] 1031. The second longitude. 1032. The second latitude. DETAILED DESCRIPTION

[0024] The following will be combined with the drawings in the embodiments of the utility model to clearly and completely describe the technical solutions in the embodiments of the utility model. Obviously, the described embodiments are only part of the embodiments of the utility model, not all of the embodiments. Based on the embodiments in the utility model, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the utility model.

[0025] Refer to the instruction manual Figure 1-5 The utility model provides an anti-siphon fabric structure, including a fabric component 1, the fabric component 1 includes a base fabric 101, the top and bottom of the base fabric 101 are fixedly bonded with a reinforced tensile layer 102, the ultra-fine outer walls of the two reinforced tensile layers 102 are fixedly bonded with an ultra-fine fiber waterproof layer 103, and the outer walls of the two ultra-fine fiber waterproof layers 103 are fixedly bonded with a wear-resistant layer 104;

[0026] The outer walls of the two reinforced tensile layers 102 are both mesh structures, which are fixedly bonded to the top and bottom of the base fabric 101. The mesh structure is composed of a plurality of first warp threads 1021 and a plurality of first weft threads 1022. The plurality of first warp threads 1021 and the plurality of first weft threads 1022 are both made by warp knitting technology, and are used to improve the tensile strength of the reinforced tensile layer 102, thereby improving the tensile strength of the fabric component 1.

[0027] The two ultrafine fiber waterproof layers 103 are composed of multiple second warp threads 1031 and multiple second weft threads 1032. The multiple second warp threads 1031 and the multiple second weft threads 1032 are all made by warp knitting technology, which is used to improve the tensile resistance and strength of the ultrafine fiber waterproof layer 103, and can further improve the tensile strength of the fabric component 1. Specifically, each second warp thread 1031 and each second weft thread 1032 are ultrafine fibers, which are used to absorb fluorine-free water-repellent agents to form a waterproof film, thereby improving the anti-siphoning property of the ultrafine fiber waterproof layer 103.

[0028] The fabric component 1 is composed of a base fabric 101, a reinforced tensile layer 102, a microfiber waterproof layer 103 and a wear-resistant layer 104. The reinforced tensile layer 102 is a mesh structure. The mesh structure is composed of a plurality of first warps 1021 and a plurality of first wefts 1022 using a warp knitting process. The mesh structure has a stable warp and weft structure and high tensile strength, so the tensile strength of the fabric component 1 can be improved. The two microfiber waterproof layers 103 are also woven with a plurality of second warps 1031 and a plurality of wefts using a warp knitting process. Each second warp 1031 and each second weft 1032 are made of microfibers. The microfibers are highly absorbent and can absorb a large amount of fluorine-free water-repellent agents. The fluorine-free water-repellent agents have water-repellent and anti-siphoning properties. Therefore, the fluorine-free water-repellent agent is used to form a waterproof film in a large number of fiber micropores to form a high-efficiency waterproof layer, which plays a waterproof and anti-siphoning role on the outside of the fabric component 1.

[0029] Refer to the instruction manual Figure 1-5 The wear-resistant layer 104 is a multi-knot warp knitted monofilament mesh, which is made by a multi-knot warp knitting process and is used to improve the wear resistance and strength of the wear-resistant layer 104. The surface of the multi-knot warp knitted monofilament mesh is evenly sprayed with a water-based nano-insulating flame-retardant coating 2 to improve the flame retardant and thermal insulation properties of the multi-knot warp knitted monofilament mesh.

[0030] The wear-resistant layer 104 is a multi-knot warp-knitted monofilament mesh. The multi-knot warp-knitted monofilament mesh is made of monofilament fiber and a multi-knot warp-knitting process, and the monofilament fiber is a single strand, so it has high wear resistance and strength, so that the multi-knot monofilament fiber forms a stable multi-layer wear-resistant structure during the weaving process, which can play a wear-resistant role on the outside of the ultra-fine fiber waterproof layer 103, thereby improving the wear resistance of the fabric component 1, and the surface of the multi-knot warp-knitted monofilament mesh is evenly sprayed with a water-based nano thermal insulation flame retardant coating 2. Specifically, the water-based nano thermal insulation flame retardant coating 2 is BL-F1 water-based nano thermal insulation flame retardant coating 2, which is composed of nano infrared blocking slurry, nano graphene oxide, polymer additives and elastic rubber resin, and has excellent waterproofness, flexibility, flame retardancy and thermal insulation.

[0031] Finally: The above description is only a preferred embodiment of the present utility model and is not intended to limit the present utility model. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present utility model should be included in the protection scope of the present utility model.

Claims

1. An anti-siphon fabric structure, comprising a fabric component (1), characterized in that: The fabric assembly (1) comprises a base fabric (101), the top and bottom of the base fabric (101) are fixedly bonded with a reinforced anti-tension layer (102), the ultra-fine outer walls of the two reinforced anti-tension layers (102) are fixedly bonded with an ultra-fine fiber waterproof layer (103), and the outer walls of the two ultra-fine fiber waterproof layers (103) are fixedly bonded with a wear-resistant layer (104); The outer walls of the two reinforced tensile-resistant layers (102) are both mesh structures, the mesh structures are fixedly bonded to the top and bottom of the base fabric (101), the mesh structures are composed of a plurality of first warp threads (1021) and a plurality of first weft threads (1022), and are used to improve the tensile strength of the fabric component (1); The two ultra-fine fiber waterproof layers (103) are composed of a plurality of second warp threads (1031) and a plurality of second weft threads (1032), and are used to improve the tensile resistance and strength of the ultra-fine fiber waterproof layers (103).

2. The anti-siphon fabric structure according to claim 1, characterized in that: Each second warp (1031) and each second weft (1032) is a superfine fiber, which is used to absorb the fluorine-free water-repellent agent to form a waterproof film, thereby improving the anti-siphoning property of the superfine fiber waterproof layer (103).

3. The anti-siphon fabric structure according to claim 1, characterized in that: The wear-resistant layer (104) is a multi-knot warp-knitted monofilament mesh, which is manufactured by using a multi-knot warp-knitting process and is used to improve the wear resistance and strength of the wear-resistant layer (104).

4. The anti-siphon fabric structure according to claim 3, characterized in that: The surface of the multi-knot warp knitted monofilament mesh is uniformly sprayed with a water-based nano heat-insulating flame-retardant coating (2), so as to improve the flame-retardant and heat-insulating properties of the multi-knot warp knitted monofilament mesh.

5. The anti-siphon fabric structure according to claim 1, characterized in that: The plurality of first warp threads (1021) and the plurality of first weft threads (1022) are both made by warp knitting technology, and are used to improve the elasticity and tensile strength of the reinforced tensile layer (102).

6. The anti-siphon fabric structure according to claim 1, characterized in that: The plurality of second warp threads (1031) and the plurality of second weft threads (1032) are both made by warp knitting technology, and are used to improve the elasticity and tensile strength of the ultra-fine fiber waterproof layer (103).

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