A high-speed antistatic mesh

Abstract

This invention provides a high-speed antistatic mesh, belonging to the field of antistatic mesh technology. It includes several transverse and longitudinal mesh belts, which are cross-woven and connected. Several weft and warp tapes are snapped onto the inner sides of the transverse and longitudinal mesh belts. A weft conductor is fixedly connected to the inner side of each weft tape, and a radial conductor is fixedly connected to the inner side of each warp tape. This invention, by setting connecting rods, elastic balls, and first and second connecting sleeves, allows adjacent sides of two antistatic meshes to be joined, resulting in a cross-distribution of the first or second connecting sleeves at the joining points. The connecting rods are then strung to the inner sides of all first or second connecting sleeves, and the elastic balls on both sides abut against the sides, thus joining the two antistatic meshes. This allows the antistatic mesh to be spliced ​​into different areas according to requirements, expanding the applicability of the antistatic mesh.

Description

Technical Field

[0001] This utility model relates to the field of antistatic mesh technology, and in particular to a high-speed antistatic mesh. Background Technology

[0002] When equipment using polyester mesh operates at high speed, it generates static electricity. The conductive material inside the polyester mesh can release the static electricity, thus playing an anti-static role and forming an anti-static mesh. It can prevent the generation and accumulation of static electricity and is used in environmental protection, high-density board production, fiberboard production, particleboard production, rubber and chemical industries.

[0003] Existing antistatic nets achieve their antistatic effect by incorporating conductive wires within a woven mesh structure. However, they are not only unstable and unable to conduct static electricity at high speeds, but their monolithic structure also prevents them from being adjusted in size to suit various working environments, thus reducing their practicality and applicability.

[0004] Therefore, this utility model provides a high-speed antistatic mesh to meet the requirements. Utility Model Content

[0005] The purpose of this invention is to provide a high-speed antistatic mesh to solve the problems mentioned in the background art.

[0006] To achieve the above objectives, this utility model provides the following technical solution: a high-speed antistatic mesh, comprising several transverse mesh belts and longitudinal mesh belts, wherein the transverse mesh belts and longitudinal mesh belts are cross-woven and connected, and several weft belts and warp belts are snapped onto the inner sides of the transverse mesh belts and longitudinal mesh belts. A weft conductor is fixedly connected to the inner side of the weft belt, and a radial conductor is fixedly connected to the inner side of the warp belt. The same No. 2 connecting sleeve is fixedly connected between two adjacent transverse mesh belts and between the transverse mesh belts and the weft belts, and the same No. 1 connecting sleeve is fixedly connected between two adjacent longitudinal mesh belts and between the longitudinal mesh belts and the warp belts. The No. 1 connecting sleeve and the No. 2 connecting sleeve located on the same side are slidably connected with connecting rods.

[0007] In a preferred embodiment, the transverse mesh belt, longitudinal mesh belt, weft belt, and warp belt all have the same shape and are evenly distributed, and all the transverse mesh belt, longitudinal mesh belt, weft belt, and warp belt form a square structure.

[0008] In a preferred embodiment, the upper and lower ends of the transverse mesh belt, longitudinal mesh belt, weft belt, and warp belt each have several corrugated grooves, which are cross-connected by the inner corrugated grooves.

[0009] In a preferred embodiment, the number of weft tapes is five, and the number of warp tapes is four, and they are interlocked.

[0010] In a preferred embodiment, the latitudinal and radial conductors are intersected and their upper and lower ends are closely fitted together.

[0011] In a preferred embodiment, elastic balls are fixedly connected to both sides of the connecting rod, and the connecting rod is a high conductivity rod.

[0012] In a preferred embodiment, the two ends of the latitudinal and radial conductors extend to the inner sides of the corresponding No. 1 and No. 2 connecting sleeves on the outside, respectively, and are in close contact with the connecting rod on the outside.

[0013] Compared with the prior art, the beneficial effects of this utility model are: This utility model, by setting a connecting rod, elastic balls, a first sleeve, and a second sleeve, allows adjacent sides of two antistatic meshes to be connected, so that the first or second sleeves at the connection point of the two antistatic meshes are cross-distributed. The connecting rod is then connected to the inside of all the first or second sleeves, and the elastic balls on both sides abut against the sides, thereby connecting the two antistatic meshes. This allows the antistatic meshes to be spliced ​​into different areas according to needs, thus improving the applicability of the antistatic meshes.

[0014] This utility model, by setting up weft tapes, warp tapes, weft conductors, and radial conductors, allows the weft tapes and warp tapes to be woven together with transverse and longitudinal mesh tapes of the same shape into a stable mesh structure. The weft tapes and warp tapes are then used to fix the weft conductors and radial conductors respectively. This not only reduces the use of conductive materials in the antistatic mesh but also ensures high-speed conduction of static electricity, thus improving the practicality of the antistatic mesh. Attached Figure Description

[0015] Figure 1 This is a schematic diagram of the three-dimensional structure of a high-speed antistatic mesh; Figure 2 for Figure 1 Enlarged view of point A; Figure 3 for Figure 1 Enlarged view of point B; Figure 4 This is a schematic diagram of the three-dimensional structure of the latitude and longitude bands.

[0016] In the diagram: 1. Horizontal mesh belt; 2. Longitudinal mesh belt; 3. Wave groove; 4. Weft belt; 5. Warp belt; 6. Weft conductor; 7. Radial conductor; 8. No. 1 connecting sleeve; 9. No. 2 connecting sleeve; 10. Connecting rod; 11. Elastic ball. Detailed Implementation

[0017] The present invention will be further described below with reference to the embodiments.

[0018] The following embodiments are used to illustrate the present invention, but should not be used to limit the scope of protection of the present invention; the conditions in the embodiments can be further adjusted according to specific conditions, and simple improvements to the method of the present invention under the concept of the present invention are all within the scope of protection claimed by the present invention.

[0019] Please see Figures 1-4 This utility model provides a high-speed antistatic mesh, including several transverse mesh belts 1 and longitudinal mesh belts 2. The transverse mesh belts 1 and longitudinal mesh belts 2 are cross-woven and connected. Several weft belts 4 and warp belts 5 are snapped into the inner side of the transverse mesh belts 1 and longitudinal mesh belts 2. The same No. 2 connecting sleeve 9 is fixedly connected between two adjacent transverse mesh belts 1 and between transverse mesh belts 1 and weft belts 4. The same No. 1 connecting sleeve 8 is fixedly connected between two adjacent longitudinal mesh belts 2 and between longitudinal mesh belts 2 and warp belts 5. The No. 1 connecting sleeve 8 and No. 2 connecting sleeve 9 on the same side are slidably connected to connecting rods 10. The transverse mesh belts 1, longitudinal mesh belts 2, weft belts 4 and warp belts 5 are all the same shape and are evenly distributed. All transverse mesh belts 1, longitudinal mesh belts 2, weft belts 4 and warp belts 5 form a square structure. Elastic balls 11 are fixedly connected to both sides of the connecting rods 10. The connecting rods 10 are highly conductive rods.

[0020] Select an appropriate number of antistatic meshes according to the installation environment and connect them into a suitable shape so that the No. 1 sleeve 8 or No. 2 sleeve 9 at the docking point are staggered. Pass the connecting rod 10 through all the No. 1 sleeve 8 or No. 2 sleeve 9 at the docking point. When the elastic ball 11 is squeezed, it will deform inward to facilitate its movement. After the connecting rod 10 is installed in place, the adjacent ends of the two elastic balls 11 abut against the No. 1 sleeve 8 or No. 2 sleeve 9 at both ends of the docking point, splice the antistatic mesh, and then install it in the work area.

[0021] At the joint of two antistatic meshes, the No. 1 connecting sleeve 8 or No. 2 connecting sleeve 9 will form a cross-distributed structure. The inner sides of all No. 1 connecting sleeves 8 or No. 2 connecting sleeves 9 are connected in series by the connecting rod 10, thereby ensuring that the two antistatic meshes are tightly connected at the joint to form a whole. Through this splicing method, multiple antistatic mesh units can be easily combined to meet the needs of large-area coverage. At the same time, this splicing method also improves the applicability of the antistatic mesh, enabling it to adapt to work areas of various sizes and shapes, and enhancing its flexibility and practicality in practical applications.

[0022] Please see Figures 1-4The weft belt 4 has a weft conductor 6 fixedly connected to its inner side, and the warp belt 5 has a radial conductor 7 fixedly connected to its inner side. The upper and lower ends of the transverse mesh belt 1, the longitudinal mesh belt 2, the weft belt 4, and the warp belt 5 all have several corrugated grooves 3, which are cross-connected through the inner corrugated grooves 3. There are five weft belts 4 and four warp belts 5, which are cross-connected. The weft conductor 6 and the radial conductor 7 are cross-distributed, and their upper and lower ends are tightly fitted together. The two ends of the weft conductor 6 and the radial conductor 7 extend to the inner side of the corresponding first connecting sleeve 8 and second connecting sleeve 9 on the outside, respectively, and are in close contact with the connecting rod 10 on the outside. The transverse mesh belt 1, the longitudinal mesh belt 2, the weft belt 4, and the warp belt 5 are all made of polyester, and the weft conductor 6 and the radial conductor 7 are made of copper or carbon.

[0023] The external grounding wire is connected to the bottom connecting rod 10 and the ground. When static electricity is generated in the working area, it is conducted at high speed through the weft conductor 6, the radial conductor 7 and the connecting rod 10, and flows into the ground to play an anti-static role. The conduction rate can be adjusted by adjusting the density of the weft strip 4 and the warp strip 5 inside the anti-static net, as well as the thickness of the weft conductor 6 and the radial conductor 7.

[0024] The weft tape 4 and warp tape 5 can be woven together with the transverse mesh tape 1 and longitudinal mesh tape 2 of the same shape to form a stable and robust mesh structure. This not only ensures the structural stability of the entire antistatic mesh, but also, through the fixing effect of the weft tape 4 and warp tape 5, ensures the correct position and tight connection of the weft conductor 6 and radial conductor 7 in the mesh structure. By rationally arranging the conductors, static electricity can be quickly conducted in the mesh structure, thereby effectively avoiding the potential hazards caused by static electricity accumulation. This optimization not only reduces material costs, but also improves the performance and reliability of the antistatic mesh, enabling it to perform excellent antistatic effects in various application scenarios and greatly enhancing the practicality of the antistatic mesh.

[0025] The working principle and usage process of this utility model are as follows: Select an appropriate number of antistatic nets according to the installation environment and connect them into a suitable shape so that the first sleeve 8 or the second sleeve 9 at the docking point are staggered. Pass the connecting rod 10 through all the first sleeve 8 or the second sleeve 9 at the docking point. When the elastic ball 11 is squeezed, it will deform inward to facilitate its movement. After the connecting rod 10 is installed in place, the adjacent ends of the two elastic balls 11 abut against the first sleeve 8 or the second sleeve 9 at both ends of the docking point, splice the antistatic net, and then install it in the working area. Connect the external grounding wire to the bottom connecting rod 10 and the ground. When static electricity is generated in the working area, it is conducted at high speed through the weft conductor 6, the radial conductor 7 and the connecting rod 10 and flows into the ground, playing an antistatic role. By adjusting the density of the weft strip 4 and the warp strip 5 inside the antistatic net, as well as the thickness of the weft conductor 6 and the radial conductor 7, the conduction rate can be adjusted.

[0026] Although embodiments of the present invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles of the present invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. A high speed antistatic web comprising a number of transverse web bands (1) and longitudinal web bands (2), characterized in that, The transverse mesh belt (1) and the longitudinal mesh belt (2) are cross-woven and connected. Several weft belts (4) and warp belts (5) are snapped into the inner side of the transverse mesh belt (1) and the longitudinal mesh belt (2). A weft conductor (6) is fixedly connected to the inner side of the weft belt (4). A radial conductor (7) is fixedly connected to the inner side of the warp belt (5). The same No. 2 connecting sleeve (9) is fixedly connected between two adjacent transverse mesh belts (1) and between the transverse mesh belt (1) and the weft belt (4). The same No. 1 connecting sleeve (8) is fixedly connected between two adjacent longitudinal mesh belts (2) and between the longitudinal mesh belt (2) and the warp belt (5). The No. 1 connecting sleeve (8) and the No. 2 connecting sleeve (9) located on the same side are slidably connected with connecting rods (10).

2. A high speed antistatic web according to claim 1, wherein The transverse mesh (1), longitudinal mesh (2), weft strip (4) and warp strip (5) are all identical in shape and are evenly distributed. All of the transverse mesh (1), longitudinal mesh (2), weft strip (4) and warp strip (5) form a square structure.

3. The high speed antistatic web of claim 1 wherein, The upper and lower ends of the transverse mesh belt (1), longitudinal mesh belt (2), weft belt (4) and warp belt (5) each have several wave grooves (3), which are cross-connected by the inner wave grooves (3).

4. The high speed antistatic web of claim 1 wherein, The number of the latitude strips (4) is five, and the number of the longitude strips (5) is four, and they are interlocked.

5. The high speed antistatic web of claim 1 wherein, The latitudinal conductor (6) and the radial conductor (7) are intersecting and their upper and lower ends are closely fitted together.

6. A high speed antistatic web according to claim 1 wherein, Both sides of the connecting rod (10) are fixedly connected with elastic balls (11), and the connecting rod (10) is a high conductivity rod.

7. The high speed antistatic web of claim 1 wherein, The two ends of the latitudinal conductor (6) and the radial conductor (7) extend to the inner sides of the corresponding No. 1 sleeve (8) and No. 2 sleeve (9) on the outside, respectively, and are in close contact with the connecting rod (10) on the outside.

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