阅读说明：本技术 一种抗静电麻布 (Antistatic linen ) 是由 王彦洲 于 2019-10-10 设计创作，主要内容包括：本发明涉及麻布技术领域,尤其是一种抗静电麻布,所述抗静电麻布包括依次层叠设置的第一抗静电层、麻纤维基布层和第二抗静电层,所述麻纤维基布层由经线和纬线交织而成,经线和纬线的材料为麻纤维和透气涤纶纤维缠绕而成,透气涤纶纤维拉直,麻纤维呈S型缠绕在透气涤纶纤维上,所述第一抗静电层和第二抗静电层分别喷涂在麻纤维基布层上表面和下表面；本发明中的抗静电麻布,麻纤维基布层的上表面和下表面分别呈凹凸状,增加了抗静电层在麻纤维基布层上的喷涂面积,提高了抗静电层与麻纤维基布层之间的剥离强度,提高了抗静电麻布的整体强度和抗静电功能。(The invention relates to the technical field of linen, in particular to an antistatic linen, which comprises a first antistatic layer, a linen fiber base cloth layer and a second antistatic layer which are sequentially stacked, wherein the linen fiber base cloth layer is formed by interweaving warps and wefts, the warps and the wefts are formed by winding linen fibers and breathable polyester fibers, the breathable polyester fibers are straightened, the linen fibers are wound on the breathable polyester fibers in an S shape, and the first antistatic layer and the second antistatic layer are respectively sprayed on the upper surface and the lower surface of the linen fiber base cloth layer; according to the antistatic linen, the upper surface and the lower surface of the linen fiber base cloth layer are respectively concave-convex, the spraying area of the antistatic layer on the linen fiber base cloth layer is increased, the peeling strength between the antistatic layer and the linen fiber base cloth layer is improved, and the overall strength and the antistatic function of the antistatic linen are improved.)

1. An antistatic linen is characterized in that: antistatic burlap is including the anti-static layer of first antistatic layer, fibrilia base cloth layer and the second that stacks gradually the setting, fibrilia base cloth layer is interweaved by warp and weft and forms, and warp and weft' S material form for fibrilia and ventilative polyester fiber winding, and ventilative polyester fiber straightens, and fibrilia is S type winding on ventilative polyester fiber, the anti-static layer of first antistatic layer and second is sprayed respectively at fibrilia base cloth layer upper surface and lower surface.

2. An antistatic scrim according to claim 1, wherein: warp and weft surface coating on fibrilia base cloth layer have one deck third antistatic layer, the cross section of third antistatic layer is cyclic annular.

3. An antistatic scrim according to claim 1, wherein: the thickness of the third antistatic layer is 100-200 nm.

4. An antistatic scrim according to claim 1, wherein: the breathable polyester fiber comprises thick sections and thin sections, the thick sections and the thin sections are alternately arranged, and the fibrilia is wound on the thin sections.

5. An antistatic scrim according to claim 1, wherein: the thickness of the first antistatic layer and the second antistatic layer is 80-120 nm.

6. An antistatic scrim according to claim 5, wherein: the thickness of the first antistatic layer and the second antistatic layer was 100 nm.

7. An antistatic scrim according to claim 1, wherein: the upper surface and the lower surface of the fibrilia base cloth layer are respectively concave-convex.

Technical Field

The invention relates to the technical field of linen, in particular to antistatic linen.

Background

The linen is yarn and fabric made by pure spinning of linen fiber or blending of other fibers, and also comprises various mixed fabrics containing linen, and the linen fabric has the characteristics of quick moisture absorption and dispersion, high breaking strength, poor elasticity, small breaking elongation and the like. The range of the hemp is wide, the varieties are various, the fiber performances are greatly different, but the antistatic performance of the hemp is required to be improved.

Disclosure of Invention

The purpose of the invention is: overcomes the defects in the prior art and provides the antistatic linen with high antistatic performance and high overall strength.

In order to solve the technical problems, the technical scheme adopted by the invention is as follows:

the utility model provides an antistatic flax, antistatic flax includes first antistatic layer, fibrilia base cloth layer and the anti-static layer of second that stacks gradually the setting, fibrilia base cloth layer is interweaved by warp and weft and forms, and warp and weft' S material forms for fibrilia and ventilative polyester fiber winding, and ventilative polyester fiber straightens, and fibrilia is S type winding on ventilative polyester fiber, the anti-static layer of first antistatic layer and second sprays respectively at fibrilia base cloth layer upper surface and lower surface.

Further, warp and weft surface coating on fibrilia base cloth layer has one deck third antistatic layer, the cross section of third antistatic layer is cyclic annular.

Further, the thickness of the third antistatic layer is 100-200 nm.

Further, the breathable polyester fiber comprises thick sections and thin sections, the thick sections and the thin sections are alternately arranged, and the fibrilia is wound on the thin sections.

Further, the thickness of the first antistatic layer and the second antistatic layer is 80-120 nm.

Further, the thickness of the first antistatic layer and the second antistatic layer is 100 nm.

Furthermore, the upper surface and the lower surface of the fibrilia base cloth layer are respectively concave-convex.

The technical scheme adopted by the invention has the beneficial effects that:

according to the antistatic linen, the antistatic linen comprises the first antistatic layer, the fibrilia base cloth layer and the second antistatic layer which are sequentially stacked, the fibrilia base cloth layer is formed by interweaving warps and wefts, the upper surface and the lower surface of the fibrilia base cloth layer are respectively in a concave-convex shape, the spraying area of the antistatic layer on the fibrilia base cloth layer is increased, the peeling strength between the antistatic layer and the fibrilia base cloth layer is improved, and the overall strength and the antistatic function of the antistatic linen are improved.

Detailed Description

The invention will now be further illustrated with reference to specific examples.

Example 1

The utility model provides an antistatic flax, antistatic flax includes the first antistatic layer, fibrilia base cloth layer and the anti-static layer of second that stack gradually the setting, fibrilia base cloth layer is interweaved by warp and weft and forms, and warp and weft' S material forms for fibrilia and ventilative polyester fiber winding, and ventilative polyester fiber straightens, and fibrilia is S type winding on ventilative polyester fiber, first antistatic layer and the anti-static layer of second spray respectively at fibrilia base cloth layer upper surface and lower surface, and the warp and the weft surface coating of fibrilia base cloth layer have one deck third antistatic layer, the cross section of third antistatic layer is cyclic annular, and the thickness of third antistatic layer is 100nm, and ventilative polyester fiber includes thick section and thin section, thick section and thin section alternate arrangement, fibrilia winding is on the thin section, and the thickness on first antistatic layer and the anti-static layer of second is 80nm, the upper surface and the lower surface of the fibrilia base cloth layer are respectively concave-convex.

Example 2

The utility model provides an antistatic flax, antistatic flax includes the first antistatic layer, fibrilia base cloth layer and the anti-static layer of second that stack gradually the setting, fibrilia base cloth layer is interweaved by warp and weft and forms, and warp and weft' S material forms for fibrilia and ventilative polyester fiber winding, and ventilative polyester fiber straightens, and fibrilia is S type winding on ventilative polyester fiber, first antistatic layer and the anti-static layer of second spray respectively at fibrilia base cloth layer upper surface and lower surface, and the warp and the weft surface coating of fibrilia base cloth layer have one deck third antistatic layer, the cross section of third antistatic layer is cyclic annular, and the thickness of third antistatic layer is 150nm, and ventilative polyester fiber includes thick section and thin section, thick section and thin section alternate arrangement, fibrilia winding is on the thin section, and the thickness 100nm on first antistatic layer and the anti-static layer of second, the upper surface and the lower surface of the fibrilia base cloth layer are respectively concave-convex.

Example 3

The utility model provides an antistatic flax, antistatic flax includes the first antistatic layer, fibrilia base cloth layer and the anti-static layer of second that stack gradually the setting, fibrilia base cloth layer is interweaved by warp and weft and forms, and warp and weft' S material forms for fibrilia and ventilative polyester fiber winding, and ventilative polyester fiber straightens, and fibrilia is S type winding on ventilative polyester fiber, first antistatic layer and the anti-static layer of second spray respectively at fibrilia base cloth layer upper surface and lower surface, and the warp and the weft surface coating of fibrilia base cloth layer have one deck third antistatic layer, the cross section of third antistatic layer is cyclic annular, and the thickness of third antistatic layer is 200nm, and ventilative polyester fiber includes thick section and thin section, thick section and thin section alternate arrangement, fibrilia winding is on the thin section, and the thickness of first antistatic layer and the anti-static layer of second 120nm, the upper surface and the lower surface of the fibrilia base cloth layer are respectively concave-convex.

In light of the foregoing description of the preferred embodiment of the present invention, many modifications and variations will be apparent to those skilled in the art without departing from the spirit and scope of the invention. Any modification, equivalent replacement, or improvement made within the spirit and principle of the present invention should be included in the protection scope of the present invention. The technical scope of the present invention is not limited to the content of the specification, and must be determined according to the scope of the claims.