Antibacterial and wear-resistant glass fiber pipeline lining and preparation method thereof

Abstract

The invention relates to the technical field of sewer line bacterium resisting and abrasion resisting, in particular to an anti-bacterial and abrasion resisting glass fiber pipeline lining, and aims at providing the anti-bacterial and abrasion resisting glass fiber pipeline lining, and a glass fiber pipeline is formed at a time after glass fiber and silver zeolite molecular sieve powder are subjected to the hydrothermal reaction to form eutectic crystals. A zeolite molecular sieve is activated, a silver nitrate solution is added for the reaction, and a silver zeolite molecular sieve is obtained. The silver zeolite molecular sieve and the glass fiber powder are scattered in an organic solvent, and an organic template agent is added. The hydrothermal synthesis method is adopted, and the glass fiber and silver zeolite molecular sieve eutectic powder is obtained. Heating is conducted till the molten state for wire drawing, and the anti-bacterial and abrasion resisting glass fiber pipelinelining is obtained through weaving. According to the anti-bacterial and abrasion resisting glass fiber pipeline lining, after the glass fiber and the silver zeolite molecular sieve are subjected to hydro-thermal synthesis to form the eutectic crystals, wire drawing is conducted, the pipeline lining is obtained through weaving, and good abrasion resistance and anti-bacterial performance are achieved; and meanwhile, the thickness of the pipeline lining is reduced, and construction and maintaining are convenient.

Description

technical field [0001] The invention relates to the technical field of antibacterial and wear-resistant sewer pipes, in particular to an antibacterial and wear-resistant glass fiber pipe lining. Background technique [0002] As a high-grade water pipe, the antibacterial pipe is widely recognized and used because of its technical effect of killing bacteria and filtering water quality. The antibacterial tubes in the prior art have the following problems: Inorganic antibacterial agents such as silver ions and copper ions must go through high-temperature extrusion process when producing antibacterial tubes, and the metal ions are easy to turn black and green under high temperature, causing the tubes to change color and affecting the quality of the tubes; When the organic antibacterial agent is used in the production of antibacterial pipes, the plastic high-temperature extrusion process is likely to cause the organic antibacterial agent to decompose and become ineffective or part...

AI Technical Summary

Problems solved by technology

The antibacterial tubes in the prior art have the following problems: Inorganic antibacterial agents such as silver ions and copper ions must go through high-temperature extrusion process when producing antibacterial tubes, and the metal ions are easy to turn black and green under high temperature, causing the tubes to change color and affecting the quality of the tubes; When the organic antibacterial agent is used in the production of antibacterial pipes, the plastic high-temperature extrusion process is likely to cause the organic antibacterial agent to decompose and become ineffective or partially ineffective, and even produce toxic substance pollution. , the antibacterial effective surface layer is only a part, and a large amount of antibacterial agents exist inside the pipe, resulting in waste; the use of antibacterial agents is large, and the production cost is high; antibacterial agents generally have an "effective service life" and cannot be maintained after failure

[0003] At the same time, in the existing antibacterial pipes, organic materials such as PVC pipes and PRR pipes are mostly used. These organic materials have poor wear resistance and thick pipe walls, which are not conducive to installation and maintenance.