Method for manufacturing low-resistance and high-capacity electrolyte material

Abstract

The invention provides a method for manufacturing an electrolyte material with low resistance and high capacity. The method comprises: after adding acrylic acid into the reactor, adding sodium hydroxide solution for neutralization to become a neutralization solution, stirring the starch with water to form a pasty viscous liquid, and cooling the room temperature to obtain a starch solution; neutralizing the solution After stirring evenly with the starch solution in the container, add polyacrylamide, sodium nitrite, triethanolamine, methylene bisacrylamide, sodium bisulfite, tetramethylethylenediamine, starch, polyurethane, pentapotassium phosphate, coke Tetrapotassium phosphate and acetylene dicarboxylate potassium salt, activator adopts sodium bicarbonate, polymerization agent adopts ammoniacal liquor, realizes polymerization reaction, the catalyst of polymerization reaction selects ammonium disulfate, potassium persulfate for use; After polymerization is completed, add manganese dichloride, Ferric chloride, lithium carbonate, polythiophene, polypyrrole, lithium cobaltate, lithium nickelate and lithium manganate are stirred for 1 hour to obtain a colloid, and the colloid is taken out of the container to obtain a finished colloid.

Description

technical field [0001] The invention relates to the technical field of lightning protection devices, in particular to a method for manufacturing a low-resistance and high-capacity electrolyte material. Background technique [0002] In modern warfare, fixed command systems, communication systems, weapons and equipment, and medical logistics supply systems have extremely poor invulnerability and are difficult to adapt to the needs of war survival under high-tech conditions. Including: mobile field combat positions in small areas, mobile field command posts, mobile field hospitals, mobile field logistics support warehouses, mobile field communication vehicles (field radar vehicles, field monitoring and monitoring vehicles, communication command vehicles) and mobile Integrated comprehensive information systems such as small-area combat positions (radar stations, observation stations, and command center computer rooms) must have the functions of transfer and mobile deployment at ...

AI Technical Summary

Problems solved by technology

[0006] The corrosion rate of the pure material of the grounding grid electrolyte under the existing technology is usually ≤0.03mm / year, and it is easy to corrode the metal material of the grounding cathode to cause surface oxidation and typical rust, which comprehensively reduces the service life of the grounding system

[0007] The corrosion rate of the grounding grid electrolyte under the existing technology is usually ≤0.05mm / year after being buried, and it is easy to corrode the metal material of the grounding cathode to cause surface oxidation and typical rust, which will reduce the service life of the grounding system in an all-round way

[0008] The grounding grid electrolyte in the prior art is used more in practical applications. Usually, the construction of a <1Ω grounding grid will use thousands of kilograms, which cannot be carried in military field systems. If it must be carried, it will affect the movement radius of the entire operation.

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