Low-carbon high-efficiency compound magnesium silicate energy-saving and heat-insulating material

A thermal insulation material, magnesium silicate technology, applied in the field of energy-saving thermal insulation materials, can solve the problems of high cost, thermal insulation materials are not easy to safe production and labor protection, labor coefficient is strong, etc., to achieve good thermal insulation performance, superior thermal insulation performance, saving engineering The effect of investment

Inactive Publication Date: 2010-12-15
严顺嘤
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

Although it has a wide range of applications and can generate social and economic benefits, the existing problem is that the traditional mixing process and method of water injection in the mixer is still used, and the continuous water injection and mixing requires a long time of mixing operation, which makes the labor intensity of the workers Larger, relatively high cost, and not environmentally friendly and energy-saving
But

Method used

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  • Low-carbon high-efficiency compound magnesium silicate energy-saving and heat-insulating material

Examples

Experimental program
Comparison scheme
Effect test

Embodiment 1

[0050] The formula of each cubic product is calculated according to the percentage of the above-mentioned technical scheme, and the total amount is 100%.

[0051] In this thermal insulation material, the distribution ratio of each raw material component by weight percentage is: 21% of sepiolite, 13% of silicate pulped cotton, 6% of perlite, 7% of diatomite, 1% of sodium silicate, magnesia Soil 1%, aluminum silicate high-temperature cotton 23%, brucite 14%, 831 glue 8%, liquid base barium-zinc mixture (wherein base: barium-zinc=1: 2 parts by weight) 2%, fast T (sulfonium Dioctyl succinate sodium salt) 4%. Preparation of liquid base barium-zinc mixture: take 1 weight part of base and 2 parts by weight of barium-zinc.

[0052] The specific production steps of the low-carbon high-efficiency composite magnesium silicate energy-saving thermal insulation material of the present invention are as follows:

[0053] 1) According to the above raw material formula, the formula adopts com...

Embodiment 2

[0060] The formula of each cubic product is calculated according to the percentage of the above-mentioned technical scheme, and the total amount is 100%.

[0061] In this thermal insulation material, the distribution ratio of each raw material component by weight percentage is: 25% of sepiolite, 10% of silicate pulped cotton, 6% of perlite, 6% of diatomite, 2% of sodium silicate, magnesia Soil 2%, aluminum silicate high-temperature cotton 17%, brucite 19%, aluminum dihydrogen phosphate: 7%, liquid base barium-zinc mixture (wherein base: barium-zinc=1: 2 parts by weight) 3%, fast T (dioctyl sulfosuccinate sodium salt) 3%.

[0062] The production method is the same as in Example 1, and it is formed by screening, removing impurities, pulverizing, mixing, electric heating, and stirring the materials of the formula in Example 2.

Embodiment 3

[0064] The formula of each cubic product is calculated according to the percentage of the above-mentioned technical scheme, and the total amount is 100%.

[0065]In this thermal insulation material, the distribution ratio of each raw material component by weight percentage is: 27% of pumice, 12% of silicate pulped cotton, 8% of perlite, 5% of diatomite, 1% of sodium silicate, and magnesite 1%, aluminum silicate high-temperature cotton 14%, brucite 22%, 831 glue 6%, liquid base barium-zinc mixture (base: barium-zinc=1: 2 parts by weight) 1%, JFC-M (with poly Oxyethylene ether compound as the main body, compounded with some high-efficiency penetrating agents) 3%.

[0066] The production method is the same as in Example 1, and the materials in the formula of Example 3 are screened, impurity removed, crushed, mixed, electrically heated, and stirred.

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Abstract

The invention provides a low-carbon high-efficiency compound magnesium silicate energy-saving and heat-insulating material, comprising the following raw materials in percentage by weight: 21-27 percent of sepiolite, 10-13 percent of silicate pulping cotton, 6-8 percent of perlite, 5-7 percent of diatomite, 1-3 percent of sodium silicate, 1-2 percent of magnesia, 14-23 percent of aluminum silicatehigh-temperature cotton, 14-22 percent of brucite, 6-8 percent of high-temperature binding agent, 1-3 percent of stabilizing agent and 3-4 percent of penetrating agent. Proved by the detection, the heat-insulating material has the advantages of lower heat conduction coefficient, wider use temperature, stronger bonding strength, high thermal shock resistant performance and no cracking, toxicity, dust and pollution and can be widely applied to chemical industry, petroleum, power, metallurgy, light industry, food, medicine, traffic, national defence, building and other industries.

Description

technical field [0001] The invention relates to an energy-saving heat preservation material, in particular to a low-carbon high-efficiency composite magnesium silicate energy-saving heat preservation material. Background technique [0002] In recent years, as the country's economic construction has entered a stage of rapid development, the domestic chemical industry, petroleum, electric power, metallurgy, light industry, food, medicine, transportation, national defense and other industries have an annual demand for thermal insulation materials of 1.5 billion cubic meters. Among them, the market demand for magnesium silicate insulation materials has reached 500 million cubic meters, with an average annual growth rate of more than 25%. In particular, the country's policy of forcing the use of high-quality thermal insulation materials in the construction industry has further expanded the domestic demand for magnesium silicate thermal insulation materials. In the face of high-s...

Claims

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Application Information

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IPC IPC(8): C04B28/30C04B28/34C04B14/38C04B14/08
Inventor 严顺嘤
Owner 严顺嘤
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