Preparation method of carbon nanostructure reinforced explosion-proof surface material

A carbon nanostructure and surface material technology, applied in powder coatings, polyester coatings, epoxy resin coatings, etc., can solve the problems of impossibility of process implementation, coating conductivity decline, accumulation, etc., to improve basic performance and barrier Explosion-proof performance, high elasticity and structural stability, enhanced interaction effect

Inactive Publication Date: 2018-10-09
常州博碳环保科技有限公司 +2
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

[0005] However, the barrier explosion-proof materials applicable in our country now have the following problems: 1) The barrier explosion-proof materials used for filling oil tanks and oil tanks on the market will not affect the performance of oil products (octane number) and oil deterioration tendency (acidity) It will cause obvious impact, but it will significantly affect the storage performance of the oil (actual colloid, induction period and oxidation stability headquarters solution), and it will cause pollution to the oil, which is reflected in the accumulation of metals produced by friction and wear in the oil storage container Debris, and increased levels of particulate contamination and metal ions in oil
2) At present, the filling density and replacement rate of the latest non-metallic barrier explosion-proof materials are too high, making the production cost high
3) The resistivity of the conductive coating on oil tanks increases with time (10 12 Ω), poor stability, and the resistivity of this type of coating must be controlled at no more than 10 9 Ω, so it needs to be recoated to avoid electrostatic fire and explosion accidents caused by a sharp drop in electrostatic potential
4) Static conductive coatings have limited anti-corrosion ability and poor environmental adaptability
Because the surfactant in the second category will continue to lose into the petroleum products soaked in the coating surface, the conductivity of the coating will decline sharply and lose the antistatic function; the deposition system of the third category is for the inner wall of the storage tank. process implementation is not possible

Method used

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Examples

Experimental program
Comparison scheme
Effect test

Embodiment 1

[0031] (1) Graphene coupling modification. Take 100 mg of graphene and 50 mg of carbon nanotubes in 60 mL of absolute ethanol, ultrasonically disperse for 1 hour to form a uniform dispersion; then add a certain amount of HCl to adjust the pH of the dispersion to 3~4; then 10 mL containing 0.3g 95% ethanol of KH-570 (γ-methacryloxypropyltrimethoxysilane) was slowly added under stirring, continued to react at 60°C for 24 h, centrifuged, and then washed with absolute ethanol and deionized water Second, completely remove the unreacted KH-570, and make the washing solution neutral, and the product obtained is functionalized graphene to obtain a modified carbon material, which is fully dispersed and sealed and stored in an acetone solution with a solubility of 1mg / ml for later use .

[0032] (2) Add silane leveling agent. The acetone solution of the modified carbon material was added to 12 g of polydimethylsiloxane leveling agent, mechanically stirred for 10 min, and ultrasonicall...

Embodiment 2

[0040] (1) Graphene coupling modification. 100 mg of graphene, 50 mg of carbon nanotubes and 100 mg of polydimethylsiloxane (PDMS) were placed in a weighing bottle, and vapor deposition was carried out at 250° C. for 1 h to obtain PDMS-modified graphene. Take the polydimethylsiloxane-modified graphene and wash it with absolute ethanol and deionized water several times to completely remove the unreacted polydimethylsiloxane, and make the washing solution neutral, and the product obtained is the function Graphene is modified to obtain a modified carbon material, which is fully dispersed and sealed and stored in an acetone solution with a solubility of 3 mg / ml for later use.

[0041] (2) Add silane leveling agent. The acetone solution of the modified carbon material was added to 7.2 g of polyether polyester modified organosiloxane leveling agent, mechanically stirred for 15 minutes, and ultrasonically dispersed by a probe ultrasonic instrument for 35 minutes.

[0042] (3) The s...

Embodiment 3

[0049] (1) Graphene coupling modification. Take 100 mg of graphene and 25 mg of carbon nanotubes in 60 mL of absolute ethanol to form a suspension, ultrasonically disperse for 4–6 h; add a certain amount of amino-terminated polydivinylsiloxane (AP) into the flask, and The system was ultrasonically dispersed for 60 min; finally, the beaker was taken out and dried in a vacuum oven. The modified AP after drying was taken out and placed in a Soxhlet extractor, extracted with acetone for 48 h at 80°C, fully dispersed, and sealed and stored in acetone solution at 5 mg / ml for later use.

[0050] (2) Add silane leveling agent. The acetone solution of the modified carbon material was added to 9.4 g of polymethylphenylsiloxane leveling agent, mechanically stirred for 20 minutes, and ultrasonically dispersed by a probe ultrasonic instrument for 40 minutes.

[0051] (3) The surface of the resin is softened. Add 15.6g of 601 (E-20) epoxy resin to be processed and 14.3g of mixed polyeste...

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Abstract

The invention discloses a carbon nanostructure reinforced explosion-proof surface material which is excellent in barrier explosion-proof performance and can be industrially produced, and a preparationmethod thereof, and particularly discloses a carbon material (such as graphene) reinforced epoxy powder paint and preparation method thereof. The paint is characterized by comprising 2 to 5wt per thousand of carbon nanometer material. According to the paint, a modified carbon material is added in a specific silane epoxy additive, an additive material is sufficiently refined through a tertiary grinding and dispersion technology, carbon material is intensively dispersed, an epoxy powder paint finished product is obtained through traditional technologies of crushing and sieving, and reinforced explosion-proof barrier powder paints with different trace contents and ratios are sufficiently prepared. The paint belongs to special coating developed for an HAN (Hypostasis Anch Noexplosion) barrierexplosion-proof technology, can effectively prevent explosion of inflammable, explosive, gaseous and liquid dangerous chemicals caused by fortuitous accidents (such as static electricity, welding, shooting, collision and faulty operation) during storage and transportation, and thoroughly solves the intrinsic safety problem of the inflammable, explosive, liquid and gaseous dangerous chemicals during storage and transportation. The high-performance explosion-proof paint can be widely applied to military products and military and civilian products, such as vehicle manufacture, military vehicle armor, military helmets and building curtain walls.

Description

technical field [0001] The invention discloses an industrially produced carbon nanostructure reinforced epoxy explosion-proof surface material with good barrier and explosion-proof performance and a preparation method thereof, in particular a graphene-enhanced coating and a preparation method thereof. Background technique [0002] As a kind of important people's livelihood and strategic materials, the safety of oil has always been the focus of people's attention. For example, in the field of public transportation, in recent years, various types of domestic vehicles have experienced frequent combustion and explosion incidents caused by traffic accidents and spontaneous combustion, which have caused huge losses of life and property, and brought social instability. In the process of transportation and use, a large number of casualties and property losses of more than three billion yuan are caused by burning and explosions in accidents every year. In the field of dangerous good...

Claims

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Application Information

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Patent Type & Authority Applications(China)
IPC IPC(8): C09D163/00C09D167/00C09D5/03
CPCC09D163/00C08L2205/03C09D5/033C09D167/00C08L67/00C08L83/04C08K9/06C08K3/04C08K7/24C08L83/12C08K9/08C08L63/00
Inventor 贾宝平王玉鹏马飒
Owner 常州博碳环保科技有限公司
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