Method for improving stability of nano-aluminum particle hydrocarbon two-phase fluid fuel
A hydrocarbon fuel, nano-aluminum technology, applied in jet propulsion, rocket engine, machine/engine, etc., can solve problems such as affecting fuel storage and combustion performance, increasing specific surface area of nano-aluminum particles, and increasing van der Waals force, etc. Achieve the effect of low cost of raw materials, good dispersibility and simple process
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Embodiment 1
[0035] (1) Preparation of nano-aluminum particles coated with polydopamine: Add 0.05 g of dopamine hydrochloride to 200 ml of tris buffer solution with pH=8.5 to react to generate dopamine molecules, and continue to add 5 g of nano-aluminum particles with a particle size of 10 nm The particles were stirred at a speed of 200rpm for 8 hours, so that dopamine molecules grew on the surface of the aluminum particles to form a polydopamine layer, and after vacuum freeze-drying, nano-aluminum particles uniformly coated with the polydopamine layer were obtained.
[0036] (2) Liquid-phase reflux heating to prepare surfactant-coated nano-aluminum particles: add 0.5 g of citric acid and 0.5 g of polydopamine-coated nano-aluminum particles to 200 ml of ethanol, magnetically stir at a speed of 200 rpm, and liquid The phase was heated under reflux for 5 hours.
[0037] Materials similar to ethanol also include toluene, methanol, n-butanol, tert-butanol, xylene, ethylene glycol, propylene gl...
Embodiment 2
[0041] (1) Preparation of nano-aluminum particles coated with polydopamine: 0.25 g of dopamine hydrochloride is added to 200 ml of tris buffer solution with pH=8.5 to react to generate dopamine molecules, and 5 g of nano-aluminum particles with a particle size of 100 nm are added The particles were stirred at a speed of 1000 rpm for 4 hours to make dopamine molecules grow on the surface of the aluminum particles to form a polydopamine layer, and after vacuum freeze-drying, nano-aluminum particles evenly coated with the polydopamine layer were obtained.
[0042] (2) Liquid-phase reflux heating to prepare surfactant-coated nano-aluminum particles: add 0.5 g hexadecanoic acid and 0.5 g polydopamine-coated nano-aluminum particles to 200 ml of ether, magnetically stir at a speed of 1500 rpm, and heat at 60° C. The lower liquid phase was heated under reflux for 3 hours.
[0043] Materials similar to diethyl ether include chloroform, carbon tetrachloride or tetrahydrofuran, etc., who...
Embodiment 3
[0047] (1) Preparation of nano-aluminum particles coated with polydopamine: 0.5 g of dopamine hydrochloride is added to 200 ml of tris buffer solution with pH=8.5 to react to generate dopamine molecules, and 5 g of nano-aluminum particles with a particle size of 900 nm are added The particles are stirred at a speed of 2000rpm for 1 hour so that dopamine molecules grow on the surface of the aluminum particles to form a polydopamine layer, and after vacuum freeze-drying, nano-aluminum particles evenly coated with the polydopamine layer are obtained.
[0048] (2) Liquid-phase reflux heating prepares surfactant-coated nano-aluminum particles: 0.5g sorbitol tristearate and 0.5g polydopamine-coated nano-aluminum particles are added in 200ml toluene, magnetically stirred at a speed of 2000rpm, and The liquid phase was heated under reflux at 120°C for 1 hour.
[0049] (3) Obtaining surfactant and polydopamine multiple-coated nano-aluminum particles: Heating the liquid phase to reflux ...
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