Method for manufacturing aluminum alloy for producing hydrogen
A technology of aluminum gallium alloy and hydrogen, applied in the field of aluminum alloy
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example 1
[0010] Example 1 Obtain 50g of aluminum powder with a particle size of 200--400 mesh in an inert atmosphere by a ball mill, stir and add it to 15g of gallium solution, eutectic (dissolve), gradually cool to achieve microcrystalline phase blending, and obtain 65g of alloy body. In the Kipp generator, the alloy body reacts with 30°C water to produce hydrogen gas. The reaction amount of metered gas converted to aluminum was 98.7.
example 2
[0011] Example 2 Stir 10 g of gallium solution into 50 g of aluminum powder with a particle size of 50-100 mesh in an inert atmosphere, completely cover the aluminum powder with gallium solution, and cool to form 60 g of alloy body. In the Kipp generator, the alloy body reacts with 30°C water to produce hydrogen gas. The reaction amount of metered gas converted to aluminum was 96.7.
example 3
[0012] Example 3 In an inert atmosphere, 50 g of aluminum powder with a particle size of 100--200 mesh was sintered with an oxyhydrogen flame, and 10 g of gallium solution was covered on the surface of the formed aluminum powder block to completely cover it, and then cooled to obtain a solid alloy. In the Kipp generator, the alloy body reacts with the aqueous solution to generate hydrogen gas. The aqueous solution contains an aluminum ion chelating agent with a concentration of 20% (molar percentage), and the chelating agent is deferoxamine methanesulfonate or malic acid. The reaction amount of metered gas converted to aluminum was 97.8.
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