A kind of method for preparing crystalline boron powder
A crystalline, boron powder technology, applied in the field of metal materials, can solve the problems of high risk, large pollution, toxic precursors, etc., and achieve the effect of smooth reaction process and sufficient reaction
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Embodiment 1
[0015] (1) Weigh the raw materials respectively by mass percentage, 91.5% of industrial pure copper, 5.8% of block boron oxide, 2.7% of industrial pure aluminum; the particle size of block boron oxide is about 1cm;
[0016] (2) Melt industrial pure copper in a high-frequency furnace, add industrial pure aluminum and massive boron oxide in sequence, and control the temperature at 1500-1600°C for 5 minutes of reaction, in which aluminum generates alumina powder by reducing boron oxide to float On the surface of the melt, the molten slag is cleaned and the melt is poured into a mold to obtain a Cu-2.7B alloy ingot;
[0017] (3) electrolyze the copper-boron alloy ingot prepared by step (2) as an anode, the cathode adopts high-purity graphite as an electrode, and the electrolytic solution selects copper sulfate solution;
[0018] (4) Cleaning the anode slime with a ferric chloride solution, taking out the cleaned anode slime and placing it in an incubator for drying, the temperatur...
Embodiment 2
[0022] (1) Weigh the raw materials respectively by mass percentage, industrial pure copper 84.3%, boron oxide 10.7%, industrial pure aluminum 5%; boron oxide particle size is about 2cm;
[0023] (2) Melt industrial pure copper in a high-frequency furnace, add industrial pure aluminum and massive boron oxide in turn, control the temperature at 1500-1600°C and react for 4 minutes, in which aluminum generates alumina powder by reducing boron oxide to float On the surface of the melt, the molten slag is cleaned and the melt is poured into a mold to obtain a Cu-5B copper-boron alloy ingot;
[0024] (3) electrolyze the copper-boron alloy ingot prepared by step (2) as an anode, the cathode adopts high-purity graphite as an electrode, and the electrolytic solution selects copper sulfate solution;
[0025] (4) Use ferric chloride solution to clean the anode slime, after cleaning the anode slime, place it in an incubator to remove moisture, and obtain boron powder;
[0026] (5) The cop...
Embodiment 3
[0029] (1) Weigh the raw materials respectively by mass percentage, 81% of industrial pure copper, 13% of block boron oxide, and 6% of industrial pure aluminum; the particle size of block boron oxide is about 3cm;
[0030] (2) Melt industrial pure copper in a high-frequency furnace, add industrial pure aluminum and massive boron oxide in sequence, and control the temperature at 1800-2000°C to react for 5 minutes, in which aluminum will generate alumina powder by reducing boron oxide to float On the surface of the melt, the molten slag is cleaned and the melt is poured into a mold to obtain a Cu-6B copper-boron alloy ingot;
[0031] (3) electrolyze the copper-boron alloy ingot prepared by step (2) as an anode, the cathode adopts high-purity graphite as an electrode, and the electrolytic solution selects copper sulfate solution;
[0032] (4) Cleaning the anode slime with a ferric chloride solution, taking out the cleaned anode slime and placing it in an incubator for drying, the...
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