Impact resistant composite alloy material
A composite alloy, impact-resistant technology, applied in the field of metal materials, can solve the problems of inability to give full play to the performance advantages of magnesium alloys, low mechanical properties, loose organization, etc., to achieve good comprehensive mechanical properties, increase safety factor, and prolong alloy life. Effect
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Embodiment 1
[0018] An impact-resistant composite alloy material, which is smelted from the following alloy elements in mass percentages: 12.8% copper, 3.52% chromium, 0.82% nickel, 0.74% germanium, 0.021% cerium, 0.026% yttrium, and the balance is magnesium.
[0019] A method for preparing an impact-resistant composite alloy material, the specific steps are:
[0020] According to the elements to be smelted in the aluminum alloy material, the pure metal powder containing each element is then preheated to 364°C, and then put into a ceramic crucible for melting. The melting temperature is 850°C, and the melting time is 1h. Transfer after melting Refined in an intermediate frequency induction heating furnace, the refining temperature is 1152°C, and the slag is removed after refining; finally, it is poured into a mold preheated to 450°C, and it is ready after demoulding; the purity of the pure metal powder containing each element in the specific steps is uniform Greater than 99.97%.
Embodiment 2
[0022] An impact-resistant composite alloy material, which is smelted from the following alloy elements in mass percentages: 12.9% copper, 3.58% chromium, 0.96% nickel, 0.74% germanium, 0.021% cerium, 0.028% yttrium, and the balance is magnesium.
[0023] A method for preparing an impact-resistant composite alloy material, the specific steps are:
[0024] According to the elements that need to be smelted in the aluminum alloy material, the pure metal powder containing each element is then preheated to 364°C, and then put into a ceramic crucible for melting. The melting temperature is 890°C, and the melting time is 1h. Transfer after melting Refined in an intermediate frequency induction heating furnace, the refining temperature is 1180°C, and the slag is removed after refining; finally, it is poured into a mold preheated to 460°C, and it is obtained after demolding; the purity of the pure metal powder containing each element in the specific steps is uniform Greater than 99.97%...
Embodiment 3
[0026] An impact-resistant composite alloy material, which is smelted from the following alloy elements in mass percentage: copper 13.1%, chromium 3.65%, nickel 1.14%, germanium 0.82%, cerium 0.023%, yttrium 0.031%, and the balance is magnesium.
[0027] A method for preparing an impact-resistant composite alloy material, the specific steps are:
[0028] According to the elements that need to be smelted in the aluminum alloy material, the pure metal powder containing each element is preheated to 364°C, and then put into a ceramic crucible for melting. The melting temperature is 917°C, and the melting time is 1h. Transfer after melting Refined in an intermediate frequency induction heating furnace, the refining temperature is 1197°C, and the slag is removed after refining; finally, it is poured into a mold preheated to 470°C, and it is ready after demoulding; the purity of the pure metal powder containing each element in the specific steps is uniform Greater than 99.97%.
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