Ti base bulk amorphous alloy and method for producing the same
A technology of amorphous alloy and production method, which is applied in the field of Ti-based bulk amorphous alloy, can solve the problems of increasing alloy density and losing low alloy density, and achieves high specific strength, high amorphous forming ability, and high thermal stability. Effect
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Embodiment 1
[0019] High-purity (purity greater than 99%) 36% Ti, 28% Be, 36% Zr (atomic percentage, the same below) elements are repeatedly smelted in an electric arc furnace purified by Ti for more than 3 times to make the alloy composition uniform and obtain a nominal The composition is Ti 36 be 28 Zr 36 Then put 5-10 grams of alloy ingot into the suction casting crucible and use a mechanical pump to suck the remelted alloy into the copper mold to obtain a round rod with a diameter of 3-5 mm. The sample was analyzed by X-ray diffraction as an amorphous phase, such as figure 1 shown. The glass transition temperature T of this amorphous alloy was obtained by thermal analysis g , crystallization onset temperature T x , and the supercooled liquidus temperature interval ΔT x . The DSC curve of the amorphous alloy is shown in figure 2 , showing a clear glass transition and crystallization process, its T g ,T x , ΔT x They are 320°C, 425°C, and 105°C, respectively. The thermophysi...
Embodiment 2
[0021] High-purity (purity greater than 99%) 50% Ti, 34% Be, 16% Zr elements are repeatedly smelted for more than 3 times in a Ti-purified electric arc furnace to make the alloy composition uniform, and the nominal composition is Ti 50 be 34 Zr 16 Then put 5-10 grams of alloy ingot into the suction casting crucible and use a mechanical pump to suck the remelted alloy into the copper mold to obtain a round rod with a diameter of 3-5 mm. The sample was analyzed by X-ray diffraction as an amorphous phase, such as figure 1 shown. The glass transition temperature T of this amorphous alloy was obtained by thermal analysis g , crystallization onset temperature T x , and the supercooled liquidus temperature interval ΔT x . The DSC curve of the amorphous alloy is shown in figure 2 , showing a clear glass transition and crystallization process, its T g ,T x , ΔT x They are 330°C, 365°C, and 35°C respectively. The thermophysical parameters of the bulk amorphous alloy are list...
Embodiment 3
[0023] The high-purity (purity greater than 99%) 41% Ti, 34% Be, 25% Zr elements are repeatedly smelted in an electric arc furnace purified by Ti for more than 3 times to make the alloy composition uniform, and the nominal composition is Ti 41 be 34 Zr 25 Then put 5-10 grams of alloy ingot into the suction casting crucible and use a mechanical pump to suck the remelted alloy into the copper mold to obtain a round rod with a diameter of 3-5 mm. The sample was analyzed by X-ray diffraction as an amorphous phase, such as figure 1 shown. The glass transition temperature T of this amorphous alloy was obtained by thermal analysis g , crystallization onset temperature T x , and the supercooled liquidus temperature interval ΔT x . The DSC curve of the amorphous alloy is shown in figure 2 , showing a clear glass transition and crystallization process, its T g ,T x , ΔT x They are 316°C, 354°C, and 38°C, respectively. The thermophysical parameters of the bulk amorphous alloy...
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