Method for forming amorphous alloy part
a technology of amorphous alloys and alloy parts, which is applied in the field of forming amorphous alloy parts, can solve the problems of narrow shaping temperature range, difficult to maintain, and adversely affecting product quality, and achieves good deformation properties, small solidification and contraction coefficient, and smooth surface.
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example 1
[0027]The shaping process of amorphous alloy part in the example is as follows:
[0028]1. Composition of the master alloy (atomic percentage): 32.8% of Titanium, 30.2% of Zirconium, 5.3% of Nickel, 9% of Copper, and 22.7% of Beryllium.
[0029]2. Melting the master alloy: the material of the master alloy is prepared and is placed in a crucible. Air is exhausted to form a vacuum at a pressure of between 5×10−3 and 5×10−1 Pa (or inert gas is filled in). The master alloy with uniform composition are prepared by induction melting or electric arc melting. The master alloy is casted to form regular master alloy ingot (in the shape of rod, plate, or flake, etc.)
[0030]3. Cutting the master alloy: the casted master alloy ingot is cut using cutting equipment according to the weight of required amorphous alloy part.
[0031]4. Shaping and processing amorphous alloy part: the cut master alloy is placed on a melting platform. Air in the vacuum chamber is exhausted to form a vacuum at a pressure of betwe...
example 2
[0032]The example follows a basic process in Example 1, except that composition of the master alloy (atomic percentage) is: 54.73% of Zirconium, 29.75% of Copper, 4.97% of Nickel, 9.95% of Aluminum, 0.1% of Silver, and 0.5% of Yttrium. The amorphous alloy part prepared in the example is shown in FIG. 3.
[0033]As shown in FIGS. 2-3, the amorphous alloy part prepared by the method has smooth surface and accurate size. Analyzed from the scanning electron microscope, the amorphous alloy part has compact structure and no shrinkage hole (as shown in FIG. 4).
[0034]The alloy used in the embodiments of the invention can be any amorphous alloy, such as Titanium-based amorphous alloy, Zirconium-based amorphous alloy, Iron-based amorphous alloy, Nickel-based amorphous alloy, Magnesium-based amorphous alloy, Palladium-based amorphous alloy, Silver-based amorphous alloy, Hafnium-based amorphous alloy, Platinum-based amorphous alloy, or other amorphous alloy component of other system.
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