Five-element intermediate alloy used for preparing titanium alloy
An intermediate alloy and titanium alloy technology, applied in the field of alloys, can solve the problems of insufficient melting of high-melting-point and high-density elements, reducing the use effect, increasing the melting point and composition inhomogeneity of binary intermediate alloys, and avoiding melting current. Instability, improve stability, ensure the effect of composition uniformity
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[0023] Table 1 lists the proportions of the chemical elements in Examples 1-3 of this technical solution.
[0024] Table 1. (wt%, the balance is impurities)
[0025]
Mo
V
Cr
Fe
Al
Example 1
27
27
15.5
1.8
28.5
Example 2
25.5
24.2
21.2
1.9
27.2
Example 3
27.3
26.8
14.7
2.1
29
Example 4
28.2
28.2
12.8
1.5
29.2
Example 5
23.6
32.4
15.3
2.1
26.5
Example 6
32.7
23.8
14.9
1.8
26.8
[0026] Ti-5.2A1-5.1Mo-5.1V-3.0Cr-0.35Fe-0.16O titanium alloy (denoted as titanium alloy A in Table 2) was prepared using the five-element master alloy (particles of 0.5-2mm) described in Example 1 ), the microstructure of the titanium alloy after forging and heat treatment is as image 3 As shown, its mechanical properties are shown in Table 2. The titanium alloy is suitable for the manufacture of high-strength aviation fasteners.
[0027] The five-element master alloy (particle size 0.5-2mm) described in Example 2 was used to p...
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