A low-cost zirconium-based amorphous alloy with wide supercooled liquid phase region
A technology of zirconium-based amorphous alloy and supercooled liquid phase region, which is applied in the field of zirconium-based amorphous alloy, can solve the problems of high preparation cost of zirconium-based amorphous alloy, and achieve the goal of improving the practical application range, reducing preparation cost and low cost Effect
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Embodiment 1
[0022] Example 1 Zr 35 Ti 27 Cu 8 be 27 Nb 3
[0023] Manufactured by copper mold casting.
[0024] Step 1: Preparation of master alloy. Zirconium blocks, titanium blocks, copper ingots, beryllium blocks, and niobium blocks are converted into weight percentages according to the atomic percentages in the design composition before batching. The purity of various metal raw materials is industrial purity. Adjust the vacuum degree of the vacuum chamber of the smelting furnace to 2*10 -3 Pa~5*10 -3 Pa, and then filled with high-purity argon to make the vacuum of the vacuum chamber to 0.1*10 5 Pa~0.8*10 5 Pa, and then put in raw materials for smelting. When smelting, first put high melting point metals Zr, Ti and Nb to form alloy ingots, then add low melting point metals Cu and Be for smelting, the smelting process is repeated 3 to 5 times, after the melting is uniform, the master alloy ingots are obtained after cooling .
[0025] Step 2: Preparation o...
Embodiment 2
[0027] Example 2 Zr 35 Ti 28 Cu 8 be 27 Nb 2
[0028] Prepared by water quenching.
[0029] The bulk pure metals Zr, Ti, Cu, Be, Nb (purity can be industrial purity) are non-consumable smelted into a uniform master alloy ingot in a high-purity Ar protective atmosphere according to the selected atomic composition ratio. During smelting, first put high melting point metals Zr, Ti and Nb to form an alloy ingot, and then add low melting point metals Cu and Be for smelting to reduce the loss on ignition of low melting point metals and ensure the accuracy of alloy composition. The smelting process needs to be repeated 3 to 5 times. Crush the master alloy ingot into a quartz glass tube, and apply a high vacuum (~10 -3 Pa) after packaging. Heat it in a resistance furnace to 200K higher than the melting point of the alloy and keep it for 1 hour to remelt it, mix it evenly, and finally perform water quenching to obtain a bulk amorphous alloy with a selected c...
Embodiment 3
[0031] Example 3 Zr 35 Ti 29 Cu 8 be 27 Nb 1
[0032] Manufactured by copper mold casting.
[0033] Step 1: Preparation of master alloy. Zirconium blocks, titanium blocks, copper ingots, beryllium blocks, and niobium blocks are converted into weight percentages according to the atomic percentages in the design composition before batching. The purity of various metal raw materials is industrial purity. Adjust the vacuum degree of the vacuum chamber of the smelting furnace to 2*10 -3 Pa~5*10 -3 Pa, and then filled with high-purity argon to make the vacuum of the vacuum chamber to 0.1*10 5 Pa~0.8*10 5 Pa, and then put in raw materials for smelting. When smelting, first put high melting point metals Zr, Ti and Nb to form alloy ingots, then add low melting point metals Cu and Be for smelting, the smelting process is repeated 3 to 5 times, after the melting is uniform, the master alloy ingots are obtained after cooling .
[0034]Step 2: Preparation of...
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Abstract
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