Treatment technology for titanium alloy blade of ammonia condenser in nuclear power station
An ammonia condenser and processing technology technology, which is applied to the processing technology field of titanium alloy blades for ammonia condensers in nuclear power plants, can solve the problems of wasting manpower, material resources and financial resources, difficult to produce heat exchange tube alloys, etc., and achieves reduction of mold deformation. and mold wear degree, good wear resistance and lubricity, and the effect of improving dimensional accuracy
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Embodiment 1
[0031] A treatment process for a titanium alloy blade for a nuclear power plant ammonia condenser provided in this embodiment includes the following specific steps:
[0032] Titanium alloy blade blanks are selected according to mass percentage and include: C: 3.3-4.2%, Si: 0.2-3.6%, Mn: 0.3-1.0%, P<0.1%, S<0.05%, Ni: 0.2-3.0%, V: 0.2-1.5%, Ti: 0.04-0.6%, the remainder is trace elements such as Fe and Cr and Co in a total amount of <0.3%; put the above alloy materials into the melting furnace, and put rare earth elements, rare earth elements into the melting furnace The total weight of the elements is 0.10-0.125% of the above alloy material; the rare earth rare earth elements contain the following components by weight percentage: Gd: 15-18%, Pr: 3-5%, Dy: 7-9%, Ac: 12.5-12.8%, Nd: 15-20%, Sm: 11-13%, and the balance is La;
[0033] The temperature of the smelting furnace is raised to 910°C. After the furnace charge is completely melted, it is fully stirred, and it is kept a...
Embodiment 2
[0042] A treatment process for a titanium alloy blade for a nuclear power plant ammonia condenser provided in this embodiment includes the following specific steps:
[0043] Titanium alloy blade blanks are selected according to mass percentage and include: C: 3.3-4.2%, Si: 0.2-3.6%, Mn: 0.3-1.0%, P<0.1%, S<0.05%, Ni: 0.2-3.0%, V: 0.2-1.5%, Ti: 0.04-0.6%, the remainder is trace elements such as Fe and Cr and Co in a total amount of <0.3%; put the above alloy materials into the melting furnace, and put rare earth elements, rare earth elements into the melting furnace The total weight of the elements is 0.20-0.25% of the above alloy material; the rare earth rare earth elements contain the following components by weight percentage: Gd: 15-18%, Pr: 3-5%, Dy: 7-9%, Ac: 12.5-12.8%, Nd: 15-20%, Sm: 11-13%, and the balance is La;
[0044] The temperature of the smelting furnace is raised to 940°C, fully stirred after the furnace charge is completely melted, and kept at 940°C for 2...
Embodiment 3
[0053] A treatment process for a titanium alloy blade for a nuclear power plant ammonia condenser provided in this embodiment includes the following specific steps:
[0054] Titanium alloy blade blanks are selected according to mass percentage and include: C: 3.3-4.2%, Si: 0.2-3.6%, Mn: 0.3-1.0%, P<0.1%, S<0.05%, Ni: 0.2-3.0%, V: 0.2-1.5%, Ti: 0.04-0.6%, the remainder is trace elements such as Fe and Cr and Co in a total amount of <0.3%; put the above alloy materials into the melting furnace, and put rare earth elements, rare earth elements into the melting furnace The total weight of the elements is 0.10-0.125% of the above alloy material; the rare earth rare earth elements contain the following components by weight percentage: Gd: 15-18%, Pr: 3-5%, Dy: 7-9%, Ac: 12.5-12.8%, Nd: 15-20%, Sm: 11-13%, and the balance is La;
[0055] The temperature of the smelting furnace is raised to 920°C. After the furnace charge is completely melted, it is fully stirred, and it is kept ...
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