High temperature-resistant anti-oxidant alloy steel for resistor and preparation method thereof
A technology of anti-oxidation and high-temperature resistance, applied in the field of alloy steel, can solve the problems of the high-temperature and anti-oxidation resistance of alloy steel not being satisfied, the heat not being dissipated in time, and the resistance rising.
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Embodiment 1
[0021] A kind of alloy steel for high temperature resistance and oxidation resistance resistance proposed by the present invention, the weight percentages of its components are as follows: C: 0.15%, Si: 0.85%, Mn: 6.4%, Cr: 19.6%, P: 0.01%, S : 0.01%, V: 0.05%, Nb: 0.10%, Pb: 0.04%, Al: 3.9%, Ti: 0.4%, Mo: 0.9%, Cu: 7.7%, Y: 0.4%, Ni: 6.5%, W : 0.18%, rare earth: 0.05%, the rest is Fe and unavoidable impurities.
Embodiment 2
[0023] A method for preparing an alloy steel for high-temperature-resistant and anti-oxidation resistance of the present invention comprises the following steps:
[0024] S1. Iron block, carbon powder, silicon powder, manganese block, chromium ingot, phosphorus powder, sulfur powder, vanadium ingot, niobium ingot, lead block, aluminum block, titanium powder, molybdenum ingot, copper block, yttrium ingot, nickel powder Smelting with tungsten block, the melting temperature is 850°C to obtain alloy liquid, and then adding rare earth for modification treatment, the modification treatment temperature is 820°C;
[0025] S2. Carry out refining desulfurization and deoxidation to the modified alloy liquid in S1, and perform detection. The alloy liquid includes the following components by weight percentage: C: 0.1%, Si: 1.1%, Mn: 4.2%, Cr: 22.4%, P: 0.04%, S: 0.04%, V: 0.02%, Nb: 0.15%, Pb: 0.02%, Al: 4.6%, Ti: 0.2%, Mo: 1.2%, Cu: 6.8%, Y: 0.6%, Ni: 4.5%, W: 0.24%, rare earth: 0.02%, t...
Embodiment 3
[0028] A method for preparing an alloy steel for high-temperature-resistant and anti-oxidation resistance of the present invention comprises the following steps:
[0029] S1. Iron block, carbon powder, silicon powder, manganese block, chromium ingot, phosphorus powder, sulfur powder, vanadium ingot, niobium ingot, lead block, aluminum block, titanium powder, molybdenum ingot, copper block, yttrium ingot, nickel powder Smelting with tungsten blocks at a temperature of 950°C to obtain alloy liquid, and then adding rare earths for modification treatment at a temperature of 780°C;
[0030] S2. Carry out refining desulfurization and deoxidation to the alloy liquid that has been modified in S1, and perform detection. The alloy liquid includes the following components by weight percentage: C: 0.2%, Si: 0.6%, Mn: 8.6%, Cr: 16.8%, P: 0.02%, S: 0.03%, V: 0.08%, Nb: 0.05%, Pb: 0.06%, Al: 3.2%, Ti: 0.6%, Mo: 0.6%, Cu: 8.6%, Y: 0.2%, Ni: 8.5%, W: 0.12%, rare earth: 0.08%, the rest is Fe a...
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