A wear-resistant and corrosion-resistant non-magnetic alloy material and its preparation method
An alloy material, non-magnetic technology, applied in the field of alloy materials, can solve the problems of poor fatigue resistance, easy deformation, poor wear resistance, etc., to achieve the effect of improving corrosion resistance, reducing corrosion potential difference, and reducing driving force
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Embodiment 1
[0048] This embodiment provides a wear-resistant and corrosion-resistant non-magnetic alloy material, which is smelted from the following components by weight: 1.1% carbon, 0.2% silicon, 0.7% manganese, 30% chromium, and 12% nickel %, 1.2% copper, 3.4% molybdenum, 0.2% tungsten, 0.019% phosphorus, 0.023% sulfur, 0.08% titanium, 0.27% vanadium, 0.09% niobium, 0.1% cerium and the rest is iron.
[0049] The preparation process is:
[0050] (1) Smelting: Add carbon steel, recycled material, ferrochromium, ferromolybdenum, electrolytic copper, electrolytic nickel, ferrosilicon, pure titanium, rare earth cerium, pure vanadium, pure niobium, etc. to the intermediate frequency according to the material composition ratio. In the induction furnace, the temperature of the molten iron is controlled at 1650°C. After the material is completely melted, some ferromanganese is added for pre-deoxidation treatment.
[0051] (2) Out of the furnace: when the temperature of the molten iron is cont...
Embodiment 2
[0061] This embodiment provides a wear-resistant and corrosion-resistant non-magnetic alloy material, which is smelted from the following components by weight: 1.3% carbon, 0.5% silicon, 0.9% manganese, 29% chromium, and 10% nickel %, copper 2%, molybdenum 3.7%, tungsten 0.5%, phosphorus 0.016%, sulfur 0.022%, titanium 0.1%, vanadium 0.28%, niobium 0.09%, cerium 0.07%, and the rest is iron. After testing, the performance index of the alloy material produced by the present invention is as follows:
[0062] The preparation process is the same as in Example 1:
[0063] 1), hardness index: 40 ~ 45HRC
[0064] 2), corrosion resistance:
[0065] 160g / L sulfuric acid + 8g / L hydrochloric acid + 13g / L hydrofluoric acid, 25°C: the corrosion rate is 0.271mm / y;
[0066] 160g / L sulfuric acid + 8g / L hydrochloric acid + 13g / L hydrofluoric acid, 85°C: the corrosion rate is 1.219mm / y;
[0067] 160g / L sulfuric acid + 8g / L hydrochloric acid + 13g / L hydrofluoric acid + 40~70# quartz sand, 25°...
Embodiment 3
[0069] This embodiment provides a wear-resistant and corrosion-resistant non-magnetic alloy material, which is smelted from the following components by weight: 1.5% carbon, 1.4% silicon, 0.4% manganese, 31% chromium, and 9% nickel %, 1.0% copper, 3.7% molybdenum, 0.9% tungsten, 0.016% phosphorus, 0.025% sulfur, 0.03% titanium, 0.2% vanadium, 0.04% niobium, 0.05% cerium and the rest is iron.
[0070] The preparation process is the same as in Example 1:
[0071] 1), hardness index: 42~47HRC
[0072] 2), corrosion resistance:
[0073] 160g / L sulfuric acid + 8g / L hydrochloric acid + 13g / L hydrofluoric acid, 25°C: the corrosion rate is 0.378mm / y;
[0074] 160g / L sulfuric acid + 8g / L hydrochloric acid + 13g / L hydrofluoric acid, 85°C: the corrosion rate is 2.274mm / y;
[0075] 160g / L sulfuric acid + 8g / L hydrochloric acid + 13g / L hydrofluoric acid + 40~70# quartz sand, 25°C, the slurry washing speed is 2m / s: the corrosion rate is 3.483.mm / y;
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