High-entropy alloy multi-section mixed casting device and method thereof
A technology of high-entropy alloys and metals, applied in safety devices, equipment for feeding molten metal into molds, casting equipment, etc., can solve problems such as long process flow, high equipment requirements, and high processing costs, and achieve segregation and increase Effect of improving mechanical properties and processing performance
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Embodiment 1
[0069] A CrFeNiMoCuC high-entropy alloy material with high temperature wear resistance and corrosion resistance provided in this embodiment is smelted from components in the following molar ratios: Cr:Fe:Ni:Mo:Cu:C=2.3:3.2:1:0.2 : 0.25: 0.5, converted into weight percentages: chromium 30%, iron 45%, nickel 15%, molybdenum 3.4%, copper 5%, carbon 1.6%, the preparation process is:
[0070] (1) Pretreatment: Before heating, seal the melting cavity of each area, pull out the flow rate control plate in the base, and then introduce argon protective gas. The gas flow is 17L / min. After about 3 to 5 minutes, close the flow rate control board and open the cover of each area. Place the Cr block in the regional melting cavity A, and place the Fe iron and carbon steel blocks in the regional melting cavity B. Electrolyte nickel. Placed in regional melting cavity C, molybdenum block is placed in regional melting cavity D, electrolytic copper is placed in regional melting cavity E, close the ...
Embodiment 2
[0083] A CrFeNiMoCuC high-entropy alloy material with high temperature wear resistance and corrosion resistance provided in this embodiment is smelted from components in the following molar ratios: Cr:Fe:Ni:Mo:Cu:C=2.3:3.2:1:0.2 : 0.25: 0.6, converted into weight percentages: chromium 30%, iron 45%, nickel 18%, molybdenum 2.9%, copper 2.8%, carbon 1.3%, the preparation process is:
[0084] (1) Pretreatment: Before heating, seal the melting cavity of each area, pull out the flow rate control plate in the base, and then introduce argon protective gas. The gas flow is 17L / min. After about 3 to 5 minutes, close the flow rate control board and open the cover of each area. Place the Cr block in the regional melting cavity A, and place the Fe iron and carbon steel blocks in the regional melting cavity B. Electrolyte nickel. Placed in regional melting cavity C, molybdenum block is placed in regional melting cavity D, electrolytic copper is placed in regional melting cavity E, close th...
Embodiment 3
[0095] A CrFeNiMoCuC high-entropy alloy material with high temperature wear resistance and corrosion resistance provided in this embodiment is smelted from components in the following molar ratios: Cr:Fe:Ni:Mo:Cu:C=2.3:3.2:1:0.2 : 0.25: 0.4, converted into weight percentages: chromium 33%, iron 44%, nickel 14%, molybdenum 3.8%, copper 3.4%, carbon 1.8%, the preparation process is:
[0096] (1) Pretreatment: Before heating, seal the melting cavity of each area, pull out the flow rate control plate in the base, and then introduce argon protective gas. The gas flow is 17L / min. After about 3 to 5 minutes, close the flow rate control board and open the cover of each area. Place the Cr block in the regional melting cavity A, and place the Fe iron and carbon steel blocks in the regional melting cavity B. Electrolyte nickel. Placed in regional melting cavity C, molybdenum block is placed in regional melting cavity D, electrolytic copper is placed in regional melting cavity E, close th...
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