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A Hf-doped dual-phase high-entropy alloy: phase evolution and wear features AITranslate

National Key Laboratory for Precision Hot Processing of Metals;National Key Laboratory for Precision Hot Processing of Metals;National Key Laboratory for Precision Hot Processing of Metals;National Key Laboratory for Precision Hot Processing of Metals;National Key Laboratory for Precision Hot Processing of Metals;National Key Laboratory for Precision Hot Processing of Metals;National Key Laboratory for Precision Hot Processing of Metals;National Key Laboratory for Precision Hot Processing of Metals
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Abstract AITranslate

Initially defined high entropy alloys(HEAs)usually exhibit a single-phase solid-solution structure.However,two and/or more types of phases in HE As possibly induce the desired microstructure features,which contribute to improving the wear properties of HE As.Here,we prepare a series of(AlCoCrFeNi)100-xHfx(x=0,2,4and 6;at%) HEAs and concern their phase compositions,micro structures and wear properties.Hf leads to the formation of(Ni,Co)2Hf-type Laves phase and tailors the microstructure from a body-centered cubic(BCC) singlephase structure to a hypoeutectic structure.An increased hardness from~HV 512.3 to~HV 734.1 is due to solid-solution strengthening,grain refinement strengthening and precipitated phase strengthening.And a few oxides(Al2O3+Cr2O3) caused by the wear heating contribute to an 85.5% decrease in wear rate of the HEA system from6.71×10-5 to 0.97×10-5 m3·N-1·m-1.In addition,Hf addition changes the wear mechanism from abrasive wear,mild oxidative wear and adhesive wear to oxidative wear and adhesive wear.

KeyWords AITranslate

High entropy alloy Laves phase HARDNESS Wear mechanism

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Basic Information:

DOI:

Chinese Library Classification Number:TG139[一般工业技术—材料科学与工程]

Citation Information:

Initially defined high entropy alloys(HEAs)usually exhibit a single-phase solid-solution structure.However,two and/or more types of phases in HE As possibly induce the desired microstructure features,which contribute to improving the wear properties of HE As.Here,we prepare a series of(AlCoCrFeNi)100-xHfx(x=0,2,4and 6;at%) HEAs and concern their phase compositions,micro structures and wear properties.Hf leads to the formation of(Ni,Co)2Hf-type Laves phase and tailors the microstructure from a body-centered cubic(BCC) singlephase structure to a hypoeutectic structure.An increased hardness from~HV 512.3 to~HV 734.1 is due to solid-solution strengthening,grain refinement strengthening and precipitated phase strengthening.And a few oxides(Al2O3+Cr2O3) caused by the wear heating contribute to an 85.5% decrease in wear rate of the HEA system from6.71×10-5 to 0.97×10-5 m3·N-1·m-1.In addition,Hf addition changes the wear mechanism from abrasive wear,mild oxidative wear and adhesive wear to oxidative wear and adhesive wear.

quote

GB/T 7714-2015 [1] Hao Ren, Rui-Run Chen, Xue-Feng Gao, et al. Rare Metals, 2024(1): 324-333.
MLA [1] Hao Ren, et al., Rare Metals, no. 1, 2024, pp. 324-333.
APA [1] Hao Ren, Rui-Run Chen, Xue-Feng Gao, Tong Liu, Gang Qin, Yu-Lung Chiu, Shi-Ping Wu, & Jing-Jie Guo. (2024). Rare Metals(1), 324-333.
IEEE [1] Hao Ren, Rui-Run Chen, Xue-Feng Gao, Tong Liu, Gang Qin, Yu-Lung Chiu, Shi-Ping Wu, and Jing-Jie Guo, Rare Metals, no. 1, pp. 324-333, 2024.