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Research progress on mechanical properties of ultra-high temperature WTa-containing refractory multi-principal element alloys AITranslate

State Key Laboratory for Advanced Metals and Materials;State Key Laboratory for Advanced Metals and Materials;State Key Laboratory for Advanced Metals and Materials;State Key Laboratory for Advanced Metals and Materials;State Key Laboratory for Advanced Metals and Materials;State Key Laboratory for Advanced Metals and Materials;State Key Laboratory for Advanced Metals and Materials;State Key Laboratory for Advanced Metals and Materials;State Key Laboratory for Advanced Metals and Materials;State Key Laboratory for Advanced Metals and Materials;State Key Laboratory for Advanced Metals and Materials;State Key Laboratory for Advanced Metals and Materials
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Publisher: Youke Publish Co., Ltd.
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Abstract AITranslate

To meet the increasing demand for continuously enhancing engineering performance and energy efficiency in a variety of aerospace and energy applications,structural materials with high strength at ultra-high temperatures are urgently required.In the past decade,refractory multi-principal element alloys(RMPEAs),particularly those containing elements with high melting temperatures(Tm)such as W and Ta(hereafter denoted as WTa-RMPEAs),have garnered extensive interest due to their exceptional strengths and thermally stability at high temperatures.Characterized by high Tm,sluggish diffusion,and severe lattice distortion,WTa-RMPEAs exhibit chemical composition fluctuations at different scales,leading to unique mechanical properties and deformation behavior.In this paper,an initial summary is provided of the mechanical properties of typical WTa-RMPEAs at room and high temperatures and the differences in deformation behavior and underlying mechanisms between RMPEAs and conventional alloys are discussed.Additionally,strengthening and toughening strategies and the suggested deformation mechanisms were reviewed.Finally,the challenges in revealing the actual deformation mechanism of WTa-RMPEAs were described,and a brief perspective on the future research of the mechanical behavior of WTa-RMPEAs was proposed.

KeyWords AITranslate

Refractory multi-principal element alloys(RMPEAs) Ultra-high temperature Mechanical property Strengthening and toughening strategy
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Chinese Library Classification Number:TG132.3[一般工业技术—材料科学与工程]

Citation Information:

To meet the increasing demand for continuously enhancing engineering performance and energy efficiency in a variety of aerospace and energy applications,structural materials with high strength at ultra-high temperatures are urgently required.In the past decade,refractory multi-principal element alloys(RMPEAs),particularly those containing elements with high melting temperatures(Tm)such as W and Ta(hereafter denoted as WTa-RMPEAs),have garnered extensive interest due to their exceptional strengths and thermally stability at high temperatures.Characterized by high Tm,sluggish diffusion,and severe lattice distortion,WTa-RMPEAs exhibit chemical composition fluctuations at different scales,leading to unique mechanical properties and deformation behavior.In this paper,an initial summary is provided of the mechanical properties of typical WTa-RMPEAs at room and high temperatures and the differences in deformation behavior and underlying mechanisms between RMPEAs and conventional alloys are discussed.Additionally,strengthening and toughening strategies and the suggested deformation mechanisms were reviewed.Finally,the challenges in revealing the actual deformation mechanism of WTa-RMPEAs were described,and a brief perspective on the future research of the mechanical behavior of WTa-RMPEAs was proposed.

quote

GB/T 7714-2015 [1] Yao-Zu Shen, Xian-Zhen Wang, Xiao-Bin Zhang, et al. Tungsten, 2025(4): 680-706.
MLA [1] Yao-Zu Shen, et al., Tungsten, no. 4, 2025, pp. 680-706.
APA [1] Yao-Zu Shen, Xian-Zhen Wang, Xiao-Bin Zhang, Yuan Wu, Zheng-Qi Wang, Jin-Wei Zhu, Yu-Chen Zhao, Wei Liu, Xiong-Jun Liu, Hui Wang, Sui-He Jiang, & Zhao-Ping Lu. (2025). Tungsten(4), 680-706.
IEEE [1] Yao-Zu Shen, Xian-Zhen Wang, Xiao-Bin Zhang, Yuan Wu, Zheng-Qi Wang, Jin-Wei Zhu, Yu-Chen Zhao, Wei Liu, Xiong-Jun Liu, Hui Wang, Sui-He Jiang, and Zhao-Ping Lu, Tungsten, no. 4, pp. 680-706, 2025.