Effect of high-energy Ne ions irradiation on mechanical properties difference between Zr63.5Cu23Al9Fe4.5 metallic glass and crystalline W

IF 1.6 3区 物理与天体物理 Q3 PHYSICS, FLUIDS & PLASMAS Plasma Science & Technology Pub Date : 2024-01-11 DOI:10.1088/2058-6272/ad1db4
Na Li, Lisong Zhang, Xiaonan Zhang, Liyue Gong, Jianbing Qiang, X. Mei
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Abstract

In this paper, high-energy Ne ions were used to irradiate Zr63.5Cu23Al9Fe4.5 MG and crystalline W to investigate their difference in mechanical response after irradiation. The results showed that with the irradiation dose increased, the tensile micro-strain increased, nano-hardness increased from 7.11 GPa to 7.90 GPa and 8.62 GPa, Young's modulus increased, and H3/E2 increased which indicating that the plastic deformability decreased in crystalline W. Under the same irradiation conditions, the Zr63.5Cu23Al9Fe4.5 MG still maintained the amorphous structure and became more disordered despite the longer range and stronger displacement damage of Ne ions in Zr63.5Cu23Al9Fe4.5 MG than in crystalline W. Unlike the irradiation hardening and embrittlement behavior of crystalline W, Zr63.5Cu23Al9Fe4.5 MG showed the gradual decrease in hardness from 6.02 GPa to 5.89 GPa and 5.50 GPa, the decrease in modulus and the increase in plastic deformability with the increasing dose. Possibly, the irradiation softening and toughening phenomenon of Zr63.5Cu23Al9Fe4.5 MG could provide new ideas for the design of nuclear materials.
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高能氖离子辐照对 Zr63.5Cu23Al9Fe4.5 金属玻璃和晶体 W 机械性能差异的影响
本文采用高能Ne离子辐照Zr63.5Cu23Al9Fe4.5 MG和晶体W,研究它们在辐照后的力学响应差异。结果表明,随着辐照剂量的增加,拉伸微应变增加,纳米硬度从 7.11 GPa 增加到 7.90 GPa 和 8.62 GPa,杨氏模量增加,H3/E2 增加,这表明晶体 W 的塑性变形能力下降。5 MG 仍保持无定形结构,尽管与晶体 W 相比,Zr63.5Cu23Al9Fe4.5 MG 中 Ne 离子的位移范围更长、位移损伤更强,但其变得更加无序。与晶体 W 的辐照硬化和脆化行为不同,随着剂量的增加,Zr63.5Cu23Al9Fe4.5 MG 的硬度从 6.02 GPa 逐渐降低到 5.89 GPa 和 5.50 GPa,模量降低,塑性变形能力增加。Zr63.5Cu23Al9Fe4.5 MG的辐照软化和增韧现象可能为核材料的设计提供了新思路。
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来源期刊
Plasma Science & Technology
Plasma Science & Technology 物理-物理:流体与等离子体
CiteScore
3.10
自引率
11.80%
发文量
3773
审稿时长
3.8 months
期刊介绍: PST assists in advancing plasma science and technology by reporting important, novel, helpful and thought-provoking progress in this strongly multidisciplinary and interdisciplinary field, in a timely manner. A Publication of the Institute of Plasma Physics, Chinese Academy of Sciences and the Chinese Society of Theoretical and Applied Mechanics.
期刊最新文献
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