<i>In-situ</i> nanopillar compression analysis of prismatic &lt;a&gt; and pyramidal &lt;c+a&gt; slip strengths in Zr-Nb alloys

In-situ nanopillar compression tests were conducted to evaluate slip strengths of prismatic <a> and pyramidal <c+a> in Zr-Nb alloys. The resolved shear stress (RSS) for prismatic <a> slip in Zr-2.5Nb is about five times that of Zr-1.0Nb at 298 K, and RSS for pyramidal <c+a> slip of Zr-2.5Nb is about twice that of Zr-1.0Nb at 623 K, indicating that a higher density of β-Nb precipitates can appreciably enhance slip resistance. Moreover, RSS for prismatic <a> slip in Zr-2.5Nb at 623 K is approximately one-tenth of that at 298 K, suggesting that the strengthening effect substantially reduces at reactor operating temperatures.

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Publication Details

Journal
Materials Research Letters
Published
2026-02-05
DOI
https://doi.org/10.1080/21663831.2026.2619453
Primary Topic
Nuclear Materials and Properties
Type
article
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article

In-situ nanopillar compression analysis of prismatic <a> and pyramidal <c+a> slip strengths in Zr-Nb alloys

S. Liu, Weitong Lin, Wei-Zhong Han, Qingyang Lv et al.
Materials Research Letters
Nuclear Materials and Properties
article

In-situ nanopillar compression analysis of prismatic <a> and pyramidal <c+a> slip strengths in Zr-Nb alloys

S. Liu, Weitong Lin, Wei-Zhong Han, Qingyang Lv, Liutao Chen, Jing Hu
article en

Abstract

In-situ nanopillar compression tests were conducted to evaluate slip strengths of prismatic <a> and pyramidal <c+a> in Zr-Nb alloys. The resolved shear stress (RSS) for prismatic <a> slip in Zr-2.5Nb is about five times that of Zr-1.0Nb at 298 K, and RSS for pyramidal <c+a> slip of Zr-2.5Nb is about twice that of Zr-1.0Nb at 623 K, indicating that a higher density of β-Nb precipitates can appreciably enhance slip resistance. Moreover, RSS for prismatic <a> slip in Zr-2.5Nb at 623 K is approximately one-tenth of that at 298 K, suggesting that the strengthening effect substantially reduces at reactor operating temperatures.

Materials Research Letters
City University of Hong Kong (HK), China General Nuclear Power Corporation (China) (CN), Xi'an Jiaotong University (CN), University of Hong Kong (HK)
Openalex Percentile: Top 66%
Nuclear Materials and Properties
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