Molecular Dynamics Simulation of the Mechanical Properties of Nanolayered Zr-Nb Alloys: Effects of Orientation and Layer Thickness

induces a non-monotonic peak stress response, with a transition thickness of ~10.96 nm. Below this threshold, stress-induced phase transformation in the BCC phase is the dominant mechanism for strengthening. Above this thickness, increased interlayer spacing enhances dislocation interactions and spatial effects, resulting in improved strain hardening and plastic stability. These findings clarify the competition between transformation-induced and dislocation-mediated strengthening and provide atomic-scale guidance for the microstructural design of high-performance Zr-Nb alloys.

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Publication Details

Journal
Materials
Published
2026-03-31
DOI
https://doi.org/10.3390/ma19071398
Primary Topic
Nuclear Materials and Properties
Type
article
Field-Weighted Citation Impact
0.00

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article

Molecular Dynamics Simulation of the Mechanical Properties of Nanolayered Zr-Nb Alloys: Effects of Orientation and Layer Thickness

Yulu Zhou, Jianhao Yan, Fugen Deng, Yifang Ouyang et al.
Materials
Nuclear Materials and Properties
article

Molecular Dynamics Simulation of the Mechanical Properties of Nanolayered Zr-Nb Alloys: Effects of Orientation and Layer Thickness

Yulu Zhou, Jianhao Yan, Fugen Deng, Yifang Ouyang, Guiyu Liu
article en

Abstract

induces a non-monotonic peak stress response, with a transition thickness of ~10.96 nm. Below this threshold, stress-induced phase transformation in the BCC phase is the dominant mechanism for strengthening. Above this thickness, increased interlayer spacing enhances dislocation interactions and spatial effects, resulting in improved strain hardening and plastic stability. These findings clarify the competition between transformation-induced and dislocation-mediated strengthening and provide atomic-scale guidance for the microstructural design of high-performance Zr-Nb alloys.

MaterialsVol. 19(7)
Guangxi University (CN)
National Natural Science Foundation of China, Guangxi University
Openalex Percentile: Top 30%
Nuclear Materials and Properties
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