Effect of defect on the mechanical properties of nanoporous two-dimensional borophene membranes
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Borophene
defect
strain
stress
molecular dynamics simulation
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Borophene, a two-dimensional material with remarkable electrochemical and mechanical potential, has attracted increasing attention for advanced nanoscale applications. This makes it crucial to investigate and determine how defects affect the mechanical characteristics of nanoporous 2D borophene nanosheets. This study discovers the width and quantity of vacancy defects on the borophene surface based on its structure. The results of this study will include parameters such as strain and stress curve diagrams, Young's modulus coefficients, and various maximum strength. In this work, the mechanical behavior of borophene monolayer films containing vacancy defects under uniaxial tensile conditions is studied using molecular dynamics simulation. The effect of vacancy defect widths and quantity to fracture behavior has been divided into two scenarios under uniaxial tension were investigated in both armchair (y) – zigzag (x) orientations.
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Mar 31, 2026
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Cách trích dẫn
Huynh, T.-K., và L.-H.-T. Do. “Effect of Defect on the Mechanical Properties of Nanoporous Two-Dimensional Borophene Membranes”. Tạp Chí Khoa học Và Công nghệ Đại học Đà Nẵng, vol 24, số p.h 3, Tháng Ba 2026, tr 7-15, doi:10.31130/ud-jst.2026.24(3).714.
