尺寸和手性对石墨烯纳米带力学性能影响的数值研究

Y. Shu, L. Qi, Zhen-Feng Sun, Hejun Li
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引用次数: 0

摘要

基于分子力学和固体力学之间的联系,建立了分子结构力学模型来评价石墨烯纳米带的力学性能。由于考虑了碳-碳键的结构和性质,与其他模拟方法相比,该模型可以更真实地描述gnr的真实状态。利用该模型对不同边缘类型(如扶手椅型和之字形型)的gnr进行了单轴载荷下的仿真研究。得到了gnr的杨氏模量。然后研究了gnr的边缘类型和尺寸对杨氏模量的影响。结果表明,gnr具有与碳纳米管相似的杨氏模量,这与前人的研究结果吻合较好,表明所建立的分子结构力学模型可用于预测gnr的力学性能。
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Numerical investigation of size and chirality effects on mechanical properties of graphene nanoribbons
A molecular structural mechanics model, based on a link between molecular and solid mechanics, was built to evaluate mechanical properties of graphene nanoribbons (GNRs). This model can describe the true state of GNRs more realistically comparing to other simulation methods because of considering the structure and properties of the carbon-carbon bonds. GNRs with different edge types, such as armchair and zigzag types, were simulated under a uniaxial load by using the proposed model. The Young's moduli of GNRs were obtained. Then the influence of edge type and size of GNRs on Young's modulus was also investigated. The results show that GNRs have a similar Young's modulus to carbon nanotubes, which is in good agreement with the previous studies, indicating that the proposed molecular structural mechanics model can be used to predicate the mechanical properties of GNRs.
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