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A review on the mechanical and thermal properties of graphene and graphene-based polymer nanocomposites: understanding of modelling and MD simulation

机译:石墨烯和石墨烯纳米复合材料的机械和热性能综述:对建模和MD仿真的认识

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摘要

Simulation of molecular dynamics (MD) allows mimicking the systematic variation of mechanical properties beyond the capacity of experimental methods. In this review, the status of the molecular modelling, simulation and mechanical and thermal characterisation of graphene and the properties of bulk nanocomposites using MD are extensively examined. The molecular models of graphene (pristine and functionalised), and the most common epoxy matrix with preeminent MD energy minimisation tools are thoroughly examined. The presence of MD?s simulation setup and the computational procedure for different styles of mixing the polymer matrix with graphene as nanofiller are exhaustively reviewed. In particular, in the analysis of several papers on graphene and their composites, it has been noticed that mechanical, thermal and interfacial properties are ubiquitous to most of the engineering applications. In this review, advances in the molecular modelling and simulation of graphene and their composites has been discussed in detail keeping graphene structures, aspect ratio, weight fraction and density effect as major factors. Finally, the research gaps and future scope are discussed, which indeed helps the researchers in scaling up their researches in graphene and their composites, which may further lead to their experimental findings.
机译:分子动力学(MD)的仿真允许模仿机械性能的系统变化,超出实验方法的容量。在本次综述中,广泛地检查了石墨烯的分子建模,模拟和机械和热表征的状态和使用MD的块状纳米复合材料的性质。彻底检查石墨烯(原始和官能化)的分子模型和最常见的环氧基质,具有卓越的MD能量最小化工具。 MDβ的仿真设置和用石墨烯混合为纳米氧化物的不同风格的计算过程被彻底地评析。特别地,在分析石墨烯及其复合材料上的几篇论文中,已经注意到机械,热和界面性质对大多数工程应用普遍存在。在本文中,已经详细地将石墨烯结构,纵横比,重量分数和密度效应作为主要因素的详细讨论了石墨烯及其复合材料的分子建模和模拟的进展。最后,讨论了研究差距和未来范围,这确实有助于研究人员在石墨烯及其复合材料中进行缩放,这可能进一步导致其实验结果。

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