Bactericidal Effects of Micropillars: A Molecular Dynamics Study

Akash Singh, Yumeng Li
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Abstract

Previous studies have shown that cicada wings has the ability to kill the bacteria on contact. Study of natural bactericidal surface in cicada wings has opened new dimensions of scientific research in bio-inspired chemical-free bactericidal surfaces. To develop and design such biomimetic bactericidal surface, it is necessary to understand the mechanical bactericidal effects of nanopillars in the presence of bacteria, which is extremely challenging due to the small relevant length and time scales. In this study, we have conducted molecular dynamics (MD) simulations to investigate the biomimetic surface with various nanopillars configurations. MD simulations is an exceptional method to simulate materials with small time and length scales with good accuracy and low computational costs. We have simulated the bacteria’s model using coarse-grained modelling and conducting MD simulations. Effects of nanopillar spacing, diameter and height on the lysis process is studied in this article. It is expected that this study will provide us insights on designing nanopillars in terms of height, spacing and diameter for optimal bactericidal effects that can help in the development of chemical-free antibacterial surface.
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微柱的杀菌作用:分子动力学研究
以前的研究表明,蝉的翅膀有能力杀死接触到的细菌。蝉翅天然杀菌表面的研究为仿生无化学杀菌表面的科学研究开辟了新的领域。为了开发和设计这种仿生杀菌表面,有必要了解纳米柱在细菌存在下的机械杀菌作用,由于相关长度和时间尺度小,这一工作极具挑战性。在这项研究中,我们进行了分子动力学(MD)模拟来研究具有不同纳米柱构型的仿生表面。MD模拟是一种特殊的模拟材料的方法,具有较好的精度和较低的计算成本。我们使用粗粒度模型和MD模拟模拟了细菌的模型。研究了纳米柱间距、直径和高度对裂解过程的影响。期望本研究能为纳米柱的高度、间距和直径设计提供新的见解,从而达到最佳的杀菌效果,从而为开发无化学成分的抗菌表面提供帮助。
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