微流体通道中介观环状元素生长和变形诱导的生物膜流演变

Zheng Zhang, Yangyang Tang, Cong Tao, Jinchang Zhang, Fulin Dong, Song Liu, Duohuai Zhang, Xiaoling Wang
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引用次数: 0

摘要

在流体环境中,生物膜通常会形成并生长为附着在固体表面的流体。现有关于单个流体的研究对其形成和失效模式进行了研究。在微流体通道中的生物膜生长实验中,我们发现由细菌和细胞外基质组成的环是中观尺度上的重要元素。在流体环境中,这些环状元素的失效会导致流体受损。我们利用多代理模拟和多孔弹性体的流固耦合模拟了微通道中环结构的生长和变形。在此基础上,我们模拟了涉及多环变形的生物膜演化,这为研究流体环境中生物膜流体动力学提供了新的长度尺度。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Mesoscopic ring element growth and deformation induced biofilm streamer evolution in microfluidic channels
In a fluid environment, biofilms usually form and grow into streamers attached to solid surfaces. Existing research on single streamers studied their formation and failure modes. In the experiment on biofilm growth in a microfluidic channel, we found that rings composed of bacteria and an extracellular matrix are important elements on a mesoscopic scale. In the fluid environment, the failure of these ring elements causes damage to streamers. We simulated the growth and deformation of the ring structure in the micro-channel using multi-agent simulation and fluid–structure coupling of a porous elastic body. Based on this, we simulated the biofilm evolution involving multi-ring deformation, which provides a new length scale to study the biofilm streamer dynamics in fluid environments.
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