Nano-structured surfaces control bacterial attachment

N. Mitik-Dineva, J. Wang, P. Stoddart, R. Crawford, E. Ivanova
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引用次数: 17

Abstract

Surface roughness is known to play a significant role in the cell-surface attachment process, particularly when the surface irregularities are of a dimension that is comparable to the bacterial size and hence provide shelter from unfavorable environmental factors. To explore the influence of nano-scale surface roughness on bacterial attachment this study utilized as-received and chemically treated glass surfaces as substrata for bacterial adsorption. Surface modification via chemical etching resulted in a 70% decrease in the nano-scale roughness of the glass surface with no alteration of its chemical composition. We have observed that bacteria belonging to three different taxa, while adhering to the modified surface, exhibited similar attachment tendencies to the un-modified substratum, however the number of attached cells increased threefold. The increase in extent of attachment was also associated with bacterial morphologic and metabolic changes. The results obtained suggest that nano-scale surface roughness might strongly influence bacterial attachment.
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纳米结构表面控制细菌附着
众所周知,表面粗糙度在细胞表面附着过程中起着重要作用,特别是当表面不规则性的尺寸与细菌大小相当,从而为不利的环境因素提供庇护时。为了探索纳米级表面粗糙度对细菌附着的影响,本研究利用接收和化学处理的玻璃表面作为细菌吸附的基质。通过化学蚀刻的表面改性导致玻璃表面的纳米级粗糙度降低了70%,而其化学成分没有改变。我们观察到,三个不同分类群的细菌在附着于修饰过的表面时,对未修饰过的基质表现出相似的附着倾向,但附着的细胞数量增加了三倍。附着程度的增加也与细菌形态和代谢的变化有关。所得结果表明,纳米级表面粗糙度可能会强烈影响细菌的附着。
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