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纤维纳米结构表面及纳米尺度下生物/非生物相互作用的研究

FIB-nanostructured surfaces and investigation of Bio/nonbio interactions at the nanoscale.

作者信息

Raffa V, Vittorio O, Pensabene V, Menciassi A, Dario P

机构信息

Scuola Superiore Sant'Anna, Pisa, Italy.

出版信息

IEEE Trans Nanobioscience. 2008 Mar;7(1):1-10. doi: 10.1109/TNB.2008.2000143.

DOI:10.1109/TNB.2008.2000143
PMID:18334450
Abstract

A better understanding of the interactions between biological entities and nanostructures is of central importance for developing functionalized materials and systems such as active surfaces with adapted biocompatibility. There is clear evidence in literature that cells and proteins generally interact with nanoscale-featured surfaces. Despite this quantity of information, little is known about the functional relationship between surface properties (i.e., roughness and nanostructuration) and biomolecules interaction. The main obstacle in the achievement of this goal is a technological one. Precise and straightforward control on surface modification at the nanometer level is required for understanding how nanostructuration influences interactions at bio/nonbio interface. In this paper, the authors describe the advantages of the focused ion beam (FIB) for surface nanostructuration of any material. The use of light transmitting substrates (especially glass) is often useful when studying the influence of surface morphology-in terms of shape and feature size-on bio/nonbio interactions by using traditional methods of biology and biotechnology. A simple methodology enabling a very efficient patterning of glass surfaces is thus described and validated: the enhancement of proteins interaction on FIB-nanostructured glass surfaces is demonstrated via fluorescence assays and a relationship between the adsorbed protein concentration and the density of surface patterning is derived.

摘要

更好地理解生物实体与纳米结构之间的相互作用对于开发功能化材料和系统(如具有适配生物相容性的活性表面)至关重要。文献中有明确证据表明细胞和蛋白质通常与具有纳米级特征的表面相互作用。尽管有大量此类信息,但关于表面性质(即粗糙度和纳米结构)与生物分子相互作用之间的功能关系却知之甚少。实现这一目标的主要障碍在于技术层面。为了理解纳米结构如何影响生物/非生物界面的相互作用,需要对纳米级表面改性进行精确且直接的控制。在本文中,作者描述了聚焦离子束(FIB)用于任何材料表面纳米结构化的优势。在通过传统生物学和生物技术方法研究表面形态(形状和特征尺寸方面)对生物/非生物相互作用的影响时,使用透光基板(尤其是玻璃)通常很有用。因此,本文描述并验证了一种能够非常高效地对玻璃表面进行图案化的简单方法:通过荧光测定法证明了蛋白质在FIB纳米结构化玻璃表面上的相互作用增强,并得出了吸附蛋白质浓度与表面图案密度之间的关系。

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