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综述:藤壶黏附剂与黏附

Mini-review: barnacle adhesives and adhesion.

机构信息

Department of Biotechnology, National Institute of Technology and Evaluation, Kisarazu, Japan.

出版信息

Biofouling. 2013;29(6):735-49. doi: 10.1080/08927014.2013.800863.

DOI:10.1080/08927014.2013.800863
PMID:23802872
Abstract

Barnacles are intriguing, not only with respect to their importance as fouling organisms, but also in terms of the mechanism of underwater adhesion, which provides a platform for biomimetic and bioinspired research. These aspects have prompted questions regarding how adult barnacles attach to surfaces under water. The multidisciplinary and interdisciplinary nature of the studies makes an overview covering all aspects challenging. This mini-review, therefore, attempts to bring together aspects of the adhesion of adult barnacles by looking at the achievements of research focused on both fouling and adhesion. Biological and biochemical studies, which have been motivated mainly by understanding the nature of the adhesion, indicate that the molecular characteristics of barnacle adhesive are unique. However, it is apparent from recent advances in molecular techniques that much remains undiscovered regarding the complex event of underwater attachment. Barnacles attached to silicone-based elastomeric coatings have been studied widely, particularly with respect to fouling-release technology. The fact that barnacles fail to attach tenaciously to silicone coatings, combined with the fact that the mode of attachment to these substrata is different to that for most other materials, indicates that knowledge about the natural mechanism of barnacle attachment is still incomplete. Further research on barnacles will enable a more comprehensive understanding of both the process of attachment and the adhesives used. Results from such studies will have a strong impact on technology aimed at fouling prevention as well as adhesion science and engineering.

摘要

藤壶不仅因其作为污损生物的重要性,还因其水下附着的机制而引人注目,该机制为仿生学研究提供了平台。这些方面促使人们提出了关于成年藤壶如何在水下附着到表面的问题。研究的多学科和跨学科性质使得涵盖所有方面的概述具有挑战性。因此,本篇小型综述试图通过研究关注污损和附着的研究成果,来综合论述成年藤壶的附着问题。主要出于了解附着本质而开展的生物和生物化学研究表明,藤壶胶粘剂的分子特征是独特的。然而,最近分子技术的进展表明,关于水下附着这一复杂事件,仍有许多未知之处。附着在硅基弹性体涂层上的藤壶已被广泛研究,特别是在防污释放技术方面。藤壶不能牢固地附着在硅酮涂层上这一事实,以及藤壶附着在这些基底上的方式与大多数其他材料不同的事实,表明我们对天然藤壶附着机制的认识仍然不完整。对藤壶的进一步研究将使我们更全面地了解附着过程和所使用的胶粘剂。此类研究的结果将对旨在防止污损以及附着科学和工程的技术产生重大影响。

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