Laboratoire de Biotechnologie et Chimie Marines, Université Bretagne Sud, EMR CNRS 6076, IUEM, Lorient, France.
Institut de Recherche Dupuy de Lôme, Centre de Recherche Christian Huygens, Rue de Saint-Maudé, Lorient, France.
Biofouling. 2024 Aug;40(7):415-430. doi: 10.1080/08927014.2024.2373870. Epub 2024 Jul 10.
Artificial reefs represent useful tools to revitalize coastal and ocean ecosystems. Their formulation determines the biofilm formation which is the prerequisite for the colonization process by marine micro- and macroorganisms. In comparison with concrete, biobased polymers offer improved characteristics, including architecture, formulation, rugosity and recycling. This article aims to explore a new scale of artificial reef made of biocomposites reinforced with a high flax fibre () content (30%). Cellular adhesion and resulting biofilm formation were assessed using two marine microorganisms: sp. 3J6 and . The influence of flax fibre leachates and plastic monomers on the growth of those marine microorganisms were also evaluated. Results indicated that the introduction of flax fibres inside the polymer matrix modified its physicochemical properties thus modulating adhesion and biofilm formation depending on the microorganism. This study gives insights for further developments of novel functionalized artificial reefs made of biocomposites.
人工鱼礁是振兴沿海和海洋生态系统的有用工具。它们的配方决定了生物膜的形成,这是海洋微生物和宏观生物定植过程的前提。与混凝土相比,基于生物的聚合物具有更好的特性,包括结构、配方、粗糙度和可回收性。本文旨在探索一种新的人工鱼礁规模,由高亚麻纤维含量(30%)增强的生物复合材料制成。使用两种海洋微生物:3J6 属 sp. 和 评估了细胞黏附和由此产生的生物膜形成。还评估了亚麻纤维浸出物和塑料单体对这些海洋微生物生长的影响。结果表明,将亚麻纤维引入聚合物基质中会改变其物理化学性质,从而根据微生物的不同来调节黏附和生物膜的形成。这项研究为进一步开发新型功能化生物复合材料人工鱼礁提供了思路。