Polymer Research Cluster, School of Mechanical and Aerospace Engineering, Queen's University of Belfast, Belfast, Northern Ireland, UK.
J Mater Sci Mater Med. 2010 Aug;21(8):2281-6. doi: 10.1007/s10856-010-4056-y. Epub 2010 Mar 24.
A sustainable marine-derived bioceramic with a unique porous structure has been developed for hard tissue repair. The conversion of alga was achieved through a novel technique, involving well controlled thermal processing followed by low pressure-temperature hydrothermal synthesis. In its preparation, a heat treatment step was required to remove the organic compounds from the algae, which reinforces the mineralised matrices. Its removal is necessary to prevent issue such as immune biocompatibility and ensure phase purity of the resultant biomaterial. This paper investigates the hydrothermal technique used for the transformation of mineralised red algae to hydroxyapatite that preserves the algae's unique structure. It specifically focuses on the effects of heat treatment on the morphology of the algae, TGA, SEM and hot stage XRD to quantity the changes.
一种具有独特多孔结构的可持续海洋衍生生物陶瓷已经被开发出来用于硬组织修复。藻的转化是通过一种新的技术实现的,涉及到经过良好控制的热加工和低压-低温水热合成。在其制备过程中,需要进行热处理步骤来去除藻类中的有机化合物,这可以增强矿化基质。去除这些有机化合物是必要的,以防止免疫相容性等问题,并确保所得生物材料的相纯度。本文研究了用于将矿化红藻转化为羟磷灰石的水热技术,该技术保留了藻类的独特结构。它特别关注热处理对藻类形态的影响,通过 TGA、SEM 和热台 XRD 来定量分析变化。