Skrtic Drago, Antonucci Joseph M
Volpe Research Center, American Dental Association Foundation, Gaithersburg, MD 20899-8546.
Biomaterials Group, Biosystems and Biomaterials Division, National Institute of Standards and Technology, Gaithersburg, MD 20899-8543, USA.
Curr Trends Polym Sci. 2016;17:1-31.
For over two decades we have systematically explored structure-composition-property relationships of amorphous calcium phosphate (ACP)-based polymeric dental composites. The appeal of these bioactive materials stems from their intrinsic ability to prevent demineralization and/or restore defective tooth structures sustained release of remineralizing calcium and phosphate ions. Due to the compositional similarity of the ACP to biological tooth mineral, ACP-based composites should exhibit excellent biocompatibility. Research described in this article has already yielded remineralizing sealants and orthodontic adhesives as well as a prototype root canal sealer. Our work has also contributed to a better understanding on how polymer matrix structure and filler/matrix interactions affect the critical properties of these polymeric composites and their overall performance. The addition of antimicrobial compounds to the formulation of ACP composites could increase their medical and dental regenerative treatment applications, thereby benefiting an even greater number of patients.
二十多年来,我们系统地探索了基于无定形磷酸钙(ACP)的聚合物牙科复合材料的结构-组成-性能关系。这些生物活性材料的吸引力源于它们具有防止脱矿质和/或修复受损牙齿结构的内在能力,以及能持续释放再矿化钙和磷酸根离子。由于ACP与生物牙齿矿物质在组成上相似,基于ACP的复合材料应具有优异的生物相容性。本文所述的研究已经产生了再矿化密封剂和正畸粘合剂以及一种根管封闭剂原型。我们的工作还有助于更好地理解聚合物基体结构和填料/基体相互作用如何影响这些聚合物复合材料的关键性能及其整体性能。在ACP复合材料配方中添加抗菌化合物可以增加其在医学和牙科再生治疗中的应用,从而使更多患者受益。