Physiologic Human Fluids and Swelling Behavior of Hydrophilic Biocompatible Hybrid Ceramo-Polymeric Materials

R. Aversa, R. Petrescu, A. Apicella, F. Petrescu
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引用次数: 87

Abstract

All synthetic and natural materials to be used in biomedical applications that involve the contact with human body need to be investigated for their physical and chemical modification induced by the human physiological fluids contact and sorption. The development and testing in human physiological equivalent fluids of new hybrid biomaterials are presented. The role of water and its equilibrium modification in the human physiology is discussed and the swelling and sorption behavior in the physiological environment of a nanostructured and osteoconductive biomaterials based on Poly-Hydroxyl-Ethyl-Meth Acrylate matrix (pHEMA) filled with fumed amorphous nanosilica particles is presented. This material differently swells in presence of aqueous physiological solution fluid. Biological hybrid scaffolds for bone regeneration and growth made using synthetic materials able to correctly interact with the physiological fluids while inducing the growth of biological tissues may favor the birth in the medical field of a new class of hybrid materials. Our multidisciplinary approach explores in the this paper, novel ideas in modeling, design and fabrication of new nanostructured scaffolding biomaterials with enhanced functionality and improved interaction with OB cells.
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生理性人体液体和亲水性生物相容性杂化陶瓷-聚合物材料的膨胀行为
所有与人体接触的生物医学应用中使用的合成材料和天然材料,都需要对其在人体生理液体接触和吸收过程中引起的物理和化学改性进行研究。介绍了新型混合生物材料在人体生理等效液中的研制和试验情况。讨论了水及其平衡改变在人体生理中的作用,并介绍了气相非晶纳米二氧化硅填充的聚羟基乙基甲基丙烯酸甲酯基(pHEMA)纳米结构和骨导电性生物材料在生理环境中的膨胀和吸附行为。这种物质在水生理溶液存在时不同地膨胀。在诱导生物组织生长的同时,利用合成材料制备的骨再生生长生物杂化支架有利于在医学领域诞生一类新的杂化材料。我们的多学科方法在本文中探索了建模,设计和制造具有增强功能和改善与OB细胞相互作用的新型纳米结构支架生物材料的新思路。
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