Characterizing the Properties of 70Si-30Ca Bioglass-Magnesia Composite as Hard Tissue Replacement Bio-Materials

IF 0.5 Q4 ENGINEERING, BIOMEDICAL Journal of Biomimetics, Biomaterials and Biomedical Engineering Pub Date : 2022-08-19 DOI:10.4028/p-74056s
I. Sabree, O. Mahdi, F. Shaker, M. Ibrahim
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Abstract

There are many requirements for biomaterials used in the applications of bone tissue engineering, besides their biocompatibility, they should exhibit acceptable mechanical properties to mimic bone properties. Many research areas in bioactive materials for bone tissue engineering focused on producing new bioactive glass and ceramic compositions containing a trace of inorganic elements (such as Mg, Sr, Cu, Zn) to combine the mechanical properties and bioactivity. In the present study bioglass-MgO composite material has been used to produce Diopside (CaMgSi2O6) by the sintering process. The compact samples were made from a mixture powder of (7, 15)wt% MgO and binary bioglass 70Si-30Ca sintered at 1100 ᵒC for 2 hr. The XRD results confirmed the presence of diopside and wollastonite CaSiO3 in the case of using 7wt.% MgO while the structure was completely diopside at 15 Wt.% MgO. Physical properties, compressive strength, and hardness were investigated, as well as biodegradation behavior and bioactivity in human saliva were inspected. The results confirmed improving the mechanical properties along with increasing MgO as well as proved the ability to form hydroxyapatite on the surface when exposed to human saliva. These findings demonstrated the positive role of MgO in the mechanical properties of 70Si-30Ca bioactive glass besides producing diopside as a good candidate for hard tissue engineering.
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70Si-30Ca生物玻璃-镁质复合材料作为硬组织替代生物材料的性能表征
骨组织工程应用中对生物材料有很多要求,除了生物相容性外,它们还应表现出可接受的机械性能,以模拟骨性能。骨组织工程生物活性材料的许多研究领域都集中在生产含有微量无机元素(如Mg、Sr、Cu、Zn)的新型生物活性玻璃和陶瓷组合物,以结合机械性能和生物活性。在本研究中,生物玻璃-氧化镁复合材料已被用于通过烧结工艺生产透辉石(CaMgSi2O6)。致密样品由(7,15)wt%MgO和二元生物玻璃70Si-30Ca的混合粉末制成,在1100ᵒ持续2小时。XRD结果证实在使用7wt%的情况下存在透辉石和硅灰石CaSiO3MgO,而结构在15wt.%MgO下完全透辉石。研究了唾液的物理性能、抗压强度和硬度,并检测了唾液的生物降解行为和生物活性。结果证实,随着MgO的增加,力学性能得到了改善,并证明了当暴露于人类唾液时,在表面形成羟基磷灰石的能力。这些发现证明了MgO在70Si-30Ca生物活性玻璃的力学性能中的积极作用,同时也证明了透辉石是硬组织工程的良好候选者。
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CiteScore
1.40
自引率
14.30%
发文量
73
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