沃顿凝胶-生物陶瓷-生物玻璃复合材料的骨再生☆

C.A. Fernández , C.A. Martínez , M.O. Prado , D. Olmedo , A. Ozols
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引用次数: 8

摘要

本研究的目的是优化骨替代物(BS)用于组织工程。这是通过生物复合材料(BCO)的三个阶段的结合来实现的,其中每个阶段在植入部位被重新吸收,并被自体骨(患者自己的)取代。无机相由含40% (wt.) β-磷酸三钙(β- TCP,化学合成)的羟基磷灰石双相生物陶瓷(BC)和45S5型生物玻璃(45SiO2 - 24,5cao - 24,5na2o - 6P2O5, % wt.)的研磨和筛分得到的不规则颗粒(150-300微米)组成。相反,有机阶段由从沃顿果冻(人类胚胎组织的一部分)中提取的胶原蛋白组成,这些胶原蛋白是通过物理和化学自行开发的过程提取的。BC是由HA和β-TCP (<45 μm),在水溶液中用白蛋白凝胶浇铸成型,在1200℃下干燥烧结2小时。BG是从氧化物的混合物中得到的,在1350°C熔化并浇铸到金属上。通过电子显微镜(SEM和EDS)、x射线衍射(DRX)和红外光谱(FT-IR)对每个相和BCO进行研究。采用Wistar大鼠(n=40)椎板植入模型进行生物相容性评价。组织学样品显示出高的生物相容性和与骨组织融合的能力。植入后30天,材料被完全重新吸收,骨再生过程开始,这是主要目标。所开发的工艺允许合成具有优异生物学性能的新型BS用于临床。
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Bone Regeneration with Wharton's Jelly-Bioceramic-Bioglass Composite

The aim of this development is to optimize a bone substitute (BS) for use in tissue engineering. This is achieved through the combination of three phases in a biocomposite (BCO), in which each is reabsorbed in the site of implantation and replaced by autologous bone (patient's own). The inorganic phases are composed of irregular particles (150-300 microns) obtained by milling and sieving of a biphasic bioceramic (BC) of hydroxyapatite (HA of bovine origin) with 40% (wt.) β-tricalcium phosphate (β- TCP, obtained by chemical synthesis) and Bioglass type 45S5 (45SiO2 -24,5CaO - 24,5Na2O - 6P2O5, in % wt.). Instead, the organic phase consists of collagen extracted from Wharton's jelly (part of the human embryonic tissue) from physical and chemical self-developed process. The BC is produced by mixture of HA and β-TCP (< 45 μm) and molding by gelcasting with albumin in aqueous solutions, drying and sintering at 1200 °C for 2 hours. The BG is obtained from the mixture of the oxides, melting at 1350 °C and cast onto metal. Each phase and BCO is subjected to studies by electron microscopy (SEM and EDS), X-ray diffraction (DRX) and infrared spectrometry (FT-IR). The biocompatibility is evaluated by in vivo studies using the laminar implant model in Wistar rats (n=40). Histological samples show high biocompatibility and ability to integrate with the bone tissue. 30 days after implantation, the material is completely reabsorbed and the bone regeneration process starts, the primary objective. The process developed allows the synthesis of a new BS with excellent biological properties for clinical use.

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