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MECHANICAL PROPERTIES OF MICROWAVE SINTERED 60YSZ-Al_2O_3/10HAP BIOCERAMICS COMPOSITES

机译:微波烧结60SYSZ-AL_2O_3 / 10HAP Bioceramics复合材料的机械性能

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Microwave heating technology promising shorter processing times and less energy consumption beneficial for economic perspective with improved properties and better microstructural control. This study focussed on microwave sintered bioceramics material of 60YSZ-Al_2O_3/10HAP mixture fabricated by powder metallurgy route. The study was conducted based on three different sintering temperatures, starting with 900°C, 1000°C ended with 1100°C. Mechanical properties of materials such as porosity, density, hardness and compressive strength were then determined for each composites. Results showed that lowest porosity was obtained at 1000°C which promoting to higher density, hardness and compressive strength. However, the increasing sintering temperature up to 1100°C was initiated the decomposition of HAP and constitutes the formation of CaZrO_3 determined by X-ray Diffraction (XRD) analysis. Microstructure characterization by Scanning Electron Microscope (SEM) observed the growth of large particles and pores result in excessive grain coarsening. Better sinterability was achieved through an adequate sintering temperature of 1000°C with no reaction reported between HA and ZrO_2 during the sintering process facilitate by microwave hybrid heating. The pores was found to be interconnected for each composites via microwave heating expected to be useful for biomedical application which was favorable to osteo-integration.
机译:微波加热技术有希望的加工时间较短,能源消耗较少有利于具有改进的性能和更好的微观结构控制的经济观点。本研究侧重于粉末冶金途径制造的60苏斯-AL_2O_3 / 10HAP混合物的微波烧结生物陶瓷材料。基于三种不同的烧结温度进行该研究,从900℃,1000℃以1100℃结合起来。然后测定每个复合材料,然后测定诸如孔隙率,密度,硬度和抗压强度的材料的机械性能。结果表明,在1000℃下获得最低孔隙率,促进更高的密度,硬度和抗压强度。然而,启动了高达1100℃的烧结温度的增加,并使Hap的分解并构成通过X射线衍射(XRD)分析确定的Cazro_3的形成。扫描电子显微镜(SEM)的微观结构表征观察到大颗粒和孔的生长导致过量的晶粒粗化。通过足够的烧结温度通过1000℃的足够烧结温度实现更好的烧结性,在烧结过程中,通过微波杂化加热促进烧结过程之间没有反应。发现孔被通过微波加热对每个复合材料互连,该复合材料预期可用于生物医学应用,这些应用是有利的,这是对骨溶骨的整合。

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