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Effect of yttria on thermal stability, mechanical and in vitro bioactivity properties of hydroxyapatite/alumina composite

Serdar PAZARLIOĞLU|Serdar SALMAN
청정에너지연구소 (Clean-Energy Research Institute)|2019.07|Journal of Ceramic Processing Research|제20권 제1호|pp. 99-112|DOI 10.36410/jcpr.2019.20.1.99

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키워드

HydroxyapatiteSinteringAluminaYttria
주제분류재료공학

초록

The phase stability, mechanical and in vitro bioactivity properties of hydroxyapatite/alumina composite with and withoutyttria were investigated. Hydroxyapatite without additives decomposed at 1300 oC to beta- and alpha-tricalcium phosphateand calcium oxide phases. Although alumina contributed to the mechanical properties of hydroxyapatite, it not only decreasedthe decomposition temperature of hydroxyapatite from 1200 oC to 900 oC and it’s in vitro bioactivity property but alsoincreased the decomposition ratio of hydroxyapatite. An improvement in the properties of hydroxyapatite/alumina compositewas provided by yttria via inhibiting the solid-state reactions between hydroxyapatite and alumina via the formation of yttriumaluminum oxide and calcium yttrium trialuminum oxide phases. The maximum fracture toughness of 2.178 ± 0.251 MPam1/2,microhardness of 4.947 ± 0.191 GPa, a compressive strength of 227.75 ± 27.87 MPa, and a three-point bending strength of90.15 ± 6.93 MPa were achieved for hydroxyapatite/alumina composite containing 1.5 wt% yttria at the sintering temperatureof 1200 oC. The relative density of 92.94 ± 0.11% was also attained. This ternary composite can potentially be used in thehuman body for load-bearing applications because of its sufficient mechanical and in vitro bioactivity properties with adecomposition ratio of 9.4%.

Abstract

The phase stability, mechanical and in vitro bioactivity properties of hydroxyapatite/alumina composite with and withoutyttria were investigated. Hydroxyapatite without additives decomposed at 1300 oC to beta- and alpha-tricalcium phosphateand calcium oxide phases. Although alumina contributed to the mechanical properties of hydroxyapatite, it not only decreasedthe decomposition temperature of hydroxyapatite from 1200 oC to 900 oC and it’s in vitro bioactivity property but alsoincreased the decomposition ratio of hydroxyapatite. An improvement in the properties of hydroxyapatite/alumina compositewas provided by yttria via inhibiting the solid-state reactions between hydroxyapatite and alumina via the formation of yttriumaluminum oxide and calcium yttrium trialuminum oxide phases. The maximum fracture toughness of 2.178 ± 0.251 MPam1/2,microhardness of 4.947 ± 0.191 GPa, a compressive strength of 227.75 ± 27.87 MPa, and a three-point bending strength of90.15 ± 6.93 MPa were achieved for hydroxyapatite/alumina composite containing 1.5 wt% yttria at the sintering temperatureof 1200 oC. The relative density of 92.94 ± 0.11% was also attained. This ternary composite can potentially be used in thehuman body for load-bearing applications because of its sufficient mechanical and in vitro bioactivity properties with adecomposition ratio of 9.4%.

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