4.7 Article

On the mechanism of apatite-induced precipitation on 45S5 glass pellets coated with a natural-derived polymer

Journal

APPLIED SURFACE SCIENCE
Volume 353, Issue -, Pages 137-149

Publisher

ELSEVIER
DOI: 10.1016/j.apsusc.2015.06.088

Keywords

Melanin; Bioglass (R); Bioactivity; Biopolymer; Dip-coating

Funding

  1. European Union's Seventh Framework Programme

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In this work, the bioactive glass 45S5 (also known by its commercial name Bioglass (R)) was successfully dipcoated by a natural derived biopolymer, increasing its apatite-forming ability. The biopolymer was shown to accelerate the first stages of bioactivity, inducing a fast transition to step 4 (formation of amorphous Ca-P layer) in the apatite-forming ability mechanism. The faster precipitation of Ca/P crystals in the coated samples resulted in the formation of an intermediate amorphous octacalcium phosphate, which later transforms into an apatite layer with high thickness. The effect of the thickness of the coating was also studied on samples coated with polymer suspensions of different concentrations (0.15% and 1.5%, w/v), revealing that the kinetics of formation of the final hydroxycarbonate apatite layer increases with the thickness of the coating. The mechanism by which this apatite-forming ability is accelerated was also investigated, revealing that certain functional groups present in the structure of the polymer allow it to act as an organic matrix and preferential nucleation site for the growth of the hydroxycarbonate apatite layer. (C) 2015 Elsevier B.V. All rights reserved.

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