Phase transformations, microstructure formation and in vitro osteoblast response in calcium silicate/brushite cement composites

Self-setting simple calcium silicate/brushite (B) biocements with various Ca/P ratios were prepared by mutual mixing of both monocalcium silicate hydrate (CSH) or β-wollastonite (woll) powders with B and the addition of 2 wt% NaH2PO4 solution as a hardening liquid. The phase composition of the final...

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Veröffentlicht in:Biomedical materials (Bristol) 2016-08, Vol.11 (4), p.045013-045013
Hauptverfasser: Sopcak, T, Medvecky, L, Giretova, M, Kovalcikova, A, Stulajterova, R, Durisin, J
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container_title Biomedical materials (Bristol)
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creator Sopcak, T
Medvecky, L
Giretova, M
Kovalcikova, A
Stulajterova, R
Durisin, J
description Self-setting simple calcium silicate/brushite (B) biocements with various Ca/P ratios were prepared by mutual mixing of both monocalcium silicate hydrate (CSH) or β-wollastonite (woll) powders with B and the addition of 2 wt% NaH2PO4 solution as a hardening liquid. The phase composition of the final composites and the texture of the surface calcium phosphate/silica layer were controlled by the starting Ca/P ratio in composites and the pH during setting. It was verified that the presence of continuous bone-like calcium phosphate coating on the surface of the samples was not essential for in vitro osteoblast proliferation. The nanocrystalline calcium deficient hydroxyapatite and amorphous silica were found as the main setting products in composite mixtures with a Ca/P ratio close to the region of the formation of deficient hydroxyapatite-like calcium phosphates. No CSH phase with a lower Ca/Si ratio was identified after transformation. The results confirmed a small effect of the monocalcium silicate addition on the compressive strength (CS) of cements up to 30 wt% (around 20-25 MPa) and a significant rise of the value in 50 woll/B cement (65 MPa). The final setting times of the cement composites varied between 5 and 43 min depending on the P/L ratio and the type of monocalcium silicate phase in the cement mixture. 10CSH/B and 50 woll/B cements with different textures but free of both the needle-like and perpendicularly-oriented hydroxyapatite particles on the surface of the samples had low cytotoxicity.
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subjects 3T3 Cells
Animals
Bone Cements - chemistry
brushite
Calcium Compounds - chemistry
calcium phosphate/silicate cement
Calcium Phosphates - chemistry
Cell Proliferation
Compressive Strength
Hydrogen-Ion Concentration
Materials Testing
Mice
osteoblast response
Osteoblasts - cytology
Osteoblasts - drug effects
Porosity
Powders
self setting properties
Silicates - chemistry
Spectroscopy, Fourier Transform Infrared
Surface Properties
surface texture
X-Ray Diffraction
title Phase transformations, microstructure formation and in vitro osteoblast response in calcium silicate/brushite cement composites
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