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Low volume fraction silica nanoparticulate-containing magnesium composites targeting structural and biomedical applications were synthesized using the blend–press–sinter powder metallurgy technique followed by hot extrusion, and subsequently characterized for their microstructural, mechanical and damping properties. The results of microstructural characterization revealed a maximum ∼32% reduction in grain size with 2 vol.% addition of SiO 2  nanoparticulates. The compressive properties of pure magnesium increased with the addition of SiO 2  nanoparticulates with Mg-2 vol.% SiO 2  nanocomposite exhibiting the maximum 0.2% compressive yield strength and compressive fracture strain. The addition of SiO 2  nanoparticulates enhanced the damping characteristics of pure magnesium with Mg-2 vol.% SiO 2  nanocomposite exhibiting the maximum damping capacity and damping loss rate with a minimum change in elastic modulus which is favorable when targeting magnesium for biomedical applications. An attempt has also been made in this study to compare the biomechanical properties of synthesized Mg–SiO 2  nanocomposites with those of natural bone.

Enhancing the hardness/compression/damping response of magnesium by reinforcing with biocompatible silica nanoparticulates