| Abstract Scope |
Magnesium alloys are considered a “smart” biodegradable and outstanding temporary implant material due to their natural degradability, optimal mechanical properties, and biocompatibility. However, enhancing their corrosion resistance and fatigue life is of utmost importance as the rapid deterioration of magnesium alloys leads to loss of mechanical integrity and hydrogen evolution, resulting in constrained use. In this study, we characterize ZX10 alloy, a potential implant material composed of a dilute magnesium alloy containing biocompatible zinc, calcium, and manganese, which can contribute to various metabolic processes. We use a range of characterization tools, including optical microscopy, X-ray diffraction, and SEM, to evaluate the effects of grain size and precipitates on the mechanical and biocorrosion properties of extruded, ECAE-processed, and heat-treated ZX10 samples. |