Materials such as Magnesium, Chromium, Nickel, and Titanium are finding roots in the development of materials for both domestic and industrial applications. Magnesium has been extensively investigated for its electrochemical corrosion behavior in diverse applications, particularly within the biomaterials field, where it is second only to titanium in popularity. The adoption of this material in the medical field and related environment advances the development and utilisation of the material. This work examines the behavior of Mg–Zr/Ti/Ni/Cr phases across varying compositional levels to optimize both mechanical performance and electrochemical stability. The material development strategy integrates Thermo-Calc and high-entropy alloy design software with systematic experimental fabrication and comprehensive characterization, ensuring a robust link between computational predictions and practical outcomes. The impact of titanium introduction to this alloy is examined. This area is the grey area between the health sector and the engineering field.
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