Biodegradable Magnesium (Mg) implants are promising alternatives to permanent metallic
prosthesis. To improve the biocompatibility and with the aim of degradation control, we …

The biodegradable metals, including magnesium (Mg), are a convenient alternative to
permanent metals but fast uncontrolled corrosion limited wide clinical application. Formation …

The rapid degradation of magnesium-based implants in physiological environments in vivo
not only will quickly deteriorate their mechanical strengths but will also lead to a severe …

Magnesium‐based implants present several advantages for clinical applications, in
particular due to their biocompatibility and degradability. However, degradation products …

With recent progress in clinical trials and scale-up applications of biodegradable
magnesium-based implants, the scenarios of transplanting biodegradable Mg with other non …

Permanently implanted biomaterials may cause problems to the host body associated with
long term chronic inflammation which would eventually require revision surgery. The …

Magnesium (Mg) and its alloys are prospective biodegradable metallic implant materials.
This research focuses on addressing the high corrosion rate of Magnesium (Mg) and WE54 …

Clinical utility of biodegradable magnesium implants is undermined by the untimely
degradation of these materials in vivo. Their high corrosion rate leads to loss of mechanical …

Recently, developing bioactive and biocompatible materials based on Mg and Mg-alloys for
implant applications has drawn attention among researchers owing to their suitable body …

Background: Magnesium and its alloys feature low density, high specific strength, and
biodegradability. However, latent toxic effects, relative poor biocompatibility, and rapid …