Magnesium (Mg) alloys have attracted a wealth of attention in orthopedic fields for their
superior mechanical properties, degradability, and excellent biocompatibility. Consistently …

Biodegradable metals are promising candidates for bone defect repair. With an evidence-
based approach, this study investigated and analyzed the performance and degradation …

Bone and joint-related infections remain the primary and most critical complications of
orthopedic surgery. We have innovatively prepared Zn-Cu alloys to achieve outstanding …

Zinc (Zn) and its alloys have recently gained research interest due to their good biosafety,
biological function, biodegradability, and formability. Zinc‐phosphate (ZnP) coating has …

The most critical factor determining the success of biodegradable bone implants is the host
tissue response, which greatly depends on their degradation behaviors. Here, a new …

Repair of large bone defects caused by trauma or disease poses significant clinical
challenges. Extensive research has focused on metallic materials for bone repair because of …

The rapid degradation of magnesium (Mg)-based implants in physiological environment
limits its clinical applications, and alloying treatment is an effective way to regulate the …

Magnesium (Mg) and its alloys have attracted increasing attention in recent years as
medical implants for repairing musculoskeletal injuries because of their promising …

In recent years, pure iron (Fe) has attracted significant attention as a promising
biodegradable orthopedic implant material due to its excellent mechanical and biological …

Magnesium–zinc–calcium (Mg–Zn–Ca) alloys have attracted increasing attention for
biomedical implant applications, especially for bone repair, because of their biocompatibility …