Biodegradable magnesium (Mg) alloys exhibit excellent biocompatibility, adequate
mechanical properties, and osteogenic effect. They can contribute to complete recovery of …

Bone implant design faces multifaceted challenges, requiring the simultaneous optimization
of hierarchical porous structures, large surface areas, and appropriate elastic moduli. Triply …

Reconstruction of subarticular bone defects is an intractable challenge in orthopedics. The
simultaneous repair of cancellous defects, fractures, and cartilage damage is an ideal …

Magnesium alloys have great potential for medical applications. However, their rapid
degradation has limited their development. Hydrogen-free DLC coatings were deposited on …

Abstract The thin-wall Mg-3.82 Y-2.46 Nd-0.56 Zr (WE43) alloy component was fabricated
using cold metal transfer-based wire arc additive manufacturing technology (WAAM-CMT) …

The traditional WE43 magnesium alloy (WE43-Mg) manufacturing process faces challenges
in producing large and complex structures. The cold metal transfer wire arc additive …

Magnesium (Mg) alloys have gained significant attention as a desirable choice of
biodegradable implant for use in bone repair applications, largely owing to their unique …

Laser powder bed fusion (L-PBF) has been used to fabricate biodegradable Mg implants of
WE43 alloy, but the degradation is too fast compared with the term bone reconstruction …

A hexagonal close-packed-structure WE43 alloy was extruded without any preheating of the
initial billet using extrusion with an oscillating die to improve the corrosion and mechanical …

Magnesium (Mg) alloys have gained recognition as revolutionary biomaterials, owing to
their inherent degradability, favorable biocompatibility and mechanical properties. Additive …