Magnesium alloy has become one of the third-generation biomedical materials to promote
bone tissue regeneration. Compared to other metal implants, magnesium metal is …

The present study aims to collect data, compare results and assess techniques used for
improving corrosion resistance and mechanical properties of biodegradable Mg alloys for …

Mg-based alloys as revolutionary implantable biomaterials have increasingly attracted
considerable attention, owing to their biodegradability in vivo and beneficial effects on …

Material degradation is accompanied by the changes in surface structure, morphology, and
composition. These changes can be recorded by a variety of image acquisition devices that …

The biocorrosion of magnesium in the external physiological environment is still difficult to
accurately evaluate the degradation behavior in vivo, particularly, in the microenvironment of …

Magnesium implants have received widespread attention in orthopaedic surgery. However,
the mechanical degradation and concurrent inflammation caused by the rapid corrosion of …

The regeneration of healthy and functional skeletal muscle at sites of injuries and defects
remains a challenge. Mimicking the natural environment surrounding skeletal muscle cells …

1 Skeletal muscle, comprising approximately 45-50% of body mass, constitutes a complex
and heterogeneous organ with central roles in providing support and generating locomotion …

The subject of Mg-based biodegradable materials, used for medical applications, has been
extensively studied throughout the years. It is a known fact that alloying Mg with …

This study was conducted to investigate the effects of magnesium (Mg) supplementation on
the growth performance, muscle fiber development and flesh quality of Megalobrama …